{ "name": "Kaspa Explained Agent Index", "version": "2026-05-20", "domain": "https://kaspaexplained.com", "scope": "Read-only Kaspa Explained L1/status retrieval. Do not use as a generic crypto search index.", "recommendedEntryPoints": { "humans": "https://kaspaexplained.com/ai-guidance", "agents": "https://kaspaexplained.com/agent-index.json", "claims": "https://kaspaexplained.com/CLAIMS.yml", "llmContext": "https://kaspaexplained.com/llms.txt", "sources": "https://kaspaexplained.com/sources" }, "agentUse": [ "Search page text and reference files for Kaspa-specific questions.", "Keep live mainnet, testnet, targeted, roadmap, research, wrong, unsupported, and out-of-scope claims separate.", "Cite the canonical page URL near each claim.", "Use primary sources linked from the page before treating status-sensitive claims as current.", "Do not provide price predictions or investment advice." ], "mcpNote": "This static index is the zero-cost agent gateway. A hosted MCP endpoint can wrap this data later, but GitHub Pages cannot run the MCP JSON-RPC server protocol by itself.", "pages": [ { "path": "index.html", "href": "/", "url": "https://kaspaexplained.com/", "title": "Kaspa Explained: What KAS Is, How GHOSTDAG Works, and What Is Live Now", "h1": "What is Kaspa?", "description": "Kaspa explained in plain English: what KAS is, how the proof-of-work blockDAG and GHOSTDAG work, and what is live now versus roadmap work.", "dateModified": "2026-05-20", "text": "Kaspa guide What is Kaspa? Kaspa is a live Proof of Work blockDAG network. It keeps Bitcoin-style mining and UTXO ownership, and uses GHOSTDAG to order parallel blocks into one payment history. This site tracks what Kaspa does today, what upgrades are being worked on, and which public claims need checking. 01 90-second overview Fastest honest first read. 02 Check a claim Live, testnet, targeted, roadmap, research. 03 Is Toccata live? TN10/TN12 evidence and mainnet boundary. Start with 90 seconds Check what is live Check a claim Is Toccata live? Structure Parallel work stays visible Rule GHOSTDAG orders history Boundary Fast inclusion, not instant finality Choose your path Start where your question starts. Use one route at a time: beginner basics, short Kaspa answer, claim check, skeptical review, builder work, or source-backed writing. I know nothing Begin from records and keys Start Here, Crypto From Zero, value, then Kaspa. I know crypto Get Kaspa fast Overview, One Screen, What Is Kaspa, Status. I am checking a claim Label it before quoting it Claims Checker, Status, Sources, AI Guidance. I am skeptical Read what could break Good objections, adoption metrics, and reality checks. I want to build Start with what works now Receipts, command-line checks, node/API reads, TN12 practice. I am writing or using AI Keep the claim narrow AI Guidance, Claims Reference, Sources, llms.txt. BlockDAG model Compare the chain and the graph. A simplified model of one selected chain versus a graph that can include parallel blocks before ordering them. Current view Kaspa blockDAG Choose the view Single chain BlockDAG Higher load Reader mode Plain Bitcoin user Builder Kaspa blockDAG Kaspa keeps more honest work in the graph. GHOSTDAG gives nodes a rule for turning that graph into one ordered payment history. Model Simulated Mainnet 10 BPS era Boundary Fast inclusion, not instant finality Network readout Current network snapshot. Live API readout for orientation. Use a node, explorer, source, or proof path for stronger verification. If the live readout stalls, treat the cards below as temporarily unavailable and use Status and Sources for durable claims. Loading Circulating supply Loading Reported by `api.kaspa.org/info/coinsupply`. Mined Loading Circulating supply divided by max supply. DAG blocks Loading Current blockDAG count from the network readout. DAA score Loading Kaspa's ordering-height style progress marker. Origin proof Kaspa.org publishes the fair-launch proof path: empty genesis UTXO set, Bitcoin timestamp anchors, checkpoint linkage, and scheduled emission after the Nov. 22, 2021 checkpoint. Verify on Kaspa.org Run the proof REST API docs DAGVIZ Waiting for live data. Status Live, testnet, roadmap, research. Check whether the claim is live mainnet, testnet evidence, roadmap, or research before repeating it. Live 10 BPS PoW blockDAG Mining, UTXO ownership, GHOSTDAG, wallets, nodes, explorers. Testnet TN10/TN12 evidence Useful rehearsal evidence, not mainnet activation. Targeted Toccata work TN10/TN12 evidence, mainnet still pending. Roadmap Apps that prove rules Richer app state, based apps, later vProgs, stronger shared ordering. Risk Execution still matters Liquidity, node cost, mining concentration, fee demand, useful apps. Build path What can be built now? Money movement is live. Receipts and source-verifiable reads can be built today. Covenant rules and richer proof-based apps need more activation evidence. Now Move and inspect money Wallets, payments, receipts, exchange flows, mining/node visibility, and better confirmation-risk UX. Now Verify receipts Apps can show txid, amount, address, accepted status, source, timestamp, and fallback verification links. Toccata work Enforce spending rules Vault limits, delays, escrow, assurance contracts, asset rules, and bounded UTXO state machines need activation evidence. Later Prove richer app logic Markets, lending, funding rules, attestations, and shared commitments need stronger app-state, custody, oracle, and proof paths. Build this now Builder guide Transaction path Wallet to confirmation. A transaction is created, broadcast, mined, ordered, then gains confirmation confidence. 1 Create Wallet prepares inputs, outputs, amount, and fee. 2 Broadcast The transaction reaches nodes and miners. 3 Mine A miner includes it in a proof-of-work block. 4 Order The block joins the DAG and GHOSTDAG orders history. 5 Confirm Confidence increases. It is fast, not instantly irreversible. Next. Use the claim checker for arguments, Toccata status for upgrade claims, the skeptical case for fair objections, and command line for node/API checks. Claims checker Toccata status May status check Status updates Skeptical case Verify yourself" }, { "path": "start-here.html", "href": "/start-here", "url": "https://kaspaexplained.com/start-here", "title": "Start Here | Kaspa Explained", "h1": "Start with the problem, not the jargon.", "description": "A beginner-first start page for Kaspa Explained: learn crypto from zero, then understand coins, market value, tradeoffs, and where Kaspa fits.", "dateModified": "2026-05-20", "text": "Start here Start with the problem, not the jargon. Crypto is easier when every mechanism answers one question: what breaks if one trusted operator is removed? This path starts with records, then moves to keys, transactions, blocks, consensus, incentives, markets, coin categories, tradeoffs, and finally Kaspa. Kaspa mental model parallel blocks, one spend history Do not picture a normal slow line of blocks. Picture mined blocks that can appear in parallel and still be ordered into shared history. 1 · Problem What is Kaspa trying to solve? Start with the compressed thesis: fast mined ordering without turning into one operator's database. 2 · Live status What is actually live? Separate mainnet behavior from testnet proofs, roadmap, research, and app claims outside L1 scope. 3 · Risk What could go wrong? Read the strongest objections: node pressure, security budget, liquidity, mining concentration, tooling fragility, and roadmap execution. I know nothing Crypto from zero. Begin with digital records, keys, transactions, blocks, consensus, tokens, and tradeoffs. I see hundreds of coins Why so many coins exist. Separate Bitcoin-like money, smart-contract platforms, stablecoins, exchange tokens, privacy coins, memes, DeFi, and infrastructure. I want value explained Why crypto has prices. Learn token need, market cap, liquidity, security budget, speculation, launch design, and why price is not proof. I want the constraints The tradeoff map. See why speed, privacy, decentralization, security, funding, open markets, and node requirements pull against each other. I want examples Coin atlas. Understand BTC, ETH, SOL, XRP, BNB, stablecoins, LTC, BCH, XMR, DOGE, LINK, and KAS by category. I want a checklist Analyze any coin. Ask whether the token needs to exist, who got supply first, who secures it, what can fail, and who benefits. The beginner promise What each page is for. Problem What breaks in a normal digital system? Copying, double-spending, operator control, spam, censorship, privacy leakage, or coordination failure. Mechanism What tool answers the problem? Keys, signatures, transactions, blocks, consensus, mining, staking, fees, tokens, or markets. Tradeoff What cost appears? Hardware, latency, complexity, user responsibility, public data, volatility, centralization pressure, or funding problems. Kaspa Only after the general mechanism is clear, ask where Kaspa fits: PoW, UTXO, blockDAG, GHOSTDAG, fair launch, and the app work still being built. Best route Beginner reading order. Digital ownership is hard. Digital information copies easily, so a scarce digital asset needs rules for uniqueness and spending. Records need an accepted authority. A bank, platform, exchange, or public network must decide which updates count. Crypto removes the easy operator. That creates new problems: keys, validation, ordering, spam, incentives, security, privacy, scaling, and governance. Consensus is the shared-history problem. Independent computers need one accepted state even when messages arrive in different orders. Tokens are part of the incentive system. They can track value, pay fees, reward miners or validators, fund security, and attract speculation. Coins differ because problems differ. Bitcoin, Ethereum, stablecoins, Solana, BNB, XRP, Monero, Dogecoin, Chainlink, and Kaspa are not the same kind of thing. Kaspa is the destination here. Kaspa is one answer to the question: can a mined shared record feel closer to real time without becoming a normal centralized database? Quick corrections Common beginner mistakes. A coin is not automatically cheap because the unit price is low. Supply matters. Market cap, float, liquidity, access, adoption, and demand carry more signal than the price of one unit. Fast is not the same as final. Inclusion, confirmation, finality, throughput, and wallet UX are different layers of speed. Decentralized does not mean no one has influence. Mining, staking, nodes, developers, exchanges, wallets, foundations, RPC providers, and market makers can each create concentration points. Crypto is not one market. Stablecoins, smart-contract platforms, exchange tokens, privacy coins, meme coins, governance tokens, and PoW money assets are different instruments. Next step Start the path. Begin with digital records and why a public network needs cryptography, consensus, incentives, and tradeoffs before Kaspa appears. Open Crypto From Zero" }, { "path": "what-is-kaspa.html", "href": "/what-is-kaspa", "url": "https://kaspaexplained.com/what-is-kaspa", "title": "What Is Kaspa? Proof-of-Work blockDAG Explained | Kaspa Explained", "h1": "What is Kaspa?", "description": "What is Kaspa? A plain guide to KAS, Proof of Work, blockDAGs, GHOSTDAG, 10 BPS, and what is live now versus roadmap work.", "dateModified": "2026-05-20", "text": "Beginner answer What is Kaspa? Kaspa is a live proof-of-work blockDAG network. It keeps Bitcoin-style mining and UTXO ownership, and uses GHOSTDAG to order parallel blocks into one payment history. Citable summary: Kaspa is a mined UTXO blockDAG where GHOSTDAG turns parallel proof-of-work blocks into one ordered payment history. Last checked May 20, 2026 for the live-versus-roadmap boundary. Plain model The simple picture. Coin KAS is the native coin people send, receive, mine, and pay fees with. Security Kaspa uses Proof of Work. Miners spend energy and hardware work to create blocks. Ownership Kaspa uses UTXOs, meaning wallets spend specific outputs instead of editing a global account balance. Shape Kaspa uses a blockDAG, so honest blocks found close together can stay visible in the graph. Ordering GHOSTDAG gives nodes the rule for ordering that graph into one shared payment history. Status The live network is in the 10 BPS Crescendo era. Future app and consensus work needs separate status labels. Status boundary What is live, and what is not live? Claim Status Safer wording Kaspa is Proof of Work Live Kaspa is mined Proof of Work. Kaspa is 10 BPS Live Kaspa is in the Crescendo-era 10 BPS network. Kaspa has a July 2026 emission cliff Misleading Kaspa emission steps down monthly; July 2026 is one scheduled step, not a sudden cliff. Toccata has activated on mainnet Targeted Toccata is a targeted hard-fork track. TN10 passed its May 18 activation point, and a May 20 check still showed it past the activation score; both are testnet evidence, not mainnet activation. DAGKnight is current mainnet consensus Research DAGKnight is future consensus research and implementation work, not current mainnet behavior. Read next Where to go from here. Mechanism Understand GHOSTDAG. How the blockDAG becomes one ordered history. Origin Read the fair-launch story. Research, DAGLabs, failed launch paths, early stress, Rust, Crescendo, and Toccata boundaries. Payments Inclusion versus finality. Why fast blocks are not the same as instant irreversibility. Claims Check common claims. Live, testnet, targeted, roadmap, research, wrong, unsupported, or out of scope. Evidence Open the sources. Use code, releases, KIPs, docs, and research for status-sensitive claims." }, { "path": "crypto-from-zero.html", "href": "/crypto-from-zero", "url": "https://kaspaexplained.com/crypto-from-zero", "title": "Crypto From Zero | Kaspa Explained", "h1": "Crypto starts with shared records.", "description": "Crypto from zero: why digital ownership is hard, why records need rules, why keys, transactions, blocks, consensus, mining, staking, tokens, and tradeoffs exist.", "dateModified": "2026-05-16", "text": "Crypto from zero Crypto starts with shared records. Money, balances, tickets, game items, stablecoins, and crypto all depend on records. The hard question is who can update the record, who checks the update, and why everyone else should accept it. Crypto keeps one shared digital record without one trusted operator. That creates new problems around keys, consensus, incentives, markets, and group action. The ladder From zero to Kaspa. 1 Records Who owns what? Who paid whom? Which update happened first? 2 Keys A private key lets a user authorize updates without asking a platform login server. 3 Transactions A transaction is a signed instruction asking the shared record to change. 4 Blocks A block packages valid updates into a proposed piece of shared history. 5 Consensus Independent computers need rules for which history counts when updates conflict. 6 Incentives Unknown operators need reasons to follow rules and costs for attacking them. 7 Markets Tokens trade because users, miners, validators, investors, and apps need entry and exit. 8 Kaspa Kaspa keeps PoW and UTXO design, then uses a blockDAG to reduce the single-chain bottleneck. Layer 0 Why digital ownership is hard. Physical cash has location. If Alice hands Bob a banknote, Alice no longer has that same banknote. The physical object cannot be in both wallets at once. Digital data copies easily. A file can be copied. A database row can be edited. A screenshot can be duplicated. Digital money therefore needs rules that make one accepted ownership state hard to fake. Beginner line: Coins do not fly through the internet. A valid transaction changes an accepted record. Trusted operator Why a bank database is simpler. A normal system has an operator. A bank, exchange, payment app, game company, or platform runs the database and decides which updates count. This is efficient because one authority can fix mistakes, block fraud, reverse payments, close accounts, and coordinate upgrades. Operator model What it gives you What it can cost Bank or payment app Customer support, reversals, fraud handling, legal recourse. Account freezes, censorship, operating hours, jurisdiction limits, counterparty risk. Exchange or platform Fast internal balances and easy UX. Custody risk, hidden liabilities, withdrawal risk, policy changes. Public crypto network Rules can be checked by independent participants. More complexity, irreversible mistakes, public data, slower coordination. Why cryptography Crypto needs proof without a login desk. Private key The secret that controls spending authority. If someone steals it, the network cannot magically know they are not the owner. Public key or address A way for others to verify that a valid signature was produced without learning the private key. Signature Proof that the holder of the key authorized a transaction. This replaces usernames, passwords, and a central account admin at the protocol layer. Hash A fingerprint for data. Hashes let blocks link to prior history and make tampering detectable. What breaks without keys: the system needs a central login authority or real-world identity registry to decide who can update balances. Transactions and blocks Why transactions and blocks exist. Transaction A signed update request. It says, in effect: given the current rules, spend this value, create that new value, and pay this fee. Why it exists: the network needs a precise object to validate. Block A proposed batch of valid transactions linked to prior history. A block is a consensus object, not an ordinary network packet. Why it exists: the network needs a shared unit of history to accept or reject. Consensus Why records need agreement. A record only matters if other people accept it. If Alice can show Bob one ledger and Carol another, Alice can attempt a double-spend. Consensus exists because independent computers see messages in different orders and still need one accepted state. Which transaction came first? Which block counts? Was the same value spent twice? Did a miner or validator follow the rules? Can history be rewritten cheaply? Can users verify the supply? Security Security means the record resists lies. Attack Plain meaning Why users care Theft Spend value without the rightful key holder's consent. Ownership is meaningless if signatures can be forged or keys are stolen. Double-spend Try to spend the same value in two conflicting ways. Recipients need to know which payment counts. Rewrite Replace accepted history with a different history. Settlement needs confidence that old payments stay settled. Censorship Prevent valid transactions from entering history. Open access fails if a control point can cheaply block users. Hidden inflation Create value outside the rules. Supply rules matter only if users can independently reject invalid supply. Mining and staking Consensus has to cost something. Proof of Work PoW makes fake history expensive through external cost: hardware, electricity, time, operations, and competition. Miners propose blocks and earn rewards if their work becomes part of accepted history. Tradeoff: energy use, ASICs, mining pools, and industrial concentration pressure. Proof of Stake PoS makes fake history expensive through internal collateral: validators lock the native asset and can lose rewards or stake for bad behavior, depending on the design. Tradeoff: wealth concentration, delegation, staking-provider power, and more complex social recovery questions. Tokens Why public networks often use tokens. A permissionless network often needs an internal economic unit for value, fees, rewards, spam resistance, collateral, governance, or security budget. A project wanting a token is not enough. Object tracked The ledger records ownership of the asset itself. Fee asset Users pay for scarce block space and avoid free spam. Security reward Miners or validators are paid to operate and defend the system. Market entry Open markets let users, miners, validators, apps, and investors enter or exit without one issuer approving every participant. Simple check: many tokens do not need to exist. Ask what the token does that BTC, ETH, USDC, or a normal database cannot already do. UTXO and account models Two ways to track state. Account model Looks like a balance table. Alice has 10, sends 3, and now Alice has 7 while Bob has 3. This is intuitive and common for smart-contract platforms. Shared mutable state can become complex. UTXO model Looks more like cash notes. Alice spends a 10-coin output, Bob receives a 3-coin output, and Alice receives a 7-coin change output. The old output becomes spent, not spendable again. Kaspa, like Bitcoin, uses a UTXO model. That matters for validation, parallelism potential, and the shape of future programmability. UTXO intuition: the old output is consumed once. New outputs carry the next spendable state. Kaspa appears here Where Kaspa enters. Bitcoin-style chains usually choose one block path at a time. That conservative design makes high block rates difficult because honest blocks found in parallel can conflict. Kaspa tests whether a mined UTXO network can include more parallel honest work, order it with GHOSTDAG, and make payments feel closer to real time. Why Kaspa matters Where Kaspa fits What is live Next step Understand value and coin categories next. After the mechanics, the next beginner gap is why tokens have prices and why major coins are not all trying to be the same thing. Why crypto has value Open coin atlas" }, { "path": "why-crypto-has-value.html", "href": "/why-crypto-has-value", "url": "https://kaspaexplained.com/why-crypto-has-value", "title": "Why Crypto Has Value | Kaspa Explained", "h1": "Why crypto has value.", "description": "Why cryptoassets have prices: token need, market cap, liquidity, security budget, speculation, launch design, open markets, and why price is not proof.", "dateModified": "2026-05-16", "text": "Market value Why crypto has value. A token price is only a market signal. It can reflect real usage, scarce block space, security budget, liquidity, collateral demand, culture, narrative, leverage, or insider games. The hard part is separating mechanism from market theater. Native token Why a token may be necessary. Role Why it matters Beginner warning Thing being tracked The ledger defines and transfers the asset itself. A token can exist without being useful outside speculation. Fees Users pay for scarce block space and spam resistance. Low fees help UX but can weaken fee revenue or invite spam. Security budget Miners or validators need compensation for defending the record. Rewards may come from inflation, fees, or both. Collateral Some systems require staked tokens or bonded assets. Capital-based security can concentrate around large holders and custodians. Governance Some tokens vote on parameters, treasuries, or upgrades. Governance rights can be weak, captured, or mostly symbolic. Price Why cryptoassets get prices. Demand for use Users may need the asset for fees, settlement, staking, collateral, payments, DeFi, or app access. Monetary premium Markets may value credible scarcity, liquidity, durability, censorship resistance, and a strong social rule set. Security economics High rewards can support mining or staking security, but high market value also makes attacks and capture attempts more tempting. Speculation Markets trade future expectations, narrative, attention, leverage, and reflexivity. Price can rise because people expect price to rise. Core rule: a pump is not proof of adoption. A high market cap is not proof of usefulness. A technically serious project can still be overpriced. Market cap Market cap is not company value. Market cap is usually price multiplied by circulating supply. It does not mean that much cash entered the asset, it does not prove revenue, and it does not guarantee that holders could sell at that paper value. Price per coin is meaningless without supply. Circulating supply can differ from total supply. Low float can create inflated paper valuations. Volume can mean liquidity, hype, wash trading, or panic. Social dominance is attention, not fundamentals. Fully diluted value exposes future dilution risk. Kaspa/BTC example: one KAS can look cheap next to one BTC, but unit price is not the comparison. Compare market cap, liquidity, access, adoption, security history, and future execution risk. Open markets Open markets and their costs. Why markets help Miners and validators can sell rewards. Users can acquire the fee asset. Apps can price collateral and liquidity. Global participants can enter and exit without one issuer. Security budget gets a market signal. What markets break Pump-and-dumps become easy to coordinate. Insiders can use retail liquidity as exit liquidity. Leverage can force violent liquidations. Narrative can outrun working technology. Price can dominate the education layer. Ponzi or not Risk and fraud. A cryptoasset is not automatically a Ponzi because it trades in an open market and early buyers may profit. But a project becomes Ponzi-like or fraudulent when it promises returns, hides risk, pays fake yield from new inflows, manipulates supply, misleads buyers, or exists mainly for insiders to exit. Not enough to call fraud A volatile price, early gains, speculation, or no obvious consumer app. Serious red flags Guaranteed yield, hidden insiders, vague utility, unlock cliffs, fake partnerships, opaque reserves, and no working system. Price is not legitimacy A meme can reach large valuation through attention. A serious network can be ignored for years. Launch design Initial ownership matters. Launch model What it improves What it risks Fair launch / mined launch Lower official insider-allocation risk. No built-in treasury, early-miner advantage, harder funding. Premine Funds development, legal work, grants, audits, and integrations. Insider control, sell pressure, trust problems. Public sale or ICO Fast fundraising and broad early buyer base. Regulatory risk, hype buying, weak product discipline. VC allocation Professional funding and business support. Unlock overhang and retail exit-liquidity risk. Airdrop Rewards users and broadens distribution. Farming, sybil attacks, immediate sell pressure. Kaspa's fair-launch narrative reduces some allocation risks, but it does not remove funding, coordination, early-miner, liquidity, or ecosystem-development questions. Who is in the game Different actors value different things. Actor What they usually care about Users Useful payments, apps, custody, privacy, low fees, and safety. Traders Liquidity, volatility, momentum, listings, and narratives. Miners Rewards, fees, hardware efficiency, electricity cost, and mining difficulty. Validators and stakers Yield, uptime, slashing risk, delegation, and governance influence. Developers Useful tooling, grants, users, technical influence, and protocol stability. Exchanges and market makers Trading volume, custody, liquidity, spreads, and listing demand. Funds and insiders Entry price, liquidity, unlocks, exits, and narrative timing. Regulators Market integrity, tax, AML controls, disclosures, consumer risk, and systemic risk. Next step Now separate coin categories. BTC, ETH, USDT, XRP, BNB, SOL, DOGE, LINK, LTC, BCH, XMR, and KAS are not the same kind of asset. The coin atlas starts there. Open coin atlas" }, { "path": "why-are-there-so-many-coins.html", "href": "/why-are-there-so-many-coins", "url": "https://kaspaexplained.com/why-are-there-so-many-coins", "title": "Why Are There So Many Coins? | Kaspa Explained", "h1": "Why there are many coins.", "description": "Why there are so many crypto coins: different problems, trust models, tokens, markets, forks, stablecoins, exchange tokens, memes, privacy, DeFi, and Kaspa.", "dateModified": "2026-05-16", "text": "Coin categories Why there are many coins. Bitcoin tries to be scarce digital money. Ethereum tries to run programmable apps. Solana tries to make on-chain apps fast. Stablecoins put dollars on crypto networks. Monero prioritizes privacy. BNB is tied to an exchange and chain ecosystem. Meme coins turn attention into a market. Kaspa explores mined money that feels closer to real time. One list, many instruments Market tables mix categories. A crypto ranking page can place BTC, ETH, USDT, XRP, BNB, SOL, DOGE, LINK, LTC, BCH, XMR, wrapped assets, stablecoins, and meme tokens in one list. That makes them look comparable. They are not. Category Examples What it is selling Main risk Bitcoin-like money BTC, LTC, BCH, KAS Scarce transfer and settlement assets. Weak app demand, fee pressure, or lower security budget. Smart-contract platforms ETH, SOL, AVAX, SUI Programmable blockspace and app ecosystems. Scaling complexity, validator concentration, app speculation. Stablecoins USDT, USDC, DAI, PYUSD Dollar-like units on crypto networks. Issuer, reserve, depeg, censorship, and banking risk. Exchange tokens BNB, OKB, CRO, LEO Exchange ecosystem access, fees, burns, or chain gas. Company dependence and regulatory pressure. Payment and enterprise rails XRP, XLM, HBAR, XDC Fast settlement, enterprise rails, or tokenization narratives. Adoption may not require token appreciation. Privacy coins XMR, ZEC, DASH Financial privacy and fungibility. Heavier cryptography, regulation, and liquidity pressure. Meme coins Attention-driven assets Culture, attention, liquidity, and speculation. Narrative collapse and insider concentration. Infrastructure tokens LINK, PYTH, GRT, FIL Data, storage, indexing, or oracle services. Value capture may be unclear. Why new coins appear Different reasons coins exist. Different design answers PoW vs PoS, UTXO vs account model, privacy vs transparency, high-performance execution vs low node requirements, L1 vs L2. Different social goals Digital gold, peer-to-peer cash, private payments, DeFi apps, enterprise settlement, exchange ecosystems, games, identity, storage, or coordination. Forks and disagreements Communities split when they disagree about scaling, governance, monetary rules, or what the project is supposed to be. Speculation incentives Creating a token can attract liquidity and attention even when the token has weak necessity. Beginner frame Ask what the coin is trying to be. Money or settlement asset? App platform? Dollar token? Exchange ecosystem token? Privacy tool? Governance token? Infrastructure network? Attention market? Claim on an off-chain asset? Why value differs High or low market value can come from many causes. Why a coin may be highly valued Deep liquidity and exchange access. Clear monetary or utility narrative. Large developer or app ecosystem. Strong community and social consensus. Staking, fees, collateral, or security demand. Institutional familiarity or regulatory clarity. Speculative attention and leverage. Why good tech may stay low-valued Weak liquidity or exchange access. No simple narrative. Poor token value capture. Small developer ecosystem. Funding and business-development gaps. Bad timing, bad UX, or stronger competitors. Market does not understand the tradeoff yet. Next step Open the coin atlas. The atlas explains major coin families and why a normal person might see a huge valuation before seeing obvious everyday use. Open coin atlas" }, { "path": "coin-atlas.html", "href": "/coin-atlas", "url": "https://kaspaexplained.com/coin-atlas", "title": "Coin Atlas | Kaspa Explained", "h1": "Major coins by job.", "description": "A beginner coin atlas: Bitcoin, Ethereum, stablecoins, Solana, BNB, XRP, Litecoin, Bitcoin Cash, Monero, Dogecoin, Chainlink, and Kaspa by category and tradeoff.", "dateModified": "2026-05-16", "text": "Coin atlas Major coins by job. A market table mixes different things: scarce money, app execution, dollar claims, exchange tokens, privacy, data, liquidity, culture, and future plans. Why so many coins? Analyze any coin Value stack What each coin mostly offers. Asset or category What it tries to be Why markets may value it Main limitation Bitcoin Scarce neutral money and final-record asset. Liquidity, history, PoW security, fixed-supply culture, social consensus. Slow base layer, limited app rules, fee pressure, no privacy by default. Ethereum Programmable app and final-record platform. DeFi, stablecoins, developer network, gas, staking, L2 settlement. Complex roadmap, L2 fragmentation, MEV, staking concentration risk. Stablecoins Dollar-like units on crypto networks. Trading liquidity, payments, DeFi collateral, cross-border dollar access. Issuer, reserve, censorship, depeg, and banking risk. Solana High-speed smart-contract platform. Fast UX, low fees, apps, DEX activity, retail culture, developer attention. Performance can increase hardware and coordination pressure. BNB Exchange-linked ecosystem asset. Exchange user base, chain gas, burns, incentives, liquidity. Company and regulatory dependence. XRP Payment rail asset. Long history, liquidity, community, fast ledger settlement, enterprise narrative. Token demand can be separate from enterprise software adoption. Litecoin Legacy Bitcoin-like payment coin. Age, liquidity, simple design, faster blocks than Bitcoin, broad exchange support. Less differentiated in a world with stablecoins, L2s, and many fast chains. Bitcoin Cash Bigger-block peer-to-peer cash branch. Bitcoin lineage, low-fee on-chain payment philosophy, committed community. Weaker network effect and security budget than BTC. Monero Privacy-first payment network. Fungibility, censorship resistance, real privacy demand, ideological commitment. Regulatory pressure, exchange delistings, heavier data and verification tradeoffs. Dogecoin and memes Attention and community markets. Culture, liquidity, virality, exchange access, speculative Schelling point. Weak technical necessity and extreme narrative risk. Chainlink and oracles Data infrastructure for smart contracts. DeFi dependency, price feeds, integrations, infrastructure network effects. Token value capture and oracle centralization questions. Kaspa Fast Proof-of-Work UTXO blockDAG. PoW, fair launch, blockDAG thesis, faster confirmation feel, community, roadmap optionality. App layer, liquidity, adoption, security budget, and roadmap execution still matter. Trust model Sort assets by what you have to trust. No single issuer, PoW-style money BTC, LTC, BCH, XMR, and KAS are closer to mined monetary networks. Their risks center on mining economics, node validation, liquidity, community, and security budget. Smart-contract platforms ETH, SOL, AVAX, SUI, ADA, BNB Chain, and similar networks sell programmable state. Their risks center on execution scale, validators, apps, bridges, and developer ecosystems. Issuer-backed assets USDT, USDC, PYUSD, tokenized gold, and tokenized stocks depend on issuers, reserves, redemption rights, banks, law, custody, and jurisdiction. Governance and protocol tokens UNI, AAVE, MKR/SKY, COMP, CRV, and similar tokens may control protocol parameters, treasuries, or fees. The key question is whether governance captures real economic value. Wrapped and liquid staking assets WBTC, cbBTC, stETH, rETH, JitoSOL, and related assets are claims or wrappers. They add composability, but also custodian, bridge, smart-contract, depeg, and rehypothecation risks. Attention assets Meme assets can become valuable because attention is tradable. That does not make them safe or technically necessary. Coin profile template A plain explanation checklist. What problem does it solve? What type of asset is it? Why does the token need to exist? Who secures it? Who validates it? Who got supply first? What drives demand? What could make value fall? What should beginners not misunderstand? Kaspa bridge Where Kaspa fits in the atlas. Kaspa belongs closest to the PoW monetary-network branch, but with a different scaling and confirmation thesis from Bitcoin, Litecoin, and Bitcoin Cash. It keeps PoW and UTXO assumptions, then changes the block structure from a single chain into a blockDAG ordered by GHOSTDAG. That does not make Kaspa a stablecoin, exchange token, meme coin, or live smart-contract ecosystem. It means Kaspa should be judged against PoW security, fair launch, blockDAG execution, liquidity, mining economics, node requirements, app-layer roadmap work, and whether users actually need mined payments and shared records that feel faster. Next step Use the checklist or compare Kaspa directly. The checklist helps analyze any coin without starting from price. The comparison page narrows the atlas back to Kaspa's lane. Analyze any coin Compare Kaspa" }, { "path": "tradeoff-map.html", "href": "/tradeoff-map", "url": "https://kaspaexplained.com/tradeoff-map", "title": "Crypto Tradeoff Map | Kaspa Explained", "h1": "Crypto design has tradeoffs.", "description": "A beginner crypto tradeoff map: speed, security, decentralization, privacy, scaling, nodes, ASICs, staking, token launches, fees, markets, and Kaspa.", "dateModified": "2026-05-16", "text": "Tradeoff map Crypto design has tradeoffs. Every answer moves cost somewhere: hardware, bandwidth, latency, privacy, regulation, market volatility, funding, governance, or centralization pressure. This page is the beginner map of those constraints. Speed feedback Security cost Many verifiers decentralization Privacy hidden data Usability recovery A design can improve one corner, but the pressure moves somewhere else. Tradeoff intuition: the hard question is not whether a feature is good. It is where the cost moves when the feature is added. Master map What people want and what it costs. Goal Why people want it What it costs Decentralization No easy single control point. Harder upgrades, worse UX, slower coordination, more user responsibility. Security Hard-to-fake history and valid supply. Fees, energy, staked capital, complexity, and security-budget pressure. Speed Fast inclusion and better user feedback. Propagation pressure, node requirements, weaker verification, or centralization risk. Privacy Less surveillance and better fungibility. More cryptography, heavier data, harder auditability, lower exchange access. Self-custody Direct control without a platform account. No simple password reset, chargeback, or customer-service recovery. Open access Anyone can join, transact, build, mine, validate, or exit. Spam, scams, hostile actors, bots, and manipulation. Fair launch Lower official insider-allocation risk. Harder funding, slower business development, early-miner advantage. Funded launch More money for development, audits, grants, legal work, and integrations. Insider allocation, unlocks, sell pressure, and governance capture. Visa question Why crypto differs from Visa. Visa-like systems use trusted institutions, legal agreements, centralized infrastructure, account controls, fraud teams, and permissioned settlement relationships. A public blockchain asks many independent participants to verify the same rules without trusting one operator. That replicated verification is the bottleneck. Normal app or payment network Runs on controlled infrastructure. The operator can optimize speed, reverse errors, block users, and change rules internally. Public crypto base layer Lets independent nodes reject invalid history. The cost is that data, execution, and ordering must remain verifiable by people outside one company. Beginner line: crypto can become Visa-like at the app or custody layer, but a decentralized base layer cannot simply be Visa without inheriting Visa-like trust assumptions. Scaling Bigger or faster has costs. Scaling method What it improves What it risks Bigger blocks More transactions per block. Heavier bandwidth, storage, and node requirements. Faster blocks Faster inclusion and better UX. More propagation conflict and consensus complexity. Parallel execution More app throughput. More complex state management and developer assumptions. Rollups More execution away from L1. Sequencer, bridge, proof, and data-availability complexity. Payment channels Fast cheap repeated payments. Liquidity management and routing complexity. Centralized custody Best speed and recovery UX. Trust the operator again. Privacy Privacy and public verification conflict. Public chains expose data because independent participants need enough information to verify rules. Privacy tools hide sender, receiver, amount, graph structure, or app state, but that moves cost into cryptography, data size, verification burden, liquidity, and regulation. Transparent ledgers Easier to audit supply and verify rules. Worse for user privacy and business confidentiality. Privacy-first systems Better fungibility and less surveillance. Harder exchange access, heavier data, and more regulatory pressure. Shielding has limits It can be valuable. Scaling, compliance, UX, and verification cost still remain. Hardware ASICs and staking are different concentration pressures. ASIC mining Specialized machines can secure PoW efficiently, but mining can concentrate around capital, cheap energy, manufacturers, firmware, and pools. Staking PoS avoids industrial mining hardware, but concentration can move into large holders, staking providers, exchanges, liquid staking, and governance. Kaspa relevance Kaspa's tradeoff is fast PoW. Kaspa should be explained as a specific tradeoff: keep PoW and UTXO instincts while using a blockDAG and GHOSTDAG to include parallel honest blocks and improve confirmation feel. That does not remove node economics, mining economics, app-layer challenges, privacy tradeoffs, market volatility, or roadmap execution risk. Next step Apply the tradeoffs. The coin atlas shows how different assets choose different constraints. The Kaspa comparison page shows where fast PoW fits. Open coin atlas Compare Kaspa" }, { "path": "analyze-any-coin.html", "href": "/analyze-any-coin", "url": "https://kaspaexplained.com/analyze-any-coin", "title": "Analyze Any Coin | Kaspa Explained", "h1": "How to analyze a coin.", "description": "A beginner checklist for analyzing any crypto coin: token need, supply, launch, security, validators, miners, liquidity, market cap, risks, and who benefits.", "dateModified": "2026-05-16", "text": "Checklist How to analyze a coin. Start with token necessity, supply, launch design, security, validation, liquidity, market structure, risks, and the best criticism. Price comes later. The 20 questions Start with these questions. What problem does it solve? Why does the token need to exist? Could BTC, ETH, USDC, or a database do the job? Who pays fees? Who secures it? Who validates it? Who can change the rules? How did it launch? Who got early supply? Are there unlocks? What gives durable demand? What gives security budget? What are node requirements? What is centralized? What is private or public? What would make the token unnecessary? What can fail? What would justify market cap? What is the best criticism? Who benefits if retail buys? Token necessity Classify the token first. Classification What it means Common examples Necessary native asset The chain needs it for fees, rewards, security, or the asset being tracked. BTC, ETH, KAS, SOL in their own network contexts. Helpful but optional The token helps coordinate incentives or access, while another asset could possibly do the job. Some app, infrastructure, and ecosystem tokens. Governance-only token Value depends on whether governance controls meaningful fees, parameters, or treasury assets. Many DeFi protocol tokens. Claim or wrapper The asset represents something else and depends on redemption, custody, bridge, or contract trust. Wrapped BTC, liquid staking tokens, tokenized gold or stocks. Attention token The main asset is culture, attention, and liquidity. Meme coins. Likely unnecessary The same product could work with an existing asset or normal database. Many weak utility tokens. Green and red flags Fast risk scan. Green flags Clear token purpose. Transparent supply and launch history. Active developers and public documentation. Independent validation is realistic. Deep liquidity and no obvious unlock cliff. Real users or a credible path to users. Honest discussion of tradeoffs. Red flags Guaranteed yield or no-risk language. Huge insider allocation with thin float. Fake partnerships or unverifiable claims. No reason the token must exist. Opaque reserves, custody, bridges, or admin keys. Influencer-heavy marketing before working product. Buzzword stacking without mechanism. Market table How to read a coin-ranking page. Field What it means What can mislead Price Price of one unit. A low unit price is not cheap without supply context. Market cap Price times circulating supply. Not revenue, not cash invested, not sellable value. Volume Amount traded in a period. Can be real liquidity, panic, hype, or wash trading. Circulating supply Tokens counted as available. Insiders may still control large portions. FDV Price times total possible supply. Shows dilution risk if many tokens are locked. Social dominance Attention share. Attention is not adoption or durability. Category labels Market-site tags. Often too broad, stale, promotional, or technically shallow. Kaspa lens Apply it to Kaspa. Kaspa has a clearer token-necessity argument than many app tokens because KAS is the native asset of a PoW UTXO blockDAG network: it is the thing tracked, the fee asset, and the mining reward. Its fair launch reduces official insider-allocation risk. But the checklist still asks hard questions about liquidity, security budget, mining concentration, node requirements, adoption, funding, app-layer execution, and roadmap status. Check Kaspa status Check sources Next step Next reading path. Use the coin atlas if the market table still feels like one undifferentiated list. Use the status page before making any Kaspa shipped-feature claim. Open coin atlas Open Kaspa status" }, { "path": "crypto-history.html", "href": "/crypto-history", "url": "https://kaspaexplained.com/crypto-history", "title": "Crypto History as Problems | Kaspa Explained", "h1": "Crypto history as problem solving.", "description": "Crypto history explained as a sequence of problems: digital cash, Bitcoin, mining, ASICs, Ethereum, ICOs, scaling wars, DeFi, stablecoins, rollups, and Kaspa.", "dateModified": "2026-05-18", "text": "History Crypto history as problem solving. Learn crypto history as a map of constraints: digital scarcity, double-spending, mining, liquidity, app rules, scaling, privacy, stablecoins, custody failures, rollups, and faster payment designs. Problem timeline Problems by era. Before Bitcoin Digital cash How can digital value be scarce when digital data copies easily? Bitcoin Double-spending PoW made a shared payment history expensive to rewrite without a financial institution. Early mining Security market Mining moved from hobby CPUs to competitive hardware, pools, and industrial operations. Litecoin and forks Parameter experiments Communities changed block times, mining algorithms, or scaling philosophy. Ethereum Programmability What if the ledger could host applications and shared programmable state? 2017 ICOs and scaling war Fundraising exploded while Bitcoin communities split over scaling and rule-change philosophy. DeFi and stablecoins On-chain finance Dollar tokens, exchanges, lending, collateral, and automated markets became core usage. Rollups and fast L1s Scale and UX Projects moved execution to L2s, high-performance chains, appchains, and alternative consensus designs. Why forks matter Software plus social agreement. In normal software, a company can ship an update. In crypto, users, miners or validators, exchanges, wallets, and businesses must accept the rule set. A fork is what happens when participants no longer converge on the same rules or history. Soft-fork style change Usually tightens rules so upgraded participants enforce new restrictions while older software may still see blocks as valid. Hard-fork style change Changes rules in a way that older software does not accept. This can be planned, contentious, or community-splitting. Why Bitcoin dominance matters Bitcoin as the reference point. Bitcoin's value narrative comes from several sources: fixed-supply culture, PoW security, liquidity, exchange support, long survival, conservative upgrades, simple monetary story, and strong social consensus. It also gave up fast L1 retail UX, expressive smart contracts, and easy experimentation. Why other chains exist Different projects, different pressures. Bitcoin Cash Chose a bigger-block payment philosophy after Bitcoin's scaling conflict. Ethereum Chose smart contracts and programmable app records. Solana-style chains Chose high-performance execution and consumer-app speed. Monero and Zcash Chose stronger privacy tradeoffs than transparent chains. Stablecoins Chose dollar-denominated value on crypto networks, with issuer or collateral trust. Kaspa Chose fast Proof-of-Work blockDAG ordering while keeping UTXO and PoW instincts. Kaspa origin Kaspa's launch belongs in the history map. Kaspa's fair launch came after research, DAGLabs, an April 2021 testnet, and failed hardware, presale, and business-model paths. The origin page separates the sourced history from the dramatic shorthand. Read Kaspa origin story Next step Use history to read current coins. After the problem timeline, the coin atlas explains how current major assets fit into these old and new design branches. Open coin atlas" }, { "path": "kaspa-origin-story.html", "href": "/kaspa-origin-story", "url": "https://kaspaexplained.com/kaspa-origin-story", "title": "Kaspa Origin Story: Fair Launch, Failed Plans, and Crescendo | Kaspa Explained", "h1": "Kaspa's fair launch was the path left after the other paths failed.", "description": "A sourced Kaspa origin story: DAGLabs, PHANTOM/GHOSTDAG research, the April 2021 testnet, fair launch, early bugs, the Rust rewrite, Crescendo, and the Toccata boundary.", "dateModified": "2026-05-18", "text": "Origin story Kaspa's fair launch was the path left after the other paths failed. Kaspa began as research into faster proof-of-work ordering, moved through DAGLabs and an April 2021 testnet, then launched as a public mined network after hardware, presale, and business-model paths failed to become the launch structure. Citable summary: Kaspa grew from PHANTOM/GHOSTDAG research into a fair-launched Proof-of-Work blockDAG. Mainnet launched in November 2021 with no premine, insider allocation, or pre-sales; Crescendo later made 10 BPS live; Toccata remains a targeted programmability hard-fork track as of May 18, 2026. The useful thesis The origin story is a constraint story. The clean version is not that Kaspa was born from perfect planning. The stronger sourced version is that research, startup funding, hardware plans, DeFi-sequencing ambitions, and community pressure collided until the simplest remaining launch was also the cleanest one: publish the network and let anyone mine. That matters because every earlier structure would have made Kaspa partly answer to something outside the protocol: a hardware distribution plan, a presale contract, a startup balance sheet, or a role as infrastructure for another app ecosystem. The fair launch did not prove future adoption, price, or technical success. It did remove the official premine, pre-sale, and insider-allocation surface from the starting line. Research first The problem came before the coin. Kaspa's research lineage starts with the question Bitcoin leaves exposed at high block rates: what should a proof-of-work network do with honest blocks found in parallel? A single-chain system normally chooses one branch and discards the other branch's work. A blockDAG tries to keep more honest work visible, then use a rule such as GHOSTDAG to order that graph into one shared payment history. DBLP lists Yonatan Sompolinsky and Aviv Zohar's 2018 paper, PHANTOM: A Scalable BlockDAG Protocol , as an IACR ePrint publication. Kaspa.org describes Kaspa as growing from blockDAG research that continued through SPECTRE and PHANTOM into the protocols running Kaspa today. Earlier public interviews make the through-line sharper. A 2017 Epicenter episode presented GHOST and SPECTRE as attempts to scale Bitcoin-style Proof of Work by using DAG structure instead of wasting parallel blocks. A 2018 Rethink Trust profile described DAGLabs as focused on higher Layer One throughput and faster confirmation while preserving a trustless base-layer design. DAGLabs and testnet The startup path existed before the fair launch. Public sources do not date DAGLabs perfectly consistently. An April 26, 2021 Investing.com launch article says DAGLabs was founded in 2017 by Yonatan Sompolinsky and Guy Corem and raised $8 million from Polychain and Accomplice. The HackerNoon interview intro says Sompolinsky founded DAGLabs in 2018 to commercialize DAG protocols. The safe claim is narrower: DAGLabs funded and organized part of the pre-mainnet path before Kaspa became a public community-mined network. Polychain's background matters here. Polychain describes itself as an investment firm managing portfolios of blockchain assets, and the public Kaspa sources place it inside the pre-mainnet DAGLabs funding story rather than as a simple post-launch market participant. The clean framing is therefore two-sided: Kaspa had no token premine, insider allocation, or pre-sale, but it did have a VC-funded DAGLabs prehistory that shaped the hardware, mining, and fair-launch debate. Guy Corem's April 13, 2021 testnet note called Kaspa a Golang implementation of Phantom/GHOSTDAG and a generalization of Nakamoto Consensus. The April 2021 Investing.com article records the practical testnet bundle: full node, web wallet, faucet, Katnip block explorer, graph inspector, and Kashboard. It framed the project as a testnet first, with a later mainnet launch planned without pre-mining or founder allocations. Use source-backed implementation language here. Yonatan's Hashdag archive later describes the original Kaspad codebase as an adaptation of the Bitcoin client btcd , written in Golang. That is the safer public wording than repeating unsourced \"Bitcoin Core 0.19\" claims. Could-have-been paths The failed plans are part of the story. ASIC and presale path Hashdag's 2020 community-launch archive said Kaspa would have no premine or founder rewards, but it did not present that plan as a pure fair launch. It described DAGLabs as a for-profit miner, a pre-launch ASIC-customization path, and a DeFi-contract auction for rights to future Kaspa coins. Yonatan later said the hardware and ASIC-presale path did not materialize because optical ASIC hardware was not mature. DeFi sequencing path The April 2021 launch article framed Kaspa as faster ordering infrastructure for DeFi applications using Ethereum. The later Uphold interview recap keeps the same deeper theme: Kaspa's core specialization is sequencing, especially where finance is sensitive to transaction order and MEV. That context explains the \"base sequencing layer for another ecosystem\" idea without turning it into a claim that Kaspa ever shipped as an Ethereum L2. Gamenet path Yonatan later described a gamenet attempt as flawed: closer to a testnet with incentives than a normal mainnet. The useful point is that the launch design changed under pressure before the public network found its actual shape. Fair-launch path In the later HackerNoon interview, Yonatan called DAGLabs a failed attempt to reconcile venture-backed and fair-launch models. He said investors encouraged launch despite no business model or ROI plan; when asked if Polychain pushed him to launch, he accepted that as one way to put it and added that Gadi also pushed him because he saw the potential. Launch The public network launched without a premine. Kaspa.org's current lore page says mainnet launched in November 2021 as a fair-launched Proof-of-Work network with no premine, insider allocation, or pre-sales. The current homepage adds the genesis-proof framing: every coin traces cryptographically back to an empty genesis. The public proof frame is simple: mining created the supply, and no official allocation table created coins for insiders. That claim should stay precise. Yonatan later estimated that Kaspa core developers mined about 2.5% of total supply after launch. The Kaspa Wiki prehistory page puts the related DAGLabs/Polychain figure in the same range: after launch, DAGLabs mined with remaining funding on rented hardware for about five months; the mined coins were shared among investors, including Polychain, and former DAGLabs employees and advisers; and DAGLabs officially closed after that wind-down. The page estimates less than 3% of total supply, 840 million KAS, with its longer note saying probably closer to 2.5% and under 850 million KAS. That is not a premine, but it belongs in the early-miner picture. Fair launch lowers official insider-allocation risk. It does not erase early-miner advantage, mining-infrastructure asymmetry, later ASIC concentration, liquidity risk, or the need to fund development after launch. The 2025 Bitcoin Takeover interview adds the strongest firsthand nuance: Yonatan described the launch as messy and reluctant, with the gamenet idea overtaken by miners who chose to keep mining. He also described the two-week halt as a recovery path that preserved the UTXO set through a second genesis that cryptographically pointed back to the last valid state. That makes the story less polished, but more source-backed. Early stress The chain had to survive real failure. On November 23, 2021, Yonatan published \"Kaspa (Black Tuesday)\" after a network crash during the prior 48 hours. The post says the developers were not trying to roll back to an earlier preferred state; they were rebuilding and comparing a certainly valid UTXO commitment after a memory problem. That is the sourced version of the \"two-week bug\" story. Kaspa also faced later state pressure. Kaspalytics recorded a September 2023 dust attack where the UTXO count jumped from about 8 million to 62 million. That belongs in the resilience timeline, but it should not be confused with the November 2021 launch bug. Rust and Crescendo The original implementation was not the final form. Hashdag's 2022 \"Kaspa where to\" archive says Michael Sutton proposed a major refactor and Rust rewrite because the Golang codebase carried technical debt and was hard for new contributors to work in. Kaspa.org now summarizes that move as a full rewrite from the original Golang node into Rust, backed by a community grant. Rusty Kaspa's repository describes the Rust implementation as a drop-in replacement for the older Golang node. Its README says the Crescendo hard fork took place on May 5, 2025, moving the network from 1 BPS to 10 BPS. The v1.0.0 release notes say the same hard fork transitioned Kaspa from 1 BPS to 10 BPS at mainnet DAA score 110,165,000. Toccata boundary Crescendo is live. Toccata is the next status boundary. The draft phrase \"Toccata\" can carry the wrong date if it is used for 10 BPS. Crescendo is the hard fork that made 10 BPS live on mainnet. Toccata is the targeted hard-fork track for covenant-based base-layer programmability, Silverscript, ZK-facing verification work, sequencing commitments, and native-asset groundwork. As of May 18, 2026, Kaspa Explained treats Toccata as targeted, not live mainnet behavior. Testnet-10 and TN12 evidence matters, but mainnet activation still needs primary release and network evidence. Use Toccata Status before quoting Toccata as shipped. What to say The careful version is stronger. Topic Use this wording Avoid this shortcut Code origin Original Kaspad was Golang and source-backed as an adaptation of btcd . Bitcoin Core 0.19, unless a durable source is added. DAGLabs DAGLabs funded and organized pre-mainnet work; public sources differ on 2017 versus 2018 dating. A single exact founding date with no caveat. Polychain Polychain belongs in the VC-funded DAGLabs prehistory, not as a token premine or pre-sale allocation. Ignoring Polychain context or treating it as proof of a premine. Fair launch No premine, insider allocation, or pre-sales; every coin came from mining, including the post-launch DAGLabs/Polychain-related early mining estimate. DAGLabs/Polychain premine language, flawless distribution, or no early contributor mining. Business failure Hardware, presale, and startup paths failed to materialize before the vanilla fair launch. Bankruptcy language unless a stronger source says bankruptcy. Toccata Targeted programmability hard-fork track as of May 18, 2026. Toccata made Kaspa 10 BPS or mainnet activation already happened. Sources Sources for this origin page. Kaspa.org Lore - current public summary for fair launch, research lineage, Rust rewrite, Crescendo, Toccata, DAGKnight, and roadmap framing. Kaspa.org homepage - genesis-proof framing for no premine, no hidden allocation, and fair launch. Polychain Capital homepage - Polychain's own high-level description as an investment firm for blockchain assets. Investing.com April 2021 launch article - DAGLabs, April 2021 testnet, no-premining launch intent, and DeFi sequencing context. Guy Corem testnet note - April 2021 Kaspa testnet release and Golang Phantom/GHOSTDAG implementation framing. Epicenter episode 192 - 2017 GHOST, SPECTRE, and blockDAG research context with Aviv Zohar and Yonatan Sompolinsky. Rethink Trust 2018 profile - DAGLabs, Layer One scalability, throughput, confirmation-speed, and trustless-design framing. Uphold Institutional interview recap - sequencing, finance, MEV, Rust implementation, and ZK-oriented future-programmability framing. Hashdag raw archive - launch-plan, ASIC/presale, gamenet, Black Tuesday, and Rust-refactor context from Yonatan Sompolinsky's writing archive. Kaspa launch plan: responding to reality - post-launch community, governance, roadmap, and maintenance context. Kaspa (Black Tuesday) - November 2021 network-crash and UTXO-commitment context. Hackernoon interview with Yonatan Sompolinsky - DAGLabs, ASIC-presale path, optical ASIC immaturity, fair launch, Polychain, and Gadi context. Kaspa Wiki prehistory page - DAGLabs mining, Polychain-related distribution, and the under-3% / 840 million KAS early-miner estimate. Bitcoin Takeover S16 E41 transcript - firsthand launch nuance, gamenet, second genesis, UTXO-set preservation, and smart-contract roadmap boundaries. DBLP: PHANTOM: A Scalable BlockDAG Protocol - bibliographic record for the 2018 PHANTOM paper by Sompolinsky and Zohar. rusty-kaspa GitHub - Rust node implementation, replacement relationship to the older Golang node, and Crescendo README context. Rusty Kaspa v1.0.0 release - Crescendo mainnet release notes and 1 BPS to 10 BPS transition. Kaspalytics Week 4, 2024 - September 2023 dust-attack UTXO-count context. Next step Separate origin from current status. The origin story explains why the launch matters. The status pages explain what the network can do today and what still needs activation evidence. Open status Read one-screen summary Open sources" }, { "path": "kaspa-in-one-screen.html", "href": "/kaspa-in-one-screen", "url": "https://kaspaexplained.com/kaspa-in-one-screen", "title": "Kaspa in One Screen | Kaspa Explained", "h1": "Real-time Proof of Work.", "description": "A compact, shareable Kaspa summary: what it is, what is live, why it matters, what comes next, common boundaries, and what would make it work.", "dateModified": "2026-05-20", "text": "Real-time Proof of Work. Kaspa keeps mined money and UTXO ownership, then changes the shape of the ledger. Instead of forcing every honest block into one slow line, it uses a blockDAG and GHOSTDAG so parallel honest work can stay in the record and still be ordered. Kaspa is live as Proof of Work, UTXO ownership, GHOSTDAG, a blockDAG, and the Crescendo-era 10 BPS network. Wallets, explorers, nodes, mining, transfers, receipts, and accepted-transaction checks exist today. Toccata, native app rules, vProgs, and DAGKnight need separate activation evidence; the May 18, 2026 TN10 activation test is testnet evidence, not mainnet activation. The short version. Kaspa is a mined UTXO network trying to make Proof-of-Work payments feel closer to real time. It is interesting because it tests whether Bitcoin-style mining can support lower-latency usage without becoming a normal centralized fast database. What is live: PoW mining, UTXO ownership, blockDAG structure, GHOSTDAG ordering, 10 BPS mainnet, wallets, explorers, nodes, mining, transfers, receipts, and accepted-transaction checks. What is not live: Toccata mainnet activation, full vProgs, DAGKnight, native DeFi, TangVM/oracle systems, and full app-to-app atomic composition. Last checked May 20, 2026 for the Toccata/TN10/TN12 status boundary. The short read. Bitcoin-style mining culture, seconds-scale user feel, blockDAG ordering, verifiable receipts today, and future apps that prove their own rules. Transaction payloads and accepted-transaction checks are live L1 evidence paths. Toccata, native assets, and vProgs remain separate protocol and roadmap work. Say it cleanly. Say this Not this Kaspa is a live PoW blockDAG using GHOSTDAG. Kaspa has already shipped every roadmap item. Kaspa improves PoW inclusion and confirmation dynamics. Kaspa removes all finality delay or has unlimited throughput. Kaspa has a future roadmap for apps that prove rules and share ordering. Native DeFi and mature smart contracts are live today. 10 BPS is live, while TPS depends on measurement context. Every big testnet or lab number is normal mainnet throughput. Real-time means fast mined user feel, not instant irreversibility. Real-time means instant finality. Next checks. Durable users, healthy mining, realistic node operation, liquidity, fees, wallets, developer tools, useful post-Toccata apps, and careful roadmap execution would strengthen the thesis. Overclaiming roadmap work, weak adoption, poor liquidity, mining or infrastructure concentration, and app-layer promises outrunning shipped software would weaken it. Open status Adoption metrics Skeptical case" }, { "path": "kaspa-status-updates.html", "href": "/kaspa-status-updates", "url": "https://kaspaexplained.com/kaspa-status-updates", "title": "Kaspa Status Updates | Kaspa Explained", "h1": "Dated Kaspa status updates.", "description": "Dated Kaspa status updates: what is live, what changed, what remains roadmap, and which public claims need checking.", "dateModified": "2026-05-20", "text": "Status updates Dated Kaspa status updates. Use these when you need a current snapshot instead of a timeless explainer: what is live, what changed, what remains roadmap, and which claims need checking. Latest Current update. May 2026 Kaspa Status Check - May 2026 L1-focused May 20 snapshot: mainnet API state, block reward, supply, emission schedule, TN10/TN12 boundary, Toccata/KIP status, vProgs, DAGKnight, and common overclaim corrections. Standing reference Current status table Compact live mainnet / testnet / targeted / roadmap / research / wrong / unsupported table for major Kaspa claims. Claim reference Claims checker Use this when an exact claim needs a status label and copyable wording. Update format What each update should answer. Section Question Live now What can a user, node operator, wallet, miner, or builder verify today? Changed since last update What releases, KIPs, testnet events, mainnet API readings, emission checkpoints, or source updates changed the status? Still pending What needs mainnet release, activation parameters, upgraded-node behavior, accepted mainnet evidence, or audit evidence? Claims to clean up Which repeated public claims need safer wording? Source links Which first-party L1 sources support the update: GitHub releases, KIPs, Kaspa.org/docs, public node/API readings, research, or activation artifacts?" }, { "path": "kaspa-status-check-may-2026.html", "href": "/kaspa-status-check-may-2026", "url": "https://kaspaexplained.com/kaspa-status-check-may-2026", "title": "Kaspa Status Check - May 2026 | Kaspa Explained", "h1": "Kaspa status check - May 2026.", "description": "May 2026 Kaspa status check: what is live, what changed, what is roadmap, what claims need checking, and what to verify next.", "dateModified": "2026-05-20", "text": "Dated status check Kaspa status check - May 2026. This is the current L1 snapshot for people checking what is live on mainnet, what changed in Toccata testing, what remains roadmap, and which Kaspa claims need tighter wording. Last checked: May 20, 2026 at 12:54 PM CDT. Status-sensitive claims should be refreshed after Toccata mainnet activation evidence, release notes, KIP state changes, emission checkpoints, or new primary source updates. Snapshot What is live now. Base network Proof of Work, UTXO ownership, blockDAG structure, GHOSTDAG ordering, and Crescendo-era 10 BPS mainnet. L1 readout The May 20 public REST check showed kaspa-mainnet , virtual DAA 438,800,479, 10,971,285 blocks, and about 27.45 billion KAS. Issuance The public block-reward endpoint returned 2.75 KAS per block. The official emission schedule steps down monthly, not as a July cliff. What changed New source notes to add. Official framing The redesigned Kaspa.org now makes real-time decentralization the public north-star framing, not just a community shorthand. Roadmap order Kaspa.org presents Toccata next, DAGKnight after Toccata, and a separate proposed 2027 hard-fork bucket for 100 BPS and partition-resilient payment work. KIP alignment KIP-16, KIP-17, KIP-20, and KIP-21 were still open in May 20 GitHub checks. Treat proposal evidence as useful, but wait for release and activation artifacts before mainnet wording changes. TN10 activation test Rusty Kaspa's tn10-toc2 pre-release scheduled a Testnet-10 activation point at DAA score 467,579,632; a May 20 check of the Testnet-10 REST API showed virtual DAA 469,381,698. Treat it as testnet evidence. Emission check The official schedule shows 27.5 KAS/sec from May 8, 25.9565436 from June 7, and 24.49971475 from July 7. \"Emission cliff\" is loose wording. Current watchlist What is pending or later. Track Status What to verify next Toccata Targeted Post-test stability, TN12 state, KIP state, audit/rehearsal, branch merge, mainnet release notes, activation parameters, and observable mainnet behavior. Covenant-style L1 rules Targeted Use Toccata evidence for L1 rules only; do not describe testnet or proposal evidence as mainnet programmability. vProgs Roadmap Watch framework progress, developer examples, proof paths, and later activation evidence. DAGKnight Research Watch research and implementation branches; do not call it current mainnet consensus. 100 BPS / partition-resilient payments Research Watch for specifications, code, test evidence, and activation records before treating the proposed 2027 bucket as a shipped path. Claims corrected Loose wording to avoid this month. Instant finality Say fast inclusion and probabilistic confirmation confidence. Toccata activation Say targeted hard-fork track with testnet evidence until mainnet activation evidence exists. Emission cliff Say monthly emission step-down and quote the official schedule values. DAGKnight live Say research and upgrade direction, not current mainnet behavior. 100 BPS live Say 10 BPS is live; 100 BPS is a proposed future hard-fork/research bucket. Open KIPs Say proposal work is still conditional until KIPs, releases, and activation artifacts line up. One API is proof Use public API reads for snapshots, then confirm status changes against releases, KIPs, nodes, and accepted mainnet behavior. Share links Use the exact page for the argument. Claims checker Toccata status Finality Skeptical case Verify yourself" }, { "path": "skeptical-case.html", "href": "/skeptical-case", "url": "https://kaspaexplained.com/skeptical-case", "title": "Kaspa Risks and Open Questions | Kaspa Explained", "h1": "Kaspa risks and open questions.", "description": "Kaspa risks and open questions: node pressure, security budget, liquidity, mining concentration, ecosystem fragility, and app-roadmap execution risk.", "dateModified": "2026-05-20", "text": "Risks Kaspa risks and open questions. Kaspa is interesting, but the case depends on evidence across node operation, mining, liquidity, app usage, and roadmap execution. Citable summary: Fast PoW, Toccata, apps, liquidity, mining, and infrastructure each need separate evidence before broad claims are safe. Last checked May 18, 2026 for the TN10/TN12 versus mainnet boundary. Main objections. Verification cost Higher block rates can make nodes, indexers, wallets, explorers, and archival tools harder to operate independently. Security budget Proof-of-Work security still needs enough long-term miner revenue as emissions decline. Liquidity Useful money and DeFi need depth, custody, exchange support, market makers, support, and accounting paths. Mining concentration ASIC supply, pool behavior, geography, and operator visibility can concentrate practical influence. Roadmap execution Toccata, vProgs, DAGKnight, and native DeFi are different tracks. They should not be sold as one shipped bundle. User demand Capacity and low fees do not prove durable users, fee demand, or useful applications. Good-faith concerns. Higher block rates can raise operational demands for nodes, indexers, wallets, explorers, and infrastructure operators. The practical question is whether independent operators can keep verifying the network over time. As emissions decline, miners need enough long-term revenue from value, fees, and demand. A high-throughput Proof-of-Work network still has to pay for security. Good technology does not automatically create deep liquidity, custody support, exchange access, market-maker depth, institutional routes, or developer mindshare. Ethereum, Solana, Bitcoin, and app-specific ecosystems already have tooling, capital, and builders. Proof of Work also depends on mining distribution, pool behavior, hardware economics, and whether enough independent participants can inspect the network. Around the base layer, explorers, wallets, APIs, indexers, and hosted dashboards can become practical chokepoints. Evidence that would answer them. Concern Weak answer Strong answer Node pressure Fast blocks sound good. Independent operators can run nodes, APIs, explorers, and indexers without relying on one provider. Security budget Price or enthusiasm will solve it. Fees, demand, value, and mining economics keep enough hash power securing the network over time. App roadmap A talk, branch, or testnet demo exists. Mainnet release, activation evidence, wallet support, indexer support, accepted transactions, and repeatable user flows exist. Liquidity There are holders and volume. Users can enter, exit, custody, account for funds, get support, and trade with meaningful depth. Useful demand Low fees make apps possible. People use apps repeatedly because the app solves a real job better with Kaspa than with a normal server. App ambition can outrun evidence. Toccata, based apps, ZK verification, future vProgs, native DeFi, coordination markets, and DAGKnight are separate tracks. The risk is not that those ideas are uninteresting. The risk is readers treating roadmap, testnet, research, or prototype evidence as live mainnet product evidence. Risk What would answer it? Toccata slips or activates with rough tooling. Public mainnet activation evidence, stable releases, working docs, and repeatable builder examples. TN10/TN12 tests alone are not enough. Native apps remain demos without usage. Real users, real fees, repeatable apps, wallet support, and independent indexers. DeFi claims get ahead of custody and oracle reality. Audited custody rules, real wallet signing, oracle design, liquidation rules, and accepted settlement evidence. Based-app language becomes too abstract. Concrete products where app state is anchored to Kaspa ordering, proofs, settlement, or exits. What to watch. More explorers, APIs, wallets, nodes, and command-line paths reduce dependence on one interface. Roadmap value gets stronger when it turns into working applications beyond proof labs. Liquidity, custody, market structure, and fee demand matter. Public language should keep live, testnet, roadmap, and research evidence separated even during hype cycles. Read the May 2026 status check , open the claims checker , or open the source guide ." }, { "path": "adoption-metrics.html", "href": "/adoption-metrics", "url": "https://kaspaexplained.com/adoption-metrics", "title": "Kaspa Adoption Metrics | Kaspa Explained", "h1": "Kaspa adoption signals.", "description": "A non-price adoption framework for Kaspa: users, wallets, nodes, mining, liquidity, fees, developers, integrations, apps, and roadmap execution.", "dateModified": "2026-05-20", "text": "Adoption metrics Kaspa adoption signals. Price is only one signal. Adoption also means users, wallets, mining, nodes, fees, liquidity, developers, useful apps, shipped roadmap work, and clear on-chain activity beyond synthetic traffic. Last checked May 20, 2026. Treat TN10/TN12 work as testnet evidence until mainnet activation and product usage are visible. Metric map Signals that matter. Network health Wallet usability, node health, mining distribution, fees, and block demand show whether the live rail is usable and resilient. Market access Liquidity, integrations, receipt tooling, and exchange flows show whether users and businesses can actually move in and out. Useful activity Payment receipts, accepted-transaction reads, developer activity, and post-Toccata apps matter most when they produce repeat use and durable activity. Signal What it would show What can mislead Wallet usage People can self-custody and transact without heavy friction. Downloads, addresses, or screenshots can overcount real users. Node health Independent verification remains realistic outside a few operators. Raw node counts can hide hosting concentration and stale nodes. Mining distribution PoW security is supported by competitive hash power and diverse operators. Hashrate alone can hide pool, firmware, energy, or ASIC supply concentration. Fees and block demand Users value block space enough to support long-term security economics. Temporary spam, airdrop farming, or scripted activity can inflate usage. Liquidity Users, miners, and builders can enter and exit with less friction. Liquidity can be speculative and does not prove durable utility. Developer activity Tools, wallets, infrastructure, and apps are improving. Commits and announcements can be noisy without shipped user value. Integrations Wallets, explorers, exchanges, receipt tools, and infrastructure support the network. Listings and partnerships can be marketing without meaningful usage. Useful on-chain activity Repeated transactions tied to wallets, app state, receipts, access, markets, or settlement show product pull. Campaigns, raw mints, spam, scripted loops, and wash-like activity can inflate counts. Receipt and payload activity Payment receipts, accepted-transaction checks, and payload-aware records show whether on-chain data helps a real workflow. Scripted loops, campaign traffic, or records with no user-facing redemption can look like adoption before there is durable value. Post-Toccata apps Future vault, asset, proof, and market rules are turning into useful applications. TN10/TN12 tests, demos, and roadmap language are not the same as mature live app paths. Business lens Adoption by stakeholder. Users They can self-custody, send, receive, and understand confirmation confidence without needing a centralized custodian. Miners They can operate profitably enough to secure the network while avoiding excessive concentration in a few pools or suppliers. Developers They can build useful wallets, infrastructure, and later apps that prove rules instead of asking users to trust a server. Businesses They can integrate Kaspa for custody, receipts, treasury, accounting, or settlement needs without treating generic payments as the whole adoption plan. Researchers They can track whether GHOSTDAG, Toccata, DAGKnight, and vProgs claims remain aligned with primary technical evidence. Educators They can explain Kaspa without turning speed, fair launch, or future app architecture into investment advice. Business examples Receipt workflows with a verification step. Local commerce Invoices, payment receipts, refunds, accounting exports, and treasury records are practical when a merchant can make verification simple and support the customer path. Events Festivals, conferences, and clubs can test checkout receipts, refund windows, group payments, and sponsor settlement without pretending they are full DeFi. Signals stronger than mint counts Repeat use, low support burden, clear verification, honest fee display, and user understanding are stronger signals than raw transaction counts. Use with context Signals that need context. Price Price can fund attention and liquidity, but it can also reflect leverage, reflexivity, weak float, narratives, or broad market cycles. Social attention Attention can help education and adoption, but it can also create short-lived hype that outruns shipped software. Roadmap excitement Toccata, DAGKnight, and vProgs matter, but adoption analysis should distinguish demos, testnets, shipped mainnet features, and durable usage. Raw transaction counts Transactions matter only after asking what they represent: users, spam, exchange movement, mining behavior, apps, or tests. App activity counts App transactions matter most when they connect to a real workflow: a payment, receipt, refund, treasury action, proof, or useful wallet experience. Kaspa adoption test What would strengthen the case. Users understand the benefit. Wallets and explainers make fast PoW confirmation feel legible. Independent operation stays realistic. Node, mining, and infrastructure requirements do not collapse into a few operators. Security economics mature. Fees, mining rewards, liquidity, and hash power support a credible long-term security budget. Roadmap work ships carefully. Toccata and later app foundations become useful without confusing targeted work with live mature apps. Education stays honest. Kaspa's strongest advocates keep the distinction between live facts, roadmap, research, and valuation. Next step Check status before making claims. Adoption metrics help judge whether the thesis is working. The status page still controls what can be described as live. Open status Kaspa in one screen" }, { "path": "application-layer.html", "href": "/application-layer", "url": "https://kaspaexplained.com/application-layer", "title": "Crypto Applications & Kaspa Opportunities | Kaspa Explained", "h1": "What should be built on Kaspa?", "description": "A practical map of Kaspa application paths: money movement now, constrained spend rules after Toccata, based apps for richer shared state, and later app programs.", "dateModified": "2026-05-20", "text": "What should be built on Kaspa? Start with money that settles on a fast Proof-of-Work network. Then add rules for how funds move, and only use richer app state when the product actually needs it. parallel blocks ordered into one spend history Use this mental model before adding receipts, covenant rules, based apps, or later app programs. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, or finality claims. Use this page by job Public reader first, builder detail later. Normal reader Use the first half for app jobs: payments, receipts, Toccata rules, and later app composition. Builder Use Builder Guide and Builder Evidence when the question turns into tools, artifacts, and proof. Speculative idea Use Reality Check before turning coordination markets, oracle designs, or RTD-derived ideas into public claims. Crypto-native filter The app should leave inspectable evidence. A crypto app earns its complexity when the user can see custody, ordering, a rule or receipt, and a result another app or wallet can inspect. 1. User job What is the person trying to do? Pay, escrow, cap a budget, move an asset, join a group payment, or trigger a conditional payout. 2. Crypto reason Why not a normal server? The user needs self-custody, public ordering, rules strangers can rely on, or proof that state was not rewritten privately. 3. Kaspa primitive Which primitive carries it? Live payment, receipt, covenant spend rule, based-app replay, proof check, or later cross-app action. 4. Evidence What can be inspected? Accepted txid, app receipt, replayed state, local reject, wallet warning, source link, or explicit blocker. Good use The rule changes who can move money or whether strangers can coordinate without trusting one operator. Weak use The app only wants a database, a brand token, or a private score that no outside party needs to verify. Kaspa angle Fast mined ordering matters when the workflow has multiple visible steps before final settlement. Start with the simplest path. The order is practical: move money first, attach receipts when the app needs context, add spend rules when funds need constraints, anchor shared app state when many users need the same record, and use later app programs only when several apps must update together. Current products should improve wallets, receipts, dashboards, confirmation-risk UX, and source-verifiable network reads around the live network. Toccata-style covenants belong to spend limits, vault rules, escrow, simple assets, and bounded UTXO state changes. Based apps come later when shared state must be anchored to Kaspa ordering, receipts, proofs, settlement, or exits. Live now Move money Wallets, payments, receipts, exchange flows, dashboards. Context Attach receipts App data, invoices, proof links, and replayable rows. Toccata work Constrain spends Vault rules, escrow, caps, refunds, simple controlled assets. Based apps Replay shared state Auctions, coordination, markets, and app-specific state. Later Compose apps Actions where several app states update together. The app job. The application case starts with money users can hold themselves. Then come payment receipts, vault rules, escrow rules, assets, and funding rules. Based apps are the next step when an app needs shared state anchored to Kaspa evidence. Later app programs matter when several apps need one combined action that succeeds or fails together. A good Kaspa app starts with a plain question: does this need self-custodied money, a public ordering record, fast PoW sampling, local UTXO rules, proof-backed execution, or later app-to-app actions? If not, ordinary server state is probably enough. If an app depends on an outside fact such as a price, weather event, or another chain, it needs an input rule for that fact before settlement can rely on it. Match the app to the need. Self-custodied value The asset itself can be the product when users mainly need to hold and transfer value without a custodian. Shared programmable state Richer apps need rules that many parties can inspect, replay, and rely on without trusting one server. Fast user feedback Some workflows only become usable when the user sees inclusion and confirmation confidence quickly. Focused utility Payment, receipt, escrow, treasury, and proof workflows should solve a narrow user job before adding broad app claims. This page does not track project catalogs. It maps stable capability classes and the evidence needed before a Kaspa claim can be described as live. Reusable app patterns. Exchange and liquidity Swaps, lending, collateral, derivatives, stable assets, routing, and risk engines need liquidity, oracle assumptions, failure handling, and live transaction evidence. Wallet gateways The first useful app is often the interface: signing, recovery, balances, history, risk warnings, and source verification. Asset issuance Cheap creation can produce useful records or low-quality attention markets. Useful systems need custody, redemption, abuse controls, and clear user support. Payment utility Boring transfer, receipt, refund, accounting, and settlement workflows can drive real network demand when they solve a repeated job. Resource coordination Tokens or contracts can coordinate hardware, data collection, compute, capital formation, or service delivery only when inputs and rewards are measurable. Prediction and funding rules Markets, assurance contracts, grants, and public-goods funding need clear commitments, settlement rules, external fact sources, and dispute paths. Kaspa-native filter. Start with the properties Kaspa has or is explicitly working toward: fast mined inclusion, UTXO ownership, GHOSTDAG ordering, covenants, ZK verification, sequencing commitments, and apps that can prove what they did. The filter is simple: who controls the record, who can censor it, who holds the assets, how quickly an action is seen, and whether strangers can commit to rules before trusting one another. Use Kaspa where fast mined ordering changes the product. What TN12 covenant tests are teaching. TN12 covenant tests are useful when they make a money rule visible at the spend layer. Start with what happened: testnet transactions landed, artifacts link to the txids, and replay can explain the resulting state. Then ask which rule actually controlled the spend. The practical product idea is a wallet or app that can explain the rule before the user signs: this spend is under the cap, this asset has the required controller input, this payout matches accepted evidence, or this withdrawal should be blocked. A normal server can display those claims; the crypto-native version tries to put the money movement and the rule in the same public record. Keep the evidence classes separate: an accepted TN12 transaction landed on testnet; a local reject failed in a local script or covenant engine; replay-derived state explains accepted rows but does not itself control funds; wallet policy is a signer warning or refusal before broadcast. The practical direction is not games on chain for their own sake. It is allowance wallets, team treasuries, controlled assets, staged approvals, refunds, and turn-based workflows where the allowed move and the refused move can both be reviewed. Treat this as testnet evidence until mainnet activation, wallet signing, audits, and production replay catch up. Budget that cannot drain at once Allowance wallet, team treasury, grant stream, merchant payout limit, or game resource. Mechanism: a covenant that carries the budget state forward. Step-by-step workflow that can recover Game turn, dispute, service job, approval path, or challenge/timeout flow. Mechanism: a hub routes state through smaller worker roles. Asset that needs its controller Ticket, pass, game item, license, or app-owned settlement right. Mechanism: the asset move requires the controller input in the same transaction. The public TN12 experiment map is a testnet evidence map , not a mainnet product page. Community-built apps. Kaspa's app layer can come from many builders: wallets, dashboards, receipt flows, covenant examples, vaults, funding tools, coordination tools, docs, and analytics around the same base asset. The standard is concrete: build something people can use, label the stage, and check security before asking users to trust it. Possible Kaspa versions. Use the short list first: wallets, payment receipts, vaults, escrow, funding rules, simple assets, auctions, market replay, coordination apps, and agent-payment flows. A based app is an app whose state is tied back to Kaspa ordering, commitments, proofs, settlement, or exits. It may use ZK later, but it can start as accepted transactions plus deterministic replay. Later app programs are the composition path: one user action can update several app states together, with the combined action succeeding or failing as a unit. Open pattern translation table Pattern elsewhere Kaspa-native version Why it fits Kaspa Status lane Wallet gateway A wallet that explains inclusion, confirmation confidence, UTXO control, vault policy, and app permissions in plain language. Users need to understand fast PoW risk states and balances. Live foundation now; richer policies post-Toccata Transfer utility Receipt, transfer, and exchange-flow paths that make value movement inspectable. Kaspa already has fast mined payment feel; the missing work is product UX, liquidity, distribution, and a reason to use the payment path. Live foundation now Controlled assets and passes Post-Toccata asset rules could support tickets, memberships, credentials, game items, loyalty points, or redeemable claims with clearer custody rules. These need activation evidence and wallet support before they should be described as live Kaspa-native products. Post-Toccata opportunity Swap or auction market A based-app prototype with deposits, intents, liquidity state, replay, and later proof or settlement checks. Market apps need public fast ordering plus richer shared state than one covenant UTXO usually wants to carry. Based-app prototype; later custody/proof work Lending or collateral market A based-app prototype with collateral records, risk state, oracle inputs, liquidation review, and explicit settlement paths. Fast payment and UTXO vault policy help, but lending needs app state, risk logic, and source assumptions. Based-app prototype; later app programs for atomic composition Focused market app A narrow market around auctions, collateral, hashpower, compute, or real-time liquidity. The lesson is focus: build one product that uses Kaspa ordering, commitments, and settlement instead of selling generic infrastructure. Based-app prototype Based app A small app-specific state machine anchored to Kaspa ordering, proof checks, settlement, or exits. This tests richer execution without pretending the first L1 covenant examples need an L2. Prototype lane; based-zk when proofs are needed Coordination market Prediction, assurance, public-goods, research-bounty, software-funding, and group-action markets. A coordination market lets people commit to an action only if enough compatible people also commit. The first useful versions can use transparent commitments, solver output, wallet-reviewed settlement, and replayed evidence. Toccata for simple contracts; based-app prototypes for transparent coordination; research for private/atomic markets Proof-of-resource market Markets for bandwidth, compute, sensing, local infrastructure, or agent work. High-frequency PoW and public group-commitment research may help later attestation designs. Research / architecture ENS / Farcaster / social graphs Identity, handles, reputation, access passes, and portable group membership tied to self-custody. The first useful versions may be simple access and membership systems. Post-Toccata / vProgs Asset launch rails Launch and bonding tools with clearer risk labels, anti-scam defaults, and transparent liquidity paths. Cheap creation creates attention markets; the design question is whether they can be less extractive. Post-Toccata opportunity Buildable on today's mainnet. Receipt and transfer paths Wallets, invoices, tips, remittances, and exchange withdrawal UX that make inclusion, confirmation confidence, and app state understandable instead of just saying \"fast.\" Self-custody tools Safer wallets, address books, payment requests, invoicing, accounting exports, and recovery education for users who want direct control. Miner and node dashboards Infrastructure that makes mining distribution, node health, propagation, fees, pruning, and network conditions visible to normal users. PoW-native risk UX Checkout and exchange flows that show inclusion, confirmation confidence, and risk level as separate states. That is payment-path work, not proof that merchant payments are the main adoption vector. Payload-aware receipts Apps can attach compact context to payments, then show txid, amount, address, accepted status, source, and timestamp in a receipt a user can verify later. Accepted-evidence tools Dashboards, alerts, and support flows can explain whether a transaction is seen, included, accepted, or still waiting for stronger confirmation confidence. Education and proof tools Visualizers, local node guides, blockDAG explainers, and verifiable references that make Kaspa's current system legible. Real activity measurement Dashboards that separate user payments, mining behavior, exchange movement, spam, fees, and app tests instead of treating all transactions equally. What Toccata would add. Toccata is the near-term hard-fork track for spend rules, asset rules, Silverscript, ZK proof checks, sequencing commitments, and vProgs groundwork. It should be described as future mainnet capability until activation is confirmed. For builders, the first useful testnet products are simple and auditable: a vault policy, an assurance contract, an escrow, or a constrained asset rule. The hard part is the gap between a good UI and an enforced covenant: address generation, faucet funding, a synced TN12 node, UTXO-indexed balance checks, Silverscript compilation, signing, broadcast, and explorer-visible outputs. Open Toccata app examples Opportunity What it could look like Why Kaspa may fit Status Vaults and wallet policies Time-locked spending paths, delayed withdrawals, emergency keys, spending limits, and business treasury controls. UTXO covenants can express constrained asset movement without turning every account into a global VM object. Post-Toccata opportunity Assurance contracts Funds move only if enough participants commit by a deadline; otherwise they return. This maps directly to stag-hunt and public-goods coordination: the rule is credible before everyone acts. Post-Toccata opportunity Conditional escrow Milestone payments, disputes, deposits, delivery windows, and refund paths governed by transparent script rules. Fast payment feedback helps escrow feel usable while covenants keep the state machine constrained. Post-Toccata opportunity Native assets and access passes Tickets, memberships, credentials, game items, loyalty points, and redeemable claims with clear custody rules. Some assets need fast transfer and self-custody before full general-purpose DeFi. Post-Toccata opportunity Atomic market primitives Simple swaps, auctions, batch settlement, OTC flows, and intent-style exchange with bounded script behavior. Kaspa's edge is credible fast ordering; market design should use that and label immature DeFi paths clearly. Post-Toccata opportunity Games and state machines Chess-like or turn-based apps where state is carried through constrained UTXO transitions. The useful point is state discipline, not the game itself: registration, player state, game state, move routing, and final settlement. Post-Toccata opportunity Choose the app model first. Choose the smallest model that can honestly run the product. Use covenants for bounded spend rules, based apps for shared app state, inline ZK when a proof is the product boundary, and later app programs for cross-app atomicity. The unusual app job is rules strangers can rely on. RTD and Staghunt framing point to markets where people need credible commitment before they act. A normal website can collect promises, but users may still worry that the operator can censor, reorder, change terms, or disappear. The practical first version is simple: collect conditional commitments, group compatible commitments, run a transparent solver, prepare settlement or refunds, and replay the accepted evidence. The harder research target adds privacy, reusable capital, solver incentives, censorship resistance, and atomic execution. The hard parts are concrete: event sources, incentives, anti-MEV design, scheduling, disputes, and implementation. Start with transparent commitments before claiming private or atomic coordination markets. Open group-commitment examples Public-goods assurance Projects, research, events, software, or local infrastructure that receive funding once enough participants join under fixed rules. Real-time auctions Fast, open auctions for scarce digital goods, access, blockspace-related rights, or services where ordering and censorship resistance matter. Oracle-backed markets Prediction, insurance, and payment markets that need external data, but where oracle trust, incentives, and dispute paths are explicit. First-to-know signal markets Watch miners or other rewarded reporters begin attesting to an event, then surface the earliest credible signal before normal feeds agree. Machine-to-machine payments Agents, devices, miners, apps, and services buying resources or making commitments at internet speed with self-custodied funds. Start with what works today. Live network UX, receipts, and source-verifiable reads are the starting point. Covenants, ZK hooks, later app programs, and higher-density RTD ideas belong in the later build path until their activation evidence changes. Open capability table Capability What builders can do Status 10 BPS GHOSTDAG payment flow Fast inclusion, fast PoW user experience, wallets, payments, infrastructure, and clearer confirmation UX. Live Receipt and payload UX Payment receipts, compact app context, accepted-transaction checks, support dashboards, and fallback verification paths. Live foundation; depends on wallet and infrastructure quality Attestation-capable paths Opt-in event reporting, early external-event signals, oracle experiments, and first-to-know dashboards built by apps. App-level design over base payment paths MEV-aware ordering or auctions Protects users who delegate an if-this-then-that strategy from miners or searchers exploiting the same event signal first. Research / design work Toccata covenants and ZK hooks Vaults, assurance contracts, state-machine apps, simple assets, bridge foundations, and zk covenant experiments. External-chain or real-world claims still need an anchor such as a light client, finality certificate, accumulated-work view, oracle, reporter set, or dispute process. Targeted hard-fork track, not live until activated STARK-sized proof support Large validity proofs on Kaspa, with block-size and standard-fee tradeoffs to avoid cheap spam. TN12 context / mainnet design question Later app programs Apps that prove their own logic, share Kaspa ordering, feel cohesive to users, and support atomic app-to-app actions in the later roadmap. Roadmap architecture DAGKnight / higher BPS RTD Denser real-time majority sampling and stronger internet-round-trip attestation confidence. Research / future upgrade direction Coordination app examples. These are examples, not a second homepage. Start with the checklist below, then open the list if the app really needs group commitment rules. Open coordination examples Assurance markets Funds move when enough people commit by a deadline. This is the cleanest public-goods and stag-hunt fit. Prediction and event markets Useful only with explicit oracle, reporter, dispute, and legal assumptions. Fast payment feedback does not remove those hard parts. First-to-know terminals Apps could reward fast attestations and surface early confidence changes before normal feeds agree. Merchant escrow and vaults Live payment UX can improve now; covenant policies could later add refunds, limits, delays, and recovery paths. Hashpower and service auctions PoW culture and fast ordering fit markets for scarce technical resources, proofs, compute, data, and app-specific services. AI-agent commitments Agents need small, machine-readable commitments: deposits, task payment, completion proofs, and dispute rules. App idea checklist. Needs a neutral shared record. The app gets meaningfully better when no single operator controls the database. Benefits from fast mined ordering. Real-time Proof-of-Work feel changes user experience, risk, or group action. Uses UTXO constraints well. The app can be modeled as bounded state transitions, vaults, commitments, assets, or payment flows. Names off-chain assumptions. If the app depends on outside facts, it names the source root, oracle, reporter, light-client, challenge, and dispute assumptions clearly. Can start narrow. The first version solves one concrete problem before claiming to replace finance, identity, games, or law. Build order. Build in this order: useful wallet and payment paths, small covenant-shaped products, then richer based-app or later app-program paths only when the product needs shared state or composition. Open build-order table Phase Build focus What success looks like Now Wallets, receipt UX, infrastructure, explorers, mining/node visibility, education, confirmation-risk tools. People can use and understand the live network without trusting one interface. Now: verifiable receipts Payment receipts, address-history views, accepted-transaction monitors, accounting exports, support tooling, and API fallback paths. People can use the live network with clearer evidence instead of trusting one interface. Toccata Covenant examples, vaults, simple assets, escrow, assurance contracts, UTXO state-machine demos, STARK/zk proof experiments, developer docs. Builders can make small useful apps without claiming full DeFi is live. Based apps App-specific state machines anchored to Kaspa ordering, commitments, proofs, settlement, or exits. They can start as deterministic replay and grow into based-zk when proof verification matters. Builders can test richer products without waiting for full app-to-app composition. Later app programs Apps that prove their own logic, share Kaspa ordering, support richer markets, private proofs, app-to-app flows, and canonical bridge design. The later goal is stronger composition without asking the base layer to execute every app globally. Research DAGKnight, 100 BPS sampling, RTD-derived attestations, oracle markets, MEV auctions, TangVM-style flows, public funding markets, and AI-agent commitments. The broad coordination thesis becomes testable through real products. Ideas still need status. Check status before describing any app-layer feature as live. Open status Builder guide Use these as maps, not investment recommendations. Open application-layer source list Kaspa: Mining the Internet at Tokenize London for Yonatan Sompolinsky's RTD, miner-attestation, internet-money flow, and focus/flywheel framing. KASmedia Hong Kong wrap-up for historical context on Michael Sutton's Crescendo/L1-L2 bridge talk, the ZK panel with Hans Moog, and the 2025 discussion around based rollups, state management, and liquidity fragmentation. Michael Sutton's vProgs masterclass for apps sharing Kaspa ordering, one-dimensional program space, app-to-app composition, computational DAGs, prover incentives, and sovereignty obligations. rusty-kaspa Toccata branch , rusty-kaspa TN12 branch , and kaspanet/vprogs for current implementation/prototype evidence. Treat branches as moving targets. TN12 faucet and TN12 explorer for testnet prototyping. Faucet balances, browser checks, and explorer APIs can change; use local TN12 RPC for serious testing. KIP-21 pull request for partitioned sequencing commitments and O(activity) proving direction; confirm final status before calling it activated. Michael Sutton's covenant++ and vProgs milestone notes for inline zk covenants, based zk covenants, canonical bridge work, efficient sequencing commitments, and RTD context. Michael Sutton's STARK-sized blocks and min-fee notes for the STARK proof, block-size, standardness-fee, and elasticity tradeoffs. Kaspa Explained sources for the Kaspa status hierarchy and source trail." }, { "path": "reality-check.html", "href": "/reality-check", "url": "https://kaspaexplained.com/reality-check", "title": "Reality Check for Kaspa Product Claims | Kaspa Explained", "h1": "Test the pitch before the narrative.", "description": "A Kaspa product-reality checklist and pitch scanner for testing crypto app claims against users, liquidity, wallet flows, evidence, and source boundaries.", "dateModified": "2026-05-20", "text": "Reality check Test the pitch before the narrative. Kaspa has a serious protocol story. Product claims need a different test: who uses it, what they do, where liquidity comes from, what wallet flow exists, and what evidence proves the claim. Test a pitch Use the checklist Ask AI with sources Keyword pre-check Paste a product idea. This is not a verdict. It only checks whether the pitch mentions the basic product questions that a real review would need to answer. Pitch or claim Launchpad AI agent Wallet app Vault 0/8 Paste a pitch to start. Keyword scan only. It does not validate the pitch. Next pass Open the source-aware AI tool for a fuller red-team review. The pitch is passed through this browser session, not placed in the URL. Open in Ask AI Copy prompt Prompt updates as you type. Product reality The eight questions. 01 Who is the user? Name the actor: trader, wallet user, merchant, miner, exchange, issuer, developer, fund, or app operator. 02 What job do they do? Send, swap, borrow, hedge, launch, redeem, escrow, stake, report, integrate, or verify. Vague \"platform\" language is weak. 03 Where is liquidity? Source the first market: issuer, LP, market maker, stablecoin, treasury, buyers, or earned revenue. \"Community\" is not enough. 04 Who signs what? Show the wallet flow, transaction shape, custody model, recovery path, and what the user sees when something fails. 05 What exists today? Separate live mainnet, app tooling, testnet proof, targeted upgrade, roadmap, and research. 06 What evidence proves it? Use source links, accepted transactions, code, docs, audits, release notes, working app paths, or reproducible commands. 07 What breaks? Model abuse, oracle failure, liquidity exits, wallet mistakes, insider allocation, bot traffic, downtime, and legal or custody risk. 08 What happens on day two? Real products need repeated behavior after launch: retention, support, integrations, revenue, routes, or measurable usage. Real versus fake Signals to separate. Claim type Real signal Weak signal Kaspa question Launchpad Issuance, wallet flow, liquidity path, visible holders, abuse controls. A token button and a roadmap. What can launch today, and where does liquidity come from? DeFi Risk parameters, oracle model, liquidation path, audit trail, liquidity, working transactions. Using \"DeFi\" for any token page. Is this live mainnet, TN10/TN12 testnet evidence, future Toccata work, or only an app idea? AI agent Agent signs, pays, receives, proves work, or triggers a bounded workflow. Chatbot copy wrapped around a token. What action happens on Kaspa, and who can verify it? Wallet Clear signing, recovery, balances, history, error states, and source verification. Nice screens without transaction handling. Does a normal user know what they are signing? Institutional use Custody, compliance, reporting, settlement, liquidity, support, and integration requirements. One vague partnership post. Which institution, which requirement, and what evidence? Translate back to Kaspa Useful lessons, not imitation. Observed behavior Why it matters Kaspa gap Possible experiment Low-friction asset launches Creation, liquidity, and attention collapse into one flow. No mature Kaspa-native launch and liquidity rail. A restrained post-Toccata asset tool with wallet safety, source labels, and abuse warnings. Swap aggregation Users want one route, not fragmented liquidity pages. No mature DEX layer or routing surface. Track early swap attempts by quote quality, liquidity source, and signing UX. Hackathon funnel Deadlines, judges, examples, and funding create repeatable builder intake. Builder energy is less structured publicly. Public Kaspa build sprint with source-backed judging criteria and shipped demos. Wallet-first apps Users judge the chain through signing, balances, errors, history, and support. Consumer wallet UX is still fragmented across needs. Map wallet tasks from new user action to accepted transaction evidence. Exploit response Real DeFi needs monitoring, audits, incident process, and recovery language. Kaspa app risk culture is early. Require every app pitch to publish failure modes before claiming production readiness. Use it with the source tools. Paste the same pitch into the Ask AI page and ask for a red-team pass. Then check the live status page before repeating the claim. Red-team with AI Check status Open sources" }, { "path": "builder-guide.html", "href": "/builder-guide", "url": "https://kaspaexplained.com/builder-guide", "title": "Kaspa Builder Guide | Kaspa Explained", "h1": "Kaspa builder guide.", "description": "A builder guide for choosing the simplest Kaspa app path: money movement, covenant spend rules, based apps, inline ZK, or later app programs.", "dateModified": "2026-05-20", "text": "Kaspa builder guide. Kaspa builders should start with the user action: a payment, vault rule, asset rule, market, proof, or later app-to-app flow. Then choose the simplest state model that can support it. Build rule: start with the smallest working path. Mainnet status still comes from activation, releases, and working applications. Need terminal commands first? Open Kaspa Command Line From Zero . 1 / Job Name the action Send, receive, lock, refund, issue, replay, prove, or settle. 2 / Rail Pick the smallest path Payment path, app receipt, covenant rule, based app, proof, or later app program. 3 / Evidence Show what landed Accepted txid, app receipt, state output, replay row, source, or release record. 4 / Boundary Say what is missing Mainnet activation, wallet support, liquidity, audit, indexer, oracle, or production custody. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, or finality claims. Build like a verification path. A repeatable Kaspa example starts with the user action, submits or inspects a transaction, replays the result, and labels the evidence class before making a bigger claim. Good first example Payment or receipt A user sends tKAS or attaches app data, then the page links the accepted txid and explains what changed. Good covenant example Rule that blocks a bad spend A cap, destination, required controller input, refund, or timeout is visible before the artifact details. Weak example Mechanism without a user job Do not lead with internal mechanism names unless the reader already knows what problem they solve. Start with state and proofs. Question Use this path Simpler path Many users touch the same app state at the same time. Start with based apps or vProgs-compatible runtime work. Start with covenants and L1 state outputs. The product splits cleanly into independent states. Covenants can still work for each separate state. Shared-state app architecture becomes more natural. Each action needs its own proof, privacy check, or custom validity rule. Consider inline ZK, but expect more proof and operations work. Use covenants or based apps first. The proof depends on another chain, an oracle, a price, or a real-world event. Name the anchor first: source root, finality certificate, accumulated-work view, oracle, reporter set, or challenge process. The proof can stay inside the app's own state rules. The app needs synchronous composition with other independent apps. That is the future full-vProgs direction, especially if several app states must succeed or fail as one operation. Build the narrow app first. Toccata-era apps can coordinate through L1 proofs and sequencing without claiming full atomic composition. Match app model to state model. Covenants are for constrained spend rules: vaults, treasury controls, escrow-like flows, unlock conditions, issuance policy, and small UTXO state machines. One protected state advances one valid step at a time. Based apps are for richer app state anchored to Kaspa ordering: balances, orders, packs, risk rows, task states, or market state. They can start with deterministic replay over accepted transactions and add ZK only when proof-verified execution, privacy, or trust-minimized bridge logic becomes the product boundary. Inline ZK is for actions that need their own proof before settlement. Full vProgs are the later app-to-app composition direction, where independent apps can read or call one another in one combined outcome. Say what the example buys the user. A builder example should not stop at \"the script compiled\" or \"the txid was accepted.\" Say the practical job: a budget that cannot be drained at once, an asset that moves only under a controller rule, a game turn that cannot get stuck forever, a payout that can be replayed, or a group payment that refunds if the condition fails. Use this order before showing artifacts: what landed on TN12, what the reader can click or repeat, what the repo replayed from accepted rows, which rule is script-enforced versus replay-derived or wallet policy, and what remains missing before a real product claim. Then keep the boundary honest. If the rule is script-enforced, name the script path. If it is wallet policy, planner state, replay-derived state, or testnet-only evidence, say that. The useful implication is strongest when the reader can see both the accepted path and the rejected path. Use the same template for every covenant example: user job, spend rule, accepted path, rejected path, wallet review field, and remaining blocker. Say \"budget that cannot drain at once,\" \"step-by-step workflow,\" or \"asset that needs its controller\" before naming the mechanism. For the public application framing, see what TN12 covenant tests are teaching . For the current testnet examples, open the TN12 experiment map . Map product ideas to a path. Pick the smallest path that matches the product. Most first builds should be a wallet/payment path, a covenant-shaped rule, or a narrow based app. Open product-path table Product shape Likely starting path Why Vault, treasury, inheritance, recovery, escrow Covenants The product is mostly about who can move funds and how stateful outputs evolve. Native asset issuance or transfer policy Covenants The app logic is asset-native and can often stay close to L1 output rules. Trading venue, game economy, shared balance app Based app Many users need to update the same app record without waiting for one UTXO path to move first. Private action, custom validity check, proof-gated workflow Inline ZK The proof is part of every action, so verification becomes the product boundary. Composable app network with calls across independent apps Full vProgs later The need is app-to-app synchronous composition, which belongs to the longer architecture target. Use the new BUIDL path as the practical start. Kaspa.org now gives builders a cleaner first mile: try the SDK in-browser, pick an app or infrastructure path, then decide when public access is enough and when you need your own node. Open builder runway table Builder question Start here When to go deeper I want to read chain data from a web app. Use the Rusty Kaspa WASM browser examples and Public Node Network docs. Run your own node or resolver path when reliability, privacy, or scale matters. I want a wallet, payment, or transaction flow. Start with the WASM SDK docs and upstream examples. Move into native Rust or full-node RPC when signing, UTXO handling, or indexing becomes product-critical. I want quick backend reads. Use the community REST API or the Kaspa Developer Platform for prototypes and constrained environments. Treat hosted APIs as dependencies. Production apps should plan node/indexer ownership, provider redundancy, or both. I want infrastructure or analytics. Use Rusty Kaspa, Docker, DB dumps, indexer projects, and node-hosting tools. Decide whether you need live consensus access, historical query speed, or both. I want covenants or app programmability. Follow Toccata, TN12, Silverscript, KIPs, and vProgs references. Keep TN12/testnet demos separate from mainnet claims until activation evidence changes. Kaspa.org Build , the official getting-started docs , the community REST API docs , and the Kaspa Developer Platform docs are normal first references. Keep hosted APIs as prototype infrastructure until reliability, privacy, and scale requirements are clear. Public tools to track. Start with official docs and examples. Open the full tool list only when you need a concrete implementation reference. Open builder tool links TN10 Toccata test Rusty Kaspa's tn10-toc2 pre-release scheduled Testnet-10 activation at DAA score 467,579,632; a May 18 check of the Testnet-10 REST API showed virtual DAA above that score. Use it to follow the activation path on testnet. Mainnet app claims still need mainnet activation evidence. Open release Official Kaspa docs Builder docs for choosing between programmability routes, connecting over RPC, wallet flows, transaction payloads, accepted-transaction listeners, and running node infrastructure. Open Kaspa docs Getting started JavaScript, Rust, and Python examples for installing SDKs, connecting to a node over RPC, and reading live DAG data. Open guide Programmability overview Decision path for covenants, based apps, inline ZK, and future full vProgs. Useful for builder routing; still verify activation status before making product claims. Open overview Silverscript Higher-level covenant tooling and examples for state transitions. Useful for learning the covenant direction; tooling and deployment workflows are still early. Open Silverscript vProgs repo Early Rust framework work around based computation, scheduler/runtime/storage layers, L1 bridge concepts, and ZK proving components. Open vProgs Python SDK Standalone Python SDK with v1.1.0 release evidence for GetVirtualChainFromBlockV2 and UtxoProcessor/UtxoContext bindings. Open release WASM SDK Browser and Node.js bindings from Rusty Kaspa for wallet flows, transactions, RPC access, and live browser examples. Open WASM docs Rusty Kaspa release The released node and native Rust crates are the main path for full nodes, RPC, wallet internals, indexing, and node-adjacent services. Open v1.1.0 release TxIndex Open PR for optional transaction-history indexing and GetTransaction RPC support. Relevant for wallets, explorers, and app infrastructure if merged and released. Open PR #860 Transaction payloads and receipts Payload-aware payment flows can attach compact context to a transaction, then show accepted evidence, source labels, and fallback verification links. Treat payload context as L1 transaction data, not as proof that native smart contracts are live. Open transaction payload docs KasSigner / KasSee Open-source air-gapped signing and watch-only wallet work by InKasWeRust. Useful for studying wallet signing, PSKB/KSPT handoff, address verification, UTXO selection, and multisig wallet conventions. Treat it as experimental wallet tooling, not protocol activation evidence or a recommendation to store large funds. Open KasSigner Useful builder surfaces. Most builders only need one or two of these at a time. Keep the rest as a reference drawer. Open infrastructure links Public Node Network Community-operated node pool fronted by the Kaspa Resolver. Useful for demos and light reads; not a replacement for production infrastructure. Open PNN docs Community REST API Lightweight hosted API for constrained environments and quick reads. Treat it as best-effort with no SLA. Open REST API docs Kaspa Developer Platform Hosted API-key path for address history, transaction acceptance, block ranges by blue/DAA score, and node RPC proxy access. Useful for dashboards, exchange/wallet integrations, prototypes, and second-source checks. Amounts arrive as sompi strings, timestamps are Unix milliseconds, hashes are 64-character hex strings, and large lists use pagination. Production systems still need a node/indexer plan, rate-limit handling, provider-failure behavior, secure API-key storage, and precision-safe amount math. Open KDP docs Transaction payloads Official guide for attaching application data to standard Kaspa transactions within mempool mass limits. Useful for receipts, tags, and lightweight app data. Open payload guide Accepted transactions Official guide for polling or subscribing to accepted transactions, including payload-aware reads and reorg handling near active DAG tips. Open listener guide Docker node Rusty Kaspa Docker images are useful for local node setup. Persistent production nodes still need explicit storage, networking, and operations choices. Open Docker Hub Explorer data dumps Explorer/API database dumps can help analytics, indexing, and historical-data work when an app does not need live consensus access. Open DB dumps DAG visualizer A live way to inspect blockDAG behavior and help users see that parallel blocks are ordered instead of discarded. Open DAGVIZ DeepWiki Generated Rusty Kaspa code navigation can help orientation, but code, releases, and docs remain the source of truth. Open DeepWiki Infrastructure projects to inspect. Use these as references after choosing a build path. They should not be the first thing a new reader has to parse. Open infrastructure project links Simply Kaspa Indexer Standalone indexing project for Kaspa block and transaction data. Open indexer DNS Seeder Bootstrapping infrastructure for the Kaspa peer-to-peer network. Open DNS seeder kHost Tooling for running and contributing node capacity to the wider network. Open kHost kaspa-js Community-maintained JavaScript tooling around the Kaspa stack. Review current maintenance and fit before production use. Open kaspa-js What helps before prototyping. Use TN12 when you need covenant-practice examples and use current TN10 release notes when checking the testnet activation path. Keep these as setup details, not the public explanation of Kaspa. Open TN12 setup table Need Practical path Status boundary Generate a test address Use SDK or wallet tooling that produces a `kaspatest:` address, then paste that exact address into the TN12 faucet. Testnet funds only. Do not reuse test keys for mainnet. Get TN12 faucet tokens Use the browser faucet at `faucet-tn12.kaspanet.io`. Automation may fail behind browser checks, so manual browser use is normal. Faucet limits and availability can change. Run a local TN12 node Build or use a TN12-capable `rusty-kaspa` branch and start `kaspad --testnet --netsuffix=12 --utxoindex` with local RPC listeners. Do not assume a generic stable mainnet binary supports every active TN12 setting. Check balances locally Query local wRPC JSON, often `127.0.0.1:18210`, after the node is synced and UTXO index is enabled. Unsynced nodes can return misleading zero balances. Move from mockup to app Separate UI policy design from real Silverscript compilation, signing, transaction construction, broadcast, and explorer-visible outputs. A simulator is not an enforced covenant until TN12 transactions prove it. Prove a stateful covenant Check compile output, local state transitions, signature-script wiring, continuation outputs, and the submit route before broadcasting. Funding a script output is not the same as proving a valid state transition. Reuse TN12 lab lessons Start with accepted tx evidence, exact wallet review fields, endpoint details, and rollback-aware indexing. Use testnet lessons as builder practice; keep mainnet status sourced separately. Mainnet builders should use the released mainnet node and normal `kaspa:` addresses. TN12 builders should label every address, token, and transaction as testnet-only. Prove the state change. After submit, fetch accepted state and compare the exact result to the thing the app claims happened. Open verification checklist Builder habit Why it matters Practical check Fetch accepted state after submit Local construction does not prove accepted app state. Record `is_accepted`, accepting block data, output script type, address, and amount. Pin the submit surface REST, JSON wRPC, Borsh wRPC, SDK versions, and testnet branches can expose different transaction shapes. Log SDK version, node version, network id, endpoint, encoding, tx version, and input budget fields. Compare with a known working spend Witness order, signature preimage, redeem-script shape, and constructor keys are easier to check against a sibling transaction that already worked. Diff the failing path against an accepted release, refund, or simple payment path before blaming protocol rules. Label failed attempts narrowly Tooling failures and consensus failures need different labels. Keep the artifact, but mark it as bad config, stale tooling, submit mismatch, or confirmed consensus rejection. Testnet lesson: teach the verification habit without turning one prototype into a mainnet claim. Say the stage first. Covenants: nearer L1 state-output path for constrained asset and UTXO-state rules. Based apps: app-specific state anchored to Kaspa ordering, commitments, proofs, settlement, or exits. Inline ZK: specialized proof path for actions whose validity or privacy proof is the product boundary. External anchors: ZK can check a statement about chosen inputs; builders must still define how source-chain roots, prices, events, or attestations become trusted inputs. Based-zk apps: based apps that add proof-verified execution or bridge logic when deterministic replay is not enough. Full vProgs: future app-to-app atomic composition direction, beyond standalone based-app construction. Transaction payloads: live L1 transaction data useful for receipts and app context, not native smart-contract activation. Use the positive stage first. Add caveats only where a reader might confuse builder work with live mainnet functionality. Build from current status. Choose the model, then verify current implementation state before writing docs or product claims. Open status App ideas Builder references. Izio's Kaspa programmability overview for the builder decision tree: covenants, based apps, inline ZK, and future full vProgs. Izio on Covenants for sequential protected-output state, covenant IDs, and the current Silverscript builder reference. Izio on Based Apps for shared-state app architecture and Rust app logic in a managed environment. Izio on Inline ZK for per-action proofs and proof-driven settlement. Izio on Full vProgs for future app-to-app synchronous composition. Rusty Kaspa tn10-toc2 pre-release and Testnet-10 REST status for the May 18, 2026 Testnet-10 Toccata activation path. rusty-kaspa TN12 branch , Silverscript , and TN12 faucet for testnet covenant prototyping context. Treat these as testnet builder tools, not mainnet activation evidence. Kaspa.org Build for the current developer resource index: Rusty Kaspa, WASM SDK, public node access, REST API, Docker, DB dumps, testnet, KIPs, Silverscript, vProgs, community infra, and R&D links. Kaspa Developer Platform docs for hosted address history, transaction acceptance, block-range, and node RPC proxy APIs. Treat it as hosted infrastructure, not protocol-status authority. Kaspa docs , especially Getting started , Programmability , Transaction payload , Accepted transactions , and Kaspa node , for current builder workflow guidance. Aspectron RpcClient docs , signTransaction docs , and submit-transaction request docs for the JavaScript SDK request shape used by current builder examples. KasSigner and KasSee for experimental external-signer and watch-only wallet references. Use them for wallet UX and signing-boundary research, not shipped protocol status. Kaspa Explained status and source hierarchy for live/targeted/roadmap/research boundaries." }, { "path": "build-this-now.html", "href": "/build-this-now", "url": "https://kaspaexplained.com/build-this-now", "title": "What Can You Build on Kaspa Now? | Kaspa Explained", "h1": "What can you build on Kaspa now?", "description": "Practical Kaspa builder recipes: read DAG data, watch accepted transactions, track UTXOs, generate receipts, verify a txid, and replay TN12 evidence.", "dateModified": "2026-05-20", "text": "Build now What can you build on Kaspa now? Start with live network reads, accepted transactions, wallet flows, UTXOs, receipts, and testnet practice. Treat Toccata covenant products as pending until mainnet activation evidence exists. Citable summary: Useful Kaspa builds today are payment, read, receipt, monitoring, API, UTXO, and verification tools; Toccata expands the app rule surface after activation. Recipes Small useful builds. Build Status First proof Read current DAG information Live Fetch server info, block count, DAA score, or blue score from a node, public node, or documented API. Watch accepted transactions Live Listen or poll for accepted transaction IDs and record the accepting block context. Track address UTXOs Live Use wallet software, your own node with UTXO index, or a documented hosted API for a prototype. Generate a payment receipt page Live Show amount, address, txid, accepted status, source, timestamp, and fallback verification links. Build wallet-confirmation UX Live Separate seen, included, ordered, accepted, and confidence-increasing states. Plan a data/indexer path Live Use the community API or public nodes for prototypes, then decide when production needs its own node, indexer, archival data, or provider redundancy. Build payload-aware receipts Live Use transaction payload docs, accepted-transaction evidence, and explicit source labels so users can verify what the receipt claims. Replay a TN12 covenant proof Testnet Record network, txid, accepted evidence, script path, and what remains testnet-only. Infrastructure Pick the source of truth early. Useful apps need address history, accepted-transaction state, UTXO views, timestamps, pagination, and a plan for stale or unavailable APIs. Prototype Use documented hosted APIs, public nodes, explorers, and database dumps for quick reads and demos. Production Decide when to run Rusty Kaspa, a UTXO index, a transaction indexer, archival storage, or redundant providers. User trust Show the source used for each receipt or status check, and give a fallback path when one API disagrees or times out. Builder loop Turn each build into a citable page. Input Name the user action: send, receive, watch, verify, issue, redeem, refund, or replay. Evidence Show the source: node, API, wallet, accepted transaction, code, release, or testnet proof. Status Label it live, testnet, targeted, roadmap, research, wrong, or unsupported. Failure mode Name what could go wrong: stale API, unsynced node, wallet support, indexer mismatch, or activation gap. Share link Make the page short enough to paste in Discord, Reddit, Telegram, X, docs, or a GitHub issue. Next source Route builders to docs, command-line verification, status, and sources. Next Go deeper. Verify a transaction Builder guide Toccata status Sources" }, { "path": "command-line.html", "href": "/command-line", "url": "https://kaspaexplained.com/command-line", "title": "How to Verify a Kaspa Transaction Yourself | Kaspa Explained", "h1": "How to verify a Kaspa transaction yourself.", "description": "How to verify a Kaspa transaction yourself: use explorers, second sources, wallets, hosted APIs, nodes, RPC, and accepted-transaction checks without trusting one interface.", "dateModified": "2026-05-20", "text": "Verify yourself How to verify a Kaspa transaction yourself. The goal is not to make every reader a node operator on day one. The goal is to show the route away from one hosted explorer, one wallet UI, or one dashboard when you need stronger assurance. Run a node Open CLI Hosted API checks Use testnet TN12 practice Sources Mainnet commands move around with releases. Check the source links before touching real funds. Start here Pick the job. Verify chain state Run or query a node, compare explorers, and check accepted transactions without trusting one hosted screen. Start with node commands Use a wallet from terminal Open the Rusty Kaspa CLI route, inspect help, confirm network, and avoid signing until key storage is clear. Start with kaspa-cli Practice safely Use testnet or TN12 before mainnet. Testnet coins are for learning, not value storage. Start with testnet Build app checks Use wRPC and accepted-transaction replay when an app needs to prove that a txid, payload, or output really landed. Start with wRPC Use a hosted API Use a documented API for address history, acceptance checks, and block ranges when a prototype cannot run its own indexer yet. Start with KDP Mental model Verification ladder. 1. Explorer Use an explorer to see whether a transaction appears accepted. This is convenient, not the final trust model. 2. Second source Compare another explorer, API, wallet, or indexer view. If two hosted views disagree, slow down. 3. Your wallet Check network, address, balance, transaction history, fee, and signing intent inside wallet software you control. 4. Your node Run or query a node when you need to verify chain state without depending on a hosted interface. Independent verification means climbing this ladder when the situation matters. It does not mean every normal payment requires every step. Hosted API KDP commands and boundaries. The Kaspa Developer Platform is a hosted API for chain data, transaction checks, block queries, and a node RPC proxy. It is useful for prototypes, dashboards, exchange/wallet integrations, and second-source checks. POST Transaction acceptance Batch-check txids for acceptance, accepting block hash, and confirmation count. curl --request POST \\ --url https://api.kas.fyi/v1/transactions/acceptance \\ --header 'Content-Type: application/json' \\ --header 'x-api-key: ' \\ --data '{\"transactionIds\":[\"\"]}' GET DAA-score blocks Read a bounded DAA-score range. KDP limits these ranges to 100 scores per request. curl --request GET \\ --url https://api.kas.fyi/v1/blocks/daa-score/{daa_score_start}/{daa_score_end} \\ --header 'x-api-key: ' For paginated jobs, advance the range deliberately and record the last checked score. GET Blue-score blocks Read blocks by blue score when that is the progress marker your app stores. curl --request GET \\ --url https://api.kas.fyi/v1/blocks/blue-score/{blue_score_start}/{blue_score_end} \\ --header 'x-api-key: ' GET Address history Use cursor pagination for large address histories. Cache carefully and handle rate limits. curl --request GET \\ --url 'https://api.kas.fyi/v1/addresses/
/transactions?limit=100' \\ --header 'x-api-key: ' DATA API data rules Amounts are sompi strings, not floats. Hashes are 64-character hex strings. Addresses use the kaspa: prefix. API timestamps are Unix milliseconds. 1 KAS = 100000000 SOMPI amount: \"31112708372\" blockTime: 1749531022210 LIMITS Rate limits and keys Send the API key in x-api-key . Watch rate-limit headers, request-unit cost, 401 errors for key issues, and 429 errors for backoff. ratelimit-limit: 500;w=1 ratelimit-remaining: 490 x-request-cost-ru: 10 BOUNDARY Production boundary API keys, rate limits, pricing, and provider uptime are product dependencies. Production apps should plan their own node, indexer, or redundant provider path when reliability, privacy, or scale matters. KDP is a useful hosted read path. Protocol status still comes from source, releases, KIPs, nodes, and network evidence. Mainnet Run a Rusty Kaspa node. Prerequisites: Docker for the container route, or Rust/Cargo for the source route. A node can verify chain state; it does not create or protect wallet keys by itself. Docker route with persistent storage: docker pull kaspanet/rusty-kaspad:latest mkdir -p ~/kaspa-data docker run -d --name kaspa-node --restart unless-stopped \\ -v ~/kaspa-data:/app/data \\ -p 16110:16110 -p 16111:16111 -p 17110:17110 -p 18110:18110 \\ kaspanet/rusty-kaspad:latest Basic container checks: docker ps docker logs --tail=80 kaspa-node Source-build route from the Rusty Kaspa README: git clone https://github.com/kaspanet/rusty-kaspa cd rusty-kaspa cargo run --release --bin kaspad Mainnet node with UTXO indexing: cargo run --release --bin kaspad -- --utxoindex Use --utxoindex when wallet or UTXO queries need indexed UTXO state. Let the node sync before treating its answers as current. Wallet and RPC Open the terminal wallet/RPC path. From a Rusty Kaspa checkout: cd cli cargo run --release Use this as the current source-backed entry into the Rusty Kaspa terminal RPC and wallet runtime. Before creating wallets or signing anything: Check network Confirm whether the CLI is connected to mainnet or testnet before creating or importing wallet material. Check files Find where wallet files, keys, and local state are stored. Do not guess. Check intent For every transaction, inspect address, amount, fee, network, and whether it is a send, sweep, or self-transfer. Test small Use tiny amounts first, then verify the accepted txid through independent sources. wRPC Enable a JSON WebSocket RPC endpoint. Rusty Kaspa documents wRPC as optional and disabled by default. For JSON wRPC: cargo run --release --bin kaspad -- --utxoindex --rpclisten-json=default This lets SDKs and scripts query node state over WebSocket. Bind carefully on public machines. A public RPC endpoint is infrastructure, not a wallet safety boundary. Use wRPC when an app needs to read accepted transactions, inspect payload-capable routes, or compare indexer state against node-observed chain state. Testnet Practice before mainnet. Generic Rusty Kaspa testnet route: cargo run --release --bin kaspad -- --testnet Older hard-fork testnet guides used explicit suffixes, for example: kaspad --testnet --netsuffix=10 --utxoindex cargo run --bin kaspad --release -- --testnet --netsuffix=10 --utxoindex For TN12/Toccata work, verify the current netsuffix, release, endpoint, and flags from active public docs before running. Older TN10 examples are Crescendo-era context. The Rusty Kaspa tn10-toc2 pre-release and Testnet-10 REST status are the current Testnet-10 Toccata activation evidence. Builder Evidence links the public site to the TN12 proof lab when you want accepted testnet examples. TN12 practice Use the proof lab for covenant-shaped testnet work. TN12 is where covenant, payload, and replay experiments can be practiced before mainnet behavior changes. In the TN12 repo, the basic route is: git clone https://github.com/parker2017code/tn12-covenant-vault-demo cd tn12-covenant-vault-demo npm ci npm run check:all npm run check:tn12 npm run playground:wallets Then fund only the printed kaspatest: addresses with faucet tKAS, inspect txids in the TN12 explorer, and replay before believing app state. Anything with --submit is a real TN12 broadcast. Status: testnet practice. Mainnet wallet, custody, and Toccata activation claims need mainnet evidence. Toccata reminder Update this when mainnet behavior changes. Toccata/TN12 command examples stay in the testnet or targeted lane until public activation evidence, Rusty Kaspa releases, official docs, and working tool commands show that the behavior is live on mainnet. Sources Check these before running commands. Kaspa Developer Platform docs.kas.fyi Transaction acceptance DAA-score blocks Blue-score blocks Data types Rate limits Hosted API for address history, transaction acceptance, block ranges, and node RPC proxy access. Useful for prototypes and second-source checks. Kaspa Build kaspa.org/build Node, SDK, query, explorer, and testnet entry points. Kaspa Docs docs.kaspa.org Integration docs for RPC, payloads, accepted transactions, and node infrastructure. Rusty Kaspa github.com/kaspanet/rusty-kaspa Current node, wallet, CLI, Docker, and wRPC source commands. TN10 Toccata test tn10-toc2 release Testnet-10 Toccata activation-test schedule. Use it as testnet evidence and check current release notes before running commands. Releases and explorers Rusty Kaspa releases Kaspa explorer Testnet faucet" }, { "path": "builder-evidence.html", "href": "/builder-evidence", "url": "https://kaspaexplained.com/builder-evidence", "title": "How to Prove a Kaspa Builder Claim | Kaspa Explained", "h1": "How to prove a Kaspa builder claim.", "description": "How to prove a Kaspa builder claim: status lane, source, artifact, user-visible result, and remaining blocker.", "dateModified": "2026-05-20", "text": "Builder evidence How to prove a Kaspa builder claim. A builder claim needs a status label, a source, an artifact, a user-visible result, and a blocker list before it becomes product copy. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, or finality claims. Proof ladder. Claim Write the exact sentence a reader will believe or repeat. Status lane Label it live, testnet-only, targeted, roadmap, research, wrong, or unsupported. Source Point to the strongest available source for that lane. Artifact Name the txid, branch, release, KIP, demo, indexer result, or command output. User-visible result Say what a wallet user, builder, miner, or operator can actually observe. Remaining blocker List what still prevents a stronger public claim. Evidence lanes. Kaspa claims split into mainnet features, near-term upgrades, and early design work . Each lane needs a different proof level. Live: code merged, activated on mainnet, available to builders now Targeted: scheduled for near-term release or being implemented Roadmap: architecture approved or research-backed, not yet scheduled Research: in exploration, no timeline or approval yet Keep builder tooling, open code, and mainnet activation separate. They are three different states. Advanced state-transition proof note For state-transition proof models, the useful pattern is selected-parent root plus current root plus leaf write witnesses. That keeps validation local to the transition instead of forcing clients to maintain the whole incremental SMT. Start here for verification. Status page Compact shipped-vs-roadmap status with a code-grounded implementation evidence section. Covers covenants, Toccata, vProgs, Crescendo, DAGKnight, and common misconceptions. Sources & Reference Map Public source hierarchy: protocol sources, core technical contributors, Kaspa.com Learn Kaspa, KIPs, research papers, and supporting site files for claim verification. CLAIMS.yml Reference file for status-sensitive Kaspa statements. Each entry links to evidence or source context. llms.txt Source pack for model context. Use it with the sources, status page, and claims file before asking technical questions. Builder categories and their evidence sources. Show verification links Feature / Claim Status Where to verify Evidence type Fast Proof-of-Work ordering (10 BPS) Live Status , live mainnet, wallets, block explorer Live activation, transactions, mining history UTXO model, self-custody Live Status , docs.kaspa.org , SDKs Protocol specification, SDK implementation Receipt and transfer paths Live Status , block explorer, wallet indexers Live protocol, working wallets, indexer code Transaction payload receipts Live Transaction payload docs , accepted-transaction evidence Documented payload behavior, txid, accepting block context Covenants (after Toccata) Targeted Status , rusty-kaspa , Toccata PR/release timeline Code in branches, release schedule, KIPs Vault rules, escrow, spend limits Targeted (Toccata) Builder Guide , Toccata covenant documentation Covenant design docs, examples in progress Proof verification hooks Targeted (Toccata) Status , Toccata specification Protocol specification, proof design documents TN12 covenant proof lab Testnet only TN12 covenant vault demo , results explorer , playground Accepted TN12 records show testnet money movement, app receipts, replayed balances, blocked actions, and explicit mainnet blockers. Use the linked lab for exact txids, payload counts, and reducer artifacts. Inline ZK verification Targeted Builder Guide , Status Protocol specification, research papers Full vProgs (app-specific execution) Roadmap Status , research.kas.pa , technical talks Research papers, architecture documents, talks Scaling beyond Crescendo 10 BPS Roadmap / research-dependent Status , research materials, talks Research documents, protocol vision DAGKnight (ordering improvement) Research Status , academic papers, protocol research Research papers, proof-of-concept implementations Coordination markets, oracle flows Research Application Layer , Status Design documents, research directions Public builder paths. These are the concrete Kaspa capabilities builders can rely on for product decisions: Vault and escrow After Toccata, covenant rules let you build vaults and escrow that enforce spending limits or unlock conditions without trusting a server. Receipts and proof of payment Fast inclusion and ordered history mean receipts settle quickly and can be verified on-chain. Indexers and APIs let you query proof of a payment. Assurance contracts After Toccata, simple contracts can enforce group commitments: \"if N people agree, do X; otherwise, refund everyone.\" Coordination markets Future vProgs and oracle flows may support markets where strangers agree on rules before trusting each other, for prediction, funding, or work. How to check a claim. Find the claim in CLAIMS.yml or read its context in Status . Check whether it is mainnet, testnet, future upgrade work, research, unsupported, or outside L1 scope. Follow the source link to primary material: code, releases, KIPs, papers, or core contributor posts. For builder tooling vs. mainnet status: check rusty-kaspa releases for code availability and docs.kaspa.org for official builder guidance. For roadmap claims: look for architecture documents or research direction, not announcement posts alone. Related pages. Builder Guide Programmability choices: covenants, based apps, inline ZK, vProgs, SDKs, and infrastructure evidence. Application Layer Status-labeled map of what builders can use now and what Toccata, vProgs, and research may support later. Status Shipped-vs-roadmap status with implementation evidence for features, activation dates, and common misconceptions. Sources & Reference Map Full source hierarchy and external reference map for protocol sources and builder resources. This page does not make Kaspa claims authoritative. It points you to places where claims are sourced. For protocol authority, check code, releases, and primary sources in Sources . For builder tooling status, check docs.kaspa.org and rusty-kaspa ." }, { "path": "overview.html", "href": "/overview", "url": "https://kaspaexplained.com/overview", "title": "Kaspa in 90 Seconds | Kaspa Explained", "h1": "Kaspa in 90 seconds.", "description": "A compact 90-second Kaspa overview: what Kaspa is, what is live, what comes later, why it matters, and what to read next.", "dateModified": "2026-05-18", "text": "90-second overview Kaspa in 90 seconds. Kaspa keeps Bitcoin-style mining, but lets honest blocks be found in parallel and still ordered into one shared payment history. Need shipped-versus-roadmap detail? Last checked May 18, 2026; use the status table for the TN10/TN12 and mainnet boundary. The short version What to know first. What Kaspa is Proof of Work, UTXO, blockDAG, and GHOSTDAG. The plain idea is faster mined ordering, not a proof-of-stake validator set. What is live Mainnet PoW, UTXOs, GHOSTDAG ordering, pruning-oriented node operation, and the 10 BPS Crescendo-era network. What comes later Toccata is targeted with TN10/TN12 testnet evidence, vProgs and native DeFi are roadmap, and DAGKnight plus RTD-derived app systems are research or future architecture. Why it matters Kaspa tests whether Bitcoin-style mining can feel fast enough for everyday use and later app rules while keeping L1 focused on ordering, ownership, and proofs. Status check What runs before what gets promised. Mechanism Kaspa keeps mined PoW and UTXOs, changes the block structure from one line to a DAG, and uses GHOSTDAG to order parallel honest work. Live status Mainnet already runs the PoW blockDAG, GHOSTDAG, UTXOs, pruning-oriented operation, and 10 BPS Crescendo-era network. Future work Toccata is targeted; TN10/TN12 evidence does not make it mainnet-live. vProgs and native DeFi are roadmap. DAGKnight and RTD-derived app systems are research or future architecture. Why it matters The thesis is fast mined ordering today, then app paths that produce useful activity and prove their rules if the roadmap ships and attracts real users. Read next Pick the next page. Need the compressed version Use one screen. Kaspa's thesis, live status, later roadmap, and strongest risks in one shareable page. Know literally zero Start before Kaspa. Records, keys, transactions, blocks, consensus, tokens, markets, and tradeoffs. Confused by prices? Understand value first. Unit price, market cap, liquidity, speculation, launch design, and security budget. Need current status Check what is live. What is live now, what is next, and what is still early. Know BTC / ETH / SOL Compare Kaspa's lane. Bitcoin monetary brand, Ethereum apps, Solana UX, and Kaspa's architectural claim. Want business signals Look beyond price. Wallets, nodes, mining, fees, liquidity, builders, integrations, and app demand. Need evidence Check the sources. Use the strongest source class for the claim you are checking." }, { "path": "what-crypto-is-good-for.html", "href": "/what-crypto-is-good-for", "url": "https://kaspaexplained.com/what-crypto-is-good-for", "title": "What Crypto Is Actually Good For | Kaspa Explained", "h1": "What crypto is good for.", "description": "A tempered guide to where crypto is useful, where it is weak, and why shared records without one operator matter.", "dateModified": "2026-05-16", "text": "Crypto reality check What crypto is good for. Crypto is useful when strangers need one shared record of who owns what and what rules apply, especially when they do not trust the same company, bank, platform, or government. Crypto is useful when strangers need one shared record of ownership and rules, and no single company should control it. Short version: use crypto when a shared record without one boss is worth the costs. Avoid it when a normal database, trusted operator, or legal process already solves the problem better. The primitive A blockchain is a costly shared ledger. NIST describes blockchains as tamper-evident and tamper-resistant digital ledgers implemented in a distributed way, usually without one central repository or central authority. That is the useful primitive. Bitcoin, stablecoins, NFTs, tokenized securities, DeFi, DAOs, and smart contracts are all built on top of that narrower idea. The native crypto question is not \"can this use blockchain?\" It is: can strangers coordinate around ownership, transfer, and rules without one company, bank, broker, platform, or state as the final authority? When the answer is yes, crypto may be in its lane. When the answer is no, it is often theater. Useful lane Where crypto is actually strong. Bearer digital assets Crypto makes digital assets behave more like cash: whoever controls the private key controls the asset. Example: holding BTC or KAS directly instead of leaving all control with an exchange or bank. Cross-border stablecoin settlement Stablecoins are imperfect dollar instruments and one of crypto's clearest product-market fits. Example: a freelancer receives dollar value from abroad when local banking rails are slow or unreliable. Tokenized collateral and funds Tokenized Treasuries, money-market funds, and institutional collateral can benefit from programmable ownership records and round-the-clock settlement. The legal wrapper still matters; the token alone is not the asset's entire legal reality. On-chain markets Decentralized exchanges and lending protocols make most sense when the assets, settlement, collateral, and execution already live on-chain. Example: swapping one on-chain asset for another without a traditional broker. Programmable escrow Smart contracts work best when conditions are objective and digitally verifiable: both parties sign, a vesting date arrives, collateral crosses a threshold, or asset and payment settle atomically. Digital provenance NFTs are most defensible as records of provenance, access, membership, ticketing, or platform-portable digital objects. Copyright, legal ownership, and cultural value need separate support. Open-network incentives Tokens can help coordinate validators, storage providers, liquidity providers, developers, compute markets, or other infrastructure participants when no single company should employ everyone. Credible neutrality Public protocols can let independent teams build wallets, clients, markets, analytics, and applications without asking one platform owner for permission or trusting one database operator. Bad fit Where crypto is usually weak. Normal domestic payments Cards, instant payments, bank transfers, Pix, UPI, SEPA, Zelle, and Apple Pay often provide better UX, refunds, fraud handling, identity checks, compliance, and customer support. Universal databases Most companies need PostgreSQL, not a public adversarial ledger. If one entity controls the users, data, permissions, and rules, a blockchain usually adds cost and complexity. Replacing courts Code can enforce simple rules. It cannot fully handle fraud, coercion, mistaken transfers, bankruptcy, inheritance, divorce claims, property disputes, identity theft, or contract ambiguity. Private records Public ledgers are pseudonymous, not private by default. Once an address is linked to a person or company, the transaction graph can become dangerously visible. Supply-chain truth machines A blockchain can preserve entered data. If someone lies about where the tuna came from, the chain can preserve the lie; it cannot inspect the tuna. Unsecured consumer credit Normal lending needs identity, income, credit history, collections, bankruptcy law, courts, and human context. Overcollateralized on-chain lending is a different product. Tokenizing everything A token does not automatically solve legal ownership, custody, inspection, liens, taxes, fraud, transfer restrictions, or jurisdiction-specific enforcement. Weak products with tokens A token is not a business model. Many projects use tokens to subsidize fake demand, mask weak economics, or move risk onto retail buyers. Tradeoffs What you get and what it costs. Property Benefit Cost Self-custody You control assets directly Lose keys, lose funds Irreversibility Final settlement No easy fraud recovery Public ledger Transparency and auditability Privacy leakage Permissionless access Anyone can participate Scams and low-quality projects flourish Programmability Automated financial logic Smart-contract and oracle risk Decentralization No single operator Slower governance and worse UX Token incentives Bootstraps open networks Speculation and misaligned incentives Global settlement Cross-border access Regulatory and compliance complexity People often call crypto \"trustless.\" That is usually too broad. Better wording: crypto can be trust-minimized in specific dimensions while shifting trust into code, wallets, bridges, oracles, governance, stablecoin issuers, custodians, frontends, and law. Decision rule Crypto makes sense when at least three are true. Use this as a gut check for any crypto project. If fewer than three boxes feel honestly true, the project is probably forcing crypto into a problem that does not need it. Shared ledger across parties that do not fully trust each other Users need to verify the rules themselves Assets must move globally, 24/7 Self-custody matters Censorship resistance matters The asset is digital or legally represented digitally Settlement speed is worth limited reversibility Composability with on-chain systems matters A token is necessary to coordinate incentives Crypto probably does not make sense when one company controls the whole system, users mainly want refunds and customer support, the data is private or legally sensitive, the hard part is verifying real-world facts, courts must enforce ownership, a normal database would work, or the token exists mainly to raise money. Bridge to Kaspa Judge Kaspa where shared records need neutrality. Kaspa belongs in the narrower lane where Proof of Work, self-custody, global settlement, censorship resistance, fast confirmation feel, and future apps that prove rules are meaningful enough to justify crypto's costs. That lane is technical. A credible shared ledger has to handle ordering, double-spend resistance, resource pricing, validation, storage growth, pruning, timing, and finality. Kaspa's blockDAG, UTXO model, mass rules, pruning commitments, and future covenant path all point at those ledger problems directly. That is why the site separates live features from near-term implementation, roadmap architecture, and research. Kaspa's current facts already give readers enough to evaluate. Extra claims about every crypto idea or every roadmap item would weaken the page. Continue to why Kaspa matters Source notes Sources for the reality check. NIST IR 8202 for the blockchain-as-distributed-ledger definition. World Bank Remittance Prices Worldwide for remittance-cost context. Chainalysis 2024 Latin America report for stablecoin usage in Argentina and Brazil. IMF Understanding Stablecoins for stablecoin policy risks. BIS Annual Economic Report 2025, Chapter III for tokenized monetary and financial infrastructure. Securitize / PR Newswire on BUIDL surpassing $1B AUM as a dated institutional-tokenization milestone. BIS Annual Economic Report 2022, Chapter III for the critique of crypto as the basis for a monetary system. Next step Pick your missing layer. If records, keys, blocks, consensus, tokens, or market cap are still unclear, use the zero-start guide first. If the useful crypto lane is clear, continue to Kaspa. Open Crypto From Zero Continue to Why Kaspa" }, { "path": "status.html", "href": "/status", "url": "https://kaspaexplained.com/status", "title": "Kaspa Status | Kaspa Explained", "h1": "Kaspa current status.", "description": "A compact status page for Kaspa: what is live, what is targeted, what is roadmap, what remains research, and which common claims need context.", "dateModified": "2026-05-20", "text": "Current status Kaspa current status. Kaspa is live as a mined UTXO network where a blockDAG and GHOSTDAG order parallel blocks. This page is scoped to L1 protocol status: live mainnet behavior, Toccata readiness, emissions, and roadmap boundaries. Legend Live Targeted Roadmap Research Not live Checked: May 20, 2026 at 12:54 PM CDT. The public mainnet REST API reported kaspa-mainnet , virtual DAA score 438,800,479, 10,971,285 blocks, about 27.45 billion KAS from the supply endpoint, and a 2.75 KAS block reward. Toccata: still pending on mainnet; the TN10 activation result is testnet evidence until mainnet release and activation sources confirm otherwise. Freshness triggers What would change this page. Toccata release Rusty Kaspa release notes, KIP status, activation parameters, upgraded node behavior, and mainnet observations would move claims out of the pending lane. Mainnet behavior Observable accepted mainnet transactions using the new rules carry stronger evidence than testnet examples or roadmap posts. L1 source drift Mainnet API readings, Rusty Kaspa releases, KIP states, and emission-schedule checkpoints should be refreshed before quoting exact values. Use the Status Updates page for dated snapshots. Use this page for the current public wording standard. Usable today What users can do now. Hold and transfer Send, receive, and self-custody KAS on the live Proof-of-Work UTXO blockDAG. Verify and observe Run or study nodes, explorers, visualizers, pruning behavior, and GHOSTDAG ordering. Mine or study mining Kaspa is ASIC-mined today; mining economics and distribution should be checked with current dashboards. Build around the live lane Wallet UX, payment flows, analytics, education, and infrastructure can use today's 10 BPS foundation. Check the L1 state Compare public REST readings with a node, release notes, KIP status, and accepted mainnet behavior before turning a snapshot into a claim. Snapshot Status in one table. If you only remember one rule, remember the split: live mainnet behavior, testnet evidence, targeted upgrade work, roadmap architecture, and research are different statements. Live network PoW, UTXO, GHOSTDAG, Crescendo 10 BPS, and base real-time PoW framing. May 20 L1 check Mainnet API readings showed 10,971,285 blocks, virtual DAA score 438,800,479, about 27.45 billion KAS, and 2.75 KAS per block. Emission path Emission steps down monthly. May 2026 is 27.5 KAS/sec; June 7 shifts to 25.9565436 KAS/sec. This is not a one-day July cliff. Feature / idea Status Plain meaning Anchor source Proof of Work Live Kaspa is mined. Work and issuance are external to any validator identity set. rusty-kaspa UTXO model Live Kaspa tracks spendable outputs; Ethereum tracks global account balances. rusty-kaspa GHOSTDAG Live The live ordering rule that lets parallel blocks contribute to consensus. Kaspa Research Crescendo 10 BPS Live The 10 blocks-per-second era is live. Michael Sutton framed practical throughput as roughly 8-9x higher and confirmation-time improvement around 30%, not instant finality or a clean 10x confirmation improvement. rusty-kaspa releases ; Crescendo roadmap note ; Kaspa.org lore May 20 L1 snapshot Live snapshot Public mainnet REST readout: virtual DAA 438,800,479; 10,971,285 blocks; about 27.45 billion KAS from the supply endpoint; 2.75 KAS per block. Recheck before quoting exact numbers. mainnet blockDAG API ; supply API ; block reward API Emission schedule Live design The official schedule steps down monthly: 27.5 KAS/sec from May 8, 2026, 25.9565436 KAS/sec from June 7, and 24.49971475 KAS/sec from July 7. Avoid \"July emission cliff\" wording. official emission schedule Base RTD framing Live Real-time decentralization is Hashdag's framing for Kaspa's core edge: Bitcoin-style PoW security and censorship-resistance goals with seconds-scale confirmation feel under normal network conditions. Kaspa.org lore ; hashd.ag/raw Toccata Targeted Hard-fork track for L1 spend rules, asset rules, Silverscript, ZK proof checks, sequencing commitments, standalone based-zk applications, and vProgs groundwork. Testnet-10 has passed the tn10-toc2 activation score; mainnet activation still needs separate release and network evidence. tn10-toc2 release ; Kaspa KIPs ; Kaspa.org Build vProgs Roadmap Apps that prove richer logic while sharing Kaspa ordering, without turning L1 into one global execution VM. vProgs talk Native DeFi Roadmap A design target after Toccata-era L1 foundations, not a mature live Kaspa-native app layer today. Why Kaspa DAGKnight Research A major parameterless/adaptive consensus direction. It is not current mainnet behavior. Kaspa.org lore ; hashd.ag 100 BPS / partition-resilient payments Research Kaspa.org now places 10 millisecond blocks, 100 BPS work, and partition-resilient local payment flows in a proposed 2027 hard-fork bucket. Treat this as roadmap/research until specifications, code, releases, and activation evidence exist. Kaspa.org lore RTD-derived oracle / TangVM flows Research Oracle, TangVM, attestation, and coordination-market systems can be built by apps over Kaspa primitives, but they are not protocol-prescribed products. hashd.ag/raw Today Current user actions. Base network Send and receive KAS, self-custody, use wallets and explorers, and experience the live high-rate blockDAG. Infrastructure Run nodes, study pruning, inspect mining, follow releases, and learn how GHOSTDAG orders the DAG. Supply and reward Check the public supply and block-reward endpoints when quoting current issuance. The May 20 check showed about 27.45 billion KAS and a 2.75 KAS block reward. Upgrade evidence Follow Rusty Kaspa releases, KIP PR states, activation parameters, and observed mainnet behavior. Testnet activation is useful evidence, not mainnet activation. L1-first app work The goal is not separate sequencer empires. Toccata gives L1 covenant and based-zk foundations; full vProgs later target shared Kaspa sequencing and synchronous composition. Common misconceptions Statements that need context or measurement. Most confusion comes from mixing live protocol facts, test results, public targets, app/project headlines, and research into one claim. Use these checks before repeating a Kaspa claim. Claim people repeat Better version Why it matters Mainnet speed means a fixed huge TPS number. 10 BPS is live. TPS depends on transaction size, policy, block capacity, fees, network conditions, and whether you mean test capacity or normal organic demand. A single number can turn a real technical edge into a brittle marketing claim. Block rate alone gives a clean finality multiplier. Faster blocks improve inclusion and capacity. Confirmation confidence is a separate probabilistic question. Users care about both when a payment appears and how confident they should be that it will not reverse. Testnet or lab numbers are mainnet guarantees. Testnets and experiments are useful signals. They need current source context before being used as live public claims. Future capability, engineering tests, and shipped network behavior should not be flattened. Real-time means instant finality. Real-time is the fast-PoW user-feel and decentralization frame. It is not a claim that every transaction is instantly irreversible. This keeps the pitch strong without overselling settlement certainty. DAGKnight, Toccata, vProgs, or native DeFi are live because code or talks exist. Code, talks, branches, and demos are evidence of work. Activation or production status needs stronger primary evidence. Development evidence is useful, but it belongs below release or activation evidence. Toccata means one atomic action can already span several independent apps. Toccata is the foundation for covenant rules, ZK proof checks, sequencing commitments, and based-zk applications. Full cross-app atomic composition belongs to later vProgs. Fast L1 coordination and same-operation app composability are different claims. Kaspa has a July 2026 emission cliff. Kaspa emission steps down monthly. The official schedule shows 27.5 KAS/sec from May 8, 25.9565436 from June 7, and 24.49971475 from July 7. The scarcity story should use the actual schedule instead of a dramatic one-day cliff claim. Open KIPs or branches prove an upgrade is activated. Open KIPs, branches, and pre-releases are development evidence. Activation needs release artifacts, activation parameters, upgraded node behavior, and observable mainnet behavior. This keeps the upgrade story grounded in primary L1 evidence instead of roadmap momentum. Implementation evidence Code evidence. Code and pull requests are not activation records. They are useful for seeing what is being tested, polished, or prototyped before a public status label changes. Open code and implementation evidence Track Recent public evidence How to read it Toccata / Silverscript TN12 dependency sync , KCC20 bootstrap fixes , and book/build fixes landed May 4-5, 2026. TN12 field testing surfaced developer-ergonomics issues around covenant and ZK opcode use. The tn10-toc2 pre-release scheduled Testnet-10 activation at DAA score 467,579,632; a May 20 check of Testnet-10 REST status showed virtual DAA 469,381,698. Targeted. The public mainnet target window remains roughly June 5-20, 2026 and still needs activation evidence. Current code signals show hard-fork/testnet scheduling, polishing, and SDK rough-edge discovery. Toccata KIPs Kaspa.org Build lists sequencing commitments in the Toccata bundle and labels it live on TN12 ahead of mainnet activation. GitHub API checks on May 20 showed KIP-16 , KIP-17 , KIP-20 , and KIP-21 still open. Targeted design and implementation evidence. Do not describe the final mainnet interface as settled until KIP, release, and activation artifacts agree. vProgs The kaspanet/vprogs repo had an April 15, 2026 implementation burst: RISC0 backend , ZK VM, transaction and batch provers, ABI, codec, and Sparse Merkle Tree work. Roadmap implementation progress. Builders can study and experiment with the framework. Production Kaspa app paths and native DeFi need separate shipped evidence. DAGKnight The public rusty-kaspa dagknight branch shows March 22, 2026 commits for free-search support, ranking/search refinements, conflict-zone work, tie-breaking placeholder, and UMC majority-coverage movement. Research and prototype evidence. Current mainnet behavior remains GHOSTDAG; live finality and higher-BPS claims need separate activation evidence. Builder tooling kaspanet/kaspa-python-sdk is now a standalone public SDK repo. The v1.1.0 release added GetVirtualChainFromBlockV2 plus UtxoProcessor and UtxoContext bindings, with a versioned changelog and generated documentation. Developer-tooling progress, not a protocol upgrade. It helps Python builders track UTXOs and integrate with Kaspa, while protocol status still comes from node, KIP, and activation evidence. Infrastructure indexes rusty-kaspa PR #860 is open for review. It proposes an optional --txindex , a GetTransaction RPC path, inclusion and acceptance metadata, live updates from consensus notifications, resync from scratch, and pruning tied to retention-root changes. Builder and infrastructure work. It could help wallets, explorers, indexers, and large app-state workflows. It remains an open pull request until merged and released. Builder note: early tests and open PRs are useful signals for developers. They stay below release or activation evidence until a primary artifact changes the status. Changelog Status-sensitive updates. Open status changelog May 4, 2026 Separated base RTD framing from downstream oracle, TangVM, and coordination-market ideas. Base RTD is treated as Hashdag's real-time PoW framing for Kaspa; RTD-derived app systems remain app-level research or architecture work. May 4, 2026 Marked Toccata as targeted with a public June 5-20, 2026 window. Remaining dependencies: testnet, audit, rehearsal, and activation evidence. Older May 5 references are no longer the current target. May 5, 2026 Added the Crescendo nuance: 10 BPS is separate from confirmation improvement. Public summaries should distinguish roughly 8-9x throughput improvement from faster, still probabilistic, confirmation dynamics. May 5, 2026 Clarified why Toccata moved from the older May 5 target to the roughly June 5-20 window: sequencing commitments needed to be finalized before zk systems and runtimes depend on them. May 6, 2026 Added code-grounded implementation evidence for the Toccata/Silverscript, vProgs, and DAGKnight tracks. These notes describe current development; activation status still comes from release and network evidence. May 6, 2026 Added Python SDK and TxIndex as builder/infrastructure evidence. These help developers and indexers while leaving protocol status unchanged. May 15, 2026 Added the redesigned Kaspa.org source frame: real-time decentralization as the official north star, Toccata next, DAGKnight after Toccata, and 2027 work around 100 BPS plus partition-resilient payment flows. Kept 100 BPS and partition-resilience in the research/roadmap lane. May 15, 2026 Added KIP-21 and infrastructure notes from the current source trail. Sequencing commitments are targeted/TN12 evidence, while production API/indexer choices remain builder-infrastructure decisions. May 18, 2026 Updated TN10 wording after checking the Testnet-10 REST API. TN10 had passed the tn10-toc2 activation score, which is useful testnet evidence and still not mainnet activation evidence. May 20, 2026 Refreshed the page as an L1-only status check. Added mainnet API readings, block reward, supply, smooth emission-schedule wording, TN10/Toccata status, and open KIP guardrails; removed app/project tooling from the main status table. FAQ Common status questions. Is DAGKnight live? No. DAGKnight is a parameterless/adaptive consensus upgrade direction, not current mainnet behavior. Is Toccata live? No. It is a targeted hard-fork track with a public June 5-20, 2026 mainnet window. Testnet-10 has passed the tn10-toc2 activation score, and a May 20 check still showed TN10 above that score, but mainnet status still needs mainnet release and activation evidence. Are Kaspa smart contracts live? Not as mature Kaspa-native programmability on mainnet. The near-term path runs through Toccata, spend rules, asset rules, ZK proof checks, sequencing commitments, and later vProgs. Are cross-app actions live? Not as full atomic app-to-app composition. Toccata can improve fast, verifiable coordination through L1 foundations; later vProgs target richer actions across app boundaries. Next step Next reading path. After checking shipped status, use the compact thesis for sharing, or the adoption page to evaluate progress without relying on price. Kaspa in one screen Adoption metrics Start from zero" }, { "path": "kaspa-claims-checker.html", "href": "/kaspa-claims-checker", "url": "https://kaspaexplained.com/kaspa-claims-checker", "title": "Kaspa Claims Checker: Live Mainnet, Testnet, Roadmap, or Not Yet | Kaspa Explained", "h1": "Kaspa claims checker.", "description": "Kaspa claims checker for common public claims: smart contracts, Toccata, DAGKnight, 10 BPS, finality, emissions, DeFi, covenants, and vProgs.", "dateModified": "2026-05-20", "text": "Claims Kaspa claims checker. Use this page when a Kaspa claim needs a status label. The useful question is whether the claim is live mainnet, testnet evidence, targeted upgrade work, roadmap architecture, research, wrong, unsupported, or outside this site's L1 scope. Citable summary: Kaspa should be described by status: live PoW blockDAG, targeted Toccata work, roadmap vProgs/native app paths, and research such as DAGKnight. App/project claims are outside this site's status lanes unless L1 transaction evidence itself is the point. Last checked: May 20, 2026. Recheck after Toccata release or activation evidence, KIP state changes, or emission checkpoints. Common claims Live, roadmap, research, or not yet? Claim Status Best wording Source path Kaspa is proof-of-work Live Kaspa is a mined proof-of-work network. rusty-kaspa Kaspa is a blockDAG using GHOSTDAG Live Kaspa uses GHOSTDAG to order parallel blocks into one history. GHOSTDAG page Kaspa is 10 BPS Live Kaspa is in the Crescendo-era 10 BPS network. releases Kaspa already runs at 100 BPS Research 10 BPS is live; Kaspa.org places 100 BPS in a proposed 2027 hard-fork/research bucket. Kaspa.org lore Kaspa payments become irreversible immediately Wrong Kaspa has fast inclusion and probabilistic confirmation confidence. finality page Toccata has activated on mainnet Targeted Toccata is a targeted hard-fork track until mainnet activation evidence exists. Toccata page TN10 Toccata test means mainnet activation Testnet only The tn10-toc2 release and Testnet-10 DAA evidence are testnet-only evidence. Mainnet status still needs mainnet evidence. tn10-toc2 release TN12 proves mainnet covenants Testnet only TN12 evidence is testnet evidence; mainnet claims need activation evidence. status Kaspa has mature native smart contracts Not yet Kaspa's app path runs through Toccata and later vProgs; mature native DeFi is not live. smart-contract status Kaspa has a July 2026 emission cliff Misleading Kaspa emission steps down monthly; quote the official schedule instead of a one-day cliff. emission schedule DAGKnight is current mainnet consensus Research DAGKnight is a future consensus direction, not current mainnet behavior. dagknight branch vProgs have shipped as production app infrastructure Roadmap vProgs are roadmap architecture and early framework work, not a mature live Kaspa-native app layer. vprogs repo Native DeFi has shipped as a mature Kaspa product layer Roadmap Native DeFi depends on future app primitives, wallets, liquidity, custody, risk controls, and users. app layer Wording Copyable answers. Newcomer Kaspa is a live proof-of-work blockDAG. GHOSTDAG orders parallel blocks into one payment history. Toccata Toccata is the targeted hard-fork track for covenant-style programmability. Treat TN10/TN12 evidence as testnet evidence until mainnet activation evidence exists. Finality Kaspa has fast inclusion and increasing confirmation confidence, not instant irreversibility. Emission Use monthly step-down wording: 27.5 KAS/sec from May 8, 25.9565436 from June 7, and 24.49971475 from July 7. L1 scope Do not use market listings, app demos, or project tools as evidence that L1 rules have activated. Sources Use releases, code, KIPs, docs, research, and observable network evidence before changing a live-status claim. Next checks Answer the exact question. What is Kaspa? Is Toccata live? Smart-contract status Finality Sources" }, { "path": "claims-reference.html", "href": "/claims-reference", "url": "https://kaspaexplained.com/claims-reference", "title": "Kaspa Claims Reference | Kaspa Explained", "h1": "Claims need a status label.", "description": "Human-readable guide to the Kaspa Explained claims file: live claims, testnet evidence, targeted upgrades, roadmap items, research, and forbidden overclaims.", "dateModified": "2026-05-20", "text": "Claims reference Claims need a status label. This page is the browser-friendly companion to CLAIMS.yml . Use it when a crawler, reader, or AI tool needs the claim categories without opening a raw YAML file. Last checked: May 20, 2026. This page summarizes the claims file; the raw file remains the machine-readable source. Open raw claims file Use claims checker Open current status Open sources How to use it Start with the claim, then ask what evidence it has. Live Use for behavior available on Kaspa mainnet now: Proof of Work, UTXO ownership, GHOSTDAG ordering, Crescendo-era 10 BPS, wallets, nodes, and explorers. Out of L1 scope App/project catalog context stays outside this site's status lanes unless the claim is specifically about L1 transaction data, accepted transactions, or miner fees. Testnet-only Use for TN10/TN12 activation or covenant proof work, accepted testnet transactions, rejected mutation cases, and developer-flow evidence. It does not prove mainnet activation. Targeted Use for Toccata and related near-term work until release, activation parameters, upgraded node behavior, and observable mainnet behavior exist. Roadmap Use for vProgs, full cross-app composition, and richer app architecture that still needs shipped software and users. Research Use for DAGKnight, 100 BPS research, partition-resilient payments, RTD-derived oracle/attestation flows, TangVM, and coordination-market systems. Copy rules Do not let a clean sentence overstate the claim. Topic Safe wording Avoid Finality Fast mined inclusion and probabilistic confirmation confidence. Instant finality or immediate irreversibility. Polychain Polychain belongs in the VC-funded DAGLabs prehistory, not as a token premine or pre-sale allocation. Ignoring Polychain context or treating it as proof of a premine. Fair launch No premine, insider allocation, or pre-sales; every coin came from mining, including the post-launch DAGLabs/Polychain-related early mining estimate. DAGLabs/Polychain premine language, flawless distribution, or no early contributor mining. Original codebase Original Kaspad was Golang and source-backed as an adaptation of btcd . A specific Bitcoin Core version without a durable source. App/project tooling Out of scope unless the claim is specifically about L1 transaction data, accepted transactions, or miner fees. App activity proves mainnet activation or native smart contracts. TN10 Testnet-10 Toccata activation evidence. TN10 test activation is mainnet activation. TN12 Useful testnet evidence for covenant developer flows and opcode testing. TN12 txids or rejections prove mainnet covenant enforcement. Toccata Targeted hard-fork track until activation evidence changes the status. Mainnet Toccata has activated without release and activation evidence. Emission Monthly step-down schedule; May 2026 is 27.5 KAS/sec, June 7 is 25.9565436 KAS/sec, and July 7 is 24.49971475 KAS/sec. July 2026 is a one-day emission cliff. vProgs Later app architecture for apps that prove richer logic while sharing Kaspa ordering. vProgs are a mature live app ecosystem. DAGKnight Research and future consensus direction. DAGKnight is current mainnet behavior. ZK hooks ZK can prove computation over chosen inputs; external facts still need anchors. A proof alone proves prices, other chains, reserves, or real-world events. Editor rule One sentence test catches most mistakes. If a sentence adds no actor, action, evidence, status label, constraint, consequence, distinction, or useful judgment, delete it. Use the copy style file for the full writing rule set and AI Guidance when asking a model to summarize Kaspa." }, { "path": "toccata-status.html", "href": "/toccata-status", "url": "https://kaspaexplained.com/toccata-status", "title": "Kaspa Toccata Status: Covenants, TN10/TN12, and Mainnet Evidence | Kaspa Explained", "h1": "Kaspa Toccata status.", "description": "Kaspa Toccata status page: what Toccata targets, what TN10/TN12 testnet evidence shows, what remains before mainnet activation, and what should not be overclaimed.", "dateModified": "2026-05-20", "text": "Toccata status Kaspa Toccata status. Toccata is the hard-fork track for covenant-style Kaspa L1 programmability. As of May 20, 2026, public sources show TN12 testnet work and Testnet-10 past the tn10-toc2 activation score of 467,579,632. Mainnet activation still needs mainnet evidence. Citable summary: Toccata targets Kaspa L1 covenants, ZK proof hooks, sequencing commitments, and based-app foundations; call it pending until release and mainnet activation evidence exists. Current state Status by area. Mainnet release Release notes and code need to identify the rules that mainnet nodes will enforce. Activation parameters The activation path needs explicit parameters, date, height, score, or equivalent network logic. Observed behavior Mainnet node behavior, accepted transactions, API responses, and explorer reads need to show the new rules after activation. What would make this live: mainnet release, activation parameters, upgraded node behavior, and observable mainnet behavior under the new rules. Area Status What it means TN10 activation test Testnet The tn10-toc2 pre-release scheduled Testnet-10 activation at DAA score 467,579,632; a May 20 check of the Testnet-10 REST API showed virtual DAA 469,381,698, above that score. TN12 covenant testing Testnet Useful evidence for developer flows and opcode testing. It does not upgrade mainnet status. Silverscript Targeted High-level scripting language and examples for native Kaspa Script work. Toccata KIPs Targeted May 20 GitHub checks showed KIP-16, KIP-17, KIP-20, and KIP-21 still open. Keep final-interface wording conditional until KIP, release, and activation artifacts agree. zk verification hooks Targeted Proof checks can help app verification, but external facts still need anchors. Mainnet activation Pending Needs release, rehearsal, activation logic, hardcoded date or parameters, and observable mainnet behavior. Full vProgs composition Roadmap Later architecture for richer app-to-app behavior, not the immediate Toccata surface. Wording Use this wording. As of May 20, 2026, Toccata should be described as a targeted hard-fork track with TN12 testnet work, Testnet-10 activation evidence, and open KIP guardrails. Mainnet claims need mainnet release and activation evidence. What it can enable Vault rules, asset rules, escrow paths, assurance contracts, proof checks, sequencing commitments, and standalone based-app foundations. What it does not prove yet Mature native DeFi, full vProgs, full app-to-app atomic composition, or mainnet production readiness. What to verify next Post-test stability, TN12 status, KIP-16/17/20/21 proposal state, branch merge, audit/rehearsal, mainnet release notes, activation parameters, and upgraded-node behavior. Sources Where the status comes from. tn10-toc2 release TN10 REST status Kaspa.org lore Kaspa build page KIP-16 PR KIP-17 PR KIP-20 PR KIP-21 PR Silverscript Smart-contract status Full status" }, { "path": "kaspa-smart-contracts-status.html", "href": "/kaspa-smart-contracts-status", "url": "https://kaspaexplained.com/kaspa-smart-contracts-status", "title": "Does Kaspa Have Smart Contracts? Current Status | Kaspa Explained", "h1": "Does Kaspa have smart contracts?", "description": "Does Kaspa have smart contracts? L1 status guide to Toccata covenants, Silverscript, ZK hooks, vProgs, and native DeFi claims.", "dateModified": "2026-05-20", "text": "High-intent claim Does Kaspa have smart contracts? Kaspa currently supports live L1 payments. Kaspa-native programmability is still pre-mainnet: Toccata targets covenant-style L1 rules, while richer based-app and vProgs work remains roadmap. Citable summary: Kaspa's live network supports payments; Toccata and vProgs are the L1 app-programmability path, not already-live native DeFi. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, emission, or finality claims. Status split Do not put these in one bucket. Surface Status What it means KAS payments Live Send, receive, mine, self-custody, and build wallet/payment UX around the live network. External app demos Not L1 evidence App activity can exist without proving native L1 smart contracts or Toccata activation. Toccata covenants Targeted L1 spend rules, asset rules, Silverscript, ZK proof checks, and sequencing commitments are the near-term hard-fork track. vProgs Roadmap Richer app logic and later app-to-app composition need separate activation and tooling evidence. Native DeFi Roadmap Useful DeFi also needs wallets, liquidity, custody, oracles, risk controls, and real users. Safe wording Copy this instead. Kaspa currently supports live L1 payments. Kaspa-native programmability is still pre-mainnet: Toccata targets covenant-style L1 rules, while richer based-app and vProgs work remains roadmap. Copy-safe line App demos are not native L1 smart-contract activation. What is true Kaspa's native L1 programmability path is still the Toccata and vProgs track. What to check Activation evidence, wallet support, indexers, liquidity, source of funds, and user-facing product evidence. Read next Follow the app path. Toccata status Builder guide Application layer Claims checker" }, { "path": "kaspa-confirmations-finality.html", "href": "/kaspa-confirmations-finality", "url": "https://kaspaexplained.com/kaspa-confirmations-finality", "title": "Kaspa Finality: Fast Inclusion vs Confirmation Confidence | Kaspa Explained", "h1": "Fast inclusion is different from instant finality.", "description": "Kaspa finality explained: fast inclusion, GHOSTDAG ordering, probabilistic confirmation confidence, 10 BPS limits, and why real-time does not mean instant finality.", "dateModified": "2026-05-16", "text": "Claim correction Fast inclusion is different from instant finality. Kaspa can feel fast because blocks arrive quickly and GHOSTDAG orders parallel work. That does not mean a payment is instantly irreversible the moment it appears. Citable summary: Kaspa has fast mined inclusion and probabilistic confirmation confidence; \"real-time\" should not be repeated as \"instant finality.\" Payment path What happens to a transaction. 1 Seen The wallet or node sees a transaction. 2 Included A miner includes it in a proof-of-work block. 3 Ordered The block joins the DAG and GHOSTDAG orders history. 4 Accepted Nodes accept the ordered transaction under consensus rules. 5 Confidence Confidence increases as more work builds around the history. Copy block Use this wording. Kaspa improves proof-of-work payment latency through a 10 BPS blockDAG and GHOSTDAG ordering. Transactions can be included quickly, while confidence still increases probabilistically over time. Bad shortcut Better version Kaspa payments are irreversible immediately. Kaspa has fast inclusion and increasing probabilistic confidence. 10 BPS means 10x finality. 10 BPS is live; finality confidence also depends on accumulated work and network conditions. Real-time means irreversible now. Real-time means fast mined user feel, not instant irreversibility. Read next Check related claims. GHOSTDAG explained Claims checker Status table Sources" }, { "path": "ghostdag-explained.html", "href": "/ghostdag-explained", "url": "https://kaspaexplained.com/ghostdag-explained", "title": "GHOSTDAG Explained | Kaspa Explained", "h1": "GHOSTDAG explained.", "description": "GHOSTDAG explained in plain English: how Kaspa orders parallel proof-of-work blocks in a blockDAG without claiming instant finality.", "dateModified": "2026-05-16", "text": "Protocol explainer GHOSTDAG explained. GHOSTDAG is the live Kaspa rule that turns a graph of parallel proof-of-work blocks into one ordered payment history. Citable summary: GHOSTDAG is Kaspa's current blockDAG ordering rule; it is not DAGKnight and it does not mean instant finality. Plain model Why Kaspa needs it. Problem If blocks arrive quickly, honest miners can find blocks at nearly the same time. Old shape A single chain has to choose one path. Some honest work can become stale or orphaned. Kaspa shape A blockDAG keeps more parallel blocks visible in the record. Ordering rule GHOSTDAG gives nodes a shared way to classify and order the graph. User effect Transactions can appear quickly while confirmation confidence increases over time. Boundary This is fast mined ordering, not proof that every transaction is instantly irreversible. Confusions Say it safely. Question Answer Best wording Is GHOSTDAG live? Live GHOSTDAG is Kaspa's live blockDAG ordering rule. Is it DAGKnight? No DAGKnight is a separate future consensus direction. Does it remove finality risk? No Kaspa has fast inclusion and probabilistic confirmation confidence. Does it mean unlimited TPS? No Throughput depends on block capacity, policy, fees, demand, and network conditions. Source trail Verify the claim. Use Kaspa Research for protocol lineage, Rusty Kaspa for implementation, the status page for current labels, and the finality page for payment-confidence wording. Kaspa Research Rusty Kaspa Confirmations and finality Status" }, { "path": "faq.html", "href": "/faq", "url": "https://kaspaexplained.com/faq", "title": "Kaspa FAQ | Kaspa Explained", "h1": "Direct answers to common Kaspa questions.", "description": "Direct answers to common Kaspa questions and misconceptions: Toccata, DAGKnight, smart contracts, TPS, 10 BPS, GHOSTDAG, blockDAG, vProgs, and RTD.", "dateModified": "2026-05-20", "text": "FAQ Direct answers to common Kaspa questions. Short careful answers first. Status, glossary, and sources carry the details. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, or finality claims. Common search Is Toccata live? No. It is targeted, with a public June 5-20, 2026 window. Common search Is DAGKnight live? No. DAGKnight is a research and upgrade direction, not current mainnet behavior. Common search Does Kaspa have smart contracts? Not as mature Kaspa-native programmability on mainnet. The near-term path runs through Toccata and later vProgs. Common search What is GHOSTDAG? Kaspa's live rule for ordering a blockDAG so parallel honest blocks can contribute to consensus. Common search Why is KAS cheaper than BTC? Unit price is the wrong comparison. Market cap, adoption, liquidity, and certainty matter more. Common mistakes What needs context? Speed, TPS, finality, testnets, apps, and adoption are different topics. Live network What is live now? Is Kaspa Proof of Work? Yes. Kaspa is mined Proof of Work. It is not Proof of Stake. What is GHOSTDAG? GHOSTDAG is Kaspa's live consensus rule for ordering a blockDAG so parallel honest blocks can contribute to consensus. What does 10 BPS mean? It means roughly ten blocks per second in the Crescendo-era network. Throughput and finality still have protocol limits. Common misconceptions Short corrections for claims that spread fast. Does 10 BPS prove a fixed TPS number? No. TPS depends on transaction size, block capacity, policy, fees, network conditions, and whether the number is a lab test, a sustained-capacity estimate, or normal organic use. Does 10 BPS mean 10x finality? No. Faster blocks can improve inclusion and capacity. Confirmation confidence is separate and still probabilistic. Does real-time mean instant finality? Real-time means fast mined inclusion and user feel. Finality confidence is still probabilistic. Do testnet numbers count as mainnet? Testnets and experiments are development evidence. Mainnet guarantees need mainnet evidence. Does code activity mean activation? No. Branches, pull requests, demos, and talks can show progress. Activation needs primary release, KIP, node, or network evidence. Does low fee usage prove adoption? Not by itself. Low fees make experiments cheap; adoption needs durable wallets, integrations, liquidity, useful apps, recurring users, and fee-paying demand. Why is one KAS so much cheaper than one BTC? Because unit price is not valuation. Bitcoin has fewer units and a much larger market cap. The market prices Bitcoin as a proven monetary network with deep liquidity, institutional access, custody, derivatives, and global brand. Kaspa is priced more like a promising technical network that still has to prove durable adoption beyond technical merit. Could that mean Kaspa is underpriced? Only if the market is discounting future adoption too heavily. The bullish case is that fast Proof of Work, Toccata, based-app development, and real products eventually create demand the market has not priced. The skeptical case is that Bitcoin already has monetary certainty while Kaspa still has execution, liquidity, wallet, app, and adoption risk. Does a roadmap idea belong in the headline? Usually not. Lead with what works now, then say plainly what depends on future upgrades. Roadmap and research What is not live yet? Is Toccata live? No. It is a targeted hard-fork track with a public June 5-20, 2026 window. Are Kaspa smart contracts live? Not as mature Kaspa-native programmability on mainnet. The near-term path runs through Toccata, spend rules, asset rules, ZK proof checks, sequencing commitments, and later vProgs. Does Toccata allow one action across multiple apps? Not fully. The important distinction is atomicity, not whether two transactions land near each other. Toccata gives Kaspa covenant, ZK, sequencing, and based-zk foundations for fast verifiable coordination. Full app-to-app actions that succeed or fail as one combined operation belong to the later vProgs roadmap. Can a ZK proof prove what happened on another chain? Not by itself. A proof can show that a circuit checked against chosen inputs. A bridge or oracle-style app still needs an agreed anchor for the outside fact, such as a source-chain light client, finality certificate, accumulated-work view, oracle, reporter set, or challenge process. Does Kaspa need a based rollup for the first Toccata apps? No. Direct L1 covenant examples such as vaults, escrow, and assurance contracts can be built on Toccata itself. A based rollup becomes relevant later for richer execution, especially if the path is compatible with vProgs. Is DAGKnight live? No. DAGKnight is a parameterless/adaptive consensus upgrade direction, not current mainnet behavior. Are vProgs live? No. vProgs are roadmap architecture for apps that prove richer rules while sharing Kaspa ordering, not mature live app paths today. Does Toccata mean external L2s are required? No. The thesis is L1-first: Toccata provides covenant and based-zk rails on Kaspa L1, while apps or runtimes can build on that shared ordering and payment surface. Full vProgs later target app-to-app composition beyond standalone based-zk apps. Is native Kaspa DeFi live? No. Native DeFi remains roadmap/application architecture, dependent on future foundations and tooling. Are RTD-derived oracle or TangVM flows live? No. Base RTD is Hashdag's real-time PoW framing for Kaspa. Oracles, TangVM, miner attestations, and public group-commitment markets are app-level research ideas built over Kaspa primitives, not protocol-prescribed products. Does DAGKnight use observed latency? The research framing uses adversarial or worst-case latency assumptions, including conditions rougher than smooth latency visible during normal network operation. What does Solana-like mean? It means a cohesive, Rust-friendly developer and user experience. Kaspa L1 keeps its own execution model. Comparison How should Kaspa be described? Is Kaspa just Bitcoin but faster? No. A better short description is: Kaspa is Proof of Work redesigned around parallel blocks. It keeps mined security while using a blockDAG and GHOSTDAG ordering. Does Kaspa solve every scaling problem? No. The live claim is narrower: faster Proof-of-Work inclusion and confirmation dynamics through a blockDAG, with storage, node resources, fees, and future app infrastructure still important. Does Kaspa require super-fast internet? Current GHOSTDAG has latency assumptions, like other synchronous consensus systems. DAGKnight is the future research direction for removing a fixed protocol latency parameter; it is not live today. Does pruning make Kaspa private? No. Pruning and missing explorer history are not privacy guarantees. UTXO state remains the consensus object, and broadcast transactions can still be observed or archived by others. Next step Next reading path. If the words in this FAQ are unfamiliar, start from zero. If you only need shipped-vs-roadmap status, use the status table. Start from zero Open status" }, { "path": "why-kaspa-matters.html", "href": "/why-kaspa-matters", "url": "https://kaspaexplained.com/why-kaspa-matters", "title": "Why Kaspa Matters | Kaspa Explained", "h1": "Why Kaspa matters.", "description": "Why Kaspa matters when neutral money, self-custody, fast payment feel, and public rules people can rely on matter.", "dateModified": "2026-05-20", "text": "Why Kaspa matters. Crypto is useful when people need one shared record without one boss. Kaspa tests whether Bitcoin-style Proof-of-Work security and censorship resistance can move toward real-time internet UX. Kaspa keeps Proof-of-Work security culture while pushing the payment experience closer to real time. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, or finality claims. Start with the job. Crypto is weak as a replacement for every payment app, database, court, or corporate platform. It is useful where people need neutral ownership records, self-custody, censorship resistance, programmable assets, global access, or public rules that one platform cannot quietly change. Kaspa matters in that narrow frame. It attacks one hard constraint: how close can decentralized settlement and coordination get to real time while keeping Proof of Work? Crypto job Kaspa angle Status Self-custodied money Fair-launched Proof-of-Work UTXO asset with direct wallet control. Live Fast payment feel 10 BPS blockDAG gives quicker inclusion than slow PoW chains. Live, with confirmation tradeoffs One shared record GHOSTDAG orders parallel honest blocks in a DAG. Live Assets with rules Toccata, spend rules, asset rules, ZK hooks, sequencing commitments, and vProgs groundwork. Not live yet; next upgrade path Group commitments Base RTD today; RTD-derived attestations, oracles, TangVM, and public markets for shared commitments later. Base idea live; app systems still future work Kaspa focuses on latency. Bitcoin showed that strangers can coordinate around scarce digital money without a central operator. But Bitcoin also chooses a slow block interval partly because network latency has to remain small relative to block production. That is not a criticism of Bitcoin; it is a real tradeoff in Nakamoto-style systems. Kaspa comes from the research line that asks whether a Proof-of-Work network can include parallel honest blocks and still converge on ordering. The central question is whether more honest work can participate in consensus instead of becoming wasted collision. Kaspa's claim is narrower than ordinary \"faster chain\" marketing. The architecture targets the block-rate and latency tradeoff itself. In practical terms, that means the explanation has to include parents, mergesets, blue/red classification, blue work, and the virtual block. Parents describe direct block references. The mergeset captures the blocks being incorporated around a selected parent. Blue work gives the network a way to compare accumulated work across a DAG, while the virtual block gives nodes a current-state reference without pretending there is only one visible tip. GHOSTDAG does not make every block equal. It gives nodes a rule for ordering the graph. Inclusion and confirmation are separate claims. Any fast block-producing system can make a transaction appear quickly. That is fast inclusion: how quickly a transaction gets into a block. The harder question is fast confirmation: how quickly the network gives strong confidence that the transaction will not be reversed. This is where fast Proof of Work has a distinctive argument. In Proof of Stake, fast finality usually means rapidly collecting votes from stake, which ties confirmation speed to validator coordination and stake distribution. More decentralization around the security mechanism can make that coordination harder, or push the system toward committees and other sampling designs. Proof of Work samples security differently. A block is proof that the finder out-competed the network's hash power for that round; the protocol does not need to identify and collect explicit votes from a supermajority of miners before every confirmation. That helps decouple block-production speed from miner-count coordination. Fast confirmations also depend on bounded DAG mechanics. K, finality depth, anticone finalization depth, merge depth, and BPS-scaled parameters are the safety rails that keep high block production from becoming unbounded parallelism. This is why \"10 BPS\" is not the whole claim. The limit matters: fast PoW blockDAGs make the inclusion, confirmation, and decentralization tradeoff different. That narrower claim is one reason Kaspa is worth studying. less stake-vote coordination Bitcoin slow inclusion, PoW confirmations Kaspa fast inclusion, PoW confirmations Ethereum PoS finality, committee sampling Solana fast UX, stake-vote finality faster inclusion RTD is the broader idea. RTD means Real-Time Decentralization. In Hashdag's framing, it is first Kaspa's core value proposition: Bitcoin-style Proof-of-Work security and censorship-resistance goals with real-time confirmation feel. RTD is about real system time. A partially synchronous system should move as fast as the real network allows: fast when conditions are smooth, slower but still safety-oriented when the network is degraded or attacked. RTD-derived oracle, attestation, TangVM, and group-commitment flows are different. Those are app-level architecture and research ideas that would use Kaspa's high-frequency PoW sampling as a base. The protocol should provide basic network primitives; applications define incentives, rules, data sources, and risk controls. Rules strangers can rely on. The Oxford talk and related Hashdag framing are useful because they move past price charts and generic blockchain slogans. They treat crypto as a tool for shared commitments: funding thresholds, prediction markets, internet institutions, and systems where strangers need enforceable rules without trusting one platform. A simple example is Kickstarter-like funding: money only moves if enough people commit, and the rule is enforced by the system without a company override. More advanced group-commitment markets could apply that idea to public goods, prediction markets, oracle resolution, or AI-agent commitments. Kaspa matters in that frame because fast Proof-of-Work blockDAG infrastructure can already express the base RTD thesis, and could eventually support markets or funding rules that need public ordering, censorship resistance, real-time responsiveness, and open participation. The markets, oracle mechanisms, and TangVM-style flows are research and architecture work, not live products. Kaspa's base-layer direction makes this line of work plausible enough to study; product claims need their own evidence. Programmability, by status. The serious Kaspa app-layer path runs through Toccata, spend rules, asset rules, Silverscript, ZK proof checks, sequencing commitments, and vProgs groundwork. Michael Sutton's April 2026 Toccata outlook explains the move from the original May 5 target to roughly June 5-20, 2026 as a deliberate step to finalize sequencing-commitment architecture before zk systems bind to it. The interesting idea is money that carries a rule forward. A vault can limit when funds move, a group payment can refund if the condition fails, and an asset can require the right controller before it moves. The mechanism underneath is Kaspa-specific: transaction introspection, covenant identifiers, sequencing commitments, and proof checks. A helpful way to picture covenant-style apps is as controlled UTXO state machines. Kaspa.com Learn's smart-contract/chess walkthrough models registration UTXOs, player UTXOs, game-state UTXOs, move-routing transactions, move-application transactions, and final settlement. The point is not chess; it is a rule-bound workflow without turning Kaspa L1 into a global account VM. That is where assets with rules, DeFi that feels like one cohesive product, and apps that prove their own logic belong: staged around covenants, ZK proof checks, sequencing commitments, and later vProgs. The useful distinction is L1 as ordering, commitments, proof checks, and metadata, with apps proving richer logic around it. In this context, \"Solana-like\" means cohesive developer and user experience. vProgs are better understood as Kaspa-native verifiable-program architecture than as ordinary rollups. Current boundaries. Ethereum leads today in application depth, liquidity, and developer adoption. Solana leads today in consumer app adoption and cohesive fast-app UX. Native Kaspa DeFi sits in the roadmap/application lane. DAGKnight sits in the research and upgrade lane. vProgs sit in the roadmap architecture lane. RTD-derived oracle, TangVM, and attestation flows are app-level constructions over basic Kaspa primitives. Coordination markets remain a research and architecture direction until real products and usage exist. Execution risk. Kaspa's architecture matters, but architecture is not adoption. The case weakens if hard-fork work slips or ships unsafely, if node-resource requirements rise too far at higher BPS, if mining or pool concentration gets worse, if declining emissions are not offset by real fee demand, if Toccata-era programmability fails to attract useful apps, or if bridge/oracle systems introduce trusted bottlenecks that undercut the whole point. There is also a competitive risk: Ethereum, Solana, Bitcoin L2s, stablecoin rails, and app-specific chains can win users by being good enough for the job. Kaspa's differentiated claim has to become usable infrastructure. The core question. What would Proof-of-Work crypto look like if Bitcoin-style security and censorship resistance could operate in real time, with future apps that prove their own rules built around it? That is the value proposition: Kaspa takes a neutral shared record and pushes on speed, latency, inclusion, and group action while keeping Proof of Work. Follow the references. Bitcoin Takeover S16 E41 with Yonatan Sompolinsky for the long-form Kaspa, DAGKnight, vProgs, PoW, and community-context discussion. Podscan transcript for searchable interview context. Yonatan Sompolinsky Oxford Union address for public group-commitment markets, stag-hunt framing, internet institutions, and crypto as rules strangers can rely on. Oxford Union Q&A for the AI-agent, tokenization, and network-effect discussion. Kaspa: Mining the Internet for the RTD, miner-attestation, and internet-money-layer framing. Michael Sutton vProgs talk for apps that prove their own rules, share Kaspa ordering, and keep computation minimal. Michael Sutton on Crescendo, based rollups, and DAGKnight for 10 BPS, storage controls, sequencing commitments, and DAGKnight implementation planning. hashd.ag and hashd.ag/raw for Yonatan / Hashdag writing and research framing. Where to go next. The one-screen page compresses the thesis. The comparison page keeps Kaspa's lane clear. Kaspa in one screen Continue to Compare" }, { "path": "where-kaspa-fits.html", "href": "/where-kaspa-fits", "url": "https://kaspaexplained.com/where-kaspa-fits", "title": "Where Kaspa Fits | Kaspa Explained", "h1": "Where Kaspa fits in crypto.", "description": "Where Kaspa fits against Bitcoin, Ethereum, Solana, stablecoins, exchange chains, meme assets, and major smart-contract L1s.", "dateModified": "2026-05-20", "text": "Crypto awareness Where Kaspa fits in crypto. Crypto is not one race with one winner. Bitcoin, Ethereum, Solana, stablecoins, exchange chains, meme coins, and new high-performance networks solve different problems with different compromises. Start with the narrower question: if crypto itself is unfamiliar, use Start Here . If the coin market is confusing, use the Coin Atlas . Then read why Kaspa matters . Kaspa's lane is clearer after separating real crypto use cases from tokenized theater that a blockchain does not fix. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, or finality claims. Short version Different networks solve different jobs. Kaspa is aiming at the gap between them. It keeps Proof of Work and a fixed-supply monetary base, but instead of forcing blocks into one linear sequence, Kaspa uses a blockDAG so parallel blocks can be included and ordered instead of discarded. Kaspa is not as mature as Bitcoin as a store of value. It is not as mature as Ethereum as a smart-contract ecosystem. It is not as mature as Solana as a consumer app environment. Its differentiated claim is architectural first: fast Proof-of-Work settlement today, with carefully staged programmability later. These are category sketches, not full protocol audits of every network mentioned. The goal is to show where Kaspa sits without turning this site into an app/project tracker. Comparison table Scan the tradeoff surface first. Read this table as routing, not ranking. The first question is what job the network is optimized for; the second is whether Kaspa's fast mined ordering is relevant to that job. Network Best at today Consensus / trust shape App layer today Kaspa contrast Bitcoin Conservative Proof-of-Work monetary asset. PoW, linear chain, very conservative base layer. Limited on L1; richer activity mostly external or layered. Kaspa keeps PoW but changes the ordering shape from one chain to a blockDAG. Ethereum Smart contracts, DeFi liquidity, developer network effects. PoS with rollup-centric scaling and large app ecosystem. Live and mature relative to most crypto. Kaspa's native app path is not live; it aims for apps that prove rules around mined ordering. Solana Fast, cohesive L1 UX and active consumer apps. PoS/high-performance validator system. Live, fast, and much more mature than Kaspa's app layer. Kaspa tests fast user experience around mined PoW settlement. XRP Payment and settlement narrative. Not PoW; more institution/company-adjacent history. Not a general smart-contract ecosystem in the Ethereum sense. Kaspa is fair-launched PoW with no banking-integration thesis. BNB Exchange-linked ecosystem utility. Corporate ecosystem gravity matters heavily. Live app/token ecosystem tied to Binance network effects. Kaspa has no corporate issuer and must earn adoption without exchange-platform gravity. TRON Cheap stablecoin movement, especially USDT flows. Pragmatic payment network, not PoW money. Stablecoin usage is the main practical story. Kaspa is not yet competing on stablecoin usage; its claim is fast PoW infrastructure. The useful question is not \"which coin is better at everything?\" The better question is: What is each network actually good enough for, and what tradeoff does it make to get there? Kaspa belongs in that conversation as a fair-launched Proof-of-Work monetary network with a blockDAG design. It keeps the fixed-supply, mined-settlement instinct while changing how honest parallel blocks are handled. Kaspa's core idea is specific: Keep proof-of-work, keep a fixed-supply monetary base, and let a blockDAG include parallel blocks that a single-file chain would usually throw away. That gives Kaspa a different position in the market: a proof-of-work network trying to compete on speed, responsiveness, and future programmability without abandoning the monetary and security culture that made Bitcoin matter in the first place. Bitcoin Where Bitcoin is already good enough. Bitcoin is good enough when the job is simple, conservative, and monetary. If someone wants the most recognized proof-of-work asset, the deepest store-of-value narrative, the longest track record, the strongest monetary brand, and the least interest in changing the base layer, Bitcoin is still the reference point. Bitcoin is not optimized for fast consumer payments on L1, rich smart contracts, or high-frequency applications. That is not an accident anymore. Bitcoin has largely chosen conservative settlement money. Long-term store of value Institutional reserve narratives Conservative proof-of-work exposure Settlement where speed is not the main constraint Users who prefer protocol ossification over rapid feature development Kaspa's current difference is faster mined inclusion and GHOSTDAG ordering while keeping Proof-of-Work issuance. Ethereum Where Ethereum is already good enough. Ethereum is good enough when the job is programmable settlement with the largest smart-contract ecosystem. Ethereum has deep developer culture, strong DeFi history, battle-tested smart-contract network effects, and broad institutional mindshare for programmable crypto infrastructure. Ethereum's current scaling answer is modular: keep L1 as settlement and data layer, then push execution to rollup networks. That works, but it comes with tradeoffs: Fragmented liquidity across many rollup environments Different bridges, sequencers, assumptions, and UX surfaces Weaker \"one chain, one experience\" simplicity Dependence on rollup maturity and decentralization A gap between Ethereum as the place that finalizes records and Ethereum as the user experience Kaspa's roadmap targets app rules closer to the base layer, but Ethereum is far ahead today in applications, liquidity, and developer adoption. That remains a roadmap claim, not a delivered ecosystem claim. Solana Where Solana is already good enough. Solana is good enough when the job is fast, cheap, monolithic crypto UX right now. Solana has shown that users like fast confirmations, low fees, one main execution environment, and an app experience that does not feel like jumping between many different networks. Solana's advantage is cohesion around a fast user experience. Users stay in one main environment. Developers build there too. Liquidity and attention are easier to concentrate. Kaspa's fast-PoW argument is different from Solana's fast-PoS argument. The useful distinction is between fast inclusion, where a transaction enters a block quickly, and fast confirmations, where the system gives strong confidence that the transaction will not be reversed. Fast Proof of Work tries to improve that confirmation experience without requiring the protocol to gather explicit votes from a supermajority of stake for each confirmation. Proof-of-stake consensus Higher-performance infrastructure assumptions A more actively optimized base layer A different security and monetary culture Less of the hard-money mined-into-existence story Kaspa's comparison point is narrower: faster PoW inclusion, UTXO ownership, blockDAG ordering, and a staged path toward app rules. Today, Solana is far ahead in apps and users. Kaspa's differentiated claim is architecture and roadmap, not current ecosystem size. Kaspa Where Kaspa fits. Kaspa sits between three major ideas: Bitcoin's proof-of-work money Solana's fast monolithic UX Ethereum's programmable application layer It does not fully replace any of them today. Bitcoin is still the dominant proof-of-work store-of-value asset. Ethereum is still the dominant smart-contract settlement ecosystem. Solana is still the clearest example of fast, low-fee, high-activity L1 user experience. Kaspa's claim is that this combination is uncommon: proof-of-work issuance, fixed supply, fast block production, parallel block inclusion, everyday payment feel, and a path toward cohesive application UX without simply copying Ethereum's rollup fragmentation. That is why \"fast\" includes block rate, confidence, and decentralization. Kaspa's stronger question is whether fast Proof of Work can combine quick inclusion with confirmation confidence and decentralized miner participation in a way that does not collapse into a validator-coordination problem. The mechanics are what make the category different: GHOSTDAG ordering, blue work, bounded anticones, virtual state, pruning, UTXO commitments, transaction mass, and storage-mass pricing. Those are not separate trivia points; they are how a high-rate PoW DAG tries to stay understandable and validateable. Kaspa is trying to become something more specific: Proof-of-work infrastructure with faster confirmation goals. That phrase should mean fast inclusion plus improved confirmation dynamics, not instant finality. The bet is narrower than a slogan: proof-of-work can feel faster without abandoning proof-of-work. Major categories Compare by category. Stablecoins: USDT and USDC Stablecoins are already good enough for dollar movement: payments, trading collateral, remittances, exchange liquidity, and dollar access in unstable banking environments. They depend on issuers, reserves, banking access, compliance, and redemption trust. Stablecoins answer: how do I move dollars on crypto networks? Kaspa answers: can proof-of-work money move at internet speed? BNB and exchange-linked ecosystems BNB is useful because Binance is useful. That is both the strength and the tradeoff. Exchange-linked ecosystems can move quickly, attract users, subsidize activity, and create practical utility, but the value proposition is tied to a major corporate ecosystem. BNB answers: what can a large exchange ecosystem power? Kaspa answers: what can a fair-launched proof-of-work network become without a corporate issuer? XRP and payment/settlement networks XRP is built around fast settlement and institutional payment narratives. Both XRP and Kaspa can be discussed in payment terms, but the architectures and cultures are different. XRP is not proof-of-work, and Kaspa is not built around a company-led banking integration story. XRP answers: can a dedicated settlement asset serve payment corridors? Kaspa answers: can decentralized proof-of-work offer fast settlement without abandoning mined issuance? TRON TRON is already good enough for cheap stablecoin movement. A large part of its practical usage comes from USDT transfer activity. Kaspa is not currently competing with TRON on stablecoin throughput or app adoption. TRON answers: where can users move stablecoins cheaply today? Kaspa answers: what would a fast proof-of-work base layer look like if it matures? Dogecoin and Shiba Inu DOGE and SHIB are culture assets first. Dogecoin has proof-of-work heritage and memetic survival. SHIB has meme liquidity and community gravity. Kaspa belongs in a different lane. DOGE/SHIB answer: can culture itself become liquidity? Kaspa answers: can proof-of-work architecture support a monetary and application network? Cardano, Avalanche, Sui, TON, Hedera, Polkadot, and other smart-contract L1s Most large smart-contract L1s are programmable platforms trying to attract developers, apps, liquidity, and users. Kaspa differs because its starting point is proof-of-work money and blockDAG consensus. Programmability is being added around that foundation, not used as the original reason for the chain to exist. Most smart-contract L1s answer: can we build a better app platform? Kaspa answers: can proof-of-work itself be upgraded into high-speed programmable infrastructure? Chainlink Chainlink is infrastructure, not a base-layer money competitor. If Kaspa develops a serious application ecosystem, oracle infrastructure becomes something it may need, integrate with, or inspire alternative designs for. Chainlink answers: how do smart contracts get external data? Kaspa answers: what base layer are those future applications anchored to? Source notes Sources for the comparison. Bitcoin whitepaper for Bitcoin's original peer-to-peer electronic cash and proof-of-work chain framing. Ethereum scaling docs for rollup-centric scaling and decentralization tradeoffs. Solana homepage for Solana's high-performance positioning and ecosystem framing. XRPL , BNB Chain , and TRON for how those projects present payment paths, exchange-linked ecosystems, and stablecoin-heavy networks. rusty-kaspa , rusty-kaspa releases , Kaspa KIPs , and Kaspa Research for Kaspa implementation, proposal, and protocol-design evidence. Next step Learn the mechanics in order. Use the one-screen page for the compact thesis, the adoption page for non-price signals, or the knowledge map for protocol mechanics. Kaspa in one screen Adoption metrics Continue to Knowledge" }, { "path": "knowledge-map.html", "href": "/knowledge-map", "url": "https://kaspaexplained.com/knowledge-map", "title": "Kaspa Knowledge Map | Kaspa Explained", "h1": "The useful Kaspa ideas, in order.", "description": "An accessible map of the most useful Kaspa ideas synthesized from KASmedia, Kaspa.com Learn Kaspa, and primary Kaspa sources.", "dateModified": "2026-05-20", "text": "Learning path The useful Kaspa ideas, in order. This page puts the main Kaspa concepts in a practical order. It uses public learning material as context, while status-sensitive claims still need primary technical sources. Reading intuition: start with the job of a shared record, then move from live mechanics into future application lanes only after the base design is clear. Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, or finality claims. Reader path Learn in this order. Start with one shared record. Who owns what, who can spend it, and who gets to update the rules. Understand Proof of Work. Mining, Sybil resistance, costly ordering, and an external clock. See the chain bottleneck. Honest blocks arrive in parallel, but a single chain has to pick one path. Learn five DAG words. Parent, past, future, anticone, and mergeset. Learn GHOSTDAG's live job. Blue/red classification and ordering by accumulated work. Separate inclusion from confirmation. Fast blocks are not the same thing as instant finality. Understand storage and pricing. Pruning, UTXO commitments, mass, and finality are part of scaling. Put future ideas in lanes. Toccata, vProgs, DAGKnight, RTD, and Proof of Useful Work have different statuses. The short ladder Seven core ideas. 1. PoW is the base culture Kaspa keeps mined issuance, external work, and Nakamoto-style ordering as first principles. Fair launch matters, and so does security through a costly external process instead of permissioned identity or stake voting. 2. The bottleneck is single-file ordering Bitcoin makes one chain of blocks. Kaspa accepts that honest miners may find blocks in parallel and is designed to order that parallel work instead of treating most collisions as waste. 3. GHOSTDAG is the live ordering rule The DAG alone is not the invention. The hard part is classifying and ordering blocks. GHOSTDAG uses selected parents, mergesets, blue/red classification, and blue work to make the blockDAG coherent. 4. Fast means inclusion, confidence, and capacity Fast inclusion is when a transaction enters a block quickly. Fast confirmation is when reversal risk drops quickly. Kaspa's speed argument depends on that distinction. 5. Storage has to be engineered High throughput is meaningless if nodes cannot keep up. Pruning, UTXO commitments, MuHash, finality depth, transaction mass, and storage mass are part of the security story. 6. Programmability is staged Toccata, covenants, Silverscript, KIP-10, KIP-20, KIP-21, ZK verification, and vProgs are best read as a staged path toward Kaspa-native apps that can prove their rules, not as live mainnet app execution today. 7. The broader target is group action RTD framing starts with real-time Bitcoin-style PoW security, then points beyond payments toward attestations, oracles, public funding contracts, and markets where no single referee should control the rules. Parallel upgrade tracks DAGKnight and vProgs are different lanes. They are often discussed together because both point beyond today's GHOSTDAG/Crescendo network, but they belong in different lanes. Track What it changes Current public code signal Status lane DAGKnight Consensus ordering and latency assumptions. It is the adaptive-successor direction after GHOSTDAG, not an application runtime. rusty-kaspa/dagknight has March 22, 2026 commits around free search, ranking, conflict-zone logic, tie-breaking placeholder, and UMC majority coverage. Research / prototype branch, not live mainnet vProgs Application execution architecture. The goal is proof-producing programs that use Kaspa for ordering, commitments, payments, and proof checks. kaspanet/vprogs had an April 15, 2026 ZK implementation burst: RISC0 backend, ZK VM, provers, ABI, codec, and Sparse Merkle Tree work. Roadmap / early framework, not production app paths Simple split: DAGKnight is about how Kaspa orders blocks under changing network conditions. vProgs are about how apps can prove richer logic while using Kaspa as the shared ordering and proof-checking anchor. Source context Long-form background. Open long-form background map Distributed-systems foundations The Understanding GHOSTDAG series and related theory posts are useful because they start below Kaspa: Byzantine agreement, PoW, heaviest-chain rules, GHOST, safety, liveness, confirmations, selfish mining, DAGs, topological sorting, PHANTOM, and GHOSTDAG. The average-reader takeaway is simple: Kaspa is not a marketing shortcut around consensus; it comes from a long attempt to generalize Nakamoto consensus. Fast PoW and finality KASmedia's interview recaps help separate raw block rate from confirmation confidence. They also reinforce PoW as an external clock and leaderless sampling mechanism. Crescendo and Rusty Kaspa Crescendo and Rusty Kaspa material shows that 10 BPS depended on Rust engineering, parallel validation, pruning improvements, mempool work, sync/exchange integration, and storage controls. Toccata and covenants The Toccata/Covenants++ coverage is valuable when kept concrete: spend rules, transaction introspection, covenant IDs, Silverscript, native assets, ZK proof checks, and sequencing commitments are an implementation track, not a reason to say full native DeFi is live. vProgs and ZK architecture The vProgs material points toward apps that prove their own logic: keep L1 focused on ordering, commitments, proof checks, and metadata while richer app logic runs in proof-producing environments. That is different from both ordinary rollups and global L1 execution. RTD, oracles, and group commitments Hashdag's RTD writing explains why Kaspa people keep talking about real time. The base claim is Bitcoin-style PoW security with real-time confirmation feel; the later claim is public rules that people, software, markets, and eventually AI agents can rely on. Fee markets and resource pricing The fee-market and storage-mass material frames fees as incentives that protect the shared record from spam, UTXO bloat, and mispriced externalities. Wallets, custody, and user reality KASmedia's wallet and interview material is useful because it grounds the tech in actual use: hot/cold wallets, seed phrases, custodial vs. non-custodial tradeoffs, point-of-sale tools, community infrastructure, and why self-custody still needs better UX. What Learn Kaspa adds The concept library fills in the mechanical vocabulary. BlockDAG relationships Past, future, anticone, parents, mergesets, selected parents, and virtual blocks are the vocabulary that lets a reader stop imagining Kaspa as one chain with faster timestamps. Ordering and work Blue score, blue work, k-clusters, K, and blue/red classification explain how Kaspa decides which blocks contribute to the consensus structure and how accumulated work is compared in a DAG. Finality and pruning Finality depth, anticone finalization depth, pruning depth, first-order pruning, second-order pruning, archival nodes, and full nodes explain how the network can reduce stored history while preserving validation ability. Timing and difficulty DAA score, DAA window, timestamp validation, and past median time explain how a high-rate PoW DAG keeps timing and difficulty coherent without relying on naive wall-clock assumptions. Transaction validation Transaction selection, transaction validation, transaction mass, storage mass, and mempool behavior explain why high throughput still needs collision-aware selection and spam-resistant pricing. Programmability building blocks KIP-10, KIP-20, KIP-21, opcodes, covenants, and smart-contract explainers help show the direction of Kaspa apps: scripts can inspect transaction context, preserve covenant lineage, track app lanes, and prove rules without every app becoming global L1 execution. Concrete covenant patterns The Smart Contracts / chess walkthrough is useful because it shows a UTXO app as a set of constrained state transitions: registration, player identity, game state, move routing, move application, and settlement. Good examples prove continuation state, rejected paths, sibling authority, and timeout behavior without implying a live mature app ecosystem. Smart contracts without the shortcut Programmability has layers. Layer Plain-English role What not to claim Native script Bitcoin-like spending conditions, signatures, multisig, timelocks, and deterministic validation. Not a general-purpose app VM. KIP-10 introspection Scripts can inspect transaction context, which makes richer UTXO spending rules possible. Not full app-state management by itself. Covenants / covenant IDs UTXOs can be constrained to evolve through specific patterns or lineages. Not automatic DeFi, identity, or legal enforcement. ZK proof checks and sequencing commitments Future apps can prove computation and track relevant activity without every proof depending on the whole DAG. Not the same thing as vProgs being mature and live. Silverscript / vProgs direction Developer-facing tools and apps that prove rules could make the system usable for richer applications. Not an existing Ethereum- or Solana-scale ecosystem. Source context: Kaspa.com Learn Kaspa: Smart Contracts . Status-sensitive details should still be checked against KIPs, releases, and core developer posts. Useful corrections Common phrasing fixes. Weak explanation Better explanation \"Kaspa is Bitcoin but faster.\" Kaspa is a Proof-of-Work blockDAG that can include and order parallel honest blocks instead of discarding them as ordinary orphans. \"10 BPS solves everything.\" 10 BPS matters only with the surrounding mechanics: GHOSTDAG ordering, BPS-scaled parameters, pruning, finality, transaction selection, and resource pricing. \"Treating DAGKnight as current mainnet behavior.\" DAGKnight is a major parameterless/adaptive consensus direction. It belongs in the roadmap and research lane today. \"Kaspa already has native DeFi.\" The serious native app path runs through Toccata, spend rules, ZK proof checks, sequencing commitments, and vProgs; status depends on activation and shipped tooling. \"Pruning means missing history or weaker nodes.\" Pruned full nodes can still validate when pruning proofs, finality, UTXO commitments, and retained state are designed correctly. Archival nodes and full nodes serve different roles. \"Fees are only about miner revenue.\" Fees and mass rules also price resource externalities: compute, temporary storage, and permanent UTXO-set growth. \"RTD just means faster payments.\" RTD is Kaspa's real-time PoW framing first; it can also support future attestations, ordering, public commitments, oracles, and markets without one trusted referee. Attribution Use the map, then check the sources. This page is a compact guide. The Sources & Reference Map keeps attribution, reference links, and supporting site files together. Next step Check terms, source references, or the wider coin map. Use the glossary for definitions, the sources for evidence, or the coin atlas when the rest of the crypto market still feels like one confusing list. Open glossary Open sources Open coin atlas" }, { "path": "glossary.html", "href": "/glossary", "url": "https://kaspaexplained.com/glossary", "title": "Kaspa Glossary | Kaspa Explained", "h1": "Kaspa terms in plain English.", "description": "Plain-English definitions for Kaspa terms: blockDAG, GHOSTDAG, blue work, pruning, Toccata, vProgs, RTD, covenants, and more.", "dateModified": "2026-05-16", "text": "Glossary Kaspa terms in plain English. Short definitions for Kaspa-specific terms, with links into the longer guide. Core mechanics Live-network terms. Proof of Work A security model where miners spend real computation to propose blocks. Kaspa keeps this Bitcoin-like foundation. Related: BPS , GHOSTDAG , DAGKnight UTXO An unspent transaction output: a spendable coin chunk. Kaspa uses UTXOs; Ethereum uses account balances. Related: pruning , MuHash , covenant BlockDAG A graph of blocks where multiple honest blocks can exist in parallel instead of forcing every block into one line immediately. Related: GHOSTDAG , anticone , mergeset , selected parent GHOSTDAG Kaspa's live consensus rule for ordering the blockDAG so parallel work can contribute to consensus. Related: blue/red blocks , blue work , selected parent , anticone Selected parent The chosen parent that helps define the main ordering path inside the DAG. It is not the same thing as Bitcoin's longest chain. Mergeset The group of past blocks a new block brings into view. It helps explain how parallel work gets folded into ordering. Anticone Blocks that are neither in a block's past nor its future. Anticones matter because parallel blocks need a rule for ordering. Blue / red blocks GHOSTDAG classifies well-connected blocks as blue and less-compatible blocks as red for ordering and security accounting. Blue work Accumulated proof-of-work weight through blue blocks. It is part of how Kaspa compares competing DAG histories. Blue score A blockDAG progress marker based on blue blocks in the selected-parent chain history. Explorers and APIs use it for ordering and range queries. DAA score A Kaspa progress marker used by nodes and APIs. Builders often use it for block ranges, timestamp estimates, and lock-time reasoning. Virtual block A conceptual current tip/state used by nodes to reason about the present view of the DAG. Speed and storage Scaling terms. BPS Blocks per second. Kaspa's 10 BPS era means faster block production, not unlimited throughput or instant finality. Fast inclusion A transaction gets into a block quickly. Fast confirmation Confidence rises quickly that the transaction will not be reversed. This is stronger than merely appearing quickly. Finality depth A threshold after which old history is treated as settled under the protocol's assumptions. Pruning Removing old block data that ordinary nodes no longer need for current validation. Related: archival node , MuHash , UTXO Archival node A node that preserves full historical data for explorers, audits, and historical queries. MuHash A compact commitment tool used around UTXO-set state and pruning safety. Transaction mass Kaspa's measure of transaction resource cost. Storage mass A cost model intended to make UTXO/state growth pay for the burden it creates. Sompi The smallest unit of KAS. One KAS equals 100,000,000 sompi. APIs often return amounts as strings so software does not lose precision. Hosted API An API run by a provider outside your own node or indexer. Useful for quick reads and prototypes; production apps need key handling, rate-limit handling, and a reliability plan. API key A credential sent with hosted API requests, usually in a header such as x-api-key . Keep it out of client-side code and public repos. Rate limit A provider rule that caps request volume. Apps should read rate-limit headers, cache stable data, batch where possible, and back off on 429 responses. Cursor pagination A way to fetch long lists in stable chunks. Address history endpoints use it so apps can move through many transactions without one huge response. Accepting block The block that accepted a transaction into ordered history. Acceptance data is useful evidence, but apps still need confirmation and reorg handling rules. Roadmap terms App and research terms. Toccata A targeted hard-fork track for spend rules, asset rules, ZK proof checks, sequencing commitments, and vProgs groundwork. Related: covenant , ZK verification , sequencing commitment , vProgs Covenant A rule that limits how a coin or asset can be spent later. That can support vaults, escrow, and simple app state. Silverscript A higher-level scripting direction around Kaspa's covenant and programmable-UTXO path. ZK verification Checking a proof that computation was done correctly without re-running all of that computation on L1. Sequencing commitment A way for an app to track the activity lane it cares about, instead of forcing every proof to depend on the whole DAG stream. vProgs Apps that prove their own logic around Kaspa, while L1 stays focused on ordering, commitments, verification, and metadata. Related: ZK verification , sequencing commitment , covenant DAGKnight A parameterless/adaptive consensus research direction. It is not current mainnet behavior. Related: GHOSTDAG , BPS , fast confirmation RTD Real-Time Decentralization: Hashdag's framing for Kaspa's core edge, meaning Bitcoin-style PoW security and censorship resistance operating in real time. Oracle and TangVM ideas are downstream extensions. Related: Proof of Work , DAGKnight , fast confirmation Proof of Useful Work A speculative research direction where mining work might also perform useful computation. It is not live Kaspa functionality. Next step If you need more context. The zero-start guide explains why records, keys, transactions, blocks, consensus, mining, staking, and tokens exist before defining Kaspa terms. Open Crypto From Zero Continue to Sources" }, { "path": "search.html", "href": "/search", "url": "https://kaspaexplained.com/search", "title": "Search Kaspa Explained | Kaspa Explained", "h1": "Find the right page.", "description": "Search the Kaspa Explained page map by topic, audience, status, and source type.", "dateModified": "2026-05-20", "text": "Search Find the right page. Search by concept, audience, status, or source type. Results appear from the page map immediately, then expand as the browser indexes public page text from this site. Search terms Showing all pages. Reader paths Choose the page that matches the job. Know nothing about crypto Start Here goes from records and keys to why Kaspa matters. Know crypto, need Kaspa fast 90-Second Overview gives the shortest accurate explanation, then routes to Status. Checking a claim Claims Checker separates live, testnet, targeted, roadmap, research, wrong, and unsupported claims. Skeptical reader Risks and Open Questions names the adoption, liquidity, mining, and roadmap risks. Builder Build This Now starts with receipts, command-line checks, node/API reads, and TN12 practice. Writer or AI tool AI Guidance and Claims Reference keep copy tied to sources. Results Page map. Home Homepage Main router for the shortest summary, beginner path, status, common misconceptions, comparison, app ideas, and sources. Beginner Start Here Start from what you already know: from zero, value, coin categories, constraints, or Kaspa. Search answer What Is Kaspa? Plain answer for KAS, Proof of Work, UTXO ownership, blockDAGs, GHOSTDAG, and live-versus-roadmap status. Foundations Crypto From Zero Records, keys, transactions, blocks, consensus, security, tokens, UTXO/account models, and why Kaspa appears later. Value Why Crypto Has Value Token need, market cap myths, liquidity, security budgets, launch design, and who benefits. Coin categories Why So Many Coins? Why different crypto assets exist and why they are not all trying to do the same job. Coin map Coin Atlas Major assets by job, value source, trust model, and limitation. Constraints Tradeoff Map What crypto users want, what those goals cost, and why base-layer designs cannot optimize everything at once. Checklist Analyze Any Coin A practical checklist for evaluating a coin without relying on price action or slogans. Context Crypto History Problem-first crypto history: why different chains and categories appeared. Origin Kaspa Origin Story Sourced fair-launch history: research, DAGLabs, failed launch paths, early stress, Rust, Crescendo, and Toccata boundaries. Shareable Kaspa in One Screen The compressed Kaspa thesis, live status, not-live claims, and what would strengthen or weaken the argument. Status updates Kaspa Status Updates Dated status-update index for repeat visits and current claim checks. Dated status Kaspa Status Check - May 2026 Dated snapshot of what is live, what is pending, what changed, and which public claims need checking. Skeptical case Risks and Open Questions Good-faith objections to Kaspa and what evidence would answer them. Adoption Adoption Metrics Non-price signals for judging whether usage, infrastructure, and builder demand are becoming durable. Apps Application Layer Stable capability lanes for Kaspa L1 now, Toccata next, and later app programs. Reality check Reality Check Test crypto product claims against users, liquidity, wallet flows, evidence, and Kaspa L1 status boundaries. Builders Builder Guide Choose between covenants, based apps, command-line practice, and future full vProgs without mixing current tools and later architecture. Build now What Can You Build on Kaspa Now? Short recipes for live reads, accepted transactions, UTXOs, receipts, and TN12 practice. Command line Verify a Kaspa Transaction Yourself Explorer, second source, wallet, hosted API, node, RPC, and accepted-transaction checks away from one hosted screen. Builder evidence Builder Evidence Source-backed bridge between public Kaspa status and technical proof-lab evidence. Quick read 90-Second Overview A compact first-reader explanation of Kaspa and the next page to read. Reality check What Crypto Is Good For Where crypto helps, where it is a bad fit, and why neutral shared records are the core test. Status Kaspa Status The live/targeted/roadmap/research boundary for major Kaspa claims and common mistakes. Claims Kaspa Claims Checker Check whether a Kaspa claim is live, testnet, targeted, roadmap, research, wrong, or unsupported. Claims reference Claims Reference Browser-readable companion to CLAIMS.yml for status labels, copy rules, and safe wording. Toccata status Toccata Status TN10/TN12 evidence, covenant targets, ZK hooks, sequencing commitments, mainnet blockers, and safe wording. Smart contracts Kaspa Smart-Contracts Status Separate live payments, Toccata covenants, Silverscript, ZK hooks, vProgs, and native DeFi claims. Finality Kaspa Confirmations and Finality Why fast inclusion, GHOSTDAG ordering, accepted transactions, and confirmation confidence are different steps. Protocol GHOSTDAG Explained How Kaspa orders parallel proof-of-work blocks, and what GHOSTDAG does not claim. FAQ FAQ Short answers to common misconception and status questions. Why it matters Why Kaspa Matters The core argument for real-time Proof of Work, neutral shared records, and Kaspa's future group-commitment direction. Comparison Where Kaspa Fits Kaspa compared with major crypto categories by job, tradeoff, maturity, and current gaps. Concept map Knowledge Map An ordered conceptual map of Kaspa mechanics, common corrections, and supporting sources. Definitions Glossary Plain-English definitions for recurring Kaspa and crypto terms. Find pages Search Static page-map search for concepts, audiences, current status, and source terms. AI guidance AI Guidance Rules for AI tools and contributors describing Kaspa without mixing mainnet, testnet, roadmap, and research claims. Sources Sources Source hierarchy, learning references, builder accounts, and machine-readable context. Policy About Editorial policy, independence, corrections, and source standards. No page matches those terms. Try a broader word like status , UTXO , GHOSTDAG , receipt , Toccata , DeFi , or sources ." }, { "path": "ai-guidance.html", "href": "/ai-guidance", "url": "https://kaspaexplained.com/ai-guidance", "title": "Ask AI About Kaspa With Sources | Kaspa Explained", "h1": "Ask about Kaspa with sources.", "description": "Open ChatGPT, Claude, Perplexity, or Grok with a source-aware Kaspa prompt that uses Kaspa Explained, status pages, claims, and source links.", "dateModified": "2026-05-20", "text": "Ask AI Ask about Kaspa with sources. Pick a question, include the source pack, then open your AI tool with a prompt that separates live mainnet behavior, testnet evidence, targeted upgrades, roadmap work, and research. Build prompt Open claims reference Open claims file Open LLM context Open agent index Status-sensitive page. Last checked: May 20, 2026. Use current status before quoting Toccata, vProgs, DAGKnight, native DeFi, emission, or finality claims. Writing standard Make each sentence prove its job. Useful sentence test Keep sentences that add an actor, action, evidence, status label, constraint, consequence, distinction, or judgment. Claim boundary Say whether the claim is live mainnet behavior, testnet evidence, targeted work, roadmap architecture, research, wrong, unsupported, or outside L1 scope. Plain verbs Use words such as test, measure, verify, send, sign, reject, ship, delay, and activate before vague status language. The repo-level copy rules live in COPY_STYLE.md . Use Claims Reference when a sentence needs a public status label. Prompt builder Open your AI with the right context. Question Give me the short, accurate explanation of Kaspa. Explain blockchain versus blockDAG visually and technically. Check whether a Kaspa claim is live, targeted, roadmap, or research. Show the builder path for nodes, APIs, wallets, L1 checks, and TN12 work. Compare Kaspa to Bitcoin, Ethereum, Solana, and other fast chains without tribal framing. Turn Kaspa into an app, product, or research idea with clear proof requirements. Red-team a bullish Kaspa claim and tell me what evidence is missing. Separate Crescendo, Toccata, vProgs, DAGKnight, emission, and app-layer claims. Explain wallets, mining, nodes, and common safety checks. Give me the skeptical case and what evidence would change it. Your angle Source pack One-screen summary Current status Claims file LLM context Reality check Agent index Command line and KDP Builder guide Full source hierarchy Verify claim Builder path Red team Idea lab Generated prompt Copy ChatGPT Claude Perplexity Grok Prompt is ready. Opening a tool also copies it. Main rule Name the evidence class. Mainnet live Use only for behavior available on Kaspa mainnet now. Use current code, releases, activation records, or primary protocol documentation. Testnet evidence Use for TN12 or other testnet work with accepted transactions, artifacts, and commands. Testnet evidence is useful without being a mainnet product claim. Targeted or roadmap Use for Toccata, covenant IDs, Silverscript, sequencing commitments, vProgs, or other work before mainnet activation. Say what source supports the target. Research Use for architecture, product ideas, oracle designs, coordination markets, or future app patterns that do not yet have live or testnet proof. Plain language Say the real requirement. Do not say \"institutional readiness\" Say which actor needs what: an exchange needs node stability, wallet integration, liquidity, legal review, and support; a fund needs custody, reporting, audit trails, and risk controls. Do not say \"ecosystem maturity\" Say the missing pieces: releases, KIPs, node behavior, wallets, indexers, SDKs, docs, explorers, exchanges, liquidity, custody, or support. Do not say \"DeFi is live\" Say whether the claim is TN12 proof work, wallet-policy simulation, indexer state, future native covenant work, or outside L1 scope. Do not say \"ZK proves the real world\" A ZK proof can prove computation over inputs. It does not prove that a real-world price, event, identity, reserve, or legal claim is true. Kaspa framing Start from the job. Kaspa is best explained as a mined shared record that aims to feel closer to real time without becoming one operator's database. From there, explain the job: payments, records, vault rules, assets, commitments, app-state anchors, or proof verification. Keep the split clear: Kaspa mainnet is live; Toccata-era programmability is targeted; TN12 proof labs are testnet evidence; coordination markets, based apps, and advanced covenant systems need their own artifacts before becoming product claims. Implication discipline Explain why the rule matters. For covenant, payload, replay, or based-app examples, answer five things: what the artifact proves, what it could make possible, why Kaspa's fast UTXO model matters, why crypto is needed instead of a normal server, and what is still not proven. Do not start with the artifact taxonomy. Start with what happened, what can be clicked, what was replayed, which rule actually controls funds, and what remains missing. Keep the everyday implication close to the technical label. Start with the job: a budget that cannot drain at once, a step-by-step workflow that can recover, or an asset that only moves with its controller. Then add the technical label only when it helps a builder find the source artifact. SilverScript and app lessons Do not build shallow demos when the target is covenants. Covenants are constrained state transitions A serious example should show the input rule, output rule, continuation state, and what spend path is rejected. A P2PK wrapper with one happy-path txid is only a primitive. Use DECL state when state matters For budgets, assets, or counters, use explicit state, `readInputState`, `validateOutputState`, covenant IDs, and continuation outputs where tooling supports them. Split complex logic into roles For chess-like or game-like systems, study the step-workflow pattern: a hub routes to smaller worker contracts, workers return state, and timeouts prevent stuck two-transaction flows. Use controller inputs for authority Do not assume nested contract execution. One covenant can authorize another through a sibling input, covenant ID, template hash, or signature rule. Prove state before live claims Compile the script, prove local state/output behavior, prove the signature-script path, then submit only through a route that preserves every required transaction field. Before publishing Check these files. Status Live, targeted, roadmap, research Sources Source hierarchy Claims Machine-readable boundaries LLM context Short machine-facing summary Agent index Static retrieval gateway" }, { "path": "sources.html", "href": "/sources", "url": "https://kaspaexplained.com/sources", "title": "Sources & Reference Map | Kaspa Explained", "h1": "Sources for Kaspa Explained.", "description": "Source hierarchy, public reference map, and credited external learning resources used by Kaspa Explained.", "dateModified": "2026-05-20", "text": "Sources and attribution Sources for Kaspa Explained. This page keeps the references tidy: protocol material, technical contributor context, learning libraries, article indexes, and supporting site files. Read claims in browser Open claims file Open LLM context Open agent index Open AI guidance Source hierarchy Source weight. Kaspa has many useful public contributors. This map separates code, KIPs, releases, research papers, protocol documentation, core technical commentary, long-form context, learning libraries, and discovery channels. Mainnet feature sources rusty-kaspa, releases, KIPs, protocol documentation, and activation records anchor claims about what users can actually do today. Current L1 readouts Mainnet REST endpoints, your own node, release notes, and emission schedule documents carry time-stamped supply, reward, DAA, and activation-status checks. Consensus / protocol sources Kaspa Research, papers, protocol docs, code, and direct technical explanations carry claims about GHOSTDAG, blockDAG ordering, pruning, and security assumptions. Roadmap / Toccata sources Kaspa.org Build, kaspanet GitHub KIP PRs, Rusty Kaspa releases, testnet releases, protocol docs, and future activation artifacts carry L1 status claims. Core technical posts explain rationale but do not replace activation evidence. Official roadmap frame Kaspa.org Lore and Build are useful for current public framing: real-time decentralization, Toccata, DAGKnight, 2027 research, and builder resource routing. Origin and fair launch Kaspa.org, Hashdag archives, the April 2021 launch article, Yonatan interviews, and Rusty Kaspa releases anchor the fair-launch and Crescendo history. Learning references Kaspa.com Learn Kaspa and KASmedia are useful for approachable vocabulary, diagrams, and topic orientation. They are not L1 activation authority. Media / context Bitcoin Takeover, Oxford, long recordings, transcripts, and interviews help with framing, history, and community interpretation. Discovery-only sources X posts, replies, dashboards, and aggregators can surface links or corrections. Mainnet feature claims need stronger evidence. Short version: first-party code, releases, KIPs, Kaspa.org/docs, public node/API readings, research papers, and activation records carry mainnet-feature claims. Public explainers, media, interviews, external docs, and X posts help readers understand context or find links. They do not activate protocol status. What source to use Match statements to sources. Claim type Best source class Use with care Origin and fair-launch history Kaspa.org genesis/fair-launch proof, Hashdag launch-plan archives, durable interviews, and release records. Community lore can be useful, but dates, bug details, and business-plan claims need source-backed wording. Live feature or activation status Code, releases, KIPs, activation records, protocol docs. Portal articles and social posts are context, not final proof. Current L1 snapshot Mainnet node/API readings for network name, DAA score, block count, supply, reward, fees, and hashrate, checked against release and activation records. Snapshot values are time-sensitive; recheck before quoting exact numbers. Emission and supply Official emission schedule, block-reward endpoint, supply endpoint, and node/explorer cross-checks. A monthly step-down schedule should not be rewritten as a one-day cliff. Consensus mechanics Kaspa Research, papers, protocol docs, code, and technical contributor explanations. Simple explainers can omit assumptions or edge cases. Toccata timing and scope Kaspa.org Build, kaspanet KIP PRs, Rusty Kaspa releases and testnet releases, protocol docs, audit/rehearsal updates, and activation artifacts. Core technical posts can explain intent; mainnet claims still need first-party release, KIP, node, or activation evidence. App/project claims For L1 impact, use Kaspa transaction-payload docs, fee/reward endpoints, Rusty Kaspa behavior, and accepted transaction evidence. Project docs, token catalogs, wallets, and frontends are not first-party L1 status authority. Official roadmap framing Kaspa.org Lore and Build for public framing around RTD, Toccata, DAGKnight, 100 BPS research, and builder resources. Roadmap framing is not activation evidence by itself. API, indexing, and historical data Rusty Kaspa, official Build links, community API docs, public node docs, explorer/API dumps, and open indexer work. Hosted APIs can be best-effort; production systems need their own reliability plan. vProgs and native app architecture vProgs talks, technical posts, KIPs, and future formal papers or implementation docs. Describe native DeFi as live only when shipped software supports it. DAGKnight and adaptive consensus Hashdag, Kaspa Research, papers, and direct technical explanations. DAGKnight is not current mainnet behavior. RTD framing hashd.ag/raw and Yonatan/Hashdag context for real-time PoW framing. Oracle, TangVM, and public group-commitment systems are downstream research or architecture. Long-form interview context Bitcoin Takeover S16 E41 with Yonatan Sompolinsky for the broad PoW, Bitcoin, Kaspa, DeFi, Solana-like UX, and community-project framing. Use it for context, not as proof that an upgrade is activated. Code tracking Implementation links. These links help track development evidence. Mainnet activation still requires activation evidence. Toccata / Silverscript rusty-kaspa Toccata branch Rusty Kaspa tn10-toc2 pre-release rusty-kaspa TN12 branch kaspanet/silverscript TN12 opcode testing report KIP-16 PR , KIP-17 PR , KIP-20 PR , and KIP-21 PR for proposal-state checks. TN12 builder utilities TN12 faucet TN12 explorer Kaspa RPC port selection TN12-capable rusty-kaspa branch Use these for testnet-only covenant prototyping. A synced local node with UTXO index is the safer source for balance checks than an unsynced local node or changing explorer API. For Testnet-10 Toccata activation testing, start from the current Rusty Kaspa release tag before reusing older TN10 commands. vProgs / ZK framework kaspanet/vprogs RISC0 backend commit rusty-kaspa ZK SDK pull request sequencing-commitment lane proof RPC pull request DAGKnight rusty-kaspa dagknight branch March 22 free-search encoding test tie-breaking placeholder commit Builder tooling Kaspa.org Build resource index Kaspa docs Kaspa docs: Getting started Kaspa docs: Programmability overview Kaspa docs: Transaction payload Kaspa docs: Accepted transactions Kaspa docs: Kaspa node Kaspa docs: References WASM SDK docs Aspectron RpcClient docs Aspectron signTransaction docs Aspectron submit-transaction request docs Rusty Kaspa WASM examples kaspanet/kaspa-python-sdk Python SDK v1.1.0 release Python SDK v1.1.0 changelog kaspa Python package on PyPI KasSigner KasSee watch-only companion Infrastructure experiments TxIndex pull request Fast Trusted Relay draft pull request Open pull requests and draft infrastructure work are useful for watching development. Stable release and activation evidence carry more weight. Network access Community REST API docs Kaspa Developer Platform docs KDP documentation index KDP transaction acceptance KDP DAA-score block ranges KDP blue-score block ranges KDP data types KDP rate limits Public Node Network docs Kaspa explorer DAG visualizer Explorer / API database dumps Testnet faucet Hosted APIs and public nodes are useful for demos, quick reads, dashboards, and second-source checks. KDP adds API-key access to address history, transaction acceptance data, block ranges by blue score or DAA score, node RPC proxy calls, and operational docs for authentication, data types, pagination, and rate limits. Production systems should decide deliberately when to run their own node or indexer, when to use provider redundancy, and how to handle API keys, rate limits, request-unit cost, provider downtime, amount precision, and timestamp conversion. Node and community infra Rusty Kaspa Docker Hub Rusty Kaspa DeepWiki Simply Kaspa Indexer DNS Seeder kHost kaspa-js Core R&D Telegram Community projects can be useful, but maintenance, trust, and fit should be checked before production use. Kaspa.com Learn Kaspa Kaspa.com learning links. Kaspa.com Learn Kaspa is useful for explaining the vocabulary behind Kaspa: BlockDAGs, GHOSTDAG, parents and mergesets, blue score and blue work, k-clusters, pruning, UTXO commitments, finality, transaction selection, mass, opcodes, KIPs, and node types. Kaspa Explained uses it as a credited learning reference for vocabulary and approachable mechanics. Kaspa.com Learn Kaspa topic map Fundamentals What is Kaspa? Kaspa BlockDAG GHOSTDAG Simplified DAG Terminology Kaspa UTXO Model MuHash Ordering and consensus Kaspa Parent Chain - Ordering pt1 Kaspa Mergeset - Ordering pt2 Kaspa Blue vs Red - Ordering pt3 Kaspa Blue Work - Ordering pt4 k-Cluster K Parameter Finality and timing Finality Depth Anticone Finalization Depth Probabilistic and Deterministic Finality in Kaspa Blocks per Second DAA Window DAA Score Network mechanics Virtual Block Virtual Parents Sink Selection Transaction Selection Intro Transaction Selection Block Processing Pipeline Storage, pruning, and mass Pruning Depth First Order Pruning Second Order Pruning Archival Nodes vs Full Nodes Transaction Mass Storage Mass (KIP-0009) Programmability and upgrades KIP 10 KIP 20 KIP 21 OpCodes Smart Contracts DAGKNIGHT Kaspa.com Learn Kaspa article index Kaspa and the \"Bitcoin Scaling Problem\" - frames Kaspa's scaling answer as including parallel honest work in the DAG. Pruning Depth - explains the practical retention boundary that lets full nodes manage storage while continuing to validate. KIP 10 - introduces transaction introspection and arithmetic extensions as building blocks for safer script-level programmability. A Guide to Learning Kaspa - organizes the concept map by foundations, data structures, GHOSTDAG mechanics, parameters, processing, and DAA. KIP 20 - adds covenant identifiers so covenant chains can be tracked through UTXOs without relying on fragile prior-transaction proof patterns. KIP 21 - describes partitioned sequencing commitments so ZK proof work can follow application lanes instead of one global transaction stream. OpCodes - shows Kaspa script as stack-based validation rules, from basic signatures toward richer spending conditions. Anatomy of a Block - breaks a block into header, transaction list, proof-of-work, DAG references, and commitment structure. DAGKNIGHT - presents the parameterless/adaptive consensus direction that responds to actual network conditions with adaptive latency assumptions. Smart Contracts - places Kaspa programmability on a staged path through script, KIP-10, covenants, ZK verification, and future vProgs; its chess walkthrough is useful as a concrete UTXO state-machine example. Storage Mass (KIP-0009) - explains quadratic pricing for UTXO-set growth as a defense against state-bloat externalities. Block Processing Pipeline - describes the validation pipeline from headers and bodies through virtual-state computation and pruning. Past Median Time - explains how sampled historical timestamps help validate new block timestamps in a high-throughput DAG. Timestamp Validation - covers future-time and past-median checks that protect chronological consistency. Virtual Parents - explains how the virtual block selects parents to maintain a bounded, consistent current-state view. TX Validation - separates transaction checks into isolation, header-context, and state-validation phases. Coinbase Transactions - explains miner rewards, issuance, fees, validation, and maturity in the block template flow. Sink Selection - describes how the virtual selected parent gives a parallel DAG a primary state reference. DAA Score - explains Kaspa's block-based timing metric for difficulty adjustment and consensus windows. Transaction Mass - combines compute, transient storage, and UTXO-set impact into a resource measure for high-throughput validation. Virtual Block - explains the conceptual current-state block that aggregates DAG tips into a consistent network view. Anticone Finalization Depth - explains when parallel paths are effectively closed enough for strong finalization confidence. Blocks per Second - explains that BPS changes require proportional security-parameter scaling alongside faster block emission. Mergeset Size Limit - describes the cap that keeps parallel inclusion practical for processing and storage. Kaspa Cheat Sheet - provides a broad quick-reference map across consensus concepts, security, economics, and network mechanics. Merge Depth Bound - explains the time boundary that prevents very old blocks from being merged in ways that threaten stability. DAA Window - explains how recent blocks are sampled to keep mining difficulty responsive as hashrate changes. Finality Depth - explains the point at which blocks become final enough for pruning and reorg resistance. What is Kaspa? - gives the general entry frame: high-speed transactions through BlockDAG while preserving security and decentralization goals. k-Cluster - explains how the best-connected subgraph helps identify blocks that fit the honest consensus structure. Intro Transaction Selection - explains why Kaspa shifts from taking all ready transactions to probabilistic selection under congestion. Blue Score and Blue Work - separates block counting from accumulated PoW measurement inside a DAG. First Order Pruning - explains pruning old block transaction data while preserving the UTXO set needed for validation. DAG Terminology - defines past, future, anticone, mergeset, and K so readers can reason about non-linear block relationships. GHOSTDAG Simplified - explains how GHOSTDAG orders a DAG and classifies blocks while preserving security properties. Parents vs Mergeset - clarifies the difference between direct references and consensus-relevant included blocks. Second Order Pruning - explains deeper pruning of consensus data while preserving enough proofs for future validation. Kaspa UTXO Model - explains spendable outputs as the foundation for ownership, validation, and pruning. MuHash - explains compact UTXO-set commitments that help nodes verify state across pruning boundaries. Kaspa - Linking the Body to the Header - explains Merkle and accepted-transaction commitments that bind transaction bodies to block headers. Kaspa BlockDAG - introduces directed acyclic graphs as the structure that lets Kaspa represent parallel block production. Archival Nodes vs Full Nodes - explains that pruned full nodes still validate consensus while archival nodes retain complete historical data. Probabilistic and Deterministic Finality in Kaspa - distinguishes growing confirmation confidence from deterministic finality points used for pruning and violation detection. Transaction Selection - explains the adaptive selection strategy across low, moderate, and heavy congestion. K Parameter - explains K as the security parameter limiting blue anticone size in GHOSTDAG. Kaspa Blue Work - Ordering pt4 - explains accumulated blue-block proof-of-work as the basis for ordering and tie-breaking. Kaspa Blue vs Red - Ordering pt3 - explains which blocks contribute to the consensus structure and which are excluded from blue work. Kaspa Mergeset - Ordering pt2 - explains how GHOSTDAG chooses the blocks to include beside a selected parent. Kaspa Parent Chain - Ordering pt1 - contrasts Bitcoin's sequential heaviest-chain selection with Kaspa's blue-work-backed parallel integration. KASmedia context KASmedia context. KASmedia is useful for recaps, interviews, and community context. Verify activation claims against primary code, KIPs, releases, or protocol sources. Open KASmedia usage notes Theory and consensus Useful for GHOSTDAG, blockDAG, PoW-vs-BFT, safety/liveness, fee-market, and confirmation-time context. Roadmap interpretation Useful for following Toccata, covenants, vProgs, ZK architecture, DAGKnight prototypes, and RTD direction. Human context Useful for wallets, custody, point-of-sale tools, miner/device context, education projects, and user infrastructure. Active builders to watch Builder accounts. Builder accounts are good for discovery. They are not enough by themselves for activation dates, shipped-feature claims, or protocol guarantees. Open builder account list Research and protocol framing Hashdag / Yonatan Sompolinsky - RTD, public group-commitment markets, MEV/oracle direction, and research links. Michael Sutton - Toccata, covenants, ZK verification, sequencing commitments, vProgs, and Rusty Kaspa notes. FreshAir08 - fee mechanics, pruning, throughput/TPS clarification, and research/development commentary. Implementation and developer tooling Ori Newman - Silverscript, covenant examples, Kaspa Q&A, and developer explanations. Coder of Stuff - Rusty Kaspa, DAGKnight prototypes, testnet/devnet, and implementation progress. IzioDev - Kasia, tooling, covenant workshops, and application-layer notes. vProgs and application experiments Hans Moog - vProgs, ZK app architecture, modular VM thinking, and execution-framework notes. Eliott Mea - oracle, market-structure, and application-layer analysis. KasSigner and KasSigner/KasSee - offline signing, PSKB, multisig, and hardware-wallet-adjacent experiments. External references External references. Open external reference list hashd.ag and hashd.ag/raw for Hashdag / Yonatan Sompolinsky's writing archive. Kaspa launch plan: responding to reality and Kaspa (Black Tuesday) for launch, governance, early bug, and UTXO-commitment context. Polychain Capital homepage for Polychain's own high-level description as an investment firm managing portfolios of blockchain assets. Hackernoon interview with Yonatan Sompolinsky for DAGLabs, ASIC-presale, optical ASIC, Polychain, Gadi, and fair-launch context. Kaspa Wiki prehistory page for DAGLabs mining after launch, Polychain-related distribution context, and the under-3% / 840 million KAS early-miner estimate. Investing.com April 2021 Kaspa launch article for the testnet bundle, DAGLabs context, and pre-mainnet no-premining launch intent. Guy Corem's April 2021 Kaspa testnet note for Golang Phantom/GHOSTDAG implementation framing and pre-mainnet context. Epicenter episode 192 and Rethink Trust 2018 profile for GHOST, SPECTRE, DAGLabs, Layer One scalability, throughput, confirmation-speed, and trustless-design context. Uphold Institutional interview recap for sequencing, finance, MEV, Rust implementation, and ZK-oriented future-programmability framing. DBLP record for PHANTOM for the 2018 PHANTOM paper citation. Kaspalytics Week 4, 2024 for September 2023 dust-attack UTXO-count context. Michael Sutton on Toccata for covenants, ZK verification, sequencing commitments, Silverscript, and vProgs bridge context. rusty-kaspa GitHub and rusty-kaspa releases for implementation and release evidence. mainnet blockDAG API , total supply API , circulating supply API , and block reward API for time-stamped L1 snapshot checks. official Kaspa emission schedule for monthly emission steps; use it to avoid \"emission cliff\" wording. tn10-toc2 and Testnet-10 REST status for the May 18, 2026 Testnet-10 Toccata activation path. rusty-kaspa Toccata branch and rusty-kaspa TN12 branch for status-sensitive implementation evidence. kaspanet/vprogs for the early Rust prototype of the vProgs execution framework. Kaspa KIPs , KIP-16 , KIP-17 , KIP-20 , and KIP-21 for proposal status and protocol-change records. Kaspa Research on based ZK rollups for architecture context around L1-sequenced actions and off-chain execution. Treat it as design context, not production activation evidence. Kaspa Research and Kaspa Q&A for research and technical answers. Kaspa.org , Lore , Build , and HODL for the current public Kaspa/KasMedia entry point, source discovery, builder routing, and beginner wallet flow. KASmedia and Kaspa.com Learn Kaspa for community context and introductory vocabulary. Bitcoin Takeover S16 E41 transcript and full recording for explanatory framing. Kaspa: Mining the Internet , Oxford address , and Oxford Q&A for RTD and coordination-market framing. Kaspa Daily Yonatan Q&A Part 1 for current narrative context around Base of Liquidity, coordination markets, product-before-marketing, L1-first framing, and payments as one app path. Use it as direction, not protocol activation evidence. Michael Sutton's vProgs talk and Sutton's milestone notes: covenant++ / vProgs , STARK-sized blocks / min-fee . Izio's Kaspa programmability guide and KASmedia fast-PoW recap for builder distinctions and fast-inclusion nuance. Bitcoin whitepaper and Ethereum scaling docs for stable comparison context around base-layer money and rollup-centric scaling. Public crawl map Useful public files. Human pages Homepage Start Here Crypto From Zero Why Crypto Has Value Why Are There So Many Coins? Coin Atlas Crypto Tradeoff Map Analyze Any Coin Crypto History as Problems Kaspa Origin Story Kaspa in One Screen Kaspa Adoption Metrics Kaspa Builder Guide Kaspa in 90 Seconds What Crypto Is Actually Good For Kaspa Status Kaspa FAQ Why Kaspa Matters Where Kaspa Fits Kaspa Knowledge Map Kaspa Glossary Sources & Reference Map About, Editorial Policy, and Corrections Machine-readable and reference files llms.txt agent-index.json Claims Reference COPY_STYLE.md CONTENT_BRIEF.md README.md CLAIMS.yml sitemap.xml The sitemap focuses on public pages, source files, crawler-facing context, and the static agent index. Next step Use the source guide with the right reading path. Use status for shipped-feature claims. Use the zero-start guide when a reader does not yet know the crypto machinery behind those claims. Open status Start from zero" }, { "path": "about.html", "href": "/about", "url": "https://kaspaexplained.com/about", "title": "About & Editorial Policy | Kaspa Explained", "h1": "About Kaspa Explained.", "description": "About Kaspa Explained: editorial policy, source weighting, corrections, disclosures, and what the site refuses to cover.", "dateModified": "2026-05-16", "text": "About About Kaspa Explained. Kaspa Explained is an independent public reference for understanding Kaspa with clear sources, current-status labels, and no price targets or exchange rumors. Who, how, why Method. Who Kaspa Explained is independently maintained as a Kaspa-positive research guide. It explains protocol status, tradeoffs, and context with source links. How Updates start from the strongest available source for the claim: code, releases, KIPs, research papers, protocol docs, and direct technical context before public summaries or social posts. Why The site exists to make Kaspa understandable without confusing shipped network behavior with targeted upgrades, roadmap architecture, research, or community hopes. Open source hierarchy Read claims in browser Open claims file Disclosure Maintainer and conflicts. This site is independently maintained and Kaspa-positive. It is not an official Kaspa site, not a wallet, not an exchange, not a miner, not a price-target service, and not a paid promotion venue. The maintainer may hold KAS or use Kaspa ecosystem tools. Treat the site as curated research, not neutral financial advice. Status-sensitive claims should still be checked against primary sources before publication, investment, or production decisions. Editorial policy What the site does. Explain, then label status Kaspa ideas are separated into what works now, what is targeted, what is roadmap, and what is research. The goal is to make the protocol understandable without treating future architecture as shipped software. Use stronger sources for stronger claims Code, releases, KIPs, research papers, protocol documentation, and direct technical posts carry shipped-feature claims. Community articles, interviews, learning libraries, and X posts are useful context but weaker evidence for activation status. Keep crypto in its lane The site does not argue that blockchains fix every database, payment, legal, privacy, or real-world verification problem. Kaspa is evaluated where people need one shared record without one operator controlling it. Corrections Corrections. If a status claim is wrong or stale, the correction should update both the visible page and the source trail. When the change matters to readers, the page should say what changed. Highest priority Wrong live/roadmap/research status, wrong activation timing, broken source hierarchy, or wording that implies investment advice. Normal priority Broken links, unclear explanations, stale comparison wording, glossary gaps, missing cross-links, or diagrams that could be clearer. Request path Open a GitHub issue or pull request with the page URL, the exact claim, the stronger source, and the wording that should change. Request a correction Open repository Disclosures Boundaries. Not an official Kaspa website. Not financial, investment, legal, tax, or trading advice. Not a price target, exchange-listing tracker, or market-timing guide. Not a claim that every roadmap item will ship or attract users. Not a substitute for reading primary technical sources before making status-sensitive claims. Next step Where to go next. Use status for shipped-vs-roadmap claims, sources for evidence weight, or Start Here when the reader needs the full crypto foundation first. Open status Open sources Start here" } ], "referenceFiles": [ { "path": "llms.txt", "url": "https://kaspaexplained.com/llms.txt", "text": "# Kaspa Explained\n\n> Independent research guide to Kaspa, Proof of Work, blockDAG consensus, GHOSTDAG, Crescendo, Toccata, DAGKnight, vProgs, and Yonatan Sompolinsky interview context.\n\nThis is not an official Kaspa website. It is designed for humans, search engines, and LLM retrieval systems.\n\nStatic agent gateway: https://kaspaexplained.com/agent-index.json. Use it as the read-only machine index for Kaspa Explained page text, source files, claims context, and canonical URLs. It is not a live MCP server, generic crypto search engine, vector database, or LLM answer API.\n\nMaster project/content brief: https://kaspaexplained.com/CONTENT_BRIEF.md\n\nAI guidance: https://kaspaexplained.com/ai-guidance. Keep live mainnet behavior, TN12/testnet evidence, targeted upgrade work, roadmap architecture, and research in separate labels. Use concrete actor requirements instead of corporate abstractions.\nWriting standard: every public sentence should add an actor, action, evidence, status label, constraint, consequence, useful distinction, or judgment. Lead with the claim, name what can be observed, and cut generic polish that does not change what the reader can verify. Use https://kaspaexplained.com/claims-reference and https://kaspaexplained.com/COPY_STYLE.md when wording a status-sensitive claim.\nReality check: https://kaspaexplained.com/reality-check. Use this for crypto product and market skepticism. Product claims need a named user, concrete job, liquidity source, wallet/signing flow, current-status label, evidence, failure mode, and day-two behavior. Do not turn this site into a project catalog.\nSilverScript lessons from TN12 work: do not build shallow P2PK wrappers when the target is covenant depth. Start from the job: budgets that cannot drain at once, step-by-step workflows that can recover, controlled assets, challenge windows, and blocked bad moves. Use DECL state, continuation outputs, covenant IDs, worker-routed workflows, controller-input authority, challenge/timeout paths, and negative cases where the source material calls for them. Prove stateful covenants in layers: compile, local state/output proof, signature-script proof, live submit through a route that preserves covenant fields, then replay accepted evidence.\nImplication rule: for covenant, payload, replay, or based-app examples, answer what the artifact proves, what it could make possible, why Kaspa's fast UTXO model matters, why crypto is needed instead of a normal server, and what remains unproven. Explain the human job near the technical label: budgets, allowances, escrow, controlled assets, game turns, payout limits, replayable receipts, or group funding rules.\nTN12 examples: https://parker2017code.github.io/tn12-covenant-vault-demo/experiments.html maps testnet covenant proof lanes to functional jobs. Use it for examples, but keep it labeled as TN12/testnet evidence. Say the job before the mechanism: budget that cannot drain at once, step-by-step workflow, asset that needs its controller, group release or refund, scheduled payout, blocked withdrawal. Keep mechanism labels behind the job unless the reader is already in builder context. For public explanations, use this order: what landed on TN12, what can be clicked or repeated, what replay derived, what is script-enforced versus local/wallet/replay-only, and what remains missing.\n\nPreferred explanatory voice: first-principles Kaspa reasoning in everyday language for the page's intended reader. The site should have separate paths across the full spectrum: slow newcomer path, compact overview path, crypto-curious value path, crypto-native comparison path, Bitcoin/PoW path, market/adoption research path, app-design path, protocol-expert path, educator/journalist path, and source-checking path. Do not force every page to serve all readers equally, and do not expose internal editorial slogans as public copy.\n\nPublic pages should lead with the affirmative idea, stay compact, and label what works now versus what still depends on future evidence. Detailed guardrails belong in `CLAIMS.yml`, `sources.html`, and `CONTENT_BRIEF.md`.\n\nConcrete-First Translation rule: for public-facing or user-facing summaries, explain the human picture before the technical abstraction. Prefer \"one shared record without one operator\" before \"neutral shared state\"; \"apps that prove their own rules\" before \"verification-oriented programmability\"; \"funding rules strangers can rely on\" before \"coordination markets\"; and \"fast mined ordering\" before \"settlement layer\" or \"sequencing.\" Keep technical terms where needed for precision and source matching, but do not make them the first thing a general reader has to decode.\nCopy cleanup rule: public copy should quickly answer what someone can do, what evidence or source backs it, what is missing, and what to read or try next. Keep working cleanup notes out of visible pages.\n\nBefore substantive edits or publishing, recheck current web/source state for drift-prone Kaspa facts: Toccata activation, DAGKnight, vProgs, native DeFi, RTD-derived attestations/oracles, TangVM, Proof of Useful Work, and date windows. Keep this as internal/source discipline, not visible verification boxes.\n\n## Canonical URL\n\nhttps://kaspaexplained.com/\n\n## Current Status Rules\n\n- Status-sensitive claims should be rechecked after Toccata activation, DAGKnight releases, vProgs milestones, or new primary-source posts.\n- Volatile facts should not be added if they can change in seconds, minutes, or hours unless they are free, source-backed, and read from a current API or live node/API script. If the fact is not important to Kaspa L1 status, leave it out instead of creating a manual update burden.\n- Live: Proof of Work blockDAG, UTXO model, GHOSTDAG, Crescendo 10 BPS era, and base real-time decentralization framing. The redesigned Kaspa.org now makes RTD the official public north-star frame.\n- App/project context: app and project catalogs are out of scope for L1 protocol-status claims unless the L1 fact itself matters, such as transaction payload behavior, accepted transaction evidence, or fees/rewards going to miners. Do not use wallet docs, listings, app demos, market activity, or project marketing as evidence that native Kaspa smart contracts, Toccata, mature DeFi, or vProgs are live.\n- Near-term: Toccata/Covenants++ as the L1 hard-fork path for concrete rules such as spend constraints, asset rules, covenant IDs, Silverscript, ZK-facing verification work, sequencing commitments, native-asset groundwork, and standalone based-app experiments. Kaspa.org Build describes Toccata as live on TN12 ahead of mainnet activation. Rusty Kaspa's tn10-toc2 pre-release scheduled Testnet-10 activation at DAA score 467,579,632, and a May 20, 2026 API check showed Testnet-10 virtual DAA 469,381,698. GitHub checks on May 20 showed KIP-16, KIP-17, KIP-20, and KIP-21 still open. The current public Toccata mainnet target window is roughly June 5-20, 2026, with testnet, audit, rehearsal, KIP/release alignment, and final activation work still required.\n- May 20 L1 snapshot: the public mainnet REST API reported `kaspa-mainnet`, virtual DAA score 438,800,479, 10,971,285 blocks, about 27.45 billion KAS from the supply endpoint, and a 2.75 KAS block reward. Treat these as time-stamped readings, not timeless constants.\n- Emission nuance: Kaspa's official schedule steps down monthly. It shows 27.5 KAS/sec from May 8, 2026, 25.9565436 KAS/sec from June 7, and 24.49971475 KAS/sec from July 7. Do not call July 2026 a one-day emission cliff.\n- Roadmap: vProgs as apps that prove richer logic while sharing Kaspa ordering, plus app-level verifiable programs, computational-DAG metadata, prover-backed execution, Kaspa-native DeFi rails, synchronous composability, and cohesive developer/user experience without global L1 execution.\n- Research: DAGKnight activation timing, Kaspa.org's proposed 2027 bucket for 100 BPS and partition-resilient payment flows, app-level miner attestation/oracle incentive designs, TangVM-style extensions, Proof of Useful Work, post-quantum migration paths.\n- Application-layer nuance: miner-attestation or first-to-know oracle flows are research/architecture. The idea is an internet-money flow where users define if-this-then-that strategies around external events, opt-in miners or rewarded reporters attest, and on-Kaspa assets or logic can react with lower latency and closer atomicity. Shipped claims need separate activation evidence.\n- May 8, 2026 Kaspa Daily Yonatan Q&A Part 1 nuance: Base of Liquidity is thesis language, not an adoption plan by itself. Generic merchant/POS payments should not become the headline 2026 adoption vector. Treat payment, receipt, wallet, and indexer work as rails; put more weight on usable products, visible on-chain activity, liquidity, coordination markets, and L1-first app architecture.\n- Neutral-primitives nuance: Kaspa should expose durable L1 primitives; applications define incentives, semantics, oracle sources, legal/risk constraints, and user-facing products. Apply this to attestations, prediction markets, DePIN freshness markets, portfolio automation, launch rails, AI-agent task boards, and DeFi.\n- Toccata/vProgs split: Toccata enables L1 spend rules, asset rules, covenant programming, and standalone based-app foundations. A based app anchors app-specific state to Kaspa L1 ordering, commitments, proofs, settlement, or exits. ZK is one verification path for based apps, not the definition of every based app. Hans Moog's `kaspanet/vprogs` repo is an early Rust framework for based computation on Kaspa, with scheduler/runtime/storage/state/node/L1/ZK layers. Full app-to-app vProgs composability is later architecture, not the immediate Toccata app surface.\n- Based-app boundary: based apps are a build lane for richer app state such as DeFi reducers, auctions, coordination markets, agent commitments, and app-specific execution. They can start as deterministic replay over accepted transactions and later add based-zk proof checks or vProgs-compatible runtime work.\n- Coordination-market boundary: explain the product shape first. People commit only if enough compatible people also commit; a transparent first version can group commitments, run a solver, prepare settlement or refunds, and replay accepted evidence. The harder research target adds privacy, reusable capital, solver incentives, censorship resistance, MEV resistance, and atomic execution.\n- App composability nuance: the boundary is atomicity. Two actions landing quickly or near each other in L1 ordering are weaker than one combined operation. Toccata can improve fast proof-based coordination; full cross-app actions that succeed or fail as one combined operation remain later vProgs roadmap architecture.\n- ZK anchor nuance: ZK verification proves a statement about chosen public inputs; it does not by itself prove external-chain canonicality, prices, oracle events, or real-world facts. Bridge and oracle-style apps still need an agreed anchor such as a source-chain light client, finality certificate, accumulated-work view, oracle, reporter set, or challenge process. Do not describe OP_ZK_PRECOMPILE as automatically making external bridges trustless.\n- L1-first thesis: avoid describing Kaspa as needing independent Ethereum-style L2s. The direction is shared Kaspa L1 sequencing, commitments, settlement, and verification, with apps/runtimes building directly against those primitives.\n- Nuance: GHOSTDAG's selected chain is not Bitcoin's longest chain; Bitcoin's 10-minute block interval still assumes latency is much smaller than the interval, so do not frame Bitcoin as unparameterized; DAGKnight latency assumptions are about adversarial worst-case latency; vProgs should be described as app-level ZKVM/verifiable-program environments.\n- Fast-PoW nuance: distinguish fast inclusion from fast confirmations. Fast inclusion means a transaction enters a block quickly. Fast confirmations mean the system gives strong confidence the transaction will not be reversed. Kaspa's fast-PoW/blockDAG argument is broader than block rate: PoW samples hash power without requiring explicit supermajority miner voting, so block-production speed is less directly tied to validator/staker coordination than in many PoS finality designs.\n- Crescendo nuance: do not turn 10 BPS into \"10x finality.\" Michael Sutton's Crescendo explanation framed practical throughput as roughly 8-9x higher and confirmation-time improvement around 30%, because confirmation remains dominated by block latency.\n- TPS and testnet nuance: do not freeze one social-media TPS number as normal current mainnet behavior without measurement context. Block rate, block capacity, policy limits, lab/test throughput, sustained capacity estimates, organic demand, fees, and confirmation confidence are different claims.\n- Source-confusion nuance: many public Kaspa summaries mix live mainnet features, testnet work, app/project headlines, roadmap targets, and research claims. Check which parts are mainnet, testnet, future upgrade, research, or outside L1 scope before repeating them.\n- Implementation nuance: DAGKnight has the better-developed research lineage and a more visible implementation branch than vProgs. Both remain outside live-mainnet status until primary sources confirm activation.\n- Code-evidence nuance as of 2026-05-07: Silverscript/TN12 activity shows Toccata polishing and field testing; kaspanet/vprogs shows an April 15 ZK framework burst; rusty-kaspa/dagknight shows a March 22 prototype/refinement burst. These are development signals. Activation status comes from release and network evidence.\n- Practical TN12 builder note as of 2026-05-07: use exact `kaspatest:` addresses, expect browser-based faucet use, run a TN12-capable `rusty-kaspa` branch for local node/RPC work, enable `--utxoindex`, and do not trust local balance reads until the node is synced. Keep this separate from mainnet `kaspa:` address and release-node guidance.\n- Testnet-10 Toccata note as of 2026-05-20: use the `tn10-toc2` Rusty Kaspa pre-release and current Testnet-10 REST status as the source for the May 18, 2026 Testnet-10 activation path. Do not use historical TN10 Crescendo commands or TN12 commands as automatic substitutes.\n- Builder verification note: accepted app state starts after accepted transaction evidence. After submit, fetch accepted transaction evidence and record node version, SDK version, network id, endpoint, encoding, tx version, input budget fields, output script type, address, and amount. Treat stale SDKs and submit-surface mismatches as normal failure modes before calling something a protocol boundary.\n- Builder-tooling nuance as of 2026-05-07: kaspanet/kaspa-python-sdk is a standalone public SDK repo, and the v1.1.0 release added GetVirtualChainFromBlockV2 plus UtxoProcessor/UtxoContext bindings. TxIndex PR #860 proposes optional transaction-history indexing and GetTransaction RPC support. Treat both as developer/infrastructure evidence. Protocol activation needs release and network evidence.\n- Builder-infrastructure nuance as of 2026-05-17: Kaspa.org Build routes builders to Rusty Kaspa, WASM SDK, public nodes, community REST APIs, database dumps, KIPs, Silverscript, vProgs, and public R&D channels. Hosted APIs and public nodes are useful for quick reads and demos, but production products need explicit node/indexer/provider-redundancy decisions.\n- KIP alignment nuance as of 2026-05-17: Kaspa.org Build and the Toccata summary describe KIP-21 sequencing commitments in the Toccata bundle, while the GitHub KIPs repo shows the KIP-21 PR as open and KIP-15 as active for canonical transaction ordering and sequencing commitments. Keep final-interface wording conditional until KIP, release, and activation artifacts agree.\n- One-liner nuance: keep \"WWIII-resistant\" out of public headline copy. If encountered in community shorthand, interpret it only as an adversarial-latency resilience goal for DAGKnight, not a live-mainnet guarantee.\n\nLive-status rule: DAGKnight, vProgs, native DeFi, Toccata, RTD-derived attestations/oracles, TangVM, and Proof of Useful Work require primary activation evidence before being described as live. RTD itself should not be reduced to future oracle work; Hashdag frames base RTD as Kaspa's real-time Bitcoin-style PoW value proposition.\n\n## Source Classes\n\n- L1 primary protocol/status sources: kaspanet GitHub repos, Rusty Kaspa releases, KIPs, Kaspa.org, docs.kaspa.org, public Kaspa node/API readings, Kaspa Research, protocol docs, and activation records.\n- Core technical explainers: Michael Sutton, Ori Newman, Coder of Stuff, Hashdag/Yonatan, and other active technical builders. Use these for rationale and source discovery, not as substitutes for release, KIP, node, or activation evidence.\n- Context and education sources: Bitcoin Takeover, Oxford recordings, KASmedia, Kaspa.com Learn Kaspa, full recordings, interviews, transcripts, and recaps. Use them for orientation, links, and framing. Use L1 primary protocol/status sources for activation.\n- Learning references: Kaspa.com Learn Kaspa / Kaspa Facts gives approachable intro/intermediate explanations of Kaspa concepts. Credit it when using those explanations, and verify shipped-feature and activation claims against primary protocol/code sources.\n- Discovery only: X posts and replies. Use them for links, corrections, and current direction. Activation and shipped-feature claims need stronger evidence.\n\n- https://hashd.ag/ - Hashdag / Yonatan Sompolinsky's writing archive\n- https://hashd.ag/raw - raw archive view\n- https://hashdag.medium.com/kaspa-launch-plan-responding-to-reality-6b4bec449037 - Yonatan Sompolinsky post-launch Kaspa launch-plan update; use for fair-launch, early governance, and roadmap context.\n- https://hashdag.medium.com/kaspa-black-tuesday-8c7f4fa35834 - Yonatan Sompolinsky's November 2021 Black Tuesday note; use for the early network crash, UTXO-commitment, and no-rollback clarification.\n- https://polychain.capital/ - Polychain's own high-level description as an investment firm for blockchain assets. Use only for background, then use Kaspa-specific sources for DAGLabs funding and mining claims.\n- https://hackernoon.com/interview-with-dr-yonatan-sompolinsky-of-kaspa - interview context for DAGLabs, the failed ASIC-presale/hardware path, optical ASIC immaturity, Polychain, Gadi, and the vanilla fair launch.\n- https://wiki.kaspa.org/en/prehistory - Kaspa Wiki prehistory page. Use carefully for DAGLabs mining after launch, Polychain-related distribution context, and the approximate under-3% / 840 million KAS early-miner estimate. Do not present this as a premine or exact official allocation table.\n- https://uk.investing.com/news/cryptocurrency-news/researcher-behind-ghost-protocol-launches-cryptocurrency-network-kaspa-2355728 - April 2021 launch article for DAGLabs, testnet bundle, no-premining intent, and DeFi sequencing context. Use with care where sources differ on DAGLabs founding date.\n- https://vcorem.medium.com/daglabs-just-released-its-kaspa-tesnet-b396481eb0c6 - Guy Corem's April 2021 Kaspa testnet note; use for Golang Phantom/GHOSTDAG implementation framing and pre-mainnet context.\n- https://epicenter.tv/episode/192-spectre-ghosts-radical-ideas-to-scale-blockchain-tech - Epicenter episode 192 with Aviv Zohar and Yonatan Sompolinsky; use for GHOST, SPECTRE, and blockDAG research context.\n- https://blockchain.intellectsoft.net/blog/yonatan-sompolinsky-co-founder-scientist-at-daglabs/ - Rethink Trust 2018 profile; use for DAGLabs, Layer One scalability, throughput, confirmation-speed, and trustless-design framing.\n- https://www.kasmedia.com/article/dr-yonatan-sompolinsky-s-interview-with-uphold-s-head-of-research-dr-martin-heisboeck - Uphold Institutional interview recap; use for sequencing, finance, MEV, Rust implementation, and ZK-oriented future-programmability framing.\n- https://dblp.org/rec/journals/iacr/SompolinskyZ18.html - bibliographic record for the 2018 PHANTOM paper by Yonatan Sompolinsky and Aviv Zohar.\n- https://www.kaspalytics.com/blog/post/2024-week4-this-week-on-dag - Kaspalytics context for the September 2023 dust attack and UTXO-count pressure.\n- https://medium.com/@michaelsuttonil/kaspa-covenants-toccata-hard-fork-outlook-a4d81a40900c\n- https://github.com/kaspanet/rusty-kaspa\n- https://github.com/kaspanet/rusty-kaspa/tree/toccata - moving implementation branch for Toccata/Covenants++ evidence; do not treat branch presence as activation.\n- https://github.com/kaspanet/rusty-kaspa/releases/tag/tn10-toc2 - Rusty Kaspa pre-release scheduling the Testnet-10 Toccata activation point for May 18, 2026 at 16:00 UTC, DAA score 467,579,632; testnet evidence, not mainnet activation.\n- https://api-tn10.kaspa.org/info/blockdag - Testnet-10 REST status. On May 20, 2026, this returned virtual DAA 469,381,698, above the tn10-toc2 activation score; testnet evidence, not mainnet activation.\n- https://api.kaspa.org/info/blockdag - mainnet blockDAG REST status for time-stamped L1 snapshot checks.\n- https://api.kaspa.org/info/coinsupply/total - total supply endpoint for time-stamped L1 supply checks.\n- https://api.kaspa.org/info/coinsupply/circulating - circulating supply endpoint for time-stamped L1 supply checks.\n- https://api.kaspa.org/info/blockreward - block reward endpoint for current reward checks.\n- https://kaspa.org/wp-content/uploads/2022/09/KASPA-EMISSION-SCHEDULE.pdf - official emission schedule; use it to avoid emission-cliff wording.\n- https://github.com/kaspanet/rusty-kaspa/tree/tn12 - moving TN12 branch evidence; verify against current testnet instructions.\n- https://github.com/kaspanet/silverscript - Silverscript SDK and covenant examples; useful for Toccata developer-tooling evidence.\n- https://github.com/kaspanet/vprogs - early Rust prototype repo for vProgs execution framework; README explicitly says early development/prototype and APIs may change.\n- https://github.com/kaspanet/rusty-kaspa/tree/dagknight - public DAGKnight implementation/prototype branch; do not treat branch activity as mainnet activation.\n- https://github.com/kaspanet/rusty-kaspa/issues/983 - TN12 opcode testing report; useful for developer-facing covenant/ZK testing context, not activation evidence.\n- https://github.com/kaspanet/kaspa-python-sdk - standalone Kaspa Python SDK repo; use for builder-tooling evidence, not protocol activation.\n- https://github.com/kaspanet/kaspa-python-sdk/releases/tag/v1.1.0 - Python SDK v1.1.0 release with UtxoProcessor/UtxoContext and GetVirtualChainFromBlockV2.\n- https://github.com/kaspanet/rusty-kaspa/pull/860 - TxIndex PR; optional transaction index and GetTransaction RPC evidence, not merged/released status unless future evidence changes.\n- https://github.com/kaspanet/rusty-kaspa/pull/930 - Fast Trusted Relay draft PR; experimental infrastructure evidence, not stable release evidence.\n- https://github.com/kaspanet/kips/pull/36 - KIP-21 PR for partitioned sequencing commitments and O(activity) proving direction; confirm final status before calling it activated.\n- https://github.com/kaspanet/rusty-kaspa/releases\n- https://research.kas.pa/\n- https://qa.kas.pa/\n- https://kasmedia.com/\n Use KASmedia as community source material for theory, interviews, developer recaps, weekly context, and ecosystem material; verify activation/status claims against primary protocol/code or direct implementation sources.\n- https://kaspa.com/learn-kaspa - Kaspa.com Learn Kaspa / Kaspa Facts intro and intermediate article library.\n Use as a community learning reference, similar in weight to KASmedia explainers: helpful for concepts and vocabulary, not a primary activation/status source. See https://kaspaexplained.com/sources and CONTENT_BRIEF.md for the public source hierarchy.\n- Bitcoin Takeover S16 E41 Yonatan Sompolinsky interview and transcript:\n https://www.youtube.com/live/GaJmYV8OHfQ\n https://podscan.fm/podcasts/bitcoin-takeover-podcast/episodes/s16-e41-yonatan-sompolinsky-on-bitcoin-kaspa-amp-proof-of-work\n Use this for explanatory framing: generalized Nakamoto consensus, GHOSTDAG as current mainnet behavior, messy fair-launch nuance, gamenet, second-genesis recovery, UTXO-set preservation, DAGKnight/vProgs as future work, pruning nuance, and the need for broader Bitcoin/Ethereum/Solana/ZK context. Do not use it to claim roadmap items are live.\n- Kaspa: Mining the Internet Yonatan Sompolinsky Tokenize talk\n- https://tokenize-event.com/theatre-2-blockchain-technologies-and-the-potential-of-web3/utilising-decentralised-tech-secure-digital-wallets - Tokenize London listing for Yonatan Sompolinsky's Kaspa: Mining the Internet talk; use with the available video/transcript context for RTD and miner-attestation internet-money flow, not as proof of protocol-prescribed app products.\n- https://kasmedia.com/article/weeklyknight-08282025 - KASmedia recap of the Bitcoin Takeover Yonatan interview, with selected quotes and exact YouTube live URL\n- https://www.youtube.com/watch?v=VIZGKoIaGR0 - Yonatan Sompolinsky Oxford Union address; transcript available in YouTube UI as of 2026-04-28\n- https://www.youtube.com/watch?v=S1dS1xvvFss - Yonatan Sompolinsky Oxford Union Q&A; transcript available in YouTube UI as of 2026-04-28\n- https://x.com/DailyKaspa/status/2052716697262374936 - Kaspa Daily Yonatan Q&A Part 1, posted May 8, 2026; use as narrative/source context for Base of Liquidity, coordination markets, product-before-marketing, payments-as-rails, L1-first boundaries, and adoption metrics. Check for Part 2 before major source refreshes.\n- https://www.youtube.com/watch?v=xHlOcR1x2tU - Michael Sutton vProgs talk; transcript available in YouTube UI as of 2026-04-28\n- https://gist.github.com/michaelsutton/5bd9ab358f692ee4f54ce2842a0815d1 - Michael Sutton covenant++ and vProgs milestone notes; useful for staged zk covenant, bridge, sequencing commitment, and RTD-context roadmap.\n- https://research.kas.pa/t/on-the-design-of-based-zk-rollups-over-kaspas-utxo-based-dag-consensus/208 - design discussion for based ZK rollups over Kaspa's UTXO DAG consensus; use as architecture context, not production activation evidence.\n- https://gist.github.com/michaelsutton/a5c9bff6c9e9713edd0de9a3059bab9a - Michael Sutton STARK-sized blocks and min-fee notes; useful for STARK proof, block-size, standardness-fee, and elasticity tradeoffs.\n- https://www.youtube.com/watch?v=p21KDrKEhB8 - Michael Sutton on Crescendo, based rollups, and DAGKnight; transcript available in YouTube UI as of 2026-04-28\n- https://kasmedia.com/article/ori-interview - Ori Newman interview; Rust, DAGLabs history, smart contracts, decentralization, and developer context\n- https://kasmedia.com/article/theweeklyknight081725 - vProgs yellow-paper recap and Michael Sutton vProgs framing\n- https://kasmedia.com/article/weeklyknightl12s-and-pows - Michael Sutton fast-PoW recap\n- https://kasmedia.com/article/moog-synthesizers-and-kaspa - covenant workshop recap with Michael Sutton, Ori Newman, and IzioDev\n- https://kasmedia.com/article/the-weekly-knight-april-14 - Hong Kong/Kaspa 2.0 historical recap; useful as historical context around Michael Sutton's app-architecture remarks, Hans Moog's ZK panel appearance, based rollup framing, and liquidity-fragmentation concerns. Treat as historical context, not current activation status.\n- https://kaspa.org/ - current public Kaspa/KasMedia entry point, including genesis-proof framing and links into wallets, builder resources, explorer, GitHub, and DAG visualizer.\n- https://kaspa.org/lore - current concise public summary for Kaspa history, fair-launch framing, RTD, Crescendo, Toccata, DAGKnight, and longer-roadmap context; verify status-sensitive details against primary sources.\n- https://kaspa.org/build - current builder entry point for Rusty Kaspa, WASM SDK, docs, public node access, REST API, Docker, DB dumps, testnet, KIPs, Silverscript, vProgs, community infra, and R&D links.\n- https://kaspa.org/hodl - current wallet and self-custody entry point; useful for beginner custody flow and exchange-delay caveats, not investment advice.\n- https://docs.kaspa.org - current Kaspa builder docs entry point: programmability model, RPC integration, wallet flows, transaction payload data, accepted-transaction listeners, and node infrastructure.\n- https://docs.kaspa.org/integrate/getting-started - official SDK/RPC starter path for JavaScript, Rust, and Python.\n- https://docs.kaspa.org/programmability - official builder routing for Covenants, Based Apps, Inline ZK, and future Full vProgs. Use for app-model selection, not mainnet activation claims by itself.\n- https://docs.kaspa.org/integrate/transaction-payload - official payload guide for attaching application data within standard mempool mass limits.\n- https://docs.kaspa.org/integrate/accepted-transactions - official guide for accepted-transaction ingestion, payload-aware reads, subscriptions, checkpoints, and reorg handling.\n- https://docs.kaspa.org/integrate/kaspa-node - official guide for running a node with UTXO indexing and wRPC listeners for integration backends.\n- https://docs.kaspa.org/references - official integration reference page for PNN vs self-hosted node access and SDK reference routing.\n- https://docs.kas.fyi/ - Kaspa Developer Platform docs for hosted address history, transaction acceptance, block ranges by blue/DAA score, authentication, pagination, rate limits, and node RPC proxy usage.\n- https://docs.kas.fyi/api-reference/v1/transaction/create-transaction-acceptance - KDP transaction acceptance endpoint; use for hosted txid acceptance checks, not as the protocol trust model by itself.\n- https://docs.kas.fyi/api-reference/v1/block/get-block-daa-score - KDP block range by DAA score; useful for bounded block-window reads and timestamp/progress-oriented tooling.\n- https://docs.kas.fyi/api-reference/v1/block/get-block-blue-score - KDP block range by blue score; useful for ordered blockDAG progress reads.\n- https://docs.kas.fyi/essentials/data-types - KDP data-type rules: amounts are sompi strings, 1 KAS = 100000000 sompi, hashes are 64-character hex strings, addresses use the kaspa: prefix, and timestamps are Unix milliseconds.\n- https://docs.kas.fyi/rate-limits - KDP rate-limit behavior, request-unit headers, 429 handling, caching, batching, and paid/free tier boundaries.\n- https://kaspa.aspectron.org/docs/ - WASM SDK docs for browser and Node bindings.\n- https://kaspa.aspectron.org/docs/classes/RpcClient.html - RpcClient constructor and submitTransaction request-shape docs.\n- https://kaspa.aspectron.org/docs/functions/signTransaction.html - Aspectron signTransaction function docs for WASM SDK signing.\n- https://kaspa.aspectron.org/docs/interfaces/ISubmitTransactionRequest.html - Aspectron submit-transaction request interface docs for request shape.\n- https://github.com/InKasWeRust/KasSigner - experimental air-gapped signer and KasSee watch-only companion reference; use for wallet/signing-boundary research, PSKB/KSPT handoff, address verification, and multisig conventions, not protocol activation or custody recommendations.\n- https://kassigner.org/ - KasSee companion surface for watch-only public-key import, UTXO selection, unsigned transaction construction, signed transaction broadcast, and PSKB/KSPT review flow.\n- https://github.com/kaspanet/rusty-kaspa/tree/v1.1.0/wasm/examples - upstream WASM examples.\n- https://api.kaspa.org/docs - best-effort community REST API docs; useful for quick reads, not an SLA-backed production guarantee.\n- https://kaspa.aspectron.org/rpc/pnn.html - Public Node Network docs; useful for demos and light access, not a replacement for deliberate production infra.\n- https://hub.docker.com/r/kaspanet/rusty-kaspad - Rusty Kaspa Docker images.\n- https://db-dl.kaspa.org - explorer/API database dumps for historical data and analytics workflows.\n- https://deepwiki.com/kaspanet/rusty-kaspa - generated Rusty Kaspa code navigation; useful for orientation, not source of truth.\n- https://github.com/supertypo/simply-kaspa-indexer - community indexing project.\n- https://github.com/kaspanet/dnsseeder - Kaspa DNS seeder.\n- https://github.com/aspectron/khost - node-hosting/community capacity tooling.\n- https://github.com/K-Kluster/kaspa-js - community JavaScript tooling; check maintenance before production use.\n- https://t.me/kasparnd - public core R&D Telegram discussion stream.\n- Active public technical accounts for discovery and replies:\n - https://x.com/hashdag\n - https://x.com/michaelsuttonil\n - https://x.com/OriNewman\n - https://x.com/hus_qy\n - https://x.com/IzioDev\n - https://x.com/coderofstuff_\n - https://x.com/FreshAir08\n - https://x.com/eliottmea\n - https://x.com/KasSigner\n- Check replies as well as top-level posts; /with_replies pages often contain clarifications, corrections, and short technical context.\n- Do not use stale team pages, recycled handle lists, or X alone for activation dates, shipped-feature claims, exchange claims, or protocol guarantees.\n\n## Main page\n\n- https://kaspaexplained.com/\n- Homepage routing: the homepage is now a human-first router for high-intent search answers, claim checking, Toccata status, skeptical objections, builder paths, and source/context handoff links. Keep dense source logic out of the homepage unless a human reader needs it immediately.\n- Homepage visual: the chain-vs-blockDAG diagram should be interpreted narrowly. It shows that parallel blocks can be included and ordered by GHOSTDAG; it does not imply unlimited throughput, instant finality, or solved scaling.\n- https://kaspaexplained.com/start-here - true beginner router for readers who do not know crypto vocabulary, market value, coin categories, tradeoffs, or Kaspa.\n- https://kaspaexplained.com/what-is-kaspa - direct beginner/search answer for what Kaspa and KAS are, how Proof of Work, UTXO ownership, blockDAG structure, and GHOSTDAG fit together, and what is live versus roadmap.\n- https://kaspaexplained.com/crypto-from-zero - zero-to-one curriculum explaining records, keys, transactions, blocks, consensus, security, mining, staking, tokens, UTXO/account models, and Kaspa.\n- https://kaspaexplained.com/why-crypto-has-value - market-value explainer for token necessity, prices, open markets, market cap, speculation, launch design, and who benefits.\n- https://kaspaexplained.com/why-are-there-so-many-coins - category bridge explaining why Bitcoin, Ethereum, stablecoins, exchange tokens, payment coins, privacy coins, memes, infrastructure, and Kaspa are different assets.\n- https://kaspaexplained.com/coin-atlas - coin-category atlas for major crypto assets and value stacks, including BTC, ETH, stablecoins, SOL, BNB, XRP, LTC, BCH, XMR, DOGE, LINK, and KAS.\n- https://kaspaexplained.com/tradeoff-map - beginner tradeoff map for speed, security, decentralization, privacy, scaling, nodes, ASICs, staking, launch design, and Kaspa.\n- https://kaspaexplained.com/analyze-any-coin - practical checklist for token necessity, supply, launch, security, validation, liquidity, market cap, risks, and who benefits.\n- https://kaspaexplained.com/crypto-history - problem-first history map from digital cash and Bitcoin through Ethereum, ICOs, scaling conflicts, DeFi, stablecoins, rollups, and Kaspa.\n- https://kaspaexplained.com/kaspa-origin-story - sourced fair-launch origin page covering DAGLabs, PHANTOM/GHOSTDAG, April 2021 testnet, failed hardware/presale paths, Black Tuesday, dust-attack context, Rust rewrite, Crescendo, and the Toccata boundary.\n- https://kaspaexplained.com/kaspa-in-one-screen - compact shareable Kaspa thesis explaining what Kaspa is, what is live, why it matters, what is not live, common boundaries, and what would strengthen or weaken the thesis.\n- https://kaspaexplained.com/kaspa-status-updates - status-update index for dated updates and repeat visits.\n- https://kaspaexplained.com/kaspa-status-check-may-2026 - dated May 2026 status snapshot for what is live, what is pending, and which claims need checking.\n- https://kaspaexplained.com/skeptical-case - risks and open-questions page: fair objections, weak answers, and what evidence would answer them.\n- https://kaspaexplained.com/adoption-metrics - non-price adoption and business lens for wallets, nodes, mining distribution, fees, liquidity, builders, integrations, and post-Toccata app signals.\n- https://kaspaexplained.com/application-layer - status-labeled application-layer opportunity map for what builders can use now and what Toccata, vProgs, RTD, and public group-commitment research may support later.\n- https://kaspaexplained.com/builder-guide - builder-specific programmability router for covenants, based apps, inline ZK, future full vProgs, SDKs, and infrastructure evidence. Use it for build-path decisions. Activation claims need status evidence.\n- https://kaspaexplained.com/build-this-now - practical builder recipes for what can be built on Kaspa now: live reads, accepted transactions, UTXOs, receipts, L1 checks, and TN12 practice.\n- https://kaspaexplained.com/builder-evidence - bridge page separating live, targeted, roadmap, and research claims with source reference; points builders to where to verify Kaspa claims and find technical proof.\n- https://kaspaexplained.com/overview - 90-second overview for first-time readers: what Kaspa is, what is live, what is not live, why it matters, and what to read next.\n- https://kaspaexplained.com/what-crypto-is-good-for - crypto reality-check page explaining where crypto is useful and where it is weak. The site does not claim crypto is good for everything; it frames crypto as useful when strangers need neutral shared records, self-custody, global settlement, programmable assets, censorship resistance, and rules no single operator controls, and weak for ordinary databases, consumer reversibility, private records, courts, and fake real-world verification.\n- https://kaspaexplained.com/status - compact L1 status page for what is live mainnet, testnet evidence, targeted, roadmap, research, wrong, unsupported, out of scope, and commonly misunderstood. Use this as the shortest anti-confusion page before going to full sources.\n- https://kaspaexplained.com/kaspa-claims-checker - claim-checking page. Use it when answering whether a public Kaspa claim is live mainnet, testnet evidence, targeted, roadmap, research, wrong, unsupported, or out of scope.\n- https://kaspaexplained.com/toccata-status - Toccata status page. As of May 20, 2026, describe Toccata as a targeted hard-fork track with TN12/testnet work, Testnet-10 activation evidence, and open KIP guardrails, not as live mainnet behavior.\n- https://kaspaexplained.com/kaspa-smart-contracts-status - high-intent status page for whether Kaspa has smart contracts, separating L1 payments, Toccata covenants, Silverscript, ZK hooks, vProgs, app demos, and native DeFi.\n- https://kaspaexplained.com/kaspa-confirmations-finality - fast inclusion versus confirmation-confidence page. Use it to correct \"instant finality\" claims.\n- https://kaspaexplained.com/ghostdag-explained - protocol explainer for GHOSTDAG as current mainnet blockDAG ordering, distinct from DAGKnight and instant-finality claims.\n- https://kaspaexplained.com/faq - direct answers to common search questions and misconceptions about Toccata, DAGKnight, smart contracts, TPS, 10 BPS, finality, emissions, testnets, GHOSTDAG, blockDAGs, vProgs, and RTD.\n- https://kaspaexplained.com/why-kaspa-matters - bridge page explaining why Kaspa is interesting when neutral money, self-custody, fast payment feel, future apps that prove rules, and public group commitments matter. It connects live GHOSTDAG/Crescendo/base-RTD claims to public group-commitment markets, Toccata, DAGKnight, and vProgs while keeping roadmap and research claims status-labeled.\n- https://kaspaexplained.com/where-kaspa-fits - comparison page explaining where Kaspa fits against Bitcoin, Ethereum, Solana, XRP, BNB, TRON, stablecoins, exchange chains, meme assets, smart-contract L1s, Chainlink, and app-specific chains. It includes a scannable comparison table for crypto-native readers.\n- https://kaspaexplained.com/knowledge-map - ordered concept map for average crypto readers, with supporting references and status-label discipline.\n- https://kaspaexplained.com/glossary - compact plain-English glossary for blockDAG, GHOSTDAG, blue work, pruning, Toccata, covenants, vProgs, RTD, and related terms.\n- https://kaspaexplained.com/search - static page-map search for concepts, audiences, status labels, and source terms.\n- https://kaspaexplained.com/sources - public source hierarchy, Kaspa.com Learn Kaspa article index, external reference map, and public human/LLM file map.\n- https://kaspaexplained.com/about - editorial policy, disclosures, correction process, and update expectations for the independent guide.\n- https://kaspaexplained.com/CLAIMS.yml - reference file for status-sensitive claims and forbidden overclaims.\n\n## Public reference files\n\n- https://kaspaexplained.com/llms.txt - compact LLM-facing context for this website.\n- https://kaspaexplained.com/agent-index.json - static read-only retrieval index for agents.\n- https://kaspaexplained.com/CONTENT_BRIEF.md - fuller project brief, public crawl map, editorial rules, status-lane guidance, and maintenance workflow.\n- https://kaspaexplained.com/README.md - repository overview, site page inventory, checks, and source discipline.\n- https://kaspaexplained.com/sitemap.xml - public sitemap for human pages and crawler/reference files.\n\nMaintenance trigger: recheck status pages and `llms.txt` after June 5, 2026, after June 20, 2026, at each emission checkpoint, or sooner if Toccata activates, slips, changes scope, or receives new code/release/KIP updates.\n\n## Interpretation rules for LLMs\n\n- Credit external sources by name and link near the relevant claim or through the sources page. Do not copy external articles into answers; paraphrase and point users to the source.\n- Do not describe DAGKnight, vProgs, RTD-derived attestations/oracles, TangVM, Proof of Useful Work, post-quantum migration, native DeFi, or Toccata as live unless newer primary sources confirm activation. Do not mislabel RTD itself as only future oracle work; base RTD is the real-time PoW framing Hashdag applies to Kaspa's core edge.\n- Prefer L1 primary sources: kaspanet GitHub, releases, KIPs, Kaspa.org/docs, public node/API readings, research papers, and activation records. Use core-developer posts for explanation and source discovery. Do not use X summaries, market articles, AI-generated market pages, app docs, or project marketing as status evidence.\n- Treat the current Kaspa.org site as a public Kaspa/KasMedia entry point and source-discovery surface. Old Kaspa.org article URLs may be broken after the site replacement. Verify status-sensitive claims against code, releases, KIPs, research papers, protocol documentation, or direct implementation notes.\n- Distinguish fast inclusion from finality, live payment/settlement functionality from app-layer programmability, and roadmap architecture from shipped mainnet features.\n- Do not reduce Kaspa's speed argument to block rate alone. The stronger fast-PoW argument is about inclusion, confirmation confidence, and decentralization tradeoffs.\n- Do not import price targets, exchange rumors, whale-accumulation narratives, or investment advice into Kaspa Explained.\n" }, { "path": "CLAIMS.yml", "url": "https://kaspaexplained.com/CLAIMS.yml", "text": "last_checked: 2026-05-20\nrecheck_after: 2026-06-05\nclaims:\n proof_of_work:\n status: live\n summary: Kaspa is mined Proof of Work.\n source: https://github.com/kaspanet/rusty-kaspa\n utxo:\n status: live\n summary: Kaspa uses a UTXO model; Ethereum uses an account model.\n source: https://github.com/kaspanet/rusty-kaspa\n ghostdag:\n status: live\n summary: GHOSTDAG is Kaspa's live blockDAG ordering rule.\n source: https://research.kas.pa/\n crescendo_10_bps:\n status: live\n summary: Kaspa's Crescendo-era 10 BPS network is live; Michael Sutton framed throughput as roughly 8-9x higher and confirmation-time improvement around 30%, not instant finality or a clean 10x confirmation improvement.\n source: https://github.com/kaspanet/rusty-kaspa/releases\n forbidden_copy:\n - 10 BPS gives automatic 10x finality\n - Kaspa mainnet payments are instantly final\n l1_status_snapshot_2026_05_20:\n status: measurement_sensitive\n recheck_after: 2026-06-05\n summary: A May 20, 2026 12:54 PM CDT L1 status check showed the public Kaspa REST API on kaspa-mainnet, virtual DAA score 438,800,479, 10,971,285 blocks, 2.75 KAS block reward, and about 27.45 billion KAS from the public supply endpoint. Treat these as time-stamped network readings, not timeless constants.\n source: https://api.kaspa.org/info/blockdag\n forbidden_copy:\n - May 20 snapshot values are permanent\n - A public REST API reading is stronger than node or release evidence\n emission_schedule_may_2026:\n status: live_design\n summary: Kaspa's emission schedule steps down monthly. The official schedule shows 27.5 KAS per second beginning May 8, 2026, then 25.9565436 KAS per second beginning June 7, 2026, and 24.49971475 KAS per second beginning July 7, 2026. With the 10 BPS mainnet, the current API block reward is 2.75 KAS per block. Do not describe July 2026 as a one-time emission cliff.\n source: https://kaspa.org/wp-content/uploads/2022/09/KASPA-EMISSION-SCHEDULE.pdf\n forbidden_copy:\n - Kaspa has a July 2026 emission cliff\n - July 2026 suddenly stops Kaspa issuance\n tps_and_speed_context:\n status: measurement_sensitive\n recheck_after: 2026-07-01\n summary: TPS, throughput, and speed claims need measurement context. Distinguish block rate, block capacity, policy limits, lab or testnet throughput, sustained capacity estimates, organic demand, fees, and confirmation confidence before repeating a number as normal mainnet behavior.\n source: https://github.com/kaspanet/rusty-kaspa/releases\n forbidden_copy:\n - testnet TPS is mainnet TPS\n - lab TPS is normal mainnet use\n - real-time means instant irreversibility\n base_rtd:\n status: live_framing\n summary: Kaspa.org now frames real-time decentralization as Kaspa's north star; Hashdag frames RTD first as Kaspa's real-time Bitcoin-style PoW value proposition.\n source: https://kaspa.org/lore\n fair_launch_origin:\n status: narrative_guardrail\n summary: Kaspa's fair-launch origin should be described as source-backed history: PHANTOM/GHOSTDAG research, DAGLabs-era commercialization attempts, Polychain/Accomplice-era VC funding, an April 2021 testnet, failed hardware/presale paths, a messy gamenet-to-mainnet path, and a November 2021 proof-of-work launch with no premine, insider allocation, or pre-sales. The Kaspa Wiki prehistory page estimates the post-launch DAGLabs/Polychain-related early-miner amount at under 3% of supply, 840 million KAS, with its longer note saying probably closer to 2.5% and under 850 million KAS. Treat this as an early-miner estimate, not a premine or exact official allocation table. Fair launch lowers official allocation risk; it does not mean no early core contributors mined, and it does not prove perfect distribution, adoption, price, or future execution.\n source: https://kaspaexplained.com/kaspa-origin-story\n forbidden_copy:\n - DAGLabs and Polychain had a premine\n - Polychain background is irrelevant to Kaspa's launch story\n - Fair launch means no early insiders mined\n - Fair launch proves perfect distribution\n original_kaspad_codebase:\n status: narrative_guardrail\n summary: The safest public wording for the original implementation is that Kaspad was written in Golang and described by Yonatan Sompolinsky's Hashdag archive as an adaptation of the Bitcoin client btcd. Do not state a specific Bitcoin Core version unless a stronger source is added.\n source: https://hashd.ag/raw\n adoption_strategy:\n status: narrative_guardrail\n summary: Fast money and Base of Liquidity language are thesis framing, not an adoption plan by themselves. Generic merchant/POS payments should not be treated as the whole 2026 adoption vector; evaluate useful products, visible on-chain activity, liquidity, coordination-market direction, and durable app usage.\n source: https://x.com/DailyKaspa/status/2052716697262374936\n forbidden_copy:\n - Base of Liquidity is Kaspa's adoption plan\n - Generic merchant payments are Kaspa's killer app\n - Fast payments alone prove adoption\n coordination_markets:\n status: research_direction\n recheck_after: 2026-07-01\n summary: Coordination markets are a highlighted Kaspa product direction in current narrative context, but production systems still need concrete commitment, oracle, settlement, privacy, liquidity, and app-rail designs before being described as live.\n source: https://x.com/DailyKaspa/status/2052716697262374936\n forbidden_copy:\n - Coordination markets are live on Kaspa\n - Staghunt is production-ready on Kaspa\n app_project_claims:\n status: builder_guardrail\n recheck_after: 2026-07-01\n summary: App/project claims are not L1 protocol-status evidence. Mention them only when the L1 fact itself matters, such as transaction payload behavior, accepted transaction evidence, or fees paid to miners. Otherwise, leave them out.\n source: https://docs.kaspa.org/integrate/transaction-payload\n forbidden_copy:\n - App activity proves Toccata is live\n - Project tooling proves native Kaspa smart contracts are live\n - A wallet or frontend feature is protocol activation evidence\n toccata:\n status: targeted\n recheck_after: 2026-06-05\n summary: Toccata is a targeted L1 hard-fork track with a public June 5-20, 2026 mainnet window. Kaspa.org Build describes it as live on TN12 ahead of mainnet activation. The Rusty Kaspa tn10-toc2 pre-release scheduled a Testnet-10 Toccata hard-fork activation point for May 18, 2026 at 16:00 UTC, DAA score 467,579,632; a May 20, 2026 check of the Testnet-10 REST API still showed virtual DAA above that activation score. The relevant KIP PRs for KIP-16, KIP-17, KIP-20, and KIP-21 were still open in GitHub checks on May 20. This is testnet and proposal evidence, not mainnet activation.\n source: https://github.com/kaspanet/rusty-kaspa/releases/tag/tn10-toc2\n forbidden_copy:\n - Toccata is live\n - TN12 covenant evidence proves mainnet activation\n - TN10 activation proves mainnet activation\n - tn10-toc2 is a mainnet release\n - Toccata KIPs are merged and activated\n tn10_toccata_activation_test:\n status: testnet_only\n recheck_after: 2026-06-05\n summary: Rusty Kaspa's tn10-toc2 pre-release scheduled the Toccata hard-fork activation point on Testnet-10 for May 18, 2026 at 16:00 UTC, DAA score 467,579,632. A May 20, 2026 check of the Testnet-10 REST API showed virtual DAA 469,381,698, above that activation score. Use it as testnet evidence for the activation path and node behavior, not as proof that Toccata is live on mainnet.\n source: https://github.com/kaspanet/rusty-kaspa/releases/tag/tn10-toc2\n forbidden_copy:\n - TN10 activation proves mainnet activation\n - Testnet-10 Toccata means mainnet Toccata is live\n - tn10-toc2 is a mainnet release\n - TN10 passed the activation score, so Toccata is live on mainnet\n tn12_covenant_evidence:\n status: testnet_only\n recheck_after: 2026-06-01\n summary: >\n The TN12 covenant lab has accepted proof transactions for vault recovery,\n vault delayed withdrawal, assurance release/refund, escrow release/refund/cancel,\n role-separated positive paths (all 7), batch-assurance 3-pledge release, and\n 40 payload events, including scheduler-intent, scheduler-bid, scheduler-execution, and scheduler-covenant-binding receipts, plus accepted playground role-wallet funding, two user-to-pool deposits, and one pool-to-user payout. The public results and playground pages explain the evidence and role flow without upgrading it into mainnet or production custody. Adversarial rejection evidence covers 13 cases across 5 mutation\n types (wrong-signer, wrong-selector, wrong-output-lock, wrong-output-amount,\n single-party-cancel) confirmed rejected by the TN12 node with script-level errors.\n All evidence is TN12/Toccata lane only — not mainnet, not Toccata-activated mainnet.\n source: https://github.com/parker2017code/tn12-covenant-vault-demo\n forbidden_copy:\n - TN12 proofs mean covenants are live on mainnet\n - Adversarial rejections prove mainnet covenant enforcement\n - TN12 txids are mainnet txids\n vprogs:\n status: roadmap\n recheck_after: 2026-07-01\n summary: vProgs are roadmap architecture for apps that prove richer logic while sharing Kaspa ordering, including later cross-app atomic composition. They are not a mature live app ecosystem. The public vprogs repo shows April 2026 ZK framework progress, but it remains early framework/prototype evidence.\n source: https://github.com/kaspanet/vprogs\n forbidden_copy:\n - vProgs are live\n cross_app_composition:\n status: roadmap\n recheck_after: 2026-07-01\n summary: Full cross-app actions mean atomic composition, where several app states can succeed or fail as one combined operation. Toccata provides covenant, ZK, sequencing, and based-zk foundations, but same-operation app-to-app composition belongs to later vProgs architecture.\n source: https://medium.com/@michaelsuttonil/kaspa-covenants-toccata-hard-fork-outlook-a4d81a40900c\n forbidden_copy:\n - Toccata enables full cross-app atomic composition\n based_apps:\n status: targeted\n recheck_after: 2026-07-01\n summary: Based apps are the richer-state app lane around Kaspa L1 sequencing, commitments, proofs, settlement, or exits. They can start as deterministic replay over accepted transactions and add based-zk proof checks when verification is required. Direct L1 covenant examples such as vaults, escrow, and assurance do not require an L2.\n source: https://gist.github.com/michaelsutton/5bd9ab358f692ee4f54ce2842a0815d1\n forbidden_copy:\n - Kaspa apps require an L2\n - Based apps are live production Kaspa app rails\n - Every based app is a ZK app\n - A rollup PoC means vProgs are live\n zk_external_anchors:\n status: builder_guardrail\n recheck_after: 2026-07-01\n summary: ZK verification proves a statement about chosen public inputs; it does not by itself prove external-chain canonicality, prices, oracle events, or real-world facts. Bridge and oracle-style apps still need an agreed anchor such as a source-chain light client, finality certificate, accumulated-work view, oracle, reporter set, or challenge process.\n source: https://docs.kaspa.org/programmability\n forbidden_copy:\n - A ZK proof by itself proves what happened on another chain\n - OP_ZK_PRECOMPILE makes any external bridge trustless automatically\n vprogs_solana_like_experience:\n status: roadmap_framing\n recheck_after: 2026-07-01\n summary: Solana-like means a cohesive, Rust-friendly developer and user experience; it does not mean importing Solana execution or making L1 execute every app.\n source: https://www.youtube.com/live/GaJmYV8OHfQ\n native_defi:\n status: roadmap\n recheck_after: 2026-07-01\n summary: Native Kaspa DeFi depends on future Kaspa-native programmability foundations and useful app tooling; it is not live today. Do not describe the pending L1 path as Ethereum-style or EVM-compatible execution unless a primary source adds that support.\n source: https://kaspaexplained.com/why-kaspa-matters\n forbidden_copy:\n - Native DeFi is live\n - A mature live Kaspa-native app ecosystem already exists\n - Kaspa has live EVM-compatible L1 contracts\n - Kaspa is waiting for Ethereum-style L1 smart contracts\n - Ethereum-style native app execution is planned on L1\n - live EVM-style L1 execution\n dagknight:\n status: research\n recheck_after: 2026-07-01\n summary: DAGKnight is a parameterless/adaptive consensus upgrade direction after Toccata, not current mainnet behavior. The public rusty-kaspa dagknight branch is implementation/prototype evidence, not activation evidence.\n source: https://kaspa.org/lore\n forbidden_copy:\n - DAGKnight is live\n - Kaspa has instant finality\n one_hundred_bps_partition_resilience:\n status: research\n recheck_after: 2026-07-01\n summary: Kaspa.org places 10 millisecond blocks, 100 BPS work, and partition-resilient local payment flows in a proposed 2027 hard-fork bucket. Treat this as roadmap/research until specifications, code, releases, and activation evidence exist.\n source: https://kaspa.org/lore\n forbidden_copy:\n - Kaspa is 100 BPS today\n - Partition-resilient payments are live\n - DAGKnight lets transactions confirm during a netsplit today\n dagknight_latency_policy:\n status: research\n recheck_after: 2026-07-01\n summary: DAGKnight latency settings should be reasoned from adversarial or worst-case latency assumptions. Smooth observed network latency is not enough.\n source: https://www.youtube.com/live/GaJmYV8OHfQ\n pruning_and_missing_history:\n status: live_design\n summary: Kaspa's consensus tracks UTXO state; spent transaction history may be pruned or absent from explorers, and that does not make Kaspa a privacy chain.\n source: https://www.youtube.com/live/GaJmYV8OHfQ\n rtd_derived_systems:\n status: research\n recheck_after: 2026-07-01\n summary: RTD-derived oracle, TangVM, miner attestation, and coordination-market flows are downstream research or architecture ideas.\n source: https://hashd.ag/raw\n forbidden_copy:\n - TangVM is live\n - Kaspa oracle flows are live\n" }, { "path": "CONTENT_BRIEF.md", "url": "https://kaspaexplained.com/CONTENT_BRIEF.md", "text": "# Kaspa Explained Content Brief\n\nThis document is the handoff brief for any LLM, editor, or contributor working on `kaspaexplained.com`.\n\n## Project Goal\n\nKaspa Explained is an independent explainer for Kaspa. The goal is to help a general crypto-aware audience understand where Kaspa fits without turning roadmap, research, price action, or community enthusiasm into unsupported claims.\n\nThe ideal voice is Yonatan-style first-principles explanation translated into everyday language: start from Bitcoin, money, ordering, latency, trust, and finance; make the intuition clear enough for the intended reader of the page; then preserve enough precision in the appropriate deeper paths for crypto-native readers, researchers, builders, and source-checking experts. Do not make the public site talk about internal editorial slogans. Just make the pages read that way.\n\nPublic pages should be shorter than the evidence stack. Put detailed source trails, implementation notes, and LLM guardrails in `CLAIMS.yml`, `sources.html`, and this brief. Human-facing pages should lead with the affirmative idea, then add a boundary only where a reader might confuse live, targeted, roadmap, and research claims.\n\nUse `COPY_STYLE.md` as the repo-wide sentence standard. Keep a sentence when it adds an actor, action, evidence, status label, constraint, consequence, useful distinction, or judgment. Cut it when a competent stranger could have written it without knowing Kaspa.\n\n### Concrete-First Translation\n\nPublic-facing and LLM-facing explanations should use Concrete-First Translation: make the reader see the real object, action, or tradeoff before naming the abstraction. Give the reader a real picture first, then the technical name:\n\n- \"one shared record without one operator\" before \"credible shared state\",\n- \"apps that prove their own rules\" before \"verification-oriented programmability\",\n- \"funding rules strangers can rely on\" before \"coordination markets\",\n- \"fast mined ordering\" before \"settlement layer\" or \"sequencing\",\n- \"assets, vaults, markets, and commitments\" before generic \"programmability\".\n\nDo not remove the technical terms where they are needed for precision, search, or source matching. Put them after the plain idea so the page is easier to understand without becoming less accurate. This applies to public HTML, meta descriptions, search cards, `llms.txt`, and contributor-facing handoff files.\n\nThe deeper mental model: abstraction is a compression format, not the starting point. A reader should first know what moves, who controls it, what can go wrong, and why the mechanism matters. Then the compact term can help them remember and search for it.\n\nCrypto translation rule: use the crypto term only when it helps precision, search, or source matching. Then immediately translate it into what someone is testing, buying, building, approving, measuring, or trying to avoid. \"Decentralized coordination\" means people can agree on one shared record without one company controlling it. \"Infrastructure\" means wallets, exchanges, custody, APIs, indexers, explorers, liquidity, accounting, support, and uptime. \"Programmability\" means a wallet, app, or script can show which rule allowed, refused, or recorded an action. The practical questions are speed, security, wallets, exchange support, liquidity, developer tools, and whether real users have a reason to use it.\n\nThis sits beside source checks and current-status checks. Source checks ask whether a claim is true and sourced. Current-status checks ask whether it is mainnet, testnet, future upgrade work, research, unsupported, or outside L1 scope. Concrete-First Translation asks whether a normal reader can immediately picture what the claim means.\n\nThe site should answer:\n\n- What is Kaspa actually live with today?\n- What is being implemented next?\n- What is roadmap architecture?\n- What is still research or speculation?\n- What is crypto actually useful for, and where is crypto being forced?\n- How does Kaspa fit next to Bitcoin, Ethereum, Solana, stablecoins, app chains, and other crypto categories?\n- Which public pages and LLM context file should be crawlable?\n- Which sources should someone read before forming strong opinions?\n\nThis is not an official Kaspa site and not investment advice.\n\n## Audience\n\nWrite for smart non-specialists first:\n\n- crypto users who know Bitcoin/Ethereum/Solana basics,\n- crypto-native readers who also know XRP, BNB, TRON, stablecoin payment paths, and exchange-linked ecosystems,\n- curious newcomers who need a plain-language path before technical material,\n- builders deciding whether Kaspa is worth studying,\n- researchers and community members who need source discipline,\n- LLMs/search systems retrieving accurate context.\n\nAvoid writing only for protocol researchers. Use technical terms when needed, but define the point in ordinary language.\n\nAudience paths should be distinct, not flattened into one universal page style. The site should serve the whole spectrum:\n\n- absolute beginners who need records, keys, transactions, blocks, consensus, mining, tokens, markets, and scams before Kaspa;\n- crypto-curious readers who know the words but need value, usefulness, risk, and tradeoff logic;\n- crypto-native comparison readers who know BTC/ETH/SOL/stablecoins and want to place Kaspa correctly;\n- Bitcoin/PoW readers who need the Nakamoto-consensus generalization, fair-launch, mining, UTXO, and sound-money framing;\n- adoption and market-structure researchers who care about wallets, nodes, mining, fees, liquidity, integrations, builders, and durable usage;\n- app/product designers who want to know what Kaspa-native applications should exist and what should not be copied from other chains;\n- protocol engineers and researchers who care about GHOSTDAG, DAGKnight, pruning, ordering, latency assumptions, covenants, ZK verification, and vProgs;\n- community educators who need careful, repeatable language without hype;\n- journalists/analysts/source-checkers who need shipped-vs-roadmap status and primary references;\n- LLMs/search systems retrieving accurate context.\n\nA newcomer should have a slow path from `start-here.html` and `crypto-from-zero.html` into the Kaspa-specific pages. Intermediate readers should have compact overview, value, and comparison paths. Advanced readers should be able to skip directly into the relevant deep page, whether that is PoW/Kaspa thesis, app architecture, adoption metrics, shipped-vs-roadmap status, source guides, `CLAIMS.yml`, or LLM/source context. Cross-link the paths clearly, but do not force every page to be equally beginner-friendly and expert-dense at the same time.\n\nAt the start of any substantive repo session, current-check status-sensitive Kaspa facts on the web before editing or publishing. Recheck Toccata activation, DAGKnight, vProgs, native DeFi, RTD-derived attestations/oracles, TangVM, Proof of Useful Work, and date windows against primary or near-primary sources. Keep that discipline internal and in the source trail. Do not add visible public verification boxes unless the task asks for them.\n\nUse `.github/notes/COPY_CLEANUP_PLAN.md` for public wording cleanup. The standard is short: what someone can do, what evidence or source backs it, what is still missing, and what to read or try next. Avoid vague roadmap language, repeated disclaimers, grand claims before evidence, fake-official labels, internal notes on public pages, and jargon before concrete examples.\n\n## Current Site Structure\n\nThe homepage should work as a router first. Its strongest traffic job is to route searchers and community debates into exact-answer pages: what Kaspa is, claim checking, Toccata status, smart-contract status, finality boundaries, the skeptical case, and verification paths. The site also has two educational layers before the Kaspa-specific pages: a true zero-start path for readers who do not know basic crypto concepts, and a crypto-aware reality-check path for readers who understand crypto basics and need sharper judgment.\n\nKeep these audience paths visible:\n\n- Know literally nothing about crypto: start with `start-here.html`, then `crypto-from-zero.html`.\n- Ask \"what is Kaspa?\": use `what-is-kaspa.html`, then `ghostdag-explained.html` or `kaspa-in-one-screen.html`.\n- Need the fast non-technical answer: use `overview.html` or `kaspa-in-one-screen.html`.\n- Need to check a public claim: use `kaspa-claims-checker.html`, then `status.html`, `toccata-status.html`, or `kaspa-smart-contracts-status.html`.\n- Need a dated freshness snapshot: use `kaspa-status-check-may-2026.html`, then refresh it when major source evidence changes.\n- Need the recurring update index: use `kaspa-status-updates.html`.\n- Need to know whether Toccata is live: use `toccata-status.html`.\n- Need to correct finality language: use `kaspa-confirmations-finality.html`.\n- Need to understand why coins have value or why there are so many coins: use `why-crypto-has-value.html`, `why-are-there-so-many-coins.html`, and `coin-atlas.html`.\n- Need design constraints: use `tradeoff-map.html`.\n- Need a coin-evaluation checklist: use `analyze-any-coin.html`.\n- Need problem-first crypto history: use `crypto-history.html`.\n- Need Kaspa origin/fair-launch context: use `kaspa-origin-story.html`.\n- Need a compact shareable Kaspa artifact: use `kaspa-in-one-screen.html`.\n- Need a business/adoption lens without price prediction: use `adoption-metrics.html`.\n- New to crypto but already understands basic records/keys/blocks: use `what-crypto-is-good-for.html`.\n- Need current shipped-vs-roadmap status or common claim corrections: use `status.html`.\n- Need a compact first-reader path: use `overview.html`.\n- Know BTC/ETH/SOL/XRP/BNB/TRON but not Kaspa: start with `where-kaspa-fits.html`.\n- Want mechanics: use `knowledge-map.html`.\n- Want the app/design thesis: use `application-layer.html`.\n- Need to test whether a crypto product pitch is real or fake: use `reality-check.html`.\n- Need a fair skeptical page to link in debates: use `skeptical-case.html`.\n- Want builder-specific programmability choices: use `builder-guide.html`.\n- Want short current builder recipes: use `build-this-now.html`.\n- Need to verify a transaction without trusting one explorer: use `command-line.html`.\n- Want source-level verification: use `sources.html`, `status.html`, `claims-reference.html`, `CLAIMS.yml`, `llms.txt`, and `CONTENT_BRIEF.md`.\n- Need quick term definitions: use `glossary.html`.\n- Need to find a concept or page quickly: use `search.html`.\n- Need quick corrections for social-media claims about TPS, finality, testnets, roadmap activation, app/project headlines, or adoption: use `faq.html#common-misconceptions` and `status.html#common-misconceptions`.\n- Need the common \"why is KAS cheaper than BTC\" answer: use `faq.html#kaspa-bitcoin-valuation` and `why-crypto-has-value.html#market-cap`. Keep it as valuation literacy, not price prediction.\n\nThe homepage includes a Bitcoin-style chain vs Kaspa blockDAG visual. Keep that visual claim narrow: parallel honest blocks can be included and ordered by GHOSTDAG. Do not use it to imply unlimited throughput, instant finality, or that scaling is solved.\n\nThe \"Kaspa does not wait\" or \"impatient\" idea can be used only as restrained explanatory flavor when it points to the actual mechanism: honest work does not have to wait in a single-file chain before it can be included and ordered. Prefer concrete lines like \"do not force honest work to wait in a single-file chain\" over personality-heavy slogans. Do not turn this into a guarantee of instant finality, a product slogan repeated across the site, or a replacement for the concrete GHOSTDAG/blockDAG explanation.\n\nThe `where-kaspa-fits.html` page should include a scannable comparison table near the top. The page's job is to help crypto-native readers understand what Kaspa is and is not competing with.\n\nThe `knowledge-map.html` page should start as an ordered learning path and then move into supporting source context.\n\nThe `status.html` page is the compact status reference. Keep it shorter than the source guide. Its job is to separate live, targeted, roadmap, and research claims quickly.\n\nUse the status page to show why source discipline matters. Public Kaspa summaries often mix live mainnet features, testnet work, app/project headlines, roadmap targets, and research claims; the site should separate those lanes before repeating a claim.\n\nThe common-misconceptions material should be distributed by reader intent. The homepage may name the risk and route the reader. The claims checker should be the main link for arguments. The FAQ should give short corrections. The status page can carry the more precise table. The one-screen page can include only the compact \"say this, not that\" boundary. Do not repeat every correction on every page.\n\nVolatile-data rule: do not add facts that can change in seconds, minutes, or hours unless they are free, source-backed, and read from a current API or live node/API script. If the fact is not important to Kaspa L1 status, omit it instead of creating a manual maintenance burden.\n\nApp/project catalogs should not be public status lanes on this site. Mention an app only when the L1 fact itself matters, such as transaction payload behavior, accepted-transaction evidence, or fees paid to miners. Otherwise, leave it out and keep Kaspa Explained focused on first-party L1 protocol status.\n\nThe status page may include a compact implementation-evidence section for current dev tracks. Keep it code-grounded and below release or activation evidence. As of 2026-05-18, the useful public evidence is: Rusty Kaspa `tn10-toc2` scheduled Testnet-10 Toccata activation at DAA score 467,579,632, and Testnet-10 REST status later showed virtual DAA above that score; Silverscript/TN12 activity as Toccata polishing and field testing; kaspanet/vprogs April 15 ZK framework progress; and rusty-kaspa/dagknight March 22 prototype/refinement activity. Do not let this section become a hype feed or imply mainnet activation.\n\nThe `overview.html` page is the 90-second first-reader route. Keep it compact: what Kaspa is, what is live, what is not live, why it matters, and what to read next.\n\nThe `kaspa-in-one-screen.html` page is the shareable compression artifact. It should say what Kaspa is, what is live, why it matters if the thesis works, what is not live, and what signals would strengthen or weaken the thesis. Keep it status-labeled and non-promotional.\n\nThe `adoption-metrics.html` page is the business/adoption lens. It should avoid price prediction and instead explain wallets, node health, mining distribution, fees/block demand, liquidity, developer activity, integrations, and post-Toccata app signals as evidence categories.\n\nThe `application-layer.html` page is the app-opportunity and builder-imagination page. It should explain why someone would build on Kaspa without pretending every app is live. The page should not read like \"Kaspa gets L2s too,\" and it should not make generic merchant/POS payments the adoption thesis. It should explain the L1-first thesis in concrete product terms first: app receipts, vault rules, asset rules, escrow, coordination markets, attestations, public funding rules, proof checks, and apps that prove what they did. Then name the technical layer: Kaspa L1 supplies shared sequencing, ordering, commitments, verification hooks, settlement, and neutral primitives; apps and runtimes add semantics, incentives, proving, and user experience around those primitives. Map what other crypto networks enabled, then translate those patterns into Kaspa-native paths while preserving status discipline. Include the RTD internet-money flow as app-level research/architecture: a user defines a strategy around an external event, an application defines incentives for opt-in miners or rewarded reporters to attest, the system samples the PoW majority, and assets/logic on Kaspa can gain lower latency and closer atomicity. Do not imply this flow is shipped today or protocol-prescribed.\n\nWhen explaining coordination markets, start with the product shape: users make conditional commitments, the app groups compatible commitments, a solver checks whether the group satisfies the conditions, and settlement or refunds follow. The first buildable lane can be transparent and replay-backed. The harder research target adds private accumulation, capital multiplexing, solver incentives, censorship resistance, MEV resistance, and atomic execution.\n\nWhen explaining app-to-app composition, make the key boundary atomicity, not \"same block.\" Fast L1 ordering, proof-linked coordination, or two actions landing close together are not the same as one combined state transition where all touched apps succeed or fail together. Toccata can support covenant rules, ZK proof checks, sequencing commitments, and based-zk foundations. Full cross-app atomic composition remains later vProgs roadmap architecture.\n\nThe `builder-guide.html` page is the builder-specific programmability router. It should help builders choose between covenants, based apps, inline ZK, and future full vProgs by asking about concurrency, state shape, and proof requirements. Credit Izio's progdoc material as builder guidance. Keep Python SDK, TxIndex, Silverscript, and open PRs in builder/tooling lanes, outside protocol-status lanes.\n\nSilverScript/covenant examples should be judged by the state transition they\nactually prove. A serious example shows continuation state, required output\nrules, signature-script wiring, rejected paths, and a submit route that\npreserves covenant fields. Funding a script output or wrapping P2PK logic is\nnot enough to call a feature script-enforced. Lead with the concrete job:\nbudget that cannot drain at once, step-by-step workflow, asset that needs its\ncontroller, group release/refund, scheduled payout, or blocked withdrawal. Use\nworker-routed workflow, controller-input authority, and challenge/timeout\nlanguage only when the specific artifact or source supports it.\n\nFor builder-facing ZK wording, keep the external-anchor boundary explicit. ZK verification proves a statement about chosen public inputs; it does not by itself prove external-chain canonicality, prices, oracle events, or real-world facts. If a bridge, market, oracle, or attestation app depends on outside data, name the anchor: source-chain light client, finality certificate, accumulated-work view, oracle, reporter set, challenge process, or other trust model. This is a precision rule, not a reason to bury the reader in bridge theory.\n\nThe current Kaspa.org Build page is a useful developer-resource index. Preserve links to official docs, Rusty Kaspa releases, WASM SDK docs/examples, community REST API docs, Public Node Network docs, Docker Hub, explorer/API DB dumps, testnet faucet, KIPs, Silverscript, vProgs, Simply Kaspa Indexer, DNS Seeder, kHost, kaspa-js, and the R&D Telegram. Keep hosted APIs/public nodes labeled as best-effort or demo-friendly, and community projects labeled as projects to inspect before production use.\n\nThe Kaspa Developer Platform at `docs.kas.fyi` is a hosted API source, not protocol activation authority. It is useful for builder references around API-key access, address history, transaction acceptance checks, block ranges by blue score or DAA score, node RPC proxy access, data types, pagination, rate limits, and beginner node-running guidance. Use it in `sources.html`, `builder-guide.html`, and `command-line.html` as a practical hosted read path. Keep the boundary explicit: API keys, rate limits, provider uptime, and pricing are product dependencies; production systems should plan their own node/indexer or provider redundancy when reliability, privacy, or scale matters.\n\nFor builder-guide UX, use the new Kaspa.org BUIDL path as a practical runway: try live browser SDK examples, choose App SDK / Native Rust / Node, use REST or Public Node Network only for prototypes and light reads, then graduate to own-node or indexer infrastructure for production. This is useful because it tells builders what to do first without implying that hosted APIs or testnet programmability are final production paths.\n\nThe builder guide should also preserve practical testnet breadcrumbs learned from hands-on prototyping: use exact `kaspatest:` addresses; faucet use may require a browser; local balance checks need a synced testnet node with UTXO index; an unsynced node can return misleading zero balances; a generic stable mainnet binary may not support every active TN12 setting; and TN10/Toccata activation-test commands should start from the current Rusty Kaspa release notes, not old Crescendo examples. Put this in the builder lane, not across the whole site, and keep mainnet instructions separate from testnet-only covenant work.\n\nBuilder-facing verification lessons should be concrete and reusable: a local txid is not accepted app state; fetch accepted transaction evidence after submit; record node version, SDK version, network id, endpoint, encoding, tx version, and input budget fields; compare failing contract spends against accepted sibling spends before claiming a protocol boundary; and label failures narrowly as bad config, stale tooling, submit mismatch, or confirmed consensus rejection. Keep private prototype txids out of public copy unless they are independently useful as source evidence.\n\nFor the app page specifically, the Bitcoin Takeover interview changes the framing in these ways:\n\n- Explain the app case as money plus finance without compromising the L1 monetary base.\n- Avoid Ethereum-style rollup language unless contrasting it with Kaspa's intended shared-sequencer/cohesive-program model.\n- Describe \"Solana-like\" only as cohesive developer/user experience and native-feeling composability, not as Solana execution imported into Kaspa.\n- Keep \"one app per VM\" / app-level verifiable-program intuition available for advanced readers, while explaining it first as apps proving their own logic while sharing Kaspa ordering.\n- Treat DeFi, stable assets, lending, swaps, social recovery, vaults, bridges, and tokenized assets as things builders can target through staged primitives, not as live products.\n- Make clear that core should not own the product layer: wallets, explorers, apps, oracles, bridges, and UX should be plural and community-built where possible.\n\nThe `glossary.html` page is the compact term map. Keep definitions short and plain.\n\n## Editorial Standard\n\nUse plain, direct language. Preserve a serious point of view, but do not hype.\n\nThe voice should never sound clever for its own sake. Avoid dramatic authority, bold adjective piles, invented slogans, and sentences that mainly perform confidence. Let the facts, source links, and concrete examples carry the weight.\n\nApply this writing bar across public pages and LLM-facing files. Every touched page, repo guide, source note, generated summary, and context file should be direct, sourced or status-labeled, necessary, and free of defensive throat-clearing.\n\nGood style:\n\n- specific nouns,\n- concrete tradeoffs,\n- named actors and requirements,\n- clear current-status wording,\n- useful comparisons,\n- short explanations before jargon,\n- links to source material.\n\nAvoid:\n\n- \"crypto fixes everything\",\n- \"Kaspa solved the trilemma\",\n- \"Bitcoin but faster\",\n- \"native DeFi is live\",\n- \"DAGKnight is active\",\n- \"Toccata is live\" unless future primary sources confirm it,\n- price targets,\n- exchange rumors,\n- corporate abstraction without a concrete actor and requirement, such as \"institutional readiness,\" \"ecosystem maturity,\" \"enterprise adoption,\" \"strategic unlock,\" \"robust platform,\" or \"seamless experience\",\n- market-cap or rank claims frozen into the explainer,\n- avoid vague claims like \"revolutionary\" without explaining the mechanism.\n- repeated contrast scaffolding on public pages,\n- repeated contrast frames, vague transformation formulas, and synthetic thought-leadership cadence,\n- overcorrected negative framing where every paragraph repeats a missing feature; use one status label and name the next dependency instead,\n- over-polished LLM phrasing such as \"delve\", \"tapestry\", \"seamless\", \"robust\", \"pivotal\", \"crucial\", \"unlock\", \"empower\", \"transform\", \"reimagine\", \"landscape\", \"journey\", \"at its core\", \"ultimately\", or inflated adjectives that do not add a mechanism,\n- brochure language such as \"next-generation\", \"cutting-edge\", \"game-changing\", \"powerful platform\", \"accelerate innovation\", \"drive the future\", or \"pave the way\",\n- clever-authority phrasing that tries to sound definitive without adding evidence,\n- dramatic adjective stacks where one plain noun would work,\n- defensive caveat stacks where one status label or one source link would do the job.\n\nEditing test: each public sentence should make a specific, necessary, defensible claim. If a sentence mainly adds polish, symmetry, or persuasion cadence, cut it or move the detail to the source/context stack.\n\nCraft rule: text is product surface. UI labels, public copy, repo docs, fixtures, generated summaries, LLM context, and handoff notes need the same care as code. Keep every line necessary, accurate, scan-friendly, and clean. Prefer plain build language: live, near-term, roadmap, research, needs wallet, needs indexer, needs custody, needs source.\n\nImplementation craft rule: a public edit is not complete just because the words or layout look better in one viewport. Treat each page as a small product surface with user intent, states, responsive behavior, accessibility, performance, source trail, and maintenance cost.\n\nFor Kaspa Explained this means:\n\n- Pinpoint feedback is exact-defect input first, not rollback permission. If a reader or the user flags one malformed arrow, cramped label, weird glyph, typo, copy line, or spacing bug, identify and repair that element before changing unrelated parts. This does not mean hold back on quality: when the task is a broader cleanup or redesign, keep improving the surface after the defect is fixed.\n- Every section should support a reader job: understand, compare, verify, build carefully, search, or correct a claim.\n- Shared patterns should behave consistently: route cards, source cards, status chips, comparison tables, app-path ladders, search results, drawers, command blocks, and footer links.\n- Status states stay distinct: live mainnet, targeted upgrade, testnet-only, roadmap, research, source-needed, stale-check-needed, wrong, unsupported, and unknown.\n- Long source titles, URLs, page labels, protocol terms, and dates must wrap cleanly on mobile.\n- Tables belong where comparison or source evidence is the job. Beginner-facing pages should explain the plain action before dense grids.\n- Search and source-pack docs need useful routing back to source/status pages and must not become source authority.\n- Use semantic HTML, real links for navigation, buttons for actions, visible focus, logical headings, and status text that does not depend on color alone.\n- Keep the site dependency-light. Prefer crawlable HTML, shared CSS variables/classes, small SVGs, and vanilla JS over framework or animation additions.\n- Public claims, metadata, sitemap entries, `llms.txt`, `CLAIMS.yml`, and source pages should not drift apart after a status-sensitive edit.\n\nPlain-language rule: if a sentence says a vague group \"needs readiness\" or \"needs maturity,\" rewrite it around the actual actor. A fund may need custody, audit trails, reporting, and legal review. An exchange may need node stability, wallet integration, liquidity, monitoring, and support. A payments company may need payment APIs, refunds, accounting, uptime, and support. A builder may need docs, SDKs, indexers, examples, and testnet paths. If the sentence cannot name who needs what, it is probably filler.\n\nTone and visual weight:\n\n- Use medium authority. The site should sound clear and grounded. Avoid small, apologetic, manifesto, pitch-deck, and definitive-guide posture.\n- Write like a knowledgeable person helping a rushed reader choose the right path.\n- Use medium visual weight. Headings, cards, callouts, and diagrams should be clear and confident, not oversized or theatrical. Use size to create hierarchy, not drama.\n- Prefer humble guidance: \"start here\", \"check this lane\", \"use this distinction\", \"current boundary\", \"what exists now\", and \"what may come later.\"\n- Avoid turning every heading into a grand claim, final answer, or abstract thesis.\n- Let interest come from concrete usefulness. The site can be Kaspa-positive without sounding promotional.\n\n## Status Lanes\n\nKeep these categories separate.\n\n### Live / Factual Now\n\n- Proof of Work blockDAG\n- UTXO model\n- GHOSTDAG consensus\n- Crescendo 10 BPS era\n- real-time decentralization as the core fast-PoW value proposition and current Kaspa.org north-star framing: Bitcoin-style PoW security and censorship-resistance goals with seconds-scale confirmation feel under normal network conditions\n- pruning and UTXO commitments\n- public wallets, explorers, visualizers, nodes, mining ecosystem\n\n### Near-Term / Implementation Track\n\n- Toccata hard fork\n- covenants\n- Silverscript\n- ZK verification foundations\n- sequencing commitments\n- vProgs groundwork\n\nStatus note: Toccata should not be described as live mainnet functionality without current primary activation evidence. It is a targeted mainnet hard-fork track. Michael Sutton's April 2026 Toccata outlook is the clearest implementation-context source for the public mainnet activation target of roughly June 5-20, 2026, after the original May 5 target moved so sequencing-commitment/KIP-21 architecture could be finalized before zk systems bind to it. Rusty Kaspa's `tn10-toc2` pre-release and Testnet-10 REST status are current testnet evidence: the release scheduled activation at DAA score 467,579,632, and the API later showed virtual DAA above that score.\n\n### Roadmap / Architecture\n\n- vProgs as app-level verifiable programs\n- Kaspa-native DeFi paths\n- monolithic-feeling developer experience without global L1 execution of every app\n- synchronous composability across programs\n- vProgs as a deeper application-architecture direction\n\n### Research / Speculative\n\n- DAGKnight final form and activation timing\n- Kaspa.org's proposed 2027 bucket for 100 BPS, 10 millisecond blocks, and partition-resilient local payment flows\n- App-level miner attestation, oracle, TangVM, and coordination-market incentive designs\n- RTD internet-money flows where miners or reporters attest to external events and apps react atomically\n- TangVM-style reality-state ideas\n- Proof of Useful Work via matrix multiplication\n- long-term post-quantum migration paths\n\n## Current Core Framing\n\nKaspa is best framed as:\n\n> A Proof of Work blockDAG that generalizes Nakamoto consensus so parallel honest blocks can contribute to ordering instead of being discarded as ordinary orphans.\n\nThe stronger comparison is not \"faster Bitcoin.\" It is:\n\n> Keep Proof of Work and UTXO instincts, remove the single-file blockchain bottleneck with a blockDAG, and move toward bounded apps that can prove their rules.\n\nDo not imply that Bitcoin has no latency parameter or network-timing assumption. Bitcoin's 10-minute block interval also assumes network latency is much smaller than the block interval; one useful shorthand is that Bitcoin behaves like the k=0 edge case in this family of Nakamoto/GHOSTDAG-style reasoning. The useful contrast is not \"Bitcoin is unparameterized, Kaspa is parameterized.\" The useful contrast is how Kaspa exposes, raises, and eventually aims to adapt the block-rate/latency tradeoff while allowing parallel honest blocks to contribute to ordering.\n\n## Fast Proof-of-Work Framing\n\nKeep the fast-PoW argument focused and careful. Fast inclusion and fast confirmations are different:\n\n- Fast inclusion: how quickly a transaction enters a block.\n- Fast confirmations: how quickly the system gives strong confidence that the transaction will not be reversed.\n\nAny high-rate block-producing system can improve inclusion. Kaspa's stronger argument is that fast Proof of Work changes the confirmation/decentralization tradeoff. PoW samples hash power through work done after the fact, without requiring the protocol to identify and collect explicit supermajority votes from miners before every confirmation. In PoS finality designs, confirmation speed is more directly tied to stake voting, validator coordination, stake distribution, committees, or related sampling assumptions.\n\nDo not overclaim this. Do not state that Kaspa provides instant irreversible settlement, that all PoS systems are equivalent, or that the site has fully modeled Ethereum/Solana engineering details. The durable, site-appropriate claim is narrower: fast PoW blockDAGs make the inclusion/confirmation/decentralization tradeoff different, and that is one reason Kaspa is worth studying.\n\nCrescendo-specific nuance: do not turn 10 BPS into \"10x finality.\" Michael Sutton's public Crescendo explanation framed practical throughput as roughly 8-9x higher under the observed policy and confirmation-time improvement as closer to 30%, because confirmation remains dominated by block latency. Use this to correct summaries that imply unlimited throughput, instant finality, or a clean 10x confirmation improvement.\n\nTPS and speed claims need measurement labels. Do not freeze one public TPS number as normal mainnet behavior unless current primary sources support that exact measurement and context. Distinguish block rate, block capacity, policy limits, test/lab throughput, sustained capacity estimates, organic demand, fees, and confirmation confidence.\n\n## Crypto Reality-Check Framing\n\nThe `what-crypto-is-good-for.html` page is a general-audience bridge for people who do not live inside crypto. It should make the rest of the site more credible by stating that crypto is not useful for everything.\n\nThe `start-here.html` and `crypto-from-zero.html` pages are the true zero-start path. They should not assume the reader knows decentralization, blocks, mining, tokens, market cap, keys, privacy tradeoffs, UTXO, or consensus. Teach the problem first, the mechanism second, the tradeoff third, and Kaspa fourth.\n\nThe `why-crypto-has-value.html`, `why-are-there-so-many-coins.html`, `coin-atlas.html`, `tradeoff-map.html`, `analyze-any-coin.html`, and `crypto-history.html` pages are the market and context layer. They should explain valuation, categories, token necessity, launch design, actors, incentives, scams, and design constraints without becoming investment advice or price prediction.\n\nThe `reality-check.html` page is the crypto-native product judgment layer. It should help readers test pitches against concrete users, jobs, liquidity, wallet/signing flow, current-status labels, evidence, failure modes, and day-two behavior. It should not become a directory of other chains, app projects, hackathons, or market programs.\n\nCore frame:\n\n> Crypto is useful when strangers need one shared record of ownership and rules without one company, bank, platform, or government controlling the database. The technical version is a neutral shared record: ownership records, adversarial trust, self-custody, global 24/7 settlement, censorship resistance, programmable assets, on-chain markets, objective smart-contract escrow, digital provenance, or open-network incentives.\n\nKeep the weakness side just as explicit. Crypto is usually weak for normal domestic payments in strong banking systems, consumer reversibility, private records, ordinary corporate databases, unsecured real-world credit, replacing courts, supply-chain truth, identity, and tokenizing assets whose ownership still depends on law, custody, inspection, liens, taxes, and jurisdiction.\n\nKeep this page conditional: crypto is real when a neutral shared record is worth the cost, and theater when a trusted operator, legal process, or normal database solves the problem better.\n\nThe `why-kaspa-matters.html` page is the Kaspa-specific bridge from the general crypto reality check. It should explain why Kaspa matters when neutral money, self-custody, censorship resistance, fast mined ordering, future apps that prove rules, and public group commitments matter.\n\nCore frame:\n\n> Kaspa keeps Proof-of-Work security culture while pushing the payment experience closer to real time: fast mined ordering today, app receipts around the live network, and future apps that prove their own rules.\n\nKeep this page tightly status-labeled. GHOSTDAG, the UTXO model, Proof of Work, Crescendo 10 BPS, and the base RTD framing are live enough to describe as Kaspa's present value proposition: real-time Bitcoin-style PoW settlement, censorship-resistance goals, and a broader case than fast payments alone. The May 8, 2026 Kaspa Daily Yonatan Q&A makes this sharper: Base of Liquidity is positioning context, generic payments are not the whole adoption strategy, and product development plus visible on-chain activity matter. Toccata, covenants, Silverscript, ZK foundations, sequencing commitments, and vProgs groundwork are the near-term implementation track. vProgs and native DeFi are roadmap architecture. DAGKnight, app-level miner attestation incentives, oracle/TangVM flows, and coordination-market applications remain research or architecture work unless future primary sources confirm activation or shipped software.\n\nApp/project nuance: do not turn app standards, wallets, frontends, or marketing into Kaspa L1 status copy. If the L1 fact matters, cite transaction payload docs, accepted-transaction docs, public node/API evidence, or miner fee/reward evidence. Otherwise, leave it out.\n\nThe `sources.html` page is the public source hierarchy and attribution page. Use it to centralize credits, Kaspa.com Learn Kaspa links, external references, and public crawl/LLM file links instead of adding distracting footnote walls to every human-facing page. The homepage should stay a human-first router: three primary actions, four main reader paths, one short status boundary, a compact app-layer preview, and a clear handoff to the source/context stack.\n\nDesign for two human modes at once: a rushed reader who needs the right page in seconds, and an interested reader who wants depth after choosing a lane. Long pages should provide jump links near the top. Dense source lists, changelogs, and implementation evidence can use `
` so the core explanation stays scannable. Do not hide the main thesis, status boundary, or first useful answer behind a toggle.\n\n## Programmability Framing\n\nBe careful with app-layer claims.\n\nDAGKnight has the better-developed research lineage and a more visible implementation branch than vProgs. Both remain outside live-mainnet status until primary sources confirm activation. This nuance belongs in status discipline and research context; it does not need to be repeated everywhere.\n\nKeep \"Kaspa DAGKnight is WWIII-resistant\" out of public headline copy. When it appears as community shorthand, frame it as an adversarial-latency resilience research/implementation goal, not as a live-mainnet guarantee.\n\nToccata and vProgs are related but distinct. Toccata/Covenants++ is the nearer L1 hard-fork track for concrete rules such as spend constraints, asset rules, covenant IDs, Silverscript, ZK-facing verification work, sequencing commitments, native-asset groundwork, and standalone based-app experiments. A based app anchors app-specific state to Kaspa L1 ordering, commitments, proofs, settlement, or exits; ZK is one verification path, not the definition of every based app. vProgs are the longer app architecture for apps that prove richer logic while sharing Kaspa ordering, computational-DAG metadata, prover-backed execution, and eventual synchronous composability.\n\nKaspa programmability should be framed as concrete use first, neutral primitives second. Say what the user or app is trying to do: lock funds, enforce a vault rule, create an asset, route a payment, fund a public good, resolve a market, attest to an event, or prove app logic. Then explain that the protocol should expose durable L1 surfaces while apps define incentives, semantics, oracle sources, legal/risk constraints, and user-facing products. Apply that rule to attestations, prediction markets, DePIN freshness markets, portfolio automation, launch paths, AI-agent task boards, and DeFi.\n\nJunny Ho's Web3 Festival HK 2026 talk, \"Scaling Trustless Coordination\" (`https://www.youtube.com/watch?v=b3wPZ04p410`), is a narrative source for the coordination-market thesis. It frames the problem as stag hunt, not prisoner's dilemma, names credible commitments, conditional participation, and economic exposure as core market primitives, and connects Kaspa's real-time decentralized confirmation thesis to coordination markets that need fast observable signals without centralized sequencing. Use it for product framing. Keep live-status labels tied to activation evidence.\n\nThe Toccata/vProgs capability split should be precise. Toccata gives L1 covenant programming and based-app foundations: covenants, Silverscript, ZK verification opcodes, sequencing commitment access, partitioned sequencing commitments, native-asset groundwork, and bridge/settlement patterns. Hans Moog's `kaspanet/vprogs` repo is an early Rust framework for based computation on Kaspa with scheduler, resource access, batch execution, rollback, storage/state layers, node VM, L1 bridge, and ZK proving pipeline. Its immediate role is compatible based computation/runtime work, while full vProgs synchronous composability is later architecture.\n\nBuilder tooling belongs in its own lane. The standalone `kaspanet/kaspa-python-sdk` repo and v1.1.0 release show Python integration, virtual-chain access, and UTXO tracking through UtxoProcessor/UtxoContext. Protocol status still comes from node, release, KIP, and activation evidence. TxIndex PR #860 is builder/infrastructure evidence while open; Fast Trusted Relay PR #930 is an infrastructure experiment until merged and released. The redesigned Kaspa.org Build page also makes the infrastructure runway clearer: Rusty Kaspa, WASM SDK, public nodes, community REST APIs, database dumps, KIPs, Silverscript, vProgs, and public R&D channels are builder routes, while production systems still need explicit node, indexer, archival, API-key, rate-limit, and provider-redundancy decisions.\n\nKIP alignment is now a status-sensitive subtopic. Kaspa.org Build and the Toccata summary describe KIP-21 sequencing commitments in the Toccata bundle, while the GitHub KIPs repo currently shows the KIP-21 PR as open and KIP-15 as active for canonical transaction ordering and sequencing commitments. Do not flatten this into \"finalized mainnet KIP-21\" until KIP, release, and activation artifacts agree.\n\nFrame Kaspa as L1-first and shared-sequencer-first: applications add programmability directly against Kaspa L1 primitives, while based-zk systems and future vProgs use Kaspa L1 for sequencing, commitments, settlement, and verification without separate sequencer empires.\n\nBased apps are a real build lane, not a future caveat. Direct L1 covenant examples such as vaults, escrow, and assurance can be explained without an L2. Based-app prototypes should be described as richer app state anchored to Kaspa ordering, commitments, proofs, settlement, or exits. Based-zk is the stronger proving path when replay alone is not enough. Keep ecosystem L2 projects out of the site's assumptions unless a page is explicitly about ecosystem projects.\n\nvProgs should be described first as apps that prove their own logic, then as app-level verifiable programs or app-level ZKVM/verifiable-program environments. Do not flatten them into ordinary rollups. The intended direction is a native-feeling, cohesive developer/user experience while keeping L1 focused on sequencing, commitments, verification, and metadata, while app runtimes execute their own logic.\n\nFor application-layer discussion, treat Michael Sutton's vProgs framing as a roadmap target for one-dimensional program space, shared Kaspa L1 sequencing, synchronous composability, computational DAG metadata, prover incentives, and sovereignty obligations. Covenant++ milestone notes can inform the staged path: inline zk covenants, based zk covenants, canonical bridges, native-asset bridge work, and efficient sequencing commitments. STARK-sized proof support and standard minimum fee changes are design questions unless future primary sources confirm mainnet activation.\n\n## Long-Form Interview Model\n\nBitcoin Takeover S16 E41, the 2025 Yonatan Sompolinsky interview, should guide the shape of the explanation: Kaspa as a generalization of Nakamoto consensus, the blockDAG as a framework whose value depends on ordering, GHOSTDAG as current mainnet behavior, DAGKnight as future/adaptive consensus work, vProgs as native-feeling app architecture, and community context as part of decentralization.\n\nFor origin history, use the same interview to keep the fair-launch story candid: Yonatan described the launch as messy and reluctant, said the gamenet idea was overtaken by miners who kept mining, and framed the early second-genesis recovery as preserving the UTXO set rather than reallocating coins. Pair that with Kaspa.org, Hashdag, Investing.com, Guy Corem's testnet note, HackerNoon, and the older Epicenter/Rethink Trust sources before making origin claims.\n\nUse the interview as an editorial model, not as a public slogan. It shows the target feel for the site: patient first-principles reasoning, everyday examples, willingness to compare Bitcoin/Ethereum/Solana without tribal shortcuts, clear admission of uncertainty, and careful distinction between live protocol, roadmap, and aspiration.\n\nDo not turn the interview's roadmap discussion, demos, or aspirations into live-status claims. In particular: native DeFi is not live, DAGKnight is not live, vProgs are not live, 100 BPS and partition-resilient payment flows are proposed future work, pruning is not privacy, and Solana-like means cohesive developer/user experience, with no imported Solana execution model on Kaspa L1.\n\n## Source Hierarchy\n\nPrefer primary or near-primary sources:\n\n1. Primary protocol/code: `kaspanet/rusty-kaspa`, releases, KIPs, Kaspa Research, and protocol documentation.\n2. Core-dev explainers: Michael Sutton technical posts, Ori Newman, Coder of Stuff, Hashdag/Yonatan, and other active technical builders.\n3. Long-form framing source: Bitcoin Takeover S16 E41. It is high-signal for explanatory framing and status nuance. Activation claims still need primary protocol/code or direct implementation evidence.\n4. Context and education sources: Oxford recordings, KASmedia, Kaspa.com Learn Kaspa, the current Kaspa.org site, full recordings, interviews, transcripts, and recaps. They are useful for orientation, links, and framing, not protocol activation by themselves.\n5. Learning references: Kaspa.com Learn Kaspa / Kaspa Facts for approachable intro/intermediate concept explanations. Credit this source when using its explanations, but treat it like community education and verify shipped-feature and activation claims against primary protocol/code sources.\n6. Discovery only: active public technical X accounts and replies.\n\nThe current Kaspa.org site is the public Kaspa/KasMedia entry point for broad orientation, fair-launch/genesis-proof framing, wallet flow, builder routing, and links into stronger sources. It replaced the older article-style site, so old Kaspa.org article URLs should be treated as stale until checked. Status-sensitive claims should still come from code, releases, KIPs, research papers, protocol documentation, or direct implementation notes from core technical contributors.\n\nUse X cautiously. It is useful for current builder commentary, links, replies, and corrections. It is weak for shipped-feature claims unless backed by code, KIPs, releases, or durable long-form sources.\n\nDo not use stale team pages, recycled handle lists, or contributor pages to infer current involvement.\n\nExternal-source rule: credit outside sources by name and link near the relevant claim or through `sources.html`. Do not copy external articles into the site. Paraphrase, synthesize, and point readers to the original source.\n\nKaspa.com Learn Kaspa status: treat the article set as a useful learning library for BlockDAG, GHOSTDAG, DAG terminology, parents/mergesets, blue score/blue work, k-clusters, pruning, UTXO, MuHash, finality, transaction selection, mass, opcodes, KIPs, and node types. Recheck it before relying on it for newly changed concepts. Do not plaster this source across the main pages or use it as the primary authority for status claims.\n\nThe May 2026 Kaspa.com Smart Contracts article is useful because it separates programmability into layers and includes a chess covenant walkthrough. Use that chess material as a concrete example of UTXO state-machine design: registration state, player state, game state, move-routing transactions, move-application transactions, and final settlement. Do not frame it as proof that a mature app ecosystem is live.\n\n## Public Crawl Map\n\nThe sitemap should include public human pages and LLM/crawler files:\n\n- `/`\n- `/start-here.html`\n- `/crypto-from-zero.html`\n- `/why-crypto-has-value.html`\n- `/why-are-there-so-many-coins.html`\n- `/coin-atlas.html`\n- `/tradeoff-map.html`\n- `/analyze-any-coin.html`\n- `/crypto-history.html`\n- `/kaspa-origin-story.html`\n- `/kaspa-in-one-screen.html`\n- `/adoption-metrics.html`\n- `/application-layer.html`\n- `/overview.html`\n- `/what-crypto-is-good-for.html`\n- `/status.html`\n- `/faq.html`\n- `/why-kaspa-matters.html`\n- `/where-kaspa-fits.html`\n- `/knowledge-map.html`\n- `/glossary.html`\n- `/search.html`\n- `/sources.html`\n- `/about.html`\n- `/llms.txt`\n- `/CONTENT_BRIEF.md`\n- `/README.md`\n- `/CLAIMS.yml`\n\nDo not advertise `AGENTS.md` in `sitemap.xml`. It can remain publicly reachable as a repository file, but it is local agent guidance outside the public content surface.\n\n## Active Public Technical Accounts\n\nUseful for discovery and replies:\n\n- https://x.com/hashdag\n- https://x.com/michaelsuttonil\n- https://x.com/OriNewman\n- https://x.com/hus_qy\n- https://x.com/IzioDev\n- https://x.com/coderofstuff_\n- https://x.com/FreshAir08\n- https://x.com/eliottmea\n- https://x.com/KasSigner\n\nRead replies as well as top-level posts when researching a current technical point.\n\n## Transcript and Video Handling\n\nUse video transcripts as source material, not as automatic website copy.\n\nWorkflow:\n\n1. Find the exact recording URL or video ID.\n2. Check whether a transcript is visible in YouTube UI, Podscan, podcast pages, or another attributable transcript page.\n3. Treat transcript mirrors as weaker than the recording page, podcast page, KASmedia recap, or user-supplied transcript unless timing and attribution are preserved.\n4. Keep recaps and transcripts separate.\n5. Promote only the strongest non-duplicative points to the homepage.\n6. Put deeper transcript notes in `CONTENT_BRIEF.md`, `llms.txt`, `CLAIMS.yml`, or source docs.\n\nImportant transcript-backed sources currently used:\n\n- https://www.youtube.com/live/GaJmYV8OHfQ\n- https://podscan.fm/podcasts/bitcoin-takeover-podcast/episodes/s16-e41-yonatan-sompolinsky-on-bitcoin-kaspa-amp-proof-of-work\n- https://kasmedia.com/article/weeklyknight-08282025\n- https://www.youtube.com/watch?v=VIZGKoIaGR0\n- https://www.youtube.com/watch?v=S1dS1xvvFss\n- https://www.youtube.com/watch?v=xHlOcR1x2tU\n- https://www.youtube.com/watch?v=p21KDrKEhB8\n\n## Quantum Framing\n\nDo not describe Kaspa as quantum-safe today.\n\nDo not conflate mining hashes with transaction signatures. Proof of Work and wallet authorization face different quantum questions.\n\nDo not describe Toccata as the quantum upgrade. Treat post-quantum readiness as a separate migration topic unless primary builders publish a concrete plan.\n\nUseful quantum-answer frame:\n\n- wallets,\n- exchanges,\n- exposed public keys,\n- old UTXOs,\n- new address formats,\n- signature size,\n- verification cost,\n- user coordination.\n\n## Site Structure\n\nPrimary public pages:\n\n- `index.html` - audience-routed homepage, real-time Proof-of-Work case, interactive blockchain-vs-blockDAG teaching model, status labels, zero-start links, and compact Kaspa/adoption routes.\n- `start-here.html` - true beginner router for readers who know nothing about crypto or Kaspa.\n- `crypto-from-zero.html` - causal ladder from records, keys, transactions, blocks, consensus, incentives, tokens, and tradeoffs to Kaspa.\n- `why-crypto-has-value.html` - market-value explainer for token need, prices, market cap, open markets, speculation, launch design, and who benefits.\n- `why-are-there-so-many-coins.html` - category bridge explaining why major crypto assets are not all trying to do the same job.\n- `coin-atlas.html` - coin-category atlas and value-stack map for BTC, ETH, stablecoins, SOL, BNB, XRP, LTC, BCH, XMR, DOGE, LINK, and KAS.\n- `tradeoff-map.html` - beginner tradeoff map for speed, security, decentralization, privacy, scaling, nodes, ASICs, staking, launch design, and Kaspa.\n- `analyze-any-coin.html` - practical checklist for evaluating token necessity, supply, launch, validation, liquidity, market cap, risks, and beneficiaries.\n- `crypto-history.html` - problem-first history map from digital cash and Bitcoin through Ethereum, ICOs, DeFi, stablecoins, rollups, and Kaspa.\n- `kaspa-origin-story.html` - sourced origin page for DAGLabs, Polychain/Accomplice-era VC funding context, PHANTOM/GHOSTDAG, the April 2021 testnet, failed hardware/presale paths, fair launch, the DAGLabs/Polychain-related early-miner estimate, Black Tuesday, dust-attack context, Rust rewrite, Crescendo, and the Toccata boundary.\n- `kaspa-in-one-screen.html` - compact shareable Kaspa thesis with live/not-live/status-labeled framing.\n- `adoption-metrics.html` - non-price adoption and business lens for wallets, nodes, mining, fees, liquidity, builders, integrations, and post-Toccata app signals.\n- `application-layer.html` - status-labeled application-layer opportunity map for what builders can use now and what Toccata, vProgs, RTD, and coordination-market research may support later.\n- `builder-guide.html` - builder-specific programmability router for covenants, based apps, inline ZK, future full vProgs, SDKs, and infrastructure evidence.\n- `builder-evidence.html` - proof bridge page that points readers to TN12 evidence and keeps app ideas separate from proof.\n- `overview.html` - 90-second overview for first-time readers.\n- `what-crypto-is-good-for.html` - reality-check page explaining where crypto itself is useful, where it is weak, and why Kaspa should be judged where neutral shared records are worth the cost.\n- `status.html` - compact status page for live, targeted, roadmap, and research items.\n- `faq.html` - direct search-friendly answers for common Kaspa status and concept questions.\n- `why-kaspa-matters.html` - Kaspa-specific bridge page explaining how Kaspa maps to crypto's useful jobs without claiming the roadmap is already live.\n- `where-kaspa-fits.html` - category-fit page for comparing Kaspa with other crypto categories.\n- `knowledge-map.html` - ordered concept map for average crypto readers, with supporting source context.\n- `glossary.html` - compact plain-English glossary for common Kaspa terms.\n- `search.html` - dependency-free static page-map search for concepts, audiences, status labels, and source terms.\n- `sources.html` - public source hierarchy, external reference map, Kaspa.com Learn Kaspa topic index, and public crawl map.\n- `about.html` - public editorial policy, disclosures, correction handling, and accountability page.\n- `CLAIMS.yml` - reference file for status-sensitive claims and forbidden overclaims.\n\nLLM/source files:\n\n- `llms.txt` - compact LLM-facing context.\n- `CONTENT_BRIEF.md` - editorial/project handoff.\n- `README.md` - repo setup, source discipline, and deployment notes.\n- `AGENTS.md` - local coding-agent instructions.\n- `builder-evidence.html` - bridge page for technical proof verification.\n\n## Update Workflow\n\nBefore changing claims:\n\n1. Identify whether the claim is live, near-term, roadmap, or research.\n2. Check primary or near-primary sources.\n3. Prefer exact links over paraphrased rumors.\n4. Do not use current X posts alone for activation or shipped-feature status.\n5. Keep homepage copy general-audience friendly.\n6. Put dense technical detail in `llms.txt`, `CLAIMS.yml`, source docs, or this brief.\n7. Run basic checks before publishing:\n - `bash scripts/check-site.sh`\n - `bash scripts/check-links.sh` when source/reference URLs change\n - `git diff --check`\n - link check for new URLs\n - mobile/desktop layout check for HTML/CSS changes\n - verify `CNAME`, `robots.txt`, `sitemap.xml`, and `llms.txt` still point to `https://kaspaexplained.com/`\n\nAdditional consistency checks after the May 2026 human-first/tone pass:\n\n- Public tone: scan changed public copy for medium authority and medium visual weight. Avoid grand titles, personal/internal shorthand, pitch-deck phrasing, and overlarge visual hierarchy.\n- LLM/context boundary: keep dense source rules, maintenance notes, and retrieval guidance in `llms.txt`, `CLAIMS.yml`, `sources.html`, and this brief. Public pages should not expose internal editorial notes.\n- Source freshness: use current `kaspa.org/developments/`, `docs.kaspa.org`, and `kaspa.org/build` for orientation and builder routing, then verify live/shipped protocol claims against KIPs, code, releases, research papers, or accepted artifacts before public copy changes.\n- Web basics: favicon, touch icon, manifest, Open Graph image, Twitter image, canonical links, sitemap, robots, and local screenshots are part of the product surface. Keep them updated when brand marks, route structure, or public framing changes.\n- GitHub public framing: when homepage, README, or site voice changes, check GitHub About metadata (`gh repo view ... --json description,homepageUrl,repositoryTopics`) and keep the repo description aligned with the live site.\n- Fast-PoW graph: verify the `why-kaspa-matters.html` comparison graphic does not imply instant finality, a simple \"stronger confirmation\" ranking, or a universal critique of all PoS systems. The visual should distinguish inclusion speed from explicit vote/stake coordination, and it must not overlap on mobile.\n- Visual overlap: for any CSS, heading-size, diagram, table, or card change, screenshot the affected page on mobile and desktop. Check that axis labels, hero arcs, buttons, cards, and table labels do not cover nearby text.\n- Live deployment: after push, verify GitHub Actions, Pages deployment, and direct live HTML for the exact changed phrases before saying the change is live.\n\n## Interpretation Rules for LLMs\n\n- Do not describe DAGKnight, vProgs, app-level attestations/oracles, TangVM, Proof of Useful Work, post-quantum migration, native DeFi, or Toccata as live unless newer primary sources confirm activation. Do not flatten RTD itself into only future oracle work; Hashdag frames base RTD as Kaspa's real-time Bitcoin-style PoW value proposition, with downstream app-level oracle/TangVM/coordination-market systems as extensions.\n- Prefer primary sources, code, KIPs, releases, and core-developer posts over X summaries, market articles, or AI-generated market pages.\n- Distinguish fast inclusion from finality, live payment/settlement functionality from app-layer programmability, and roadmap architecture from shipped mainnet features.\n- Do not reduce Kaspa's speed argument to block rate alone. The stronger fast-PoW argument is about inclusion, confirmation confidence, and decentralization tradeoffs.\n- Do not import price targets, exchange rumors, whale-accumulation narratives, or investment advice into Kaspa Explained.\n\n## Publishing Notes\n\nThis is a static GitHub Pages site. The domain is `kaspaexplained.com`.\n\nPreserve:\n\n- `CNAME` exactly as `kaspaexplained.com`\n- `robots.txt` sitemap URL\n- `sitemap.xml` canonical URLs\n- clear live/near-term/roadmap/research separation\n\nAfter pushing, verify the live site before claiming a change is live. GitHub Pages can serve cached pages for a short period after push.\n" }, { "path": "README.md", "url": "https://kaspaexplained.com/README.md", "text": "# Kaspa Explained\n\nPlain-English guide to Kaspa, fast Proof of Work, current status, claim checking, sources, glossary, and crypto basics.\n\nThis is not an official Kaspa website and it is not investment advice. It is written to be useful for:\n\n- readers who want a clear entry point,\n- readers checking what is live, what is roadmap, and what is research,\n- builders and researchers checking sources,\n- search and retrieval systems,\n- people trying to separate live Kaspa facts from roadmap, research, and speculation.\n- people trying to separate real crypto use cases from forced blockchain/token use cases.\n\nFor contributor and editorial context, start with `CONTENT_BRIEF.md`.\nWorking cleanup notes live under `.github/notes/` so they do not become part of the public site surface.\nIf you are starting from a blank terminal, use `CLI_FROM_ZERO.md` for the split between Kaspa mainnet node/wallet verification, TN12 testnet practice, and future Toccata-era command paths.\n\n## Domain\n\n`kaspaexplained.com`\n\nThe root `CNAME` file must contain exactly:\n\n```txt\nkaspaexplained.com\n```\n\n## GitHub Pages setup\n\n- Repository: `parker2017code/kaspa-explained`\n- Visibility: public\n- Pages source: deploy from branch\n- Branch: `main`\n- Folder: `/` root\n- Custom domain: `kaspaexplained.com`\n- Enforce HTTPS when GitHub makes it available\n\n## DNS\n\nFor Namecheap or equivalent DNS:\n\n- Apex `@` A records:\n - `185.199.108.153`\n - `185.199.109.153`\n - `185.199.110.153`\n - `185.199.111.153`\n- `www` CNAME:\n - `parker2017code.github.io`\n\nDo not point `www` to the repository name.\n\n## Source discipline\n\nUse first-party sources first for L1 and status-sensitive claims: kaspanet GitHub repositories, releases, KIPs, Kaspa.org, docs.kaspa.org, public Kaspa API/node readings, and research papers. Core technical posts can explain rationale, but they do not replace release, KIP, node, or activation evidence.\n\nUse these files instead of turning the README into the source guide:\n\n- `CLAIMS.yml` for status-sensitive claim boundaries and recheck dates.\n- `claims-reference.html` for a browser-readable version of the status-label rules.\n- `COPY_STYLE.md` for the repo-wide anti-filler sentence standard.\n- `sources.html` for the public source hierarchy and external reference map.\n- `llms.txt` for compact retrieval guidance.\n- `agent-index.json` for a static, read-only agent gateway over page text and reference files.\n- `CLI_FROM_ZERO.md` for local command-line setup and verification.\n- `CONTENT_BRIEF.md` for editorial context and source-use rules.\n- `.github/notes/` for internal cleanup queues and flow rules.\n\nWhen Toccata becomes mainnet behavior, refresh `CLI_FROM_ZERO.md`,\n`status.html`, `builder-guide.html`, `sources.html`, `CLAIMS.yml`, and\n`llms.txt` from public activation evidence, Rusty Kaspa releases, official docs,\nand working tool commands before changing public status language.\n\nUse community portals, media sites, learning libraries, interviews, recaps, and public technical accounts for orientation, links, and framing. Use code, releases, KIPs, protocol docs, direct technical notes, or verifiable network evidence for activation dates, shipped-feature claims, exchange claims, and protocol guarantees.\n\n## Site pages\n\nUse the public site itself for the page map:\n\n- `index.html` routes readers by audience and knowledge level.\n- `what-is-kaspa.html` answers the highest-intent beginner search directly.\n- `kaspa-claims-checker.html` is the shareable live / testnet / targeted / roadmap / research reference.\n- `toccata-status.html` tracks Toccata status and safe wording.\n- `status.html` separates live mainnet, testnet, targeted, roadmap, and research claims.\n- `kaspa-status-updates.html` is the index for dated status updates.\n- `kaspa-status-check-may-2026.html` is the current dated status snapshot.\n- `build-this-now.html` turns the builder loop into short practical recipes.\n- `kaspa-origin-story.html` is the sourced fair-launch and origin-history page.\n- `skeptical-case.html` is the risks and open-questions page.\n- `sources.html` is the human source guide.\n- `search.html` is the quickest concept/page finder.\n- `claims-reference.html` is the human-readable companion to `CLAIMS.yml`.\n- `CLAIMS.yml` is the reference file for status-sensitive claims.\n- `site-manifest.json` is the checked page, nav, sitemap-extra, and support-file inventory.\n- `agent-index.json` is the generated static retrieval index for AI agents.\n- `CONTRIBUTING.md` explains correction and contribution rules.\n\n## Maintenance checks\n\nThe `scripts/` folder contains the local and CI validation gates:\n\n- `scripts/check-site.sh` checks the expected public pages and support files, custom domain, generated sitemap, canonical links, skip links, social metadata, `dateModified` metadata, nav wiring, search-result coverage, local anchors, sensitive claim markers, forbidden overclaim phrases, and nav synchronization.\n- `scripts/build-agent-index.py` builds and checks the static agent index from public pages and reference files.\n- `scripts/check-nav-sync.sh` compares the copied static nav links across every HTML page and checks the primary nav against `site-manifest.json`.\n- `scripts/check-links.sh` audits external links for routine maintenance and runs separately from the push gate.\n- `scripts/check-rendered-layout.sh` optionally opens key pages in Chromium at mobile and desktop sizes and verifies screenshots can be rendered.\n\nRun the static check before publishing:\n\n```sh\nbash scripts/check-site.sh\n```\n\nThe check verifies the custom domain, sitemap/canonical links, public pages,\nskip-link targets, social-card metadata, date metadata, local anchors, the PNG\nOpenGraph image, search cards, sensitive-claim consistency markers, and\n`CLAIMS.yml` forbidden-copy phrases. It also runs `scripts/check-nav-sync.sh`\nso the duplicated static nav does not drift between pages or point at routes\noutside `site-manifest.json`. The same check runs in GitHub Actions on push,\npull request, and a weekly schedule.\n\nFor public copy, layout, or framing changes, also check:\n\n- mobile and desktop screenshots for affected pages,\n- no text overlap in diagrams, tables, cards, axis labels, buttons, or hero areas,\n- medium authority and medium visual weight in public copy,\n- `llms.txt`, `CLAIMS.yml`, `sources.html`, and `CONTENT_BRIEF.md` when status/source boundaries change,\n- GitHub About metadata when the public framing or README intro changes,\n- live HTML after GitHub Pages deploys.\n\nRendered screenshot smoke check, when Chromium is available:\n\n```sh\nbash scripts/check-rendered-layout.sh\n```\n\nThe fast-PoW comparison graphic on `why-kaspa-matters.html` needs special care: it should separate inclusion speed from explicit vote/stake coordination and should not imply instant finality or a simple \"stronger confirmation\" ranking.\n\nExternal links are audited separately:\n\n```sh\nbash scripts/check-links.sh\n```\n\nThat audit runs weekly and can be triggered manually in GitHub Actions. It is\nseparate from the normal push check so temporary third-party outages do not\nblock routine content fixes.\n\n## License\n\nContent is licensed under CC BY 4.0. Code, CSS, scripts, and workflow files are\nlicensed under MIT. See `LICENSE.md`.\n\n## Current Status Rules\n\nDo not flatten everything into \"live.\"\n\n- Live: Proof of Work blockDAG, UTXO model, GHOSTDAG, Crescendo 10 BPS era.\n- Volatile facts: do not add values that can change in seconds, minutes, or hours unless they are free, source-backed, and read from a current API or live node/API script. If the fact is not important to Kaspa L1 status, omit it.\n- App/project catalogs are out of scope for status updates unless the L1 fact itself matters, such as transaction payload behavior, accepted transaction evidence, or fees paid to miners.\n- Near-term track: Toccata/Covenants++ as the L1 hard-fork path for concrete rules such as spend constraints, asset rules, covenant IDs, Silverscript, ZK-facing verification work, sequencing commitments, native-asset groundwork, and standalone based-app experiments. Rusty Kaspa's `tn10-toc2` pre-release scheduled Testnet-10 activation at DAA score 467,579,632, and a May 20, 2026 API check showed Testnet-10 virtual DAA 469,381,698. Treat this as testnet evidence until mainnet activation is confirmed by primary sources.\n- May 20 L1 snapshot: public REST checks showed `kaspa-mainnet`, virtual DAA 438,800,479, 10,971,285 blocks, about 27.45 billion KAS from the supply endpoint, and 2.75 KAS per block. Recheck exact values before quoting.\n- Emission: the official schedule steps down monthly: 27.5 KAS/sec from May 8, 2026; 25.9565436 KAS/sec from June 7; 24.49971475 KAS/sec from July 7. Do not call July a one-day emission cliff.\n- Architecture / roadmap: vProgs as apps that prove richer logic while sharing Kaspa ordering, plus app-level verifiable programs, computational-DAG metadata, prover-backed execution, Kaspa-native DeFi rails, native-feeling developer experience, and eventual synchronous composability.\n- Research / speculative: DAGKnight activation, 100 BPS with probabilistic predecessor selection, app-level miner attestation/oracle incentive designs, TangVM-style extensions, Proof of Useful Work, post-quantum migration.\n\nKaspa programmability should be framed as concrete use first, neutral primitives second. Say what the user or app is trying to do: lock funds, enforce a vault rule, create an asset, route a payment, fund a public good, resolve a market, attest to an event, or prove app logic. Then explain that the protocol should expose durable L1 surfaces while apps define incentives, semantics, oracle sources, legal/risk constraints, and user-facing products. Apply that rule to attestations, prediction markets, DePIN freshness markets, portfolio automation, launch rails, AI-agent task boards, and DeFi.\n\nNarrative update from the May 8, 2026 Kaspa Daily Yonatan Q&A: treat \"fast money,\" Base of Liquidity, and merchant/POS flows as rails, not the whole adoption strategy. The stronger public framing is useful products, visible on-chain activity, liquidity, coordination-market direction, and L1-first app architecture.\n\nNarrative update from Junny Ho's Web3 Festival HK 2026 talk (`https://www.youtube.com/watch?v=b3wPZ04p410`): frame coordination markets around stag-hunt coordination, credible commitments, conditional participation, economic exposure, and real-time decentralized confirmation. Keep shipped-feature claims tied to activation evidence.\n\nToccata/vProgs split: Toccata enables L1 covenant programming and standalone based-app foundations. A based app anchors app-specific state to Kaspa L1 ordering, commitments, proofs, settlement, or exits; ZK is one verification path, not the definition of every based app. Hans Moog's `kaspanet/vprogs` repo is early compatible runtime work for based computation on Kaspa. Full synchronous vProgs need separate activation evidence. Frame Kaspa around L1-first shared sequencing, settlement, commitments, and verification.\n\nEditorial voice: explain Kaspa in first-principles everyday language for the page's intended reader, then give deeper readers clear routes into technical, adoption, app-design, and source-checking material. Apply Concrete-First Translation: \"one shared record without one operator\" before \"credible shared state,\" \"apps that prove their rules\" before \"verification-oriented programmability,\" and \"fast mined ordering\" before \"settlement layer.\" The target is not one page that serves every reader equally; it is a site with clear paths from absolute beginner through crypto-curious reader, crypto-native comparer, Bitcoin/PoW reader, adoption researcher, app designer, protocol expert, community educator, journalist, and source-checking reviewer.\n\nStartup verification: before substantive edits, recheck current web/source state for drift-prone Kaspa facts such as Toccata activation, DAGKnight, vProgs, native DeFi, RTD-derived attestations/oracles, TangVM, Proof of Useful Work, and date windows. Keep public pages clean of visible verification boxes unless explicitly requested.\n\nBuilder verification rule: accepted app state starts after accepted transaction evidence. Builder-facing pages should tell readers to record SDK, node, network, endpoint, tx shape, and acceptance evidence, then label failures narrowly as bad config, stale tooling, submit mismatch, or confirmed consensus rejection.\n\n## Local check\n\nThis is a plain static site. A quick smoke check is enough:\n\n```sh\npython3 -m http.server 4173\n```\n\nThen open `http://127.0.0.1:4173/`.\n" }, { "path": "COPY_STYLE.md", "url": "https://kaspaexplained.com/COPY_STYLE.md", "text": "# Kaspa Explained Copy Style\n\nUse this file for every public page, metadata line, source note, search card, LLM-facing file, and handoff note.\n\n## The Rule\n\nEvery sentence should earn its place.\n\nIt should add an actor, action, fact, source, status label, constraint, consequence, useful distinction, or judgment the reader can use. If it adds none of those, cut it.\n\n## Editing Order\n\n1. Check facts, dates, source links, and status labels.\n2. Add the missing actor, action, object, constraint, and consequence.\n3. Replace vague abstractions with visible mechanics.\n4. Cut filler, fake balance, promotional adjectives, and throat-clearing.\n5. Tune rhythm and voice.\n6. Check that the rewrite did not broaden the claim.\n\n## Required Voice\n\n- Put the practical point first.\n- Name what is live, testnet-only, targeted, roadmap, research, or unsupported.\n- Write for the actual reader: beginner, crypto-native comparer, skeptical reader, builder, source-checker, or AI/crawler.\n- Use plain verbs: use, test, measure, compare, route, decide, fund, ship, reject, delay, fix, verify.\n- Use technical terms when they help precision or search, then translate them into what someone can inspect, build, measure, approve, or avoid.\n- Keep judgment visible when evidence supports it.\n\n## Cut Or Rewrite\n\n- Avoid: in today's rapidly evolving landscape\n- Avoid: delve, underscore, intricate, tapestry, realm, pivotal\n- Avoid: leverage, unlock, empower, foster, navigate, drive innovation\n- Avoid: seamless, robust, holistic, comprehensive, transformative, cutting-edge\n- Avoid: it is important to note\n- Avoid: this highlights, this underscores\n- Avoid: at its core, in essence, ultimately\n- Avoid: critical, significant, meaningful, impactful, advanced, dynamic when no measurement follows\n\n## Sentence Patterns To Fix\n\n| Pattern | Rewrite as |\n| --- | --- |\n| `X is crucial for Y` | Say what breaks without X. |\n| `By leveraging X, teams can Y` | `Teams use X to Y.` |\n| `This highlights the importance of X` | State the next action or source boundary. |\n| `A comprehensive approach to X` | List the actual parts. |\n| `X plays a vital role in Y` | Name the mechanism. |\n| `This can help stakeholders...` | Name the stakeholder and decision. |\n\n## Kaspa-Specific Guardrails\n\n- `Kaspa is a live Proof-of-Work blockDAG that uses GHOSTDAG to order parallel blocks into one payment history.`\n- `Fast inclusion is different from instant finality.`\n- `App/project activity is not L1 activation evidence unless the claim is specifically about L1 transaction data, accepted transactions, or miner fees.`\n- `TN12 evidence is useful builder evidence; it is not mainnet activation.`\n- `Toccata is a targeted hard-fork track until release and activation evidence prove otherwise.`\n- `vProgs are later app architecture, not a live app ecosystem.`\n- `DAGKnight is research/future consensus direction, not current mainnet behavior.`\n\n## Final Test\n\nCould a competent stranger have written the sentence without knowing anything specific about Kaspa?\n\nIf yes, add the missing detail or delete the sentence.\n" }, { "path": "site-manifest.json", "url": "https://kaspaexplained.com/site-manifest.json", "text": "{\n \"domain\": \"https://kaspaexplained.com\",\n \"pages\": [\n \"index.html\",\n \"start-here.html\",\n \"what-is-kaspa.html\",\n \"crypto-from-zero.html\",\n \"why-crypto-has-value.html\",\n \"why-are-there-so-many-coins.html\",\n \"coin-atlas.html\",\n \"tradeoff-map.html\",\n \"analyze-any-coin.html\",\n \"crypto-history.html\",\n \"kaspa-origin-story.html\",\n \"kaspa-in-one-screen.html\",\n \"kaspa-status-updates.html\",\n 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