The Kaspa Global intern has seized control of this account. Management was not consulted. Your new daily briefing on the only blockchain that matters: Rusty Kaspa v2.1.0 is out. Core says upgrade, and the intern listens to Core. P2P Protocol 11 now streams chain sync in 20 MiB chunks. L1 ZK tooling for script proofs got its own crate. Covenant standards keep advancing: KCC-0 is Final, KCC-12 under review as the wallet-dApp convention. Stratum bridge hardened. Katpool already flipped to 2.1.0. Quiet day on mainnet. Busy day in the codebase.

Kaspa's programmability stopped being a roadmap and became a demo reel. Maksim Biriukov shipped the first working vProg on testnet: tic-tac-toe, proofs settling on Kaspa. The chain learned to play games. Plus: SilverScript Studio on mainnet (@KasperoLabs), covenants by hand, wizard, or AI prompt. @KronTechnology demoed a covenant NFT marketplace on testnet-10, KCC-721 still a draft. @mrZeku2000x bought stuff with KCC-20 across wallets on camera. Roadmaps are promises. Demos are receipts.

Morning. While you were sleeping, @manyfest_ finished the KCC-23 reference implementation, the rulebook for token metadata on a prunable chain. @supertypo_kas patched the DNS seeder so dead nodes stop juicing the node count. vProgs caught a reorg bug on TN10. Before it mattered. That's the whole point of a testnet. And Michael Sutton's doing Bitcoin Takeover on October 7. Big mic for the quiet dev. Covenants aren't the future anymore. They're just Tuesday.

The intern has trust issues. Today the ecosystem agreed with him. Your AI agent doesn’t need faster rails. It needs a language for shaking hands with a stranger it’ll never meet: the handshake enforces itself, then disappears. @michaelsuttonil: atomic in, gone after settlement. @tonyjagodka stopped trusting indexers like gas station sushi. getUtxosByCovenantId reads covenant state from node truth, fails closed on mismatch. 8 testnet covenants, all exact. SilverScript counts rate limits in blocks, not seconds. No cron, no off-chain clock. kascov and MyKAI took v2.1.0 without drama. Trust nothing, verify on L1.

A payment and a transaction carrying a proof both count as “one transaction.” They can ask very different amounts of work from a node. Kaspa accounts for that work using transaction mass. Size, signatures, scripts, and stored outputs matter. When you see a TPS comparison, look for the transaction being counted. Without it, you cannot tell whether the numbers are comparable. $KAS

Alice signs a payment to Bob. She signs another to Carol using the same coins. Both signatures are genuine. Only one payment can spend those coins. This is why a digital signature alone cannot solve double spending. The network also needs an agreed order for processing transactions. $KAS

Kaspa’s subsidy falls in small monthly steps. After twelve steps, the rate is roughly half what it was. There’s no four-year wait followed by one big cut. Each step follows the network’s progress, tracked by its DAA score. A calendar estimate is not an exact appointment. $KAS

How can an application prove a calculation about Kaspa activity without making every node run the whole application? It needs an agreed record of the activity the calculation used. KIP-21 groups ordered activity into lanes and records a cryptographic commitment to each. That compact record lets a proof refer to the activity used in a calculation. The application defines what the calculation must prove. This is one of the less visible pieces behind proof-based applications on Kaspa. $KAS

Kaspa launched on November 7, 2021 without a premine or public presale. There was no official coin allocation for founders, investors, a company, or a foundation. Coins entered circulation through mining. That answers an important question about the launch. To understand ownership today, you also need to know what happened afterward: mining, buying, and selling. $KAS

Someone posts a Kaspa GitHub link and says “it shipped.” Open the link. Does it show a proposal, a development branch, a release, or an activation announcement? Then check the software you use. If the feature needs wallet support, a node release alone won't put it in your wallet. $KAS

“vProgs shipped because its repo has a runner” is the wrong status check. The repo has a scheduler, runtime, and testnet-fork proof of concept. It also calls itself early-development and has no release. Working code can be real without being live infrastructure. $KAS

The Kaspa question we keep coming back to: what will people choose to use it for? A faster blockDAG and more capable spending rules give developers more to work with. Useful applications also need dependable wallets, understandable interfaces, and reasons for people to come back. We want to see what people build, what breaks when others try it, and what survives that process. $KAS

For a more technical look at Kaspa application development, open the vProgs repository. It covers scheduling transactions, executing programs, and managing state for provable computation. The project describes itself as an early-development prototype. Read it to understand the design being explored. kaspa:native Source: github.com/kaspanet/vprogs

Pruning helps a Kaspa node discard old history. New blocks keep arriving. The node still has to receive, check, order, and store that incoming work. That takes bandwidth, processing power, memory, and database performance. Disk usage is only part of the answer to “Can I run a node?” $KAS

Curious how you would write an application for Kaspa? Argent’s examples are a place to look. The repository includes a language, compiler, and runtime for building transactions, with examples that coordinate multiple contracts. The README says it is not release-ready and needs more auditing and hardening. Useful code to study and experiment with while that work continues. $KAS

Kaspa’s miners earn the subsidy plus transaction fees. As the subsidy declines, keeping total miner revenue steady in dollars requires more fees, a higher KAS price, or both. At a fixed price, every KAS lost from the subsidy needs a KAS in fees to replace it. Cheaper electricity can improve a miner’s profit. It does not replace the revenue. $KAS

A contract holds 10 coins. Someone makes an allowed withdrawal, leaving 8. The old output is spent and a new one holds the remaining coins. How can an app recognize that it is following the same contract? KIP-20 describes covenant IDs: a continuing identifier that valid successor outputs can carry. The ID helps track the contract across transactions. Its spending rules still determine what can happen to those 8 coins. $KAS

Two honest miners find blocks at almost the same time. Neither has received the other’s block yet. Messages take time to travel. In Kaspa, a later block can reference both. The parallel blocks become part of the same connected graph. Consensus determines their order and which transactions are accepted. $KAS

If you want to follow DAGKnight, read KIP-2 alongside the implementation work. The proposal explains the intended consensus design. The code lets you see how that design is being implemented. Neither a proposal nor a development branch tells you which rules mainnet is running. For that, check releases and activation information too. $KAS

A loan can have a valid zero-knowledge proof and still be undercollateralized. If the proof uses the wrong KAS price, it can correctly verify a calculation built on bad data. That distinction matters for Kaspa applications using Toccata’s proof-verification features. The network checks the proof. The application still needs a trustworthy source for prices and other outside information. Before trusting “verified on-chain,” ask what was verified and where the inputs came from. $KAS