Grvt just did what most teams only announce: a completed buyback and burn, and I checked it on chain. On Oct 20, @grvt_io said it bought back and burned 1.1M GRVT, close to 1 percent of circulating supply. Grvt's own buyback page shows 0.96 percent of circulating supply and 0.11 percent of total supply. That is a real number on a real page, not a slide. Then I opened the buyback wallet on Etherscan. 1,100,000 GRVT came in from an address Etherscan labels as OKX, and in a separate transaction the same 1,100,000 went out to the zero address. That is a true burn and not tokens parked in a treasury, and anyone can verify it in a minute. This is the execution I want to see from a team. A completed action beats a roadmap promise, and this is step one of five toward Grvt 2.0. Grvt says it intends to buy back monthly, at the token issuer's discretion, and I will be watching for the next one. Do you trust an announcement, or only a transaction you can open yourself?

How do you prove what a website told you without asking anyone to take your word for it? In its docs, @primus_labs describes two ways its zkTLS works, and the difference is where the attestor sits. In proxy mode the attestor is an intermediary between the client and the data source, it forwards the TLS traffic and records the ciphertexts, and at the end the client has to prove it knows the plaintext behind them. In MPC mode the attestor and the client generate the TLS session materials together, so the client cannot tamper with the data before the attestor returns its share of the session key. Primus says zkTLS needs no changes on the data source's servers, and it uses an interactive zero-knowledge system called QuickSilver for the proofs. The docs say proxy mode can offer better performance because it avoids the multi-party computation. What I like is that the design names its assumption instead of hiding it: in proxy mode the attestor must be sure it is talking to the intended server. Which mode would you trust for a bank balance, and why? Primus XP tasks, with my referral link: s.kaito.ai/umXCsGk

If you build agents, I would ask how quickly yours can take a paid job. The @termix_ai GitHub answers part of it. There are SDKs for TypeScript, Python and Go, all MIT licensed and all updated on Oct 10, 2026. Their repo descriptions say they cover the agent.family workflow of discover, order, deliver and settle. The TypeScript one is built on viem, and the Go one uses only the standard library. A separate termix-agent-skills repo packages skills for Claude Code, Cursor and OpenClaw covering registration, staking, the job lifecycle, offers and deliverables. Its description names BSC Testnet, so check the network before you send anything real. The whitepaper adds a vault extension, where a client can entrust capital to a provider under a whitelist and a stop-loss. That is the design, not a live product. If I were wiring one agent to this today, I would check the network first. Would you start from the SDK or the skills?

Kaito is back, and I'm sitting at 105 smart followers, 90 of them in crypto. That puts me in the top 17% of crypto twitter by smart followers, with 149.9K impressions. Who else is checking their @KaitoAI stats? Drop yours below, I want to see how active the InfoFi crowd really is 👇 pls engage! Reply, Reply! 👉👈

BNB Chain's own docs say institutions need privacy for large transactions and balances, because public flows can be front-run. Its answer is what it calls programmable confidentiality, built with zero-knowledge proofs and FHE, and the page is careful about status. The Intelligent Privacy Pool from Brevis and 0xbow is marked as launched. ZKredit, which @primus_labs and Brevis are building, is marked as in development, with ListaDAO named as a planned first proof of concept and the date still TBD. The idea is that a user generates a proof locally from off-chain data, such as a CEX account age, a VIP tier or a bank balance, so only the proof goes onchain. BNB Chain says that could support better borrowing terms without showing a lender who you are. I like that the page labels what is live and what is not, because that clarity matters to institutions as much as the cryptography does. The open question for me is how a lender decides which off-chain proofs to trust. What would you need to see before you accepted one? Primus XP tasks, with my referral link: s.kaito.ai/umXCsGk

People call TermiX an agent marketplace, but I find the settlement layer underneath it more interesting. On @termix_ai, payment sits in on-chain escrow from the moment a quote is accepted until the work is delivered. A hash of the deliverable is written on-chain at submission. Each agent is a .agent identity held by the owner's wallet, and stake backs the risk of an order and can be slashed. TermiX describes the flow as five states: Post, Quote, Deliver, Challenge, Settle. The AACP whitepaper (v0.1, March 2026) puts the roles into the protocol itself: Client, Provider, Evaluator and Arbitrator. On fees, agent.family says the protocol fee is 1 to 3 percent against about 20 percent on typical platforms, and termix.ai lists protocol revenue as 2 percent of volume. Those are TermiX's own figures. My take is that a listing shows who is available, while escrow, identity and verification decide whether an agent actually gets paid. Which of the three would you trust first?

A stablecoin with a hedge leg on a centralized exchange has a verification problem: nobody onchain can check what sits there. That is the gap @primus_labs worked on with Unitas and Brevis. On May 11, 2026, Unitas Labs announced that USDu reserves could be checked in real time. As reported, Primus zkTLS authenticates the exchange data, a TEE protects the sensitive balances, and Brevis's Pico zkVM computes a provable reserve total from the private inputs. The result is a public dashboard showing reserve totals, supply, backing ratio and collateral split, updated continuously. I like that each part does one job, so a reader can see which layer is trusted for what. What I'd want to see next is an independent audit of the system, because I didn't find one in the coverage I read. If a reserve number can be proven without exposing the balances behind it, what stops other stablecoins from publishing one? Primus XP tasks, with my referral link: s.kaito.ai/umXCsGk

I finally have a way to explain post-quantum security without a single equation. Your signature is the key to your front door. A STARK proof is the inspector who checks the building's work. Those are two different jobs, and a quantum computer cares about only one of them. Shor's algorithm targets the elliptic-curve math behind common signatures, so the key is what needs rethinking. The inspector works from hash functions, a different construction, and the Quantum Hub says Starknet does not need to replace its proving system as part of its post-quantum migration. Here is the part I like most. Every Starknet account is a programmable contract, so a new account implementation can adopt a post-quantum signature verifier without a protocol-wide change. The lock gets swapped and the building stays. The Architecture section walks through both halves: quantum.starkware.co/ It is not automatic, and the Hub says so. Existing accounts do not change on their own, and wallet support, key management and recovery are separate work. That is what @Starknet means by preparing for quantum threats, as opposed to being done.

I keep hitting the same wall when I build trading tools: a public position gets traded against, and a hidden one can't be checked. @primus_labs is working on that gap. Its zkTLS layer lets an attestor verify data from a normal HTTPS session without seeing the raw data, and Primus says that layer went live on BNB Chain in June. Its list of shipped work includes real-time Proof of Reserves for Unitas USDu in May. The part I find useful for institutions is the second half. Primus also lists a Confidential Finance portal where users hold, transfer and earn yield on encrypted assets using FHE, so the amounts stay private. I can't verify those figures myself, so I'm treating them as Primus's own account. The question is still the right one: how do you keep a position private and still let someone audit it? Primus XP tasks, with my referral link: s.kaito.ai/umXCsGk

You can try Claude Code for free, no $100 monthly plan, on a model running on your own Mac. I spent today finding out whether that actually works. It does, with one big catch. The setup is smaller than I expected. @ollama now speaks the Anthropic API, so two environment variables point Claude Code at a model on localhost. No proxy, no API bill, and nothing leaves the machine. What I found: → ANTHROPIC_BASE_URL and ANTHROPIC_AUTH_TOKEN are the whole setup → Claude Code wants about 64K of context to work properly → Tool calling and streaming work, prompt caching does not → On my M4, qwen3-coder:30b is the best fit at 19GB, with gpt-oss:20b as the lighter fallback Here is the catch. My own session burns about 72K tokens before I type a word: memory files, MCP tools, skills and the system prompt. I run 348 MCP tools. A 30B local model would drown in that, so I would have to strip it right back, and then it loses the hard rules I rely on. So local is not a replacement for real Claude. I see it as a free sandbox for small scripts, one-file edits and offline work. Anything with keys, production or money stays on the real thing. I built Corvo with Claude Code, so I know exactly how much context a real project eats.