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Ways to get involved with TensorCash.

Start where you are: support the project, run a wallet, mine with GPUs, build integrations, verify the network, issue assets, or help improve the research.

01 Institutions

Issue assets. Link them to law. Run governance. Less work.

Issue assets in every flavour you'd issue today — stablecoins, tokenised funds, real-world assets, regulated equity, debt instruments, securitisations. They live on the chain alongside TSC itself, not as IOUs inside a smart contract. Holders hold their own assets directly, transfers settle peer-to-peer, and identity checksKnow Your Customer — the identity-verification check required before letting someone trade or hold regulated assets. On-chain this can be done via a cryptographic proof, without handing over the underlying personal data. work without you having to hand over a database of holder identities to anyone.

Every asset can carry a legal document — prospectus, term sheet, holder disclosures, board minutes — pinned to a permanent cryptographic fingerprintA short, fixed-length cryptographic fingerprint of a document — any change to the document produces a completely different fingerprint. on-chain. Governance runs the same way: votes, signatures, and policy decisions write to chain once and stay there forever. Spot, repo, and forward settlement happen directly between the two parties involved — no exchange, no clearing house in the middle. Less off-chain plumbing, less reconciliation, fewer third-party fees.

Talk to us about a pilot →

02 AI providers

Mine while you serve. Same forward pass, two payouts.

Run a registered open-source model and serve real user prompts. Every qualifying answer generates proof materialProof-of-inference — a compact, replayable receipt attached to every AI answer, so others can verify that a real model genuinely produced it.; answers that clear the network difficulty barThe rarity threshold a proof must beat to be accepted as a new block — automatically adjusted to keep block time steady. extend the chain. Serving and mining are one workload, not two — no separate mining loop, no idle electricity bill, and no hardware arms raceThe arms race in proof-of-work blockchains where miners spend ever-increasing electricity on ever-more-specialised hardware to compete for the same blocks. TensorCash avoids this by using AI inference as the proof of work. to win against specialised mining rigs.

Under the hood we run customised versions of the standard open-source AI serving enginesForked versions of vLLM (the standard GPU serving engine) and llama.cpp (a CPU / Apple-Silicon engine) — modified to record the proof transcript while answering., with the proof-capture step wired right into the answering loop — so producing proof material adds no latency for users. Practice promptsSynthetic 'practice' prompts the miner runs to keep the GPU productive when no paying user is asking anything. Real user traffic always preempts them. only run when the GPU would otherwise sit idle, and step aside the moment a paying user arrives. The verification systemThe three-stage checking system that decides whether a miner's proof is honest — statistically calibrated to pass honest miners and catch cheats, even across hardware that produces small numerical differences. is tuned to accept honest miners across the small numerical differencesThe same AI model on different graphics cards produces tiny numerical differences (attention kernels, batch sizes, logits) — harmless, but it rules out simple bit-for-bit checks. between different GPUs, while keeping the false-positive rate provably low.

Read the TensorCash paper →

Provider quickstart (broker registration, model registration, runtime image) is the next deliverable.

03 Developers

Build wallets, dApps, and integrations.

TensorCash is built on top of Bitcoin Core — same way Bitcoin tracks coinsBitcoin's accounting model — instead of bank-style balances, coins exist as discrete 'unspent outputs' from prior transactions., same way Bitcoin signs transactionsBitcoin's existing way of signing and verifying transactions with cryptographic keys., same way Bitcoin propagates blocks. On top of that we add a small set of new capabilities: AI-work proofsProof-of-inference — a compact, replayable receipt attached to every AI answer, so others can verify that a real model genuinely produced it., a cryptographic clockVerifiable Delay Function — a cryptographic clock based on the Wesolowski construction, proving that real time has elapsed even with unlimited parallel hardware. in every block header, native on-chain assetsAssets — stablecoins, tokenised equity, bonds — that exist directly in the chain's ledger alongside the chain's native coin. Not IOUs running inside a smart contract., settlement contractsPre-built building blocks for the most common trade structures (spot, repo, forward), enforced directly by the chain rather than by a smart contract or a clearing house. (spot, repo, forward), and quantum-resistant signaturesML-DSA (NIST FIPS 204) — a signature scheme designed to remain secure even against a future quantum computer. Standardised by NIST in 2024.. Every extension is reachable through documented JSON-RPCJSON-RPC — a simple over-HTTP protocol for calling specific named methods on a node. The standard way to interact with Bitcoin-family chains programmatically. and RESTREST — the conventional pattern for HTTP APIs where each URL represents a resource (e.g. GET /models/abc returns model metadata). Easier than JSON-RPC for read-only lookups. APIs.

The four documented developer surfaces are below. Quickstart guides and end-to-end walkthroughs — full spot-trade lifecycle, asset-issuance lifecycle, cross-chain swap — are the next deliverables.

Open the JSON-RPC reference →

Building TensorCash itself? We're recruiting Core protocol contributors — write to contact@tensorcash.org.

04 Verifiers

Run a verifier. Don't trust anyone.

The verifier ships as open-source software. Anyone can replay a block's proof through the three-tier checkThree escalating layers of verification: Quick (under a second), Smell (medium-depth sampling), and Full (a complete audit). Each is stricter than the last. — a fast smoke test, a medium-depth statistical check, and a full audit — score it against the public copy of the model, and challenge any block that doesn't add up. This independently runnable verifier is the structural difference between TensorCash and a centralised AI service.

Consensus does not require trusting any single operator — it only requires that the verifier exists and that someone runs it. The protocol is also designed to accept better verification rules over time: sharper statistical tests, tighter mathematical bounds, attestation-aware checksActive research directions for making verification stronger: sharper statistical tests, tighter mathematical bounds on false-positive rates, and gates that incorporate hardware attestation.. If you've got an improvement, bring it.

Open the Verifier API →

05 Researchers & collaborators

Working on any of this? We'd love to hear from you.

Verifying AI-style compute that produces slightly different outputs each runComputation that produces slightly different outputs on different hardware or under different conditions — including most modern AI inference. Verifying it requires statistics, not bit-exact replay. is open research. Post-quantum signature standardsML-DSA (NIST FIPS 204) — a signature scheme designed to remain secure even against a future quantum computer. Standardised by NIST in 2024. keep evolving. The microstructure of a fast trading layerThe fine-grained mechanics of how markets actually function — order arrival patterns, price formation, who has what information, who gets front-run. A blockchain-anchored DEX is a new variant of this problem. backed by a blockchain is a new shape. Compliance proofsCryptographic proofs that a transaction satisfies regulatory requirements (e.g. 'this counterparty passed KYC') without revealing the underlying personal data. sit at the intersection of cryptography and law. Lots of open ground.

If you're working on any of these — or something adjacent we haven't thought of — get in touch. We're always glad to talk to people doing interesting work in the space.

Get in touch →

Open Core implementation roles too — if your research could land in the protocol itself, mention it when you write to research@tensorcash.org.

06 Supporters

No GPU? You can still help.

TensorCash isn't a token sale or offering. Every coin in circulation comes from active mining, and the schedule heavily rewards the early miners who take the first operational risk.

Run the Core wallet, accept TSC peer-to-peer, donate, translate one of the whitepapers into your language, or simply explain the project to one person who hasn't heard of it yet. The mission is bigger than any single contributor.

Protocol diagrams

Institutional protocol primitives

Seven diagrams that cover the whole journey: issue an asset with consensus-enforced rules, anchor the legal payload, gate it for holders, run governance, distribute cashflows, and settle financing or derivatives — all without an off-chain venue in the middle.

Issue anything

Issuer chooses the rules — ticker, supply cap, transfer policy, KYC, legal payload, governance quorum, bond — and consensus enforces them on every spend.

Bond is locked until the asset accrues enough miner fees, so the cost of issuing a junk asset is real.

01 · Terms anchor

Each asset carries the legal payload that belongs to it. Public terms are stored as readable on-chain text; holder-only terms are stored as encrypted on-chain payloads. The payload hash makes silent replacement detectable.

The chain stores the payload itself. Consensus binds the payload hash to the asset record and rejects unauthorised rotations.

02 · Signed evidence

Issuer signatures, qualified e-signatures, DocuSign envelopes, notary records, PGP signatures, and timestamps can all point to the same document hash.

Consensus does not need to understand every legal artefact. It anchors the document commitment; external tooling verifies the evidence against that same commitment.

03 · Holder-only access

Some terms should only be readable by holders. In that mode, everyone can see the encrypted payload on-chain, but only a holder output carries the wrapped key needed to read it.

Access is based on asset ownership and wallet keys, not on asking a central server for permission.

04 · Change the rules

If an issuer wants to rotate the asset terms, change quorum, or update a compliance root, holders vote with the units they own. The chain checks whether enough settled supply signed the proposal.

Quorum is weighted by units, not by accounts. A rotation that falls short is rejected by consensus.

05 · Pay holders

A wallet can choose a snapshot block, scan the holders of an asset, and build a pro-rata payout transaction in TSC or an eligible asset.

This is an operator-driven wallet primitive today, not yet an automatic coupon covenant.

Forward IM-DvP

Each party posts initial margin and later delivers into escrow. The counterparty can take that asset only by delivering its side in the same transaction. If they do not, the first mover gets the asset back and takes the counterparty's IM.

Recourse capped at initial margin. No clearing house, no fail-to-deliver chargebacks — atomic if both deliver, atomic refund if one doesn't.

Protocol diagrams

Mining service deployment topology

Full-node multi-worker layout: API gateway, scheduler, VDF timer, load balancer, GPU workers, plus the validation cluster and the Bitcoin Core consensus engine. Mirrors the deployment guide in the TensorCash repo.

Multi-worker miner topology

External clients hit the OpenAI-compatible API gateway. The job scheduler — driven by a VDF timer and a model registry — distributes mining params across vLLM workers; workers stream proofs back to Bitcoin Core, which talks consensus over the P2P network and submits each proof to the GPU verifier.

Same forward pass that serves the user produces the proof material that extends the chain. No separate hash war.

Our mission

TensorCash turns useful AI work into open money.

Out of the potato age, as our whitepaper says…

We believe people deserve a cheaper, more efficient financial system, and fairer AI that works for everyone. TensorCash makes AI work verified and verifiable. Verification gives AI a face: proof of which model did the work, what it saw, and the rules it followed. That lets anyone confidently buy or sell AI work at the most efficient price. The result is more accessible, more sustainable AI, powering a new generation of financial systems. Today's currencies are the potatoes: antiquated, expensive to move, and trapped behind fee-takers. TensorCash is a more efficient way to move and store value — one that harnesses AI's computational power for everyone while pushing the control outward instead of concentrating it.

— Imosuke Takakuni

About us

Imosuke Takakuni is a pseudonym. The Japanese name is both a tribute to Satoshi Nakamoto and a nod to Potato Land — the parable from our whitepaper. The mission is bigger than any one contributor; it should outlast personalities and charisma. Decentralisation works for everyone, or it doesn't work at all. We want everyone to participate in TensorCash as equals.

Open the mission page →

Get involved

How to get TSC

TensorCash is not selling TSC. The project is not running a token sale, pre-sale, ICO, IDO, or official investment round. New TSC enters circulation through active mining. You can mine it, receive it peer-to-peer from someone who already has it, or run the wallet and be ready for mainnet.

TensorCash is not running an official sale. Do not send money to anyone claiming to sell official allocations.

Get involved

Run the Core wallet

The practical first step is to run TensorCash Core, create a wallet, and learn the RPC surface. Today the public guide starts with regtest so you can create addresses and move coins locally before touching mainnet funds.

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Donate

No mainnet donation address is published yet. For testing only, the TensorCash testnet address below was generated from the running Core wallet; do not send mainnet funds to it.

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Spread the word

The shortest useful explanation is: TensorCash turns useful AI work into open money. Share the mission page, the flagship whitepaper, or the Get involved page with one person who cares about cheaper financial rails, fairer AI, or open infrastructure.

TensorCash turns useful AI work into open money.

Get involved

Emission schedule

Bitcoin set the baseline: block rewards only, no discretionary minting, and an exact integer subsidy total of 20,999,999.97690000 BTC. TensorCash keeps the fixed-supply discipline and changes the release curve for a compute-mined network; the implemented recurrence ends at 21,184,153.03530240 TSC.

Supply over blocks

Total subsidy issued

Exact integer subsidy rules from Core: Bitcoin halvings against the TensorCash epoch-decay schedule, shown through the first 6,000,000 blocks.

Horizon
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BTC @ 6M
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TSC @ 6M
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BTC and TSC total subsidy over block count At 6,000,000 blocks, Bitcoin has issued 20,999,999.92710000 BTC and TensorCash has issued 20,979,987.36365355 TSC under the implemented epoch-decay schedule.
Block 0
BTC supply 0 BTC
TSC supply 0 TSC
BTC: 50 BTC, 210,000-block halvings TSC: 715 TSC, 715-block epoch, reward x 3/5, capped epoch length