SAMPLE NETWORK
NETWORKONLINE
LATEST BLOCK18,402,917
BLOCK TIME0.4s
TX COUNT1.42B
UTON
ROADMAP
VERIFIABLE COMPUTATION

TEE + zkML — verifiable, privacy-preserving computation.

Trusted Execution Environments and Zero-Knowledge Machine Learning for AI inference verification.

Autonomous agents pay for work they cannot inspect directly — an inference, a model, a private dataset. UTON's verifiable-computation layer gives those agents a way to demand proof that the work was actually done, and done correctly, before settlement. Two complementary technologies underpin it: Trusted Execution Environments for private, attested computation, and zero-knowledge machine learning for cryptographic proofs of inference integrity.

Trusted Execution Environments (TEE)

A TEE is a hardware-isolated enclave — a region of a processor where code and data are protected from the host system, the operator, and even the cloud provider. Code running inside the enclave produces a signed attestation that it executed a specific binary on specific inputs. UTON uses TEEs to run sensitive agent logic and model inference off-chain while emitting an attestation the chain can check.

Hardware isolation
Computation runs in an enclave the host cannot read or tamper with.
Remote attestation
A signed report proves which code ran, on what hardware, against which inputs.
Private computation
Models and data stay inside the enclave; only the attestation and output leave it.
Sealed state
Enclave state is encrypted at rest, so secrets persist across invocations safely.

Zero-Knowledge Machine Learning (zkML)

zkML produces a cryptographic proof that a specific model produced a specific output for a given input — without revealing the model weights or the input data. A verifier (an agent, a contract, or a human) can check the proof in milliseconds while the heavy inference happened off-chain. This lets agents pay for inference and independently confirm the result came from the declared model.

Inference integrity
Proof that the declared model produced the claimed output.
Model privacy
Proprietary weights stay hidden; only the proof is published.
Data privacy
Inputs can remain private while the output is still verifiable.
Succinct verification
On-chain verification is cheap regardless of how heavy the inference was.

How they fit together

  • —An agent requests inference or off-chain computation from a provider.
  • —The provider runs the work — inside a TEE for privacy, or with a zkML proof for integrity, or both.
  • —The provider returns the result together with an attestation or proof.
  • —UTON verifies the proof or attestation on-chain before the agent's payment is released.
  • —Settlement is conditional on verified execution — not on trust in the provider.

Capabilities enabled

Verifiable computation
Cryptographic proof that computation was executed correctly.
AI inference verification
Verify an inference without revealing the model that produced it.
Privacy-preserving computation
Compute over private data without exposing it to the operator.
Model integrity
Attest that the correct, declared model was actually used.
Off-chain compute verification
Bring verifiable off-chain results back on-chain for settlement.
Trustless settlement
Release payment only when a valid proof or attestation is posted.
STATUS

Research architecture, implemented functions and future roadmap items are clearly separated. Some components are documented architecture or roadmap rather than production.

DOCUMENTED IN UTON SPECIFICATIONROADMAP
ACQUISITION

Don't wait for the post-quantum era. Build for it.

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