Trusted Execution Environments (TEE)

Trusted Execution Environments (TEEs) are a critical component of StarMiner’s security and privacy stack. They enable compute jobs especially those involving sensitive datasets or proprietary AI models to be executed in a fully isolated, hardware-enforced enclave, where the data, process, and results remain confidential, even from the node executing them.

By integrating TEEs across its global compute layer, StarMiner supports enterprise-grade trust, privacy compliance (e.g., GDPR, HIPAA), and confidential AI workloads without centralizing control or requiring third-party verification.


What Is a TEE?

A TEE is a secure area within a processor that runs code in isolation from the rest of the system — including the operating system, hypervisor, and node operator. Examples include:

  • Intel SGX

  • AMD SEV

  • ARM TrustZone

Inside a TEE:

  • Code and data are encrypted in memory

  • External access to running jobs is blocked

  • Integrity checks prevent tampering or debugging

This ensures a level of execution integrity and data confidentiality that software-based sandboxing or traditional cloud environments cannot match.


StarMiner TEE Architecture

StarMiner does not rely on one TEE vendor or standard. Instead, the protocol supports a modular TEE interface, allowing compatible Provider Nodes to offer “confidential compute capacity” via:

  1. Job-Type Tagging

    • Requesters can flag workloads as privacy-sensitive (e.g., medical data, proprietary LLM training).

    • The protocol routes these tasks exclusively to TEE-capable nodes.

  2. TEE-Aware Routing Layer

    • The computing protocol layer recognizes and catalogs TEE-certified nodes.

    • Only verified enclaves with active attestation keys are eligible to receive tagged tasks.

  3. Remote Attestation & Proof-of-Execution

    • TEEs generate cryptographic proof that:

      • The correct code was executed inside the enclave

      • No unauthorized access occurred during runtime

    • These proofs are submitted on-chain or through off-chain oracles for auditing and verification.

  4. Encrypted Task Flow

    • Inputs and model parameters are encrypted at the application layer.

    • They are decrypted only inside the TEE during execution, and re-encrypted before being returned to the requester.


Use Cases for TEE in StarMiner

  • Confidential AI: Training or inference on proprietary datasets (e.g., medical, legal, financial) without exposing content to the node operator.

  • Regulated Industries: Industries requiring demonstrable compliance with data privacy laws.

  • Multi-Party Computation: Enabling shared model training without exposing each party’s raw data.

  • Zero-Knowledge Infrastructure: Supporting verifiable off-chain computation as a precursor to Zero-Knowledge Machine Learning (ZKML) integration.


Incentives and Economic Design

TEE nodes may:

  • Earn higher AGPU rates for executing sensitive workloads

  • Access exclusive job tiers unavailable to non-TEE nodes

  • Receive sustainability or compliance bonuses via DAO governance

To maintain eligibility, nodes must maintain certified hardware, uptime SLAs, and submit ongoing attestation proofs.


Security Advantages

  • Data confidentiality from untrusted node operators

  • Execution integrity validated cryptographically

  • Protected against tampering, side-channel attacks, and runtime observation

  • Lower legal and compliance risk for enterprises using public infrastructure


Summary

Trusted Execution Environments give StarMiner a competitive edge in decentralized AI compute by offering confidentiality without compromise. TEEs enable trustless nodes to perform trusted computation making StarMiner the only network capable of securely handling sensitive, mission-critical tasks at scale.

This unlocks a new class of clients and industries for decentralized computing from healthcare to finance where privacy and integrity are non-negotiable.

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