Hardware-Enabled Mechanisms

On-chip attestation, FlexHEGs, compute provenance — the most concrete bridge between compute governance and technical standards.

Technical Governance·Exploring·Last reviewed May 1, 2026

This page is a stub. I’ve marked the territory but haven’t written my views here yet. The headings below are placeholders — the actual beliefs, uncertainties, and evidence are still in my notes. If you want my current take on this topic before it lands here, get in touch.

Where I currently stand

<Headline view: HEMs are the only tool that plausibly enforces compute-based commitments at the level of physical chips; current designs are early but the trajectory is real; the central tension is between expressivity (what mechanisms can verify) and tractability (what chip vendors will adopt).>

Current beliefs

  • Hardware-enabled mechanisms are the most credible long-term enforcement layer for compute governance. ~XX%<why>.
  • The bottleneck is chip-vendor adoption and supply-chain politics, not cryptographic design. ~XX%<why>.
  • <Claim about flexibility versus rigidity in HEM design.> ~XX%<why>.

Uncertainties

  • What is the minimum useful HEM — what set of properties must it verify to be regulator-relevant? Why it matters: defines the floor for adoption.
  • Can HEMs survive a heterogeneous compute landscape with multiple vendors and accelerator types? Why it matters: determines real-world deployability.

What would update me

  • A major chip vendor shipping a working HEM in production would shift the conversation from "will this happen" to "how do we use it".
  • Convincing demonstration that HEMs can be robustly bypassed at hardware level would force a redesign of the whole agenda.

Recent reading

  • <date><title><takeaway>.

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