Near-Term Enforcement of AI Chip Export Controls Using A Firmware-Based Design for Offline Licensing
James Petrie

TL;DR
This paper proposes a firmware-based Offline Licensing mechanism for AI chips to enforce export controls and prevent unregulated training of dangerous AI models, leveraging existing hardware security features for rapid deployment.
Contribution
It introduces a minimal firmware-based Offline Licensing design that can be implemented within a year on existing AI chips with common security features.
Findings
Supports enforcement of export controls on AI chips
Can be implemented via firmware update without hardware changes
Potential to prevent unregulated training of frontier AI models
Abstract
Offline Licensing is a mechanism for compute governance that could be used to prevent unregulated training of potentially dangerous frontier AI models. The mechanism works by disabling AI chips unless they have an unused license from a regulator. In this report, we present a design for a minimal version of Offline Licensing that could be delivered via a firmware update. Existing AI chips could potentially support Offline Licensing within a year if they have the following (relatively common) hardware security features: firmware verification, firmware rollback protection, and secure non-volatile memory. Public documentation suggests that NVIDIA's H100 AI chip already has these security features. Without additional hardware modifications, the system is susceptible to physical hardware attacks. However, these attacks might require expensive equipment and could be difficult to reliably apply…
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Taxonomy
TopicsPhysical Unclonable Functions (PUFs) and Hardware Security · Digital Rights Management and Security · VLSI and Analog Circuit Testing
