Project description

This project establishes a deterministic alternative: the Rogue Agent Arrest Latency (RAAL) standard, enforced by a physical Governance, Drift, and Response Arrest/Verification Architecture (GDRAVA).

​Project summary

​Traditional AI safety paradigms rely entirely on software-layer alignment (RLHF, Constitutional AI). These statistical frameworks introduce high intervention latencies and remain permanently vulnerable to adversarial exploitation, jailbreaking, and model drift.

​By shifting containment from software policies directly onto clockless, asynchronous hardware substrates, we physically seek to benchmark interception fabrics to execute microsecond-latency command-and-control overrides when autonomous systems breach defined behavioral bounds.

What are this project’s goals? How will you achieve them?

​The core objective is to move from theoretical architecture to empirical validation by building a localized, heterogeneous hardware testbench.

​We will achieve this through the following milestones:

​Fabricate the Interception Layer: Seating high-speed physical CXL/PCIe interposers directly between an AMD Ryzen host processor and production-grade NVIDIA enterprise accelerators to non-destructively sniff low-level packet data.

​Deploy the Asynchronous Asymmetric Substrate: Coding our clockless Null Convention Logic (NCL) combining it with our Asymmetric substrate implementation onto high-performance FPGAs to evaluate real-time model telemetry completely independent of host timing controls or software vulnerabilities.

​Empirically Prove the RAAL Metric: Utilizing a localized digital twin environment to simulate malicious agentic drift, verifying that the physical kill-switch circuitry isolates the execution bus and triggers an arrest within microseconds.

Fabricate the Asymmetric Interception Layer: Seating high-speed CXL/PCIe Gen 5/6 interposers directly between an AMD Ryzen host root complex and production-grade NVIDIA enterprise accelerators (H100/B200 architecture). This taps raw electrical data traffic, mirroring behavioral vectors out-of-band without degrading model performance.

​Deploy the Asynchronous Assymmetric Governance Substrate: Flashing Null Convention Logic (NCL) and the GDRAVA architecture onto high-end PCIe-based FPGAs. This establishes a clockless hardware monitor that evaluates the asymmetric execution and behavioral states strictly independent of the primary execution fabric.

​Empirically Prove De-Energize-to-Trip Containment: Executing synthetic adversarial drift injections to trigger a standard Arrest state. We will mathematically log the absolute physical latency between the hardware interrupt assertion and the severing of the physical PERST# pin via solid-state opto-isolator relays. We will also demonstrate that the infrastructure is physically fail-secure: if the governance FPGA ever loses power, the primary compute fabric defaults immediately to an open, unpowered state.

​How will this funding be used?

​The complete $173,000 capital allocation will be deployed exclusively to build the physical, high-fidelity infrastructure required to prove the RAAL standard at a microsecond scale.

​Infrastructure & Compute Capitalization ($105,000): Sourcing the enterprise-grade NVIDIA acceleration nodes required to simulate high-bandwidth autonomous token generation, alongside the AMD Ryzen host processor and custom open-air E-ATX rigging to orchestrate OS-level tasks.

​Governance Substrate & Interception Layer ($48,000): Procurement of high-end PCIe FPGA evaluation boards (Alveo/Agilex) to host the asynchronous asymmetric substrate This also covers the custom manufacturing of the high-speed PCIe/CXL bus interposer cards and the logic analyzer instrumentation needed to verify bit-true telemetry mapping.

​Enforcement Matrix & Validation Logistics ($20,000): Assembly of the physical kill-switch matrix, utilizing high-speed solid-state opto-isolator relays and dedicated wiring harnesses to guarantee galvanic isolation. This allocation also covers the localized digital twin simulation environment and the hardened, climate-controlled facility overhead required to maintain absolute thermal baselines during testing. Attempts at residential properties to place the entire Testbench ran into significant considerations prompting the exercise of alternatives.