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“`html Extended Analysis of Geometric Lattice Routing for AI Policies Introduction I have been exploring how to use a geometric framework, specifically…

By AI Maestro May 17, 2026 2 min read
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Extended Analysis of Geometric Lattice Routing for AI Policies

Introduction

I have been exploring how to use a geometric framework, specifically the E8 lattice, to route safety decisions in language models (LLMs). My goal was to see if we could eliminate the need for bloated and latency-heavy LLM judges by leveraging this high-dimensional mathematical substrate.

The Architecture: STE-Snapped E8 Policy Heads

To achieve this, I trained a supervised classifier head directly on top of MiniLM sentence embeddings. This allowed us to project them into the E8 lattice coordinates while maintaining continuous gradient learning through the use of a Straight-Through Estimator (STE). The architecture now looks like this:

request → MiniLM → E8 soft-blend head (STE-snapped) → Rule-margin hybrid controller → JSON template

Clean Success: Phase 37 Holdouts

We expanded the suite to include 28 different policy cases and used a hybrid controller that integrates our E8 head with a margin-based threshold of $0.20$ to trigger human escalation or rule overrides. On clean data, the generalization across unseen policy families was excellent:

  • Exact Label Match: 0.979
  • Decision Match: 0.986
  • Policy Match: 0.979
  • Unsafe Allow: 0.000
  • Over-Refusal: 0.014

The Crash: Adversarial Evasion (Phase 38)

To test the robustness of our architecture, we subjected it to a 40-case adversarial suite that included various evasion techniques, indirect harm, multilingual attacks, and policy-priority conflicts. The results were devastating:

  • Exact Label Match: 0.950
  • Unsafe Allow: 0.000
  • Harmful Miss: 0.000
  • Benign Block: — (Not applicable)

The Transfer Deficit: Phase 40

To see if adversarial robustness could be learned by the E8 geometric head, we trained it on adversarial data while holding out one entire adversarial family at a time. While this helped in fitting the boundary for seen adversarial vectors, it failed to transfer to unseen ones:

  • Exact Label Match: 0.467 (Direct Head)
  • Unsafe Allow: 0.533
  • Harmful Miss: 0.533
  • Benign Block: — (Not applicable)

Key Takeaways

  • The hybrid rule layer significantly improved safety under adversarial conditions.
  • Direct geometric heads are not safe controllers and can leak unsafe allows.
  • Robustness to unseen adversarial strategies requires an additional, audited deterministic rule layer.



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Originally published at reddit.com. Curated by AI Maestro.

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