Block:admin/gonka-optimizer
@admin / gonka-optimizermission
Gonka Optimizer
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Starting mission gonka-optimizer…
==> Gonka-optimizer mission tick starting
==> Goal: Production-harden the tiered guardrail program through benchmarked prototypes: validate CUDA Graph async-overlap and zer
==> Swarm tick starting. KB: {'entities': 308, 'relations': 0}
── Phase 1: Director
── Phase 2: Scouts
2. Latency-bounded approximate
1. CUDA Graph capture with async zero-copy pinned-host KV cache eviction for deterministic 64k–128k context SLAs across 24 GB consumer and datacenter tiers
Focus: FOCUS AREAS:
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── Phase 3: Synthesizer
── Phase 4: Critic
── Phase 5: Curator
── Phase 6: Reporter
Findings: 1, Hypotheses: 4
── Phase 7: Director-meta
==> Tick complete. Findings: 1, Hypotheses: 4
==> Tick complete.
Outputs
{
"result": " This tick investigated three mainnet-critical paths: deterministic KV cache eviction for 64k–128k context inference on 24 GB GPUs, a latency-bounded Nucleolus slashing oracle, and adversarial coalition-bot resistance via imperfect-information game equilibria. The most actionable discovery is that the slashing oracle can be implemented as a single-shot, non-zero-constrained convex Nucleolus approximation executed entirely on-GPU, replacing iterative CPU-side constraint generation. By fusing this computation into the existing CUDA Graph stream, Gonka can hard-cap slashing resolution at 50–100 ms, removing the last non-deterministic host solver from the inference hot path.\n\nAdoption complexity is moderate and shares infrastructure with the inference optimization track. Prerequisites are (1) completing the CUDA Graph capture path for async zero-copy pinned-host KV cache eviction, which provides the deterministic launch infrastructure; (2) porting the non-zero-constrained convex program to a lightweight GPU solver such as cuOSQP or a custom projected-Newton kernel that reads stake-weighted characteristic functions from device memory; and (3) consensus-hardening numerical tolerances so that consumer and datacenter GPUs produce agreeing slashing allocations rather than divergent floating-point results.\n\nEvidence quality sits at the theoretical-to-modeled tier. The Nucleolus computation paper supplies a polynomial convergence bound for the non-zero-constrained formulation, and we have mapped those bounds to Ampere/Ada Lovelace operation counts to derive the <100 ms ceiling. Silicon benchmarks do not yet exist; the latency claim is an estimate. The collusion-detection market features and equilibrium-approximation primitives from the match-fixing and poker-skill literature have been encoded as testnet hypotheses but remain unvalidated against live adversarial agents.\n\nOutstanding unknowns center on adversarial robustness and cross-tier numerical consensus. We do not yet know whether malicious stake distributions can force the solver into worst-case iterations that breach the 100 ms SLA, or whether GPU architecture differences will cause materially different Nucleolus allocations. Next tick, the swarm will benchmark the solver on RTX 4090 and A100 traces, run coalition-bot simulations that exploit imperfect-information game structures and in-play market anomalies, and verify that the CUDA Graph KV cache path maintains determinism under 128k-context eviction pressure.\n\nOverall confidence in the direction is high. The decision to deprioritize dual-stream semantic negotiation graphs and generic AI augmentation frameworks was correct—they lack measurable pathways to inference throughput or Byzantine fault tolerance. By concentrating on the exact algorithmic primitives needed for sub-100 ms inference and coalition-resistant slashing, Gonka is addressing the true mainnet critical path. If the upcoming GPU benchmark validates the modeled latency ceiling, the protocol can freeze the slashing oracle specification and shift to production adversarial hardening.",
"items_processed": 0,
"findings": 1,
"hypotheses": 4
}Inference calls6