ABS Core v4.0.0

ABS Core Performance Benchmarks (Verified)

ABS Core Performance Benchmarks (Verified)

Last Updated: March 12, 2026
Environment: Production deployment (O-Bot platform)
Methodology: Real-world measurements over 30 days, 350k+ requests


Executive Summary

ABS Core adds ~25ms governance overhead to AI agent tool calls.

For LLM operations averaging 800-2000ms, this represents 1-3% overhead in exchange for:

  • [OK] Cryptographic audit trail
  • [OK] Policy-based enforcement
  • [OK] Secret injection (JIT)
  • [OK] Identity verification

Latency Breakdown (Production)

Engine Core (WASM)

Component: Policy Evaluation Engine (Rust/WASM)
Measurement: Hot path execution only

Median (p50):    1.2ms
p95:             1.8ms  
p99:             2.4ms
Max observed:    4.1ms (cold start)

Throughput: ~12,500 evaluations/second (single core)

What this measures:

  • Policy rule matching (deterministic)
  • JSON parsing/validation
  • Hash computation (SHA-256)
  • Decision output (ALLOW/DENY/ESCALATE)

What this excludes:

  • Network I/O
  • Database writes (audit log)
  • Secret vault lookup
  • TLS handshake

Complete Governance Loop (End-to-End)

Component: Full ABS Core Gateway (production)
Measurement: Request in → Decision out + audit persisted

Median (p50):    23ms
p95:             38ms
p99:             52ms  
Max observed:    87ms (p99.9, database spike)

Throughput: ~850 governed requests/second (production load)

Latency components:

  1.2ms  - WASM policy engine
  3.5ms  - Request parsing + validation
  8.2ms  - Audit log write (PostgreSQL)
  4.8ms  - Secret vault lookup (Cloudflare KV)
  5.3ms  - Network overhead (sidecar → gateway)
-------
 ~23ms  Total (median)

Deployment Variations

Cloudflare Workers (Edge)

Median:  18ms
p95:     28ms

Benefit: Reduced network hops (edge-native)
Limitation: Cold starts (~40ms) on first request

Docker Sidecar (On-Premise)

Median:  25ms
p95:     42ms

Benefit: No cold starts
Limitation: Localhost network overhead

Kubernetes (Multi-Region)

Median:  30ms  
p95:     55ms

Benefit: High availability
Limitation: Cross-pod communication

Context: LLM Call Comparison

Typical LLM API latencies (GPT-4, Claude 3):

OpenAI GPT-4 Turbo:
  Median: ~1200ms (streaming start: ~400ms)
  
Anthropic Claude 3 Opus:
  Median: ~1800ms (streaming start: ~600ms)
  
OpenAI GPT-4o-mini:
  Median: ~600ms (streaming start: ~200ms)

ABS Core overhead as percentage:

GPT-4 Turbo:     23ms / 1200ms = 1.9% overhead
Claude 3 Opus:   23ms / 1800ms = 1.3% overhead  
GPT-4o-mini:     23ms / 600ms  = 3.8% overhead

Conclusion: Governance overhead is negligible compared to LLM latency.


Performance Optimization History

v1.0.0 (Initial Release)

  • Median: 62ms
  • p95: 98ms
  • Bottleneck: Synchronous database writes

v1.1.0 (PostgreSQL Optimization)

  • Median: 35ms (-43%)
  • p95: 58ms (-41%)
  • Fix: Async audit writes, connection pooling

v4.0.0 (Current - Edge Migration)

  • Median: 23ms (-34%)
  • p95: 38ms (-34%)
  • Fix: Migrated to Cloudflare D1, optimized WASM binary size

Roadmap (Q2 2026 - Target):

  • Median: <15ms
  • p95: <25ms
  • Planned: Native WASM deployment (remove JS shim), eBPF kernel hooks

How We Measure

Production Instrumentation

// Trace ID injected at gateway entry
const traceId = crypto.randomUUID();
const start = performance.now();

// Phase 1: Policy evaluation
const t1 = performance.now();
const decision = await policyEngine.evaluate(request);
const engineLatency = performance.now() - t1;

// Phase 2: Audit persistence  
const t2 = performance.now();
await auditLog.write({ traceId, decision });
const auditLatency = performance.now() - t2;

// Phase 3: Secret injection (if ALLOW)
const t3 = performance.now();
const secret = await vault.fetch(toolName);
const vaultLatency = performance.now() - t3;

const totalLatency = performance.now() - start;

// Export to metrics endpoint
await telemetry.record({
  traceId,
  totalLatency,
  engineLatency,
  auditLatency,
  vaultLatency
});

Metrics Aggregation

  • Tool: Prometheus + Grafana
  • Retention: 90 days rolling window
  • Sampling: 100% of production requests (O-Bot deployment)
  • Public Dashboard: https://metrics.abscore.app (coming Q2 2026)

Comparison with Alternatives

Baseline: No Governance

Direct LLM call (no ABS): 0ms overhead
Risk: No audit, no policy enforcement, secrets exposed

Alternative: Simple Reverse Proxy (nginx)

Median overhead: ~8ms
Capabilities: Routing only (no policy, no audit)

Alternative: Application-Level Logging

Median overhead: ~15ms (database write)
Capabilities: Post-hoc audit only (no enforcement)

ABS Core

Median overhead: 23ms
Capabilities: Real-time enforcement + audit + secrets + identity

Value proposition:
For +15ms over basic logging, you get proactive enforcement instead of reactive forensics.


SLA Commitment (Enterprise)

Production SLA (paid deployments):

p95 latency:  < 50ms  (guaranteed)
p99 latency:  < 100ms (target)
Availability: 99.9%   (uptime)

If SLA violated:

  • Monthly service credit (10% per hour of breach)
  • Incident root cause analysis (48h)
  • Performance optimization plan

Verification

Production Evidence:

  • O-Bot deployment: 350k+ requests over 30 days
  • Raw Prometheus [Link to sanitized export]
  • Grafana dashboard: [Screenshot in evidence/]

Independent Validation:

  • Security audit (Q2 2026): Third-party performance testing
  • Load testing: k6 scripts available in /evidence/benchmarks/

Reproduce locally:

cd /evidence/benchmarks/
./run_local_benchmark.sh

Honest Limitations

When ABS Core overhead matters:

  • Ultra-low-latency requirements (<100ms total)
  • High-frequency trading systems
  • Real-time voice/video agents
  • Embedded systems (resource-constrained)

When ABS Core overhead is negligible:

  • Standard LLM workflows (>500ms base latency)
  • Enterprise automation (human-in-loop)
  • Regulated industries (compliance > speed)
  • Asynchronous agent systems

Questions?

Technical details: [email protected]
Performance concerns: [email protected]
Benchmark data access: https://github.com/abs-core/benchmarks

Changelog:

  • 2026-03-12: Corrected all documentation to reflect production measurements
  • 2026-03-01: Added p99.9 data from O-Bot deployment
  • 2026-02-15: Initial performance whitepaper

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