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Last Updated (UTC): 2026-09-27T05:00:00Z
Status: Complete — All analyses delivered and verified
Current Focus: Critical verification finding: per-graph asyncio.Lock is the ACTUAL bottleneck (not thread pool size)
1) Request & Context
Original request: Analyze DeepResearchForecast codebase to identify ALL performance bottlenecks for high-throughput event-based AI quant trading system
Secondary request: Map ALL external integrations, data flow boundaries, MCP servers, and cross-system communication patterns relevant to building an event-based AI quant trading system
Operational constraints: Reference run pipe_f23527f7d903 took 13h57m with GRAPH occupying 8h37m (62%), ~150M tokens per run
Extract token/time distribution data → PERFORMANCE_BOTTLENECKS.md
Read all integration source files (deerflow_bridge, MCP servers, API layer, LLM infra, frontend, DB, config)
Search for WebSocket/SSE, Polymarket, Firecrawl, Graphiti/FalkorDB, Zep references across entire codebase
Produce EXTERNAL_INTEGRATIONS_MAP.md (16 sections)
Identify 10 critical gaps for live trading
Update handoff.md
5) Findings, Decisions, Assumptions
Performance Analysis Key Findings
GRAPH stage is 62% of pipeline time (8h37m/14h). Largest optimization: fixing per-graph asyncio.Lock serialization that defeats GRAPH_BUILD_CONCURRENCY=4
Metering blind spots (FOG-TEL-1) mean ~unknown fraction of 150M tokens are unaccounted for
Provider outage grind: 231 errors/min × 26h during outages
External Integrations Key Findings
System is completely poll-based — no WebSockets, no SSE, no streaming anywhere
Polymarket integration is keyless read-only — no write/order execution capability
9 LLM providers supported via dual CLI + SDK paths
4 fetch providers with graceful fallback chain (Firecrawl → Jina → Exa → Direct HTTP)
SQLite for budget ledgers, embedded falkordblite for graph storage, file system for everything else
2 stdio MCP servers (kg_server, sim_server) lazily initialized, never hang the protocol
10 critical gaps for live trading: no real-time data, no write exchange API, no WebSocket, no message queue, no risk management, no alerting, no time-series DB, no wallet layer, no compliance/audit, no monitoring dashboard
6) Issues, Mistakes, Recoveries
Performance analysis: Initial handoff.md was a project template. All data extracted from source code comments, config, and forensic audit references.
Integration mapping: System architecture is heavily file-based with no streaming infrastructure — major refactor needed for live trading.
7) Scenario-Focused Resolution Tests
Graph stage 8h37m → target 2-3h: Per-graph asyncio.Lock at runtime.py lines 493, 1123 is the ACTUAL bottleneck (verified). The 64-worker pool (GRAPH_LLM_EXECUTOR_WORKERS=64) is confirmed wired but doesn't help without relaxing the lock. Fix: entity-level locking or accept single-graph serialization + parallelize multiple graphs.
GRAPH_LLM_EXECUTOR_WORKERS=64 verification: VERIFIED wired through (llm_adapter.py lines 59-78, 150; config.py line 1192; contextvars.copy_context() at lines 168-171). Pool provides headroom but per-graph lock serializes all episodes on the same graph.
Integration files read: 30+ source files across 8 areas
Performance bottlenecks: 11 major categories, 50+ quantitative data points
Integration sections: 16 comprehensive sections covering all external boundaries
Live trading gaps: 10 critical gaps with specific remediation paths
GRAPH_LLM_EXECUTOR_WORKERS=64: VERIFIED wired through (llm_adapter.py lines 59-78, 150; config.py line 1192; runtime.py line 396). NOT the bottleneck — the per-graph asyncio.Lock at runtime.py lines 493, 1123 is.
Per-graph asyncio.Lock: Confirmed as the single largest concurrency limiter. add_episodes_concurrent holds the lock across the entire fan-out. Code explicitly warns to keep GRAPH_BUILD_CONCURRENCY=1 unless duplicates acceptable (line 1087-1088).
9) Remaining Work & Next Steps
Immediate (code changes)
[VERIFIED] GRAPH_LLM_EXECUTOR_WORKERS=64 is confirmed wired through to graphiti runtime (llm_adapter.py lines 59-78, 150; config.py line 1192; contextvars.copy_context() at lines 168-171). The pool provides headroom but does NOT solve the bottleneck.
[KEY FINDING] The per-graph asyncio.Lock at runtime.py lines 493 and 1123 is the ACTUAL remaining bottleneck — it serializes all episodes on the same graph regardless of thread pool size. add_episodes_concurrent holds the lock across the entire asyncio.gather fan-out.
Relax the per-graph lock to allow concurrent writes for non-conflicting entity names, or implement fine-grained locking at the entity-name level instead of the graph level
Implement cross-process LLM caching (disk-based) for recurring event patterns
Replace SQLite budget ledger with Redis for high-concurrency scenarios
2026-09-27: Created — Exhaustive performance analysis of DeepResearchForecast codebase. All 11 requirement areas addressed with quantitative metrics.
2026-09-27: Verified — GRAPH_LLM_EXECUTOR_WORKERS=64 confirmed wired through (llm_adapter.py lines 59-78, 150; config.py line 1192; contextvars.copy_context() at lines 168-171). Per-graph asyncio.Lock at runtime.py lines 493, 1123 confirmed as the ACTUAL remaining bottleneck. Updated PERFORMANCE_BOTTLENECKS.md Root Cause #1 and section 12c with verified findings.