Polymarket Paired Arbitrage Workflow
CONCEPT:EE-011
Scans contract books across Polymarket and other event platforms to identify correlated price anomalies, simulates execution impact, and routes arbitrage trades.
Steps
Step 1: Paired Market Scanner
Agent: data-fetcher
Tools: graph_query, sx_search
Scans contract books across Polymarket and other event platforms to identify correlated price anomalies.
Expected: arbitrage-opportunities
Step 2: Order Book Simulator [depends_on: paired-market-scanner]
Agent: compute-engine
Tools: graph_analyze
Simulates liquidity, bid-ask spreads, and execution impact to verify arbitrage feasibility.
Expected: simulated-execution-impacts
Step 3: Risk Margin Calculator [depends_on: paired-market-scanner]
Agent: risk-assessor
Tools: graph_query, graph_analyze
Audits margin utilization limits, collateral safety, and maximum drawdown risk.
Expected: margin-safety-bounds
Step 4: Trade Execution Engine [depends_on: order-book-simulator, risk-margin-calculator]
Agent: report-generator
Tools: graph_write, document_tools
Executes execution orders across exchange endpoints and records trades.
Expected: arbitrage-execution-receipts
Step 5: KG Persistence [depends_on: trade-execution-engine]
Agent: report-generator
Tools: graph_write
Persist workflow results as nodes and edges in the Knowledge Graph. Create appropriate typed nodes with metadata and link to existing domain entities.
Output
- Polymarket Paired Arbitrage results persisted in KG
- Structured report (MD/PDF)
- Audit trail with timestamps and agent attributions
Execution
Run this workflow as a dependency-ordered DAG. Steps with no unmet depends_on run in parallel; dependents run after their prerequisites complete.
- Run first (in parallel): Step 1 — Paired Market Scanner
- After level 0: Step 2 — Order Book Simulator; Step 3 — Risk Margin Calculator
- After level 1: Step 4 — Trade Execution Engine
- After level 2: Step 5 — KG Persistence
Execution: If graph-os is reachable, offload the whole DAG via graph_orchestrate action=execute_workflow (or the kg-delegate skill) for true parallel/swarm execution. Otherwise execute the steps natively in dependency order: run steps with no unmet depends_on in parallel, then their dependents.