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66. Automated Strategy Evolution System

Overview

The Automated Strategy Evolution System enables machine-driven generation and optimization of trading strategies using genetic programming, hyperparameter search, and multi-objective optimization. Strategies evolve through generations, with each generation undergoing backtest evaluation, elite selection, crossover, and mutation—enabling continuous improvement and innovation.

Architecture & Module Breakdown

Module Description
Gene Pool Manager Manages strategy genes (structure/parameters)
Strategy Generator Randomly generates initial strategies
Strategy Evaluator Backtests and scores strategies
Evolution Engine Performs crossover, mutation, selection
Evolution Recorder Records evolution history and genealogy
API Start evolution tasks, view genealogy
Frontend Evolution dashboard and visualization

Microservice Directory

services/strategy-evolution-center/
├── src/
│   ├── main.py
│   ├── genepool/gene_manager.py
│   ├── generator/strategy_generator.py
│   ├── evaluator/strategy_evaluator.py
│   ├── evolution/evolution_engine.py
│   ├── recorder/evolution_recorder.py
│   ├── api/evolution_api.py
│   ├── config.py
│   └── requirements.txt
├── Dockerfile

Core Component Design

1. Gene Pool Manager

class GeneManager:
    def get_random_gene(self):
        return random_strategy_structure_and_parameters()

2. Strategy Generator

class StrategyGenerator:
    def generate_strategy(self):
        gene = gene_manager.get_random_gene()
        return build_strategy_from_gene(gene)

3. Strategy Evaluator

class StrategyEvaluator:
    def evaluate(self, strategy):
        results = backtest_strategy(strategy)
        score = compute_fitness_score(results)
        return score

4. Evolution Engine

class EvolutionEngine:
    def evolve(self, population):
        selected = select_top_k(population, k=20)
        next_generation = crossover_and_mutate(selected)
        return next_generation

5. Evolution Recorder

class EvolutionRecorder:
    def record_generation(self, generation_id, population_stats):
        save_to_db("evolution_history", generation_id=generation_id, stats=population_stats)

6. API Example

from fastapi import APIRouter

router = APIRouter()

@router.post("/evolution/start")
async def start_evolution_task(task_config: dict):
    return evolution_engine.start_new_task(task_config)

Frontend Integration

StrategyEvolutionView.tsx - Evolution progress chart (average score per generation) - Best strategy per generation - Genealogy tree (ancestor/descendant relationships) - Gene mutation visualization

Implementation Roadmap

  • Phase 1: Core gene pool, generator, evaluator, and API
  • Phase 2: Evolution engine, recorder, and frontend dashboard
  • Phase 3: Co-evolution, ML-guided evolution, advanced visualization

System Integration

  • Integrates with backtest engine for evaluation
  • Supports launching and monitoring evolution experiments
  • Provides genealogy and mutation history for research

Business & Technical Value

  • Innovation: Machine-driven discovery of novel strategies
  • Performance: Continuous optimization for returns, Sharpe, drawdown
  • Scalability: Supports millions of strategies and generations
  • Transparency: Full genealogy and evolution history
  • Competitive Edge: AI-powered, self-improving quant research