📚 Complete documentation reorganization: 🗂️ Structure: - docs/global/ → Complete project documentation (all original files) - docs/engines/ → 10 engine-specific docs with focused responsibilities - docs/serveur/ → Server coordinator and inter-engine communication - docs/client/ → Smart Client interface and user experience 🔧 Engine Documentation: - Designer: Vehicle design with AI assistance (1-2 designs/tick) - Economy: Market simulation and dynamic pricing - Event: Breakthrough system and global events - Factory: Factorio-like production with belts/assemblers - Intelligence: Metrics collection (3.1GB adaptive) + reconnaissance - Logistic: Supply chains and convoy management - MacroEntity: Companies, diplomacy, administration (1000 pts/day) - Map: Procedural generation (218+ elements) + chunk streaming - Operation: Military strategy and adaptive AI generals - War: Multi-chunk combat and persistent frontlines 📋 Each engine doc includes: - Core responsibilities and system overview - Key mechanics from relevant design documents - Communication patterns with other engines - Implementation notes and architecture details 🎯 Navigation optimized for: - Engine developers (focused system details) - System architects (coordination patterns) - Game designers (mechanics integration) 🤖 Generated with [Claude Code](https://claude.ai/code) Co-Authored-By: Claude <noreply@anthropic.com>
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Operation-Engine Documentation
Engine Overview
Operation-Engine handles military strategy, adaptive AI generals with machine learning, and strategic decision-making.
Key Responsibilities:
- Strategic planning and AI generals with ML adaptation
- Military doctrine evolution through learning
- Battle analysis and strategy optimization
- Operational coordination across multiple engagements
Core Systems
AI General System
From architecture-technique.md:
- Machine Learning Adaptation: AI generals learn from battle results
- Behavioral Evolution: Strategies adapt based on success/failure patterns
- Personality Systems: Distinct AI general characteristics and preferences
- Performance Tracking: Success metrics and learning algorithms
Strategic Planning
From systeme-militaire.md:
- Operation Coordination: Multi-battle strategic campaigns
- Resource Allocation: Strategic asset distribution
- Timing Coordination: Synchronized multi-front operations
- Contingency Planning: Alternative strategies and fallback plans
Doctrine Evolution
- Learning from Results: Battle outcomes inform strategic adjustments
- Company Doctrines: Faction-specific strategic preferences
- Adaptive Strategies: Dynamic response to enemy tactics
- Knowledge Transfer: Successful strategies spread between AI generals
Engine Architecture
Core Classes
class OperationEngine {
// Strategic planning and AI generals with ML
void createOperation(const std::string& operationId, const std::string& type);
void assignGeneral(const std::string& operationId, std::unique_ptr<AIGeneral> general);
void adaptBehaviorFromResults(const std::string& generalId, bool success);
// Doctrine evolution (learning from successes/failures)
void updateDoctrine(const std::string& companyId, const std::string& lessons);
void analyzeBattleReports(const std::vector<std::string>& reports);
};
Communication with Other Engines
- War-Engine: Receives battle results for learning and strategy adaptation
- Intelligence-Engine: Strategic intelligence and reconnaissance coordination
- MacroEntity-Engine: Company-level strategic goals and doctrine preferences
- Designer-Engine: Vehicle design requirements based on strategic needs
- Logistic-Engine: Strategic supply chain and operational logistics
Key Design Documents
systeme-militaire.md- Military strategic systemsarchitecture-technique.md- AI general ML specificationsmecaniques-jeu.md- Doctrine evolution mechanicscoherence-problem.md- Strategic AI balance considerations
Implementation Notes
- AI generals use machine learning to adapt strategies
- Battle reports provide data for strategic learning
- Doctrine evolution creates dynamic strategic environments
- Multi-operation coordination requires sophisticated planning algorithms