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CGS Tech is a next-generation Quant-AI trading framework that combines rigorous mathematics with explainable AI to deliver fast, transparent, and production-ready trading strategies.

At its core is CGS Engine — a multi-agent AI trading system coordinating thousands of specialized bots, each following disciplined, parameter-driven strategies. This architecture captures opportunities across shifting markets with precision, adaptability, and robust risk management—without relying on high-frequency trading.

Powered by Python for advanced modeling, PostgreSQL for data management, and specialized high-performance components, our modular, scalable infrastructure supports the full trading lifecycle—from research and testing to real-time execution and performance monitoring.


Key Highlights


Table of Contents

Key Capabilities

Unified Quant-AI Trading Framework

Bridging Technical Analysis with Intelligent Backtesting

No Training — Just Smart Math and Adaptive Evaluation

Additional Capabilities

Features

Prerequisites

Before installing CGS, ensure you have the following prerequisites:

macOS

# Install Homebrew if you haven't already
/bin/bash -c "$(curl -fsSL https://raw.githubusercontent.com/Homebrew/install/HEAD/install.sh)"

# Install TA-Lib
brew install ta-lib

# Install Node.js (required for mermaid-filter)
brew install node

# Install mermaid-filter globally
npm install --global mermaid-filter

Linux (Ubuntu/Debian)

# Install TA-Lib dependencies
wget http://prdownloads.sourceforge.net/ta-lib/ta-lib-0.4.0-src.tar.gz
tar -xvf ta-lib-0.4.0-src.tar.gz
cd ta-lib/
./configure --prefix=/usr
make
sudo make install

# Install Node.js and npm
curl -fsSL https://deb.nodesource.com/setup_lts.x | sudo -E bash -
sudo apt-get install -y nodejs

# Install mermaid-filter globally
sudo npm install --global mermaid-filter

Installation

# Clone the repository
git clone https://github.com/yourusername/cgs.git
cd cgs

# Create and activate a virtual environment
python -m venv venv
source venv/bin/activate  # On Windows, use: venv\Scripts\activate

# Install dependencies
pip install -e .

Configuration

  1. Set up the cron job for automated updates:
    crontab -e
    
  2. Add your Binance API credentials to .env:
    api_key="your_binance_api_key"
    secret_key="your_binance_secret_key"
    

System Structure

The CGS framework is built on a modular, scalable architecture that integrates multiple components for comprehensive trading operations.

Core Components

  1. Data Processing Layer
    • Market data collection and processing
    • Real-time data streaming
    • Historical data management
    • Data validation and cleaning
  2. Analysis Layer
    • Technical indicator calculation
    • Pattern recognition
    • Market regime detection
    • Signal generation
  3. Strategy Layer
    • Strategy development framework
    • Backtesting engine
    • Performance analytics
    • Risk management
  4. Execution Layer
    • Order management
    • Position tracking
    • Risk controls
    • Performance monitoring

Data Flow Architecture

Data Flow Architecture

Integration Points

  1. External Systems
    • Exchange APIs
    • Data providers
    • News feeds
    • Market sentiment sources
  2. Internal Systems
    • Database management
    • Logging and monitoring
    • Performance analytics
    • Risk management
  3. User Interfaces
    • Web dashboard
    • Command-line tools
    • API endpoints
    • Monitoring interfaces

System Operations

The system operations encompass the core workflows and processes that drive the trading system.

Data Management

  1. Data Collection
    • Real-time market data
    • Historical price data
    • Order book data
    • Trading volume data
  2. Data Processing
    • Data cleaning and validation
    • Feature engineering
    • Technical indicator calculation
    • Market regime classification
  3. Data Storage
    • Time-series database
    • Feature store
    • Model registry
    • Performance metrics

Trading Operations

  1. Signal Generation
    • Technical analysis
    • Pattern recognition
    • Machine learning models
    • Multi-timeframe analysis
  2. Order Execution
    • Smart order routing
    • Transaction cost analysis
    • Execution algorithms
    • Position management
  3. Risk Management
    • Position limits
    • Exposure monitoring
    • Stop-loss management
    • Portfolio hedging

System Monitoring

  1. Performance Tracking
    • Real-time P&L monitoring
    • Risk metrics calculation
    • Strategy performance
    • System health checks
  2. Alert System
    • Risk limit breaches
    • System anomalies
    • Performance deviations
    • Technical issues

Key Workflows

Trading System Workflow

Backtesting Engine

The CGS framework includes a powerful backtesting engine that combines traditional strategy testing with advanced AI/ML capabilities. This hybrid approach allows for both mathematical model validation and intelligent pattern analysis to optimize trading strategies.

Core Principles

The backtesting engine embodies the three core principles of the CGS framework:

  1. Unified Quant-AI Approach
    • Mathematical models and AI techniques work together in the same evaluation pipeline
    • Strategies can leverage pure quantitative logic, AI-assisted analytics, or any combination
    • Results from different approaches can be directly compared within the same framework
  2. Intelligent, Data-Aware Testing
    • Automatic detection and segmentation of different market regimes
    • Contextual evaluation of strategy performance based on market conditions
    • Adaptive parameter adjustment during backtesting to optimize for specific market scenarios
  3. Smart Math Over Training
    • Robust mathematical optimization techniques instead of resource-intensive model training
    • Immediate strategy refinement through intelligent parameter exploration
    • Transparent, explainable results without black-box decision processes

Deep Reinforcement Learning

  1. Deep Q-Network (DQN) Implementation
    • Neural network architecture:
      • Input layer: 7-dimensional state space
      • Hidden layers: 64 and 32 neurons with ReLU activation
      • Output layer: Action space dimension
    • Advanced RL features:
      • Experience replay buffer (10,000 transitions)
      • Target network for stable learning
      • Batch training (32 samples)
      • Adaptive exploration with epsilon-greedy policy
    • State representation:
      • Technical indicators (RSI, MACD, Bollinger Bands)
      • Position information
      • Historical performance metrics
      • Normalized reward signals

    Train-Test Performance Comparison with Buy & Hold

  2. Training Methodology
    • No pre-training required - learns from live market interactions
    • Continuous learning and adaptation to market conditions
    • Periodic target network updates for stability
    • Automatic model checkpointing and loading
  3. Performance Features
    • Real-time inference for trading decisions
    • GPU acceleration support when available
    • Memory-efficient experience replay
    • Comprehensive reward shaping based on:
      • Trade profitability
      • Risk-adjusted returns
      • Position holding costs
  4. Integration with vectorbt
    • Seamless backtesting integration
    • Performance visualization and analytics
    • Trade execution and portfolio management
    • Risk metrics calculation and monitoring

Explainable AI (XAI)

  1. Feature Importance Analysis
    • Identification of key parameters affecting strategy performance
    • Quantitative impact measurement of each feature
    • Ranking of technical indicators by importance Feature Importance for Sharpe Ratio
  2. SHAP (SHapley Additive exPlanations)
    • Detailed contribution analysis of each parameter
    • Individual feature impact quantification
    • Complex interaction understanding Mean SHAP Value for Sharpe Ratio SHAP Summary Beeswarm Plot SHAP Decision Plot for Sharpe Ratio
  3. Parameter Interaction Analysis
    • Deep dive into feature relationships
    • Cross-parameter effect measurement
    • Optimization guidance through interaction understanding Parameter Interaction Parameter Interaction Heatmap
  4. Detailed Parameter Analysis
    • Force plots for specific combinations
    • Individual decision explanation
    • Strategy behavior interpretation Force Plot for Parameter Combination 1 Force Plot for Parameter Combination 2 Force Plot for Parameter Combination 3
  5. Optimal Parameter Selection
    • Best combination identification
    • Performance attribution
    • Robustness analysis Top Combination for Sharpe Ratio in the Parameter Space
  6. Key Benefits
    • Overfitting prevention through transparency
    • Parameter sensitivity understanding
    • Focused optimization guidance
    • Clear strategy behavior explanation
    • Market adaptation insights

Bridging to Production

  1. Parameter Validation and Optimization
    • Comprehensive parameter space exploration
    • Multi-objective optimization considering:
      • Risk-adjusted returns
      • Transaction costs
      • Market impact
      • Execution feasibility
    • Robust parameter sets identification Backtest Parameter Optimization Analysis
  2. Market Regime Analysis
    • Automatic regime detection and classification
    • Strategy performance evaluation across different regimes
    • Adaptive parameter adjustment based on market conditions
    • Real-time regime monitoring and strategy adjustment Market Regime Performance Analysis
  3. Production Readiness Checks
    • Liquidity requirements validation
    • Transaction cost analysis
    • Risk limit compliance verification
    • Technical infrastructure requirements
    • Failsafe mechanism testing

Execution Engine

The CGS Execution Engine provides a robust framework for managing trade execution, risk controls, and position management in real-time trading environments.

Order Management

Risk Controls

Position Management

Performance Monitoring

Multi-Agent Trading System

The CGS framework implements an advanced multi-agent trading system that combines multiple specialized trading bots working in concert to achieve optimal trading performance while maintaining controlled risk exposure.

System Scale and Operation

Trading Cycle Algorithm

Each robo-trader follows a sophisticated 5-step trading cycle:

  1. Initial Operation
    • Search for equilibrium signals while in standby mode
    • Monitor market conditions continuously
    • Process real-time market data
  2. Equilibrium Signal Capture
    • Detect and validate equilibrium signals
    • Maintain standby state while preparing for potential trades
    • Preserve current market state information
  3. Preliminary Signal Betting
    • Place initial positions when uptrend/downtrend signals are confirmed
    • Execute trades based on trigger conditions
    • Monitor signal strength and validity
  4. Post-Analysis and Signal Confirmation
    • Evaluate signal authenticity for true uptrend/downtrend patterns
    • Decision making:
      • If signal confirmed: Maintain current betting position
      • If signal invalid:
        • Execute loss-cutting procedure
        • Process market noise data
        • Recalibrate for next preliminary signal
        • Return to steps 3-4 for new signals
  5. Position Management
    • Hold betting positions until new equilibrium signal emerges
    • Close positions for profit when next equilibrium signal appears
    • Return to step 2 to restart the cycle

Agent Architecture

Coordination Framework

Risk Management

System Integration

Key Advantages

Best Practices

License

Copyright (C) 2025 CGS Engine Quants, All Rights Reserved

Contact

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