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Case 062024AI Engineer & Frontend Developer

Chess Game Reinforcement Learning

Self-learning chess AI

Every chess match is a dialogue - a test of strategy, creativity, and learning. "Chess Game" isn't just a web-based app; it's a bold AI experiment that blends traditional gameplay with Deep-Q Learning to create an ever-evolving digital opponent.

PythonTensorFlowPyTorchReactWebSocketsChess.js
01

10,000+ self-play games

02

<200ms inference latency

03

5× faster learning compared to baseline

SnapshotAt a glance

AI Engineer & Frontend Developer

4 months

Outcomes

10,000+ self-play games

<200ms inference latency

5× faster learning compared to baseline

Technologies Used

6 Technologies Integrated

Python
TensorFlow
PyTorch
React
WebSockets
Chess.js

Impact

Key Features

Feature Implementation

5 Features
80%
Feature CoverageProject Scope

Project Vision

Create an AI that improves through play.

Core Process

The process of Developing it.

Experience replay, reward shaping, iterative training.

Build notesWhat I built

03
  1. Implemented a Deep-Q Learning reinforcement learning agent using TensorFlow and PyTorch that learns optimal chess strategies through self-play, training on 10,000+ games with experience replay and reward shaping techniques, achieving 5× faster learning efficiency compared to baseline approaches.

  2. Built a real-time chess gameplay system using React frontend and WebSockets for instant move communication, integrating Chess.js for game logic validation and move generation, enabling seamless human-AI interaction with adaptive difficulty that adjusts based on player skill level.

  3. Developed an intelligent move prediction system with optimized replay buffers and MCTS (Monte Carlo Tree Search) integration, reducing inference latency to under 200ms while maintaining strategic depth, creating an ever-evolving digital opponent that improves through each game played.

Inspiration
Exploring intelligence through strategic learning.

Features

  • Deep-Q Learning agent
  • Adaptive difficulty
  • Move prediction
  • Real-time gameplay
  • Learning from each game played

Challenges

  • Training stability
  • Real-time inference
  • Balancing difficulty progression
Solution

Optimized replay buffers and reward tuning with Deep-Q Networks and MCTS for move selection.

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