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Description:
This issue focuses on building the standalone GUI app that allows users to play against the chess engine. Unlike the broader goals outlined in the parent issue (#34), this issue will concentrate solely on the implementation details required to develop the GUI application. Testing, usability validation, and other broader aspects will be addressed in the parent issue.
The GUI design will draw inspiration from the ChessHeatMapApp class in main.py. However, many features of main.py are unnecessary for this standalone app. Specifically:
The visualization of heatmaps on the chessboard will be omitted, as the pick_move method of the engine is computationally expensive (especially at high depths).
Features such as tooltips and heatmap-specific functionalities will not be included.
Key Objectives:
Design the GUI Framework:
Create a new class that extends tk.Tk and serves as the foundation for the application.
Implement a clean and intuitive interface that allows users to play against the engine.
Core Features to Implement:
A chessboard display with interactive capabilities for user moves.
Basic game controls, such as starting a new game, resetting the board, and undoing moves.
Support for CMHMEngine and CMHMEngine2 for move calculations.
Options for users to configure engine depth and player color.
Simplify the Scope:
Focus solely on gameplay functionality without additional visualizations or performance metrics.
Avoid features like heatmap rendering, tooltips, or move intensity labels.
Leverage Existing Code:
Use main.py as a model for constructing the GUI, adapting its board rendering logic and event handling where applicable.
Ensure compatibility with the existing chess engine API for move selection and game state management.
TODOs:
Show legal move indicators for a selected piece (e.g., dots or rings on valid destination squares).
Highlight the currently hovered square (e.g., subtle glow or border).
Draw an arrow or line from the selected square to its target when a move is selected or hovered.
Display move annotations based on evaluation scores (e.g., “?!” for dubious moves, “!!” for brilliant ones).
Add a heatmap overlay indicating potential move desirability or learned Q-values (e.g., from your CMHMEngine2).
Show an evaluation bar (white/black balance) to indicate advantage at a glance.
Display net material imbalance (e.g., mini scoreboard or difference bar).
Show search depth (e.g., “searching depth 5”) while the engine is computing.
Show the best move found so far in real-time while the engine is thinking.
Add an evaluation trendline or small Q-value graph over recent moves.
Display square labels (a–h along files, 1–8 along ranks) on board edges.
Standalone GUI App Development
Description:
This issue focuses on building the standalone GUI app that allows users to play against the chess engine. Unlike the broader goals outlined in the parent issue (#34), this issue will concentrate solely on the implementation details required to develop the GUI application. Testing, usability validation, and other broader aspects will be addressed in the parent issue.
The GUI design will draw inspiration from the
ChessHeatMapAppclass inmain.py. However, many features ofmain.pyare unnecessary for this standalone app. Specifically:pick_movemethod of the engine is computationally expensive (especially at high depths).Key Objectives:
Design the GUI Framework:
tk.Tkand serves as the foundation for the application.Core Features to Implement:
CMHMEngineandCMHMEngine2for move calculations.Simplify the Scope:
Leverage Existing Code:
main.pyas a model for constructing the GUI, adapting its board rendering logic and event handling where applicable.TODOs:
References:
main.py.play.py.