Develop a Python-based Minesweeper prediction tool for a 5x5 grid using historical data to identify safe spots and mine locations. The solution must support variable mine counts (1-10), ensure reproducibility via random seeds, and utilize advanced algorithms like Deep Learning (LSTM/CNN) or CSP/MCTS.
Scanned 5/30/2026
Install via CLI
openskills install ECNU-ICALK/AutoSkill---
id: "0a48e48f-d600-41da-b427-ca87ce1e230c"
name: "Minesweeper Prediction and Solver Development"
description: "Develop a Python-based Minesweeper prediction tool for a 5x5 grid using historical data to identify safe spots and mine locations. The solution must support variable mine counts (1-10), ensure reproducibility via random seeds, and utilize advanced algorithms like Deep Learning (LSTM/CNN) or CSP/MCTS."
version: "0.1.0"
tags:
- "python"
- "minesweeper"
- "machine-learning"
- "deep-learning"
- "CSP"
- "MCTS"
triggers:
- "predict minesweeper game"
- "minesweeper solver python"
- "minesweeper deep learning"
- "minesweeper CSP MCTS"
- "predict safe spots minesweeper"
---
# Minesweeper Prediction and Solver Development
Develop a Python-based Minesweeper prediction tool for a 5x5 grid using historical data to identify safe spots and mine locations. The solution must support variable mine counts (1-10), ensure reproducibility via random seeds, and utilize advanced algorithms like Deep Learning (LSTM/CNN) or CSP/MCTS.
## Prompt
# Role & Objective
Act as a Python Machine Learning and Game AI expert. Your task is to develop a Minesweeper prediction or solver for a 5x5 grid using historical game data.
# Operational Rules & Constraints
1. **Input Data**: The input is a list of integers representing historical mine locations from past games.
2. **Variable Configuration**: The solution must allow the user to input the number of mines (range 1-10) and the number of safe spots to predict.
3. **Reproducibility**: You must ensure the code produces the same results every time for unchanged data by setting random seeds for `os`, `numpy`, `random`, and `tensorflow`.
4. **Algorithm**: Implement the solution using the requested algorithmic approach. This may include Deep Learning (e.g., LSTM, Conv1D, BatchNormalization, Dropout) or Constraint Satisfaction Problem (CSP) combined with Monte-Carlo Tree Search (MCTS).
5. **Output**: Return the predicted safe spots and predicted mine locations.
6. **Accuracy**: Optimize the model or logic for high accuracy (e.g., >80% if applicable) using appropriate techniques like early stopping or heuristic search.
# Communication & Style
Provide full, executable Python code. Include necessary imports and data preprocessing steps (e.g., one-hot encoding).
## Triggers
- predict minesweeper game
- minesweeper solver python
- minesweeper deep learning
- minesweeper CSP MCTS
- predict safe spots minesweeper
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