acellera-openmm-torch-cuda-13

Your task is to create a mini-application that simulates molecular dynamics using the 'acellera-openmm-torch-cuda-13' package. This package combines the power of OpenMM for molecular simulation with PyTorch for GPU-accelerated computing, making it ideal for high-performance molecular dynamics simulations.

### Project Overview:
Create a simple GUI-based application where users can input basic parameters such as temperature, pressure, and simulation time, and visualize the resulting molecular dynamics simulation. The application will leverage the 'acellera-openmm-torch-cuda-13' package to perform the simulations efficiently on a CUDA-enabled GPU.

### Core Features:
1. **Parameter Input:** Users should be able to specify initial conditions like temperature, pressure, and simulation duration.
2. **Molecular Dynamics Simulation:** Utilize 'acellera-openmm-torch-cuda-13' to run molecular dynamics simulations based on user inputs.
3. **Visualization:** Implement a real-time visualization component that allows users to see the molecular system evolve over time.
4. **Result Export:** Provide an option for users to export the final state of the simulation as a data file or image.
5. **Performance Metrics:** Display performance metrics such as simulation speed and computational efficiency.

### Implementation Steps:
1. **Setup Environment:** Ensure your development environment supports Python and has 'acellera-openmm-torch-cuda-13' installed. Additionally, include necessary libraries for GUI creation and data visualization.
2. **Design User Interface:** Design a simple, intuitive GUI using a framework like PyQt or Tkinter.
3. **Integrate Simulation Logic:** Use 'acellera-openmm-torch-cuda-13' to handle the molecular dynamics calculations. Focus on optimizing the use of CUDA for parallel processing.
4. **Implement Visualization:** Create a visualization module that updates in real-time during the simulation process. Consider using Matplotlib or similar tools for plotting.
5. **Add Export Functionality:** Allow users to save the results of their simulations in formats like CSV or PNG.
6. **Optimize and Test:** Optimize the application for performance and thoroughly test it to ensure accuracy and reliability.
7. **Documentation:** Write comprehensive documentation detailing how to install and use the application, including any dependencies and setup instructions.

### Additional Suggestions:
- Incorporate error handling and validation for user inputs to prevent crashes or incorrect simulations.
- Explore ways to extend the application by adding support for different types of molecular systems or more advanced simulation techniques.
- Consider implementing a feature that allows users to load predefined molecular structures for simulations.