Architecture - ShanalDivyansh/VisionBiofeedback GitHub Wiki
Solution Overview
Our proposed solution, Vision-Biofeedback, is an innovative application designed to revolutionize the exercise experience by integrating real-time biofeedback using DeepLabCut technology.
Application Type:
Vision-Biofeedback is a software application that utilizes DeepLabCut's markerless pose estimation technology to track specific points on the human body during exercise. It operates as a standalone application and has a future possibility to be integrated into existing fitness platforms and applications.
Hosting:
The application for individual users can be installed locally on their computer, providing them with personalized biofeedback during exercise sessions.
Types of Users:
Vision-Biofeedback caters to two primary user groups:
Fitness Enthusiasts: Individuals who are passionate about fitness and seek advanced training techniques to enhance their exercise routines. Physical Therapists: Vision-Biofeedback enables physical therapists to monitor patients' movements in real-time, ensuring they perform exercises correctly and safely during rehabilitation sessions.
Interface:
The application features an intuitive and user-friendly interface designed to provide users with easy access to biofeedback and exercise guidance. Users can view real-time visualizations of their movements, track their progress over time.
Key Features:
Real-time Point Tracking: Utilizing DeepLabCut technology, Vision-Biofeedback offers instantaneous tracking of key points on the body during exercise, ensuring precise movement analysis.
Biofeedback Visualization: The application provides users with visualizations of their biofeedback, helping them understand and improve their exercise form.
Virtual Trainer Integration: Vision-Biofeedback integrates a virtual trainer feature that guides users through exercises.
Technology Stack
DeepLabCut: A state-of-the-art toolbox for markerless pose estimation. Python: Used for backend development, integration with DeepLabCut, and creating the desktop application. OpenCV: OpenCV provides tools for gesture recognition, which you can explore for recognizing specific exercise movements or gestures. GUI Framework (Tkinter): For building the desktop application's graphical user interface.
Solution Diagram
Non-Functional Requirements
Performance: The system should provide real-time feedback without significant delays. Usability: The interface should be user-friendly, allowing easy navigation and interaction. Reliability: The system must be reliable, with minimal downtime and accurate workout tracking. Scalability: It should support an increasing number of users and data volume without degradation in performance. Security: User data, including health and workout information, must be securely stored and transmitted. Interoperability: The ability of the system to work seamlessly with other systems, exchanging and utilizing information between different platforms or services.