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dontslouch

Overview

The dontslouch project utilizes computer vision techniques and deep learning models to analyze a person's posture in real-time using a webcam feed. By estimating key body landmarks and extracting relevant features, the system determines whether the individual is slouching or maintaining proper posture. It provides immediate feedback on-screen and through console output, enabling applications in ergonomics, healthcare, and wellness tracking.

In healthcare, the posture detection system plays a crucial role in preventing and managing musculoskeletal disorders, which are often caused by poor posture. It fosters workplace ergonomics and overall employee health and productivity. This approach offers a proactive solution to support long-term well-being.

Features

  • Pose Estimation: MediaPipe captures and analyzes video feed from a webcam, detecting and tracking the body’s key-points (e.g., shoulders, nose) in real-time.

  • Data Collection and Preprocessing: Image data of both correct and slouching postures are collected and labeled to train the machine learning model. Key-points data are extracted and normalized.

  • Model Training: PyTorch is used to distinguish between slouching and correct postures based on key-points data. Cross-validation ensures the model's generalizability.

  • Integration: The trained model is integrated with the pose estimation pipeline, providing visual indicators or alerts to inform the user when slouching is detected.

  • Testing and Refinement: The system is tested under various conditions with different users to validate and refine the model’s accuracy and responsiveness.

  • Deployment: The system can be set up for easy use in everyday scenarios, such as at a workspace or during specific activities that require posture monitoring.

Functionality

  • Real-Time Posture Monitoring: Assesses the alignment of key points to determine if the user's posture is upright or slouched.

  • Visual Alerts: Notifies users through on-screen prompts when poor posture is identified, helping to correct posture on-the-fly.

  • Historical Data Tracking: Keeps a record of posture data over time, enabling users to track their progress and understand posture habits better.

  • Multi-Platform Compatibility: Designed to work on various operating systems and devices, ensuring accessibility for a broad range of users.

  • Low Resource Utilization: Optimized to run smoothly without consuming excessive computational resources, suitable for use on standard consumer hardware.

  • Scalable and Extendable: Built with scalability in mind, allowing for further development and integration, such as adding support for multiple users or incorporating more advanced biomechanical analysis.

Considerations

  • Dataset Diversity: Obtaining a diverse and representative dataset for training posture detection models, capturing a wide range of slouching and non-slouching postures.

  • Pose Estimation Accuracy: The accuracy of pose estimation algorithms like MediaPipe varies based on factors like lighting conditions, background clutter, and user clothing, potentially leading to inaccuracies in landmark detection.

  • Model Generalization: The trained model should generalize well to new users and environments, beyond the data it was trained on, crucial for real-world deployment.

  • User Variability: Users may have varying body shapes, sizes, and sitting habits, affecting the effectiveness of the detection algorithm.

Future Enhancements

  • Multi-person Detection: Extending the system to detect and analyze posture for multiple users simultaneously, such as in collaborative environments.

  • Dynamic Thresholds: Implementing thresholds or adaptive algorithms that adjust detection criteria based on individual user characteristics, such as height or torso length.

  • Long-term Monitoring: Providing posture monitoring, tracking trends over time, and offering insights or recommendations for posture improvement strategies.

Usage

  • Clone the repository.
  • Install the necessary dependencies.
  • Run the application with a webcam connected to your device.
  • Follow the on-screen prompts for real-time posture feedback.

Acknowledgments

  • This project is made possible by the contributions of Abdul Amaan,Rahul Vadhyar, Priya MG, Sharanya S.
  • Special thanks to Department of Machine Learning for their guidance and support.

License

This project is licensed under the [GPL-V3] License - see the LICENSE.md file for details.

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