Augmented Reality for Real-Time Monitoring and Maintenance of Power Systems

This project introduces an AR solution to help power system engineers and maintenance teams visualize real-time data overlaid on physical components, improving safety, efficiency, and decision-making during inspections.

Key Features:
Real-time data visualization
Overlay system schematics on physical assets
Remote assistance for troubleshooting.

Technology Stack:
AR Devices (Smart glasses, tablets)
AR SDKs (ARCore, ARKit)
IoT integration
Cloud storage

Implementation:
Research → Design → Prototyping → Testing → Deployment

1. Augmented Reality for Real-Time Monitoring and Maintenance of Power Systems Enhancing Efficiency and Safety in Power Infrastructure . Team name: Electrical Scada

2. Introduction What is Augmented Reality (AR)? Technology that overlays digital data on real-world objects through devices like smart glasses or tablets. Why is it important in Power Systems? Power systems require constant monitoring and maintenance for reliability and safety. Challenges with Traditional Methods: • Time-consuming inspections • Risk of human error • Difficulty managing complex infrastructure

3. Problem Statement Challenges in Power Systems: Complex layouts and infrastructure . Overwhelming amounts of data to process . Increased chance of maintenance errors, risking safety and downtime. Why It Matters: Impacts system reliability and operational efficiency. Safety risks for personnel. Need: A tool that provides better real-time visualization to improve decision-making and efficiency.

4. Proposed Solution AR-Based Monitoring Tool: Visualize real-time data directly on physical equipment. Overlay system schematics and live data on machinery. Remote assistance for troubleshooting. Key Users: Engineers, technicians, and safety personnel.

5. Technology Stack Devices: Smart glasses (e.g., Microsoft HoloLens), tablets, or AR-capable mobile devices. Software: AR SDKs like ARCore (Android), ARKit (iOS). Integration with IoT devices for real-time data feeds. Cloud storage for data backup and remote access. Hardware Requirements: Specifications for high-performance AR-enabled devices for outdoor and industrial use.

6. Implementation Process Development Phases: 1. Research: Identify user pain points through interviews and surveys. 2. Design: Prototype AR tool with focus on user interface and functionality. 3. Testing: Test in real-world settings, gather feedback, and improve. 4. Deployment: Launch the tool with training programs for users. Estimated Timeline: 6-12 months, with multiple feedback and testing cycles.

7. Case Study Example Before: Traditional monitoring involved manual checks, paper logs, and limited visibility of system issues. After: Using AR, engineers can now see real-time data overlaid on equipment, reduce errors, and get remote assistance instantly, reducing downtime. Feedback: Enhanced safety, faster decision-making, and more efficient inspections.

8. Benefits of AR in Power Systems Key Advantages: Improved situational awareness during inspections. Real-time visualization of complex data. Fewer maintenance errors and reduced system downtime. Safer working conditions for field personnel.

9. Challenges and Considerations Challenges: High cost of AR devices and initial integration. Resistance to adopting new technology. Compatibility with existing power system infrastructure. Solutions: Design an intuitive user interface. Offer comprehensive training programs. Provide ongoing support to users.

10. Conclusion & Future Directions Conclusion: AR offers a transformative approach to monitoring and maintaining power systems, improving efficiency and safety. Future Opportunities: Expansion to smart grids, renewable energy management, and grid monitoring. Call to Action: Explore collaboration opportunities to bring this AR solution to life.

11. THANK YOU…!