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Course Outline

Overview of Edge Artificial Intelligence in Industrial Environments

  • The strategic importance of edge computing in manufacturing operations
  • Comparative analysis of edge architectures versus cloud-based AI solutions
  • Application scenarios encompassing computer vision, predictive maintenance, and process control

Hardware Architectures and Device-Level Limitations

  • Survey of prevalent edge hardware solutions (e.g., Raspberry Pi, NVIDIA Jetson, Intel NUC)
  • Evaluation of processing capacity, memory allocation, and power efficiency requirements
  • Criteria for selecting appropriate platforms based on specific application needs

Model Development and Optimization for Edge Deployment

  • Techniques for model compression, pruning, and quantization to reduce resource consumption
  • Utilization of TensorFlow Lite and ONNX formats for embedded system compatibility
  • Balancing inference accuracy against computational speed in resource-constrained environments

Computer Vision and Multi-Source Sensor Integration at the Edge

  • Implementation of on-device visual inspection and continuous monitoring
  • Aggregation and analysis of heterogeneous data streams (e.g., vibration, thermal, and video inputs)
  • Execution of real-time anomaly detection using frameworks such as Edge Impulse

Network Connectivity and Data Interoperability

  • Application of MQTT protocols for industrial messaging standards
  • Integration with legacy and modern infrastructure including SCADA, OPC-UA, and PLC systems
  • Ensuring security integrity and communication resilience in edge networks

Deployment Procedures and Field Validation

  • Procedures for packaging and installing models on edge devices
  • Strategies for performance monitoring and firmware or model updates
  • Case study: execution of real-time decision loops with local actuation capabilities

Scaling Operations and Lifecycle Maintenance of Edge AI Systems

  • Comprehensive management strategies for distributed edge device fleets
  • Protocols for remote updates and iterative model retraining cycles
  • Long-term lifecycle considerations for robust industrial-grade deployments

Executive Summary and Strategic Recommendations

Requirements

  • Proficiency in embedded systems or Internet of Things (IoT) infrastructure
  • Practical experience utilizing Python, C, or C++ programming languages
  • Knowledge of machine learning model lifecycle management

Target Audience

  • Embedded software engineers
  • Industrial IoT solution teams
 21 Hours

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