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The design and implementation of a fault-tolerant scheme for a Brushless DC (BLDC) motor drive focuses on ensuring reliable operation even in the presence of faults such as inverter switch failures, sensor malfunctions, or winding defects. BLDC motors, widely used in electric vehicles, aerospace, and industrial automation, demand high reliability, making fault tolerance essential. The scheme typically involves real-time fault detection, isolation, and compensation using redundant hardware, sensorless control methods, and reconfiguration techniques to maintain torque and speed with minimal performance loss. Implementation integrates a three-phase inverter, microcontroller-based control, and monitoring of current, voltage, and speed, supported by algorithms for fault diagnosis and recovery. This approach enhances system safety, reduces downtime, and extends the operational life of the motor in mission-critical applications.
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The design and implementation of a fault-tolerant scheme for a Brushless DC (BLDC) motor drive focuses on ensuring reliable operation even in the presence of faults such as inverter switch failures, sensor malfunctions, or winding defects. BLDC motors, widely used in electric vehicles, aerospace, and industrial automation, demand high reliability, making fault tolerance essential. The scheme typically involves real-time fault detection, isolation, and compensation using redundant hardware, sensorless control methods, and reconfiguration techniques to maintain torque and speed with minimal performance loss. Implementation integrates a three-phase inverter, microcontroller-based control, and monitoring of current, voltage, and speed, supported by algorithms for fault diagnosis and recovery. This approach enhances system safety, reduces downtime, and extends the operational life of the motor in mission-critical applications.