RELIABILITY OF DIRECT CURRENT MOTOR DRIVER BOARD UNDER RANDOM VIBRATIONS AND HIGH TEMPERATURE
Abstract
This paper investigates the combined effects of mechanical vibrations and high temperatures on an electric component of an electric vehicle. This study investigates the reliability and ergonomics of a printed circuit board (PCB) component subjected to random vibrations and high temperatures. The component, an important element in the electric vehicle, is designed to operate in harsh environments characterized by mechanical stress, thermal fluctuations, and random vibrations. The study highlights the importance of considering the interplay between mechanical, thermal, and vibrational stressors in the design and testing of PCB components for electric vehicles.
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