
Abstract Vibration, especially basic vibration, may cause loose contacts, open circuits, or other contact problems, which account for a large proportion of system failure causes. Due to the complexity of the chassis structure used in the biomedical motors, the vibration analysis of a single component cannot solve the vibration problems encountered in the work of the system. Therefore, it is necessary to use system simulation and experiments to monitor and enhance the health of the structure. Finite element method is used to carry out the dynamic analysis from the component to the system, and calculate the natural frequency, modal shape and harmonic response. Then, the effectiveness and accuracy of the analysis results are verified by experiments through simulation and experiments. The results show that the measures taken have effectively reduced the vibration of the chassis equipment and improved its safety for better health safety of patients. There is just a 2% variation between the natural frequencies acquired from the experiment and the simulation computation. In terms of natural frequency, the first 6‐order natural frequencies all have errors of less than 10%, and the natural frequency error is comparable to that of fireproof board.
biomedical applications, modal damping, FOS: Computer and information sciences, Pulmonary and Respiratory Medicine, Finite element method, Chassis, Modal analysis, Component (thermodynamics), Structural engineering, Vibration, Analysis of Cardiac and Respiratory Sounds, Engineering, Artificial Intelligence, Health Sciences, vibration reduction, chassis equipment, Polymer chemistry, Smart Technology and Data Analytics Applications, vibration analysis, Physics, Optimization of Big Data Processing and Analysis, Harmonic, Acoustics, Engineering (General). Civil engineering (General), internet of things, Computer science, Materials science, Programming language, Algorithm, SIGNAL (programming language), Computer Science, Physical Sciences, Computation, Medicine, Signal Analysis, Natural frequency, Thermodynamics, TA1-2040, Modal, Information Systems
biomedical applications, modal damping, FOS: Computer and information sciences, Pulmonary and Respiratory Medicine, Finite element method, Chassis, Modal analysis, Component (thermodynamics), Structural engineering, Vibration, Analysis of Cardiac and Respiratory Sounds, Engineering, Artificial Intelligence, Health Sciences, vibration reduction, chassis equipment, Polymer chemistry, Smart Technology and Data Analytics Applications, vibration analysis, Physics, Optimization of Big Data Processing and Analysis, Harmonic, Acoustics, Engineering (General). Civil engineering (General), internet of things, Computer science, Materials science, Programming language, Algorithm, SIGNAL (programming language), Computer Science, Physical Sciences, Computation, Medicine, Signal Analysis, Natural frequency, Thermodynamics, TA1-2040, Modal, Information Systems
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