This review examines vibration control and noise reduction techniques in robotics and automotive systems, suggesting new applications.
Vibration and noise in mechanical systems can negatively impact performance, safety, and durability. This paper examines various techniques for vibration control and noise reduction, with a particular focus on their applications in robotics, automotive, aerospace, and industrial machinery. Passive, active, and semi-active methods are discussed, with case studies highlighting their real-world effectiveness in different applications. The integration of advanced materials, adaptive algorithms, and hybrid systems in the control of vibrations and noise is also explored. The paper presents data tables and graphs to demonstrate the impact of these methods on system performance. Case studies are presented to demonstrate the practical challenges and solutions in real-world applications. The paper concludes with future directions for vibration control research. Keywords: Vibration control, noise reduction, mechanical systems, robotics, passive control, active control, semi-active control, damping, tuned mass dampers, collaborative robots, adaptive systems, vibration analysis, smart materials, composite materials, vibration reduction technologies, system reliability, vibration performance, precision engineering, industrial machinery, mechanical vibration, robotic grippers, robotic noise, adaptive vibration control, advanced damping techniques, mechanical noise, and structural vibration.
No takes yet. Share an insight, caveat, or question.
Shashank Pasupuleti (2020) studied this question.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: