一种超声波谐振式触觉再现装置振动特性实验平台及方法
By using non-contact laser vibration measurement and a programmable dual-parameter adjustment system, the compatibility and energy consumption issues of existing vibration testing platforms have been solved. This enables high-frequency, low-amplitude, high-precision, real-time closed-loop vibration characteristic testing of ultrasonic resonant tactile reproduction devices, thereby improving testing efficiency and device lifespan.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- ANHUI POLYTECHNIC UNIV MECHANICAL & ELECTRICAL COLLEGE
- Filing Date
- 2026-06-12
- Publication Date
- 2026-07-17
AI Technical Summary
Existing vibration testing platforms cannot meet the requirements of high-frequency, low-amplitude, high-precision, and real-time closed-loop vibration characteristic testing for ultrasonic resonant tactile reproduction devices. They suffer from problems such as large measurement interference, poor ultrasonic frequency band adaptability, unadjustable excitation parameters, lagging data processing, low system integration, high energy consumption, and easy aging of components.
Employing a non-contact laser vibration measurement scheme and equipped with a programmable dual-parameter independently adjustable excitation system, it achieves fully automatic wideband frequency sweep and rapid resonant point identification from 25kHz to 40kHz, establishes an integrated real-time closed-loop test link, and builds a voltage segmented energy efficiency optimization model to meet the full-dimensional testing needs of ultrasonic tactile devices for micro-amplitude high-frequency vibration.
It achieves high-precision micro-amplitude vibration testing without additional interference, improves testing efficiency and system energy efficiency, extends device life, and is suitable for high-frequency vibration characteristic testing in the ultrasonic band.
Smart Images
Figure CN122409115A_ABST