Four-legged robot multi-modal perception control device suitable for inspection
By integrating a foot vibration sensing module and an energy management module into a multimodal sensing and control device, the gait and sensing parameters of the quadruped robot are dynamically adjusted, resolving the contradiction between vibration sampling quality and energy consumption. This enables the inspection system to achieve efficient detection and long endurance, and improves the inspection capability in complex terrain.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- JIEYAO INTELLIGENT TECHNOLOGY (SUZHOU) CO LTD
- Filing Date
- 2026-04-20
- Publication Date
- 2026-07-03
AI Technical Summary
In existing technologies, quadruped robots face a contradiction between vibration sampling quality and energy consumption in inspection tasks. High-quality vibration sampling requires low speed and long ground contact time, which consumes more energy. Low-energy fast walking gait leads to a decrease in vibration signal quality, affecting the accuracy of anomaly detection. It is impossible to ensure both detection accuracy and endurance under limited energy constraints.
Employing a multimodal sensing and control device, integrating a foot vibration sensing module, an energy management module, and a vibration-energy co-controller, the device dynamically adjusts gait parameters and sensing system parameters through a unified optimization objective function to achieve an adaptive balance between vibration quality and energy consumption. This includes a high-bandwidth vibration sensor array, a six-dimensional force sensor, a PVDF piezoelectric film, a fuselage inertial measurement unit, and a lightweight convolutional autoencoder network. Combined with a lightweight neural network and a multi-objective optimizer, it monitors and adjusts walking speed, stride length, ground contact time, and sensor sampling frequency in real time.
During the inspection process, a dynamic balance between vibration signal quality and energy consumption was achieved, which improved the overall reliability and detection accuracy of the inspection system, extended its battery life, and enabled it to continuously learn and improve its performance.
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Figure CN122331597A_ABST
Abstract
Citation Information
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