Design and Development of a Center of Gravity Coordinates Measurement Device

本文聚焦于智能传感的重心坐标测量装置的设计与制作,详细阐述了基于力矩平衡原理的测量方法,介绍装置的机械结构、设计原理及制作过程,并通过实验验证其性能。该装置为精确测量物体二维重心坐标提供了有效途径,向多源传感器融合与智能算法集成方向发展,实现重心坐标动态实时监测,全面评估监测对象状况。This paper focuses on the design and development of an intelligent sensing-based device for measuring center of gravity (CoG) coordinates. It elaborates on the measurement method grounded in the torque balance principle, detailing the mechanical structure, design rationale, and fabrication process of the device. Experimental validation confirms its performance. The device provides an effective solution for accurately measuring two-dimensional CoG coordinates of objects. By advancing toward multi-sensor fusion and intelligent algorithm integration, it enables dynamic real-time monitoring of CoG coordinates, offering comprehensive assessment of the monitored object’s condition.

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Publication Details

Journal
Instrumentation and Equipments
Published
2025-01-01
DOI
https://doi.org/10.12677/iae.2025.132025
Primary Topic
Inertial Sensor and Navigation
Type
article
Field-Weighted Citation Impact
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article

Design and Development of a Center of Gravity Coordinates Measurement Device

晓倩 黄
Instrumentation and Equipments
Inertial Sensor and Navigation
article

Design and Development of a Center of Gravity Coordinates Measurement Device

晓倩 黄
article en

Abstract

本文聚焦于智能传感的重心坐标测量装置的设计与制作,详细阐述了基于力矩平衡原理的测量方法,介绍装置的机械结构、设计原理及制作过程,并通过实验验证其性能。该装置为精确测量物体二维重心坐标提供了有效途径,向多源传感器融合与智能算法集成方向发展,实现重心坐标动态实时监测,全面评估监测对象状况。This paper focuses on the design and development of an intelligent sensing-based device for measuring center of gravity (CoG) coordinates. It elaborates on the measurement method grounded in the torque balance principle, detailing the mechanical structure, design rationale, and fabrication process of the device. Experimental validation confirms its performance. The device provides an effective solution for accurately measuring two-dimensional CoG coordinates of objects. By advancing toward multi-sensor fusion and intelligent algorithm integration, it enables dynamic real-time monitoring of CoG coordinates, offering comprehensive assessment of the monitored object’s condition.

Instrumentation and EquipmentsVol. 13(02)
Openalex Percentile: Top 82%
Inertial Sensor and Navigation
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