Sensor Fusion of Self-Sensed Measurements for Position Control of a Constant Air-Gap Solenoid

Reinholz, Bradley A.; Seethaler, Rudolf

doi:10.1109/jsen.2022.3216311

Cited by 2 publications

(2 citation statements)

References 25 publications

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“…Therefore, when a sensor with a constant cross-sectional area S0 is called a self-inductance variable gap sensor [8], similarly, when a sensor with a constant gap is called a self-inductance variable area sensor [9]. In practical applications, given the initial inductance of the electromagnetic coil as L0 and the initial gap as δ0, when a varying gap Δδ is introduced, the new inductance L can be measured.…”

Section: Principle and Applicationsmentioning

confidence: 99%

Analysis of the Principle, Facility and State-of-art Applications of Different Types Inductive Sensor

Tang

2023

HSET

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As a matter of fact, different types of inductive sensor are widely used in various aspects. In this case, this study introduces the development history and current status of electromagnetic sensors, as well as the basic principles and future trends of different types of electromagnetic sensors. It provides a detailed introduction to the principles, structures, and measurement specifications of self-inductive sensors, differential air gap self-inductive sensors, mutual inductance sensors, and helical coil mutual inductance electromagnetic sensors. The characteristics and application scenarios of each sensor are analyzed. A comparison of the advantages and disadvantages of various electromagnetic sensors is presented. Furthermore, predictions are made regarding the future research directions and application trends of electromagnetic sensors. This study has gained a good understanding of the basic principles of various electromagnetic sensors and has learned about the selection of electromagnetic sensors for different scenarios, providing guidance for the study of new electromagnetic sensors and their practical applications.

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Section: Principle and Applicationsmentioning

confidence: 99%

Analysis of the Principle, Facility and State-of-art Applications of Different Types Inductive Sensor

Tang

2023

HSET

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“…These displacement measuring devices are designed for versatile applications, ranging from monitoring the structural health of buildings, equipment position control, civil engineering, to various manufacturing sectors (Ming et al, 2022;Reinholz and Seethaler, 2022;Yanlin et al, 2022;Piotr and Piotr, 2022;Shao et al, 2021;Andreas et al, 2020). However, most displacement measurement methods are hindered by the complexity of instrument setup and high costs, inevitably impeding the widespread adoption of displacement sensors.…”

Section: Introductionmentioning

confidence: 99%

Design and Evaluation of Auxetic Structures as Displacement Sensor

Zhang,

Wen,

et al. 2023

Smart Manufacturing and Material Processing (SMMP)

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In the field of engineering measurement, the displacement sensor is a widely used tool. In this study, a novel method has been developed for measuring displacement. The newly introduced approach aims to address the demand for improved sensitivity, accuracy, and efficiency in displacement measurements, thereby contributing to advancements in various engineering applications and providing valuable insights for future sensor development. The proposed method involves the conversion of stress deformation-induced position changes in auxetic structures into output current changes, providing acceptable measurement accuracy and reliable means of measuring displacement. To evaluate the efficacy of proposed method, three different structures are utilized for analysis and experimental testing in this study, and their performance is comparatively evaluated. The discoveries in this study will present fresh possibilities for employing auxetic materials in the domain of measurement. 3D printing technology is employed for the fabrication of the auxetic structures, rather than conventional subtractive manufacturing methods. 3D printing technology has completely revolutionized various industries, and in the field of measurement, its potential remains largely untapped. By exploring innovative applications, we can expand its utility, simplify the complexity associated with sensor manufacturing, and achieve significant cost reductions. This article delves into the exciting possibilities that 3D printing brings to measurement and sensor production, paving the way for groundbreaking advancements.

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Sensor Fusion of Self-Sensed Measurements for Position Control of a Constant Air-Gap Solenoid

Cited by 2 publications

References 25 publications

Analysis of the Principle, Facility and State-of-art Applications of Different Types Inductive Sensor

Analysis of the Principle, Facility and State-of-art Applications of Different Types Inductive Sensor

Design and Evaluation of Auxetic Structures as Displacement Sensor

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