Reprint

Magnetoelectric Sensor Systems and Applications

Edited by
March 2022
200 pages
  • ISBN978-3-0365-3553-1 (Hardback)
  • ISBN978-3-0365-3554-8 (PDF)

This is a Reprint of the Special Issue Magnetoelectric Sensor Systems and Applications that was published in

Chemistry & Materials Science
Engineering
Environmental & Earth Sciences
Summary

In the field of magnetic sensing, a wide variety of different magnetometer and gradiometer sensor types, as well as the corresponding read-out concepts, are available. Well-established sensor concepts such as Hall sensors and magnetoresistive sensors based on giant magnetoresistances (and many more) have been researched for decades. The development of these types of sensors has reached maturity in many aspects (e.g., performance metrics, reliability, and physical understanding), and these types of sensors are established in a large variety of industrial applications. Magnetic sensors based on the magnetoelectric effect are a relatively new type of magnetic sensor. The potential of magnetoelectric sensors has not yet been fully investigated. Especially in biomedical applications, magnetoelectric sensors show several advantages compared to other concepts for their ability, for example, to operate in magnetically unshielded environments and the absence of required cooling or heating systems. In recent years, research has focused on understanding the different aspects influencing the performance of magnetoelectric sensors. At Kiel University, Germany, the Collaborative Research Center 1261 “Magnetoelectric Sensors: From Composite Materials to Biomagnetic Diagnostics”, funded by the German Research Foundation, has dedicated its work to establishing a fundamental understanding of magnetoelectric sensors and their performance parameters, pushing the performance of magnetoelectric sensors to the limits and establishing full magnetoelectric sensor systems in biological and clinical practice.

Format
  • Hardback
License and Copyright
© 2022 by the authors; CC BY-NC-ND license
Keywords
delta-E effect; magnetoelectric; magnetoelastic; resonator; torsion mode; bending mode; magnetic modeling; MEMS; FEM; magnetoelectric sensor; SQUID; MEG; deep brain stimulation (DBS); directional DBS electrode; magnetic field measurement; electrode localization; rotational orientation detection; Barkhausen noise; delay line sensor; Flicker noise; Kerr microscopy; magnetic domain networks; magnetic field sensor; magnetic noise; magnetoelastic delta-E effect; phase noise; surface acoustic wave; localization; magnetoelectric sensors; real time; pose estimation; magnetoactive elastomer; piezoelectric polymer; laminated structure; cantilever; direct magnetoelectric effect; magnetic field sensor; public understanding/outreach; ME sensors; medical sensing; biomagnetic sensing; interdisciplinary/multidisciplinary; magnetometer; delta-E effect; sensor array; magnetoelectric; cantilever; exchange bias; motion tracking; magnetoelectric sensors; artificial fields; surface acoustic waves; surface acoustic wave sensor; magnetic field sensor; current sensor; magnetostriction; AlScN; FeCoSiB; MEMS; thin film; magnetron sputter deposition; FeCoSiB; ERDA; XRD; film stress; magnetic field sensor; magnetic properties; magnetic domains; SAW; magnetoelectric; magnetic nanoparticle; imaging; inverse problem; blind deconvolution; application specific signal evaluation; magnetoelectric sensors; quantitative sensor system characterization; sensor system performance

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