TY - JOUR
T1 - Tutorial
T2 - Piezoelectric and magnetoelectric N/MEMS - Materials, devices, and applications
AU - Will-Cole, A. R.
AU - Hassanien, Ahmed E.
AU - Calisgan, Sila Deniz
AU - Jeong, Min Gyo
AU - Liang, Xianfeng
AU - Kang, Sungho
AU - Rajaram, Vageeswar
AU - Martos-Repath, Isabel
AU - Chen, Huaihao
AU - Risso, Antea
AU - Qian, Zhenyun
AU - Seyed Abrishami, Seyed Mahdi
AU - Lobandi, Nader
AU - Rinaldi, Matteo
AU - Gong, Songbin
AU - Sun, Nian X.
N1 - This work was supported by the National Sciene Foundation under Coorperative Agreement Award EEC-1160504. A. R. Will-Cole was supported by the National Defense Science and Engineering Graduate Fellowship of the Office of Naval Research.
PY - 2022/6/28
Y1 - 2022/6/28
N2 - Nano- and micro-electromechanical systems (N/MEMSs) are traditionally based on electrostatic or piezoelectric coupling, which couples electrical and mechanical energy through acoustic resonator structures. Most recently, N/MEMS devices based on magnetoelectrics are gaining much attention. Unlike electrostatic or piezoelectric N/MEMS that rely on an AC electric field or voltage excitation, magnetoelecric N/MEMS rely on the electromechanical resonance of a magnetostrictive/piezoelectric bilayer heterostructure exhibiting a strong strain-mediated magnetoelectric coupling under the excitation of a magnetic field and/or electric field. As a consequence, magnetoelectric N/MEMS enable unprecedented new applications, ranging from magnetoelectric sensors, ultra-compact magnetoelectric antennas, etc. This Tutorial will first outline the fundamental principles of piezoelectric materials, resonator design, specifically different acoustic modes, and piezoelectric-based N/MEMS applications, i.e., radio frequency front end filters and infrared radiation sensors. We will then provide an overview of magnetoelectric materials and N/MEMS focusing on the governing physics of the magnetoelectric effect, magnetic material properties for achieving high magnetoelectric coupling, state-of-the-art magnetoelectric N/MEMS devices, and their respective applications.
AB - Nano- and micro-electromechanical systems (N/MEMSs) are traditionally based on electrostatic or piezoelectric coupling, which couples electrical and mechanical energy through acoustic resonator structures. Most recently, N/MEMS devices based on magnetoelectrics are gaining much attention. Unlike electrostatic or piezoelectric N/MEMS that rely on an AC electric field or voltage excitation, magnetoelecric N/MEMS rely on the electromechanical resonance of a magnetostrictive/piezoelectric bilayer heterostructure exhibiting a strong strain-mediated magnetoelectric coupling under the excitation of a magnetic field and/or electric field. As a consequence, magnetoelectric N/MEMS enable unprecedented new applications, ranging from magnetoelectric sensors, ultra-compact magnetoelectric antennas, etc. This Tutorial will first outline the fundamental principles of piezoelectric materials, resonator design, specifically different acoustic modes, and piezoelectric-based N/MEMS applications, i.e., radio frequency front end filters and infrared radiation sensors. We will then provide an overview of magnetoelectric materials and N/MEMS focusing on the governing physics of the magnetoelectric effect, magnetic material properties for achieving high magnetoelectric coupling, state-of-the-art magnetoelectric N/MEMS devices, and their respective applications.
UR - http://www.scopus.com/inward/record.url?scp=85133275004&partnerID=8YFLogxK
UR - http://www.scopus.com/inward/citedby.url?scp=85133275004&partnerID=8YFLogxK
U2 - 10.1063/5.0094364
DO - 10.1063/5.0094364
M3 - Article
AN - SCOPUS:85133275004
SN - 0021-8979
VL - 131
JO - Journal of Applied Physics
JF - Journal of Applied Physics
IS - 24
M1 - 241101
ER -