SQUID-based interferometric accelerometer

被引:0
|
作者
Khomchenko, Ilia [1 ]
Navez, Patrick [2 ]
Ouerdane, Henni [1 ]
机构
[1] Skolkovo Inst Sci & Technol, Digital Engn Ctr, 30 Bolshoi Blvd,Bld 1, Moscow 121205, Russia
[2] Loughborough Univ, Dept Phys, Loughborough LE11 3TU, England
关键词
ATOM;
D O I
10.1063/5.0126680
中图分类号
O59 [应用物理学];
学科分类号
摘要
Optics and more recently coherent matter waves enabled inertial sensors such as accelerometers and gyroscopes to reach high levels of resolution and sensitivity. As these technologies rest on physical phenomena that require particular setups and working conditions such as, e.g., kilometers of optical fibers or ultralow temperatures, their application range is limited because of lack of portability. Here, we propose a path forward considering a superconducting quantum interference device (SQUID) to detect and measure acceleration, using electronic interferometry. The operation of such an accelerometer rests on the ability of the Cooper pairs to record their wave function phase change as the device is subjected either to a transverse acceleration or vibrations. We provide numerical evidence for the feasibility of SQUID-based accelerometers that can be used for transverse acceleration and oscillatory motion measurement. Published under an exclusive license by AIP Publishing.
引用
收藏
页数:4
相关论文
共 50 条
  • [1] Design, fabrication and experimental demonstration of a highly sensitive SQUID-based accelerometer
    Kim, Gracia
    Choi, In Mook
    SUPERCONDUCTOR SCIENCE & TECHNOLOGY, 2022, 35 (10):
  • [2] SQUID-based accelerometer and final concept for testing the equivalence principle at the drop tower
    C. Mehls
    H. Dittus
    St Lochmann
    Microgravity Science and Technology, 2001, 13 : 24 - 28
  • [3] SQUID-based accelerometer and final concept for testing the equivalence principle at the Drop Tower
    Mehls, C
    Dittus, H
    Lochmann, S
    MICROGRAVITY SCIENCE AND TECHNOLOGY, 2001, 13 (01) : 24 - 28
  • [4] Squid-based magnetic microscope
    Bondarenko, S.
    Nakagawa, N.
    SMART MATERIALS FOR RANGING SYSTEMS, 2006, 226 : 195 - +
  • [5] SQUID-based measuring systems
    MP Janawadkar
    R Baskaran
    R Nagendran
    K Gireesan
    N Harishkumar
    Rita Saha
    L S Vaidhyanathan
    J Jayapandian
    Y Hariharan
    TS Radhakrishnan
    Pramana, 2002, 58 : 1159 - 1164
  • [6] A SQUID-BASED ACOUSTOMAGNETIC SPECTROMETER
    HOLLAND, MR
    SUNDFORS, RK
    JOURNAL DE PHYSIQUE, 1985, 46 (C-10): : 779 - 782
  • [7] A SQUID-BASED AC SUSCEPTOMETER
    HIBBS, AD
    SAGER, RE
    KUMAR, S
    MCARTHUR, JE
    SINGSAAS, AL
    JENSEN, KG
    STEINDORF, MA
    AUKERMAN, TA
    SCHNEIDER, HM
    REVIEW OF SCIENTIFIC INSTRUMENTS, 1994, 65 (08): : 2644 - 2652
  • [8] SQUID-based measuring systems
    Janawadkar, MP
    Baskaran, R
    Nagendran, R
    Gireesan, K
    Harishkumar, N
    Saha, R
    Vaidhyanathan, LS
    Jayapandian, J
    Hariharan, Y
    Radhakrishnan, TS
    PRAMANA-JOURNAL OF PHYSICS, 2002, 58 (5-6): : 1159 - 1164
  • [9] A SQUID-Based Picovoltmeter for Quantum Resistors
    Shingla, Vidhi
    Kleinbaum, Ethan
    Csathy, Gabor A.
    JOURNAL OF LOW TEMPERATURE PHYSICS, 2020, 201 (1-2) : 170 - 178
  • [10] SQUID-based measurement of biomagnetic fields
    Janawadkar, M. P.
    Radhakrishnan, T. S.
    Gireesan, K.
    Parasakthi, C.
    Sengottuvel, S.
    Patel, Rajesh
    Sundar, C. S.
    Raj, Baldev
    CURRENT SCIENCE, 2010, 99 (01): : 36 - 45