Approach to low-frequency magnetic field measurements using permalloy-based magnetoplasmonic crystal

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Resumo

This paper demonstrates the use of a one-dimensional magnetoplasmonic crystal based on Ni80Fe20 permalloy as a sensitive probe of a magneto-optical sensor for low-frequency AC field measurements. The sensitivity of the sensor reaches 30 mOe when operating in the frequency range from 0.1 to 100 Hz. In the course of the work, an assessment was made of the applicability of the developed sensor for measuring magnetic fields of biological objects that were subjected to electrical stimulation.

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Sobre autores

V. Belyaev

Immanuel Kant Baltic Federal University

Autor responsável pela correspondência
Email: vbelyaev@kantiana.ru
Rússia, Kaliningrad, 236041

S. Pshenichnikov

Immanuel Kant Baltic Federal University

Email: vbelyaev@kantiana.ru
Rússia, Kaliningrad, 236041

A. Andryukov

Immanuel Kant Baltic Federal University

Email: vbelyaev@kantiana.ru
Rússia, Kaliningrad, 236041

D. Murzin

Immanuel Kant Baltic Federal University

Email: vbelyaev@kantiana.ru
Rússia, Kaliningrad, 236041

L. Panina

Immanuel Kant Baltic Federal University; National Research Technological University MISiS

Email: vbelyaev@kantiana.ru
Rússia, Kaliningrad, 236041; Moscow, 119049

E. Levada

Immanuel Kant Baltic Federal University

Email: vbelyaev@kantiana.ru
Rússia, Kaliningrad, 236041

V. Rodionova

Immanuel Kant Baltic Federal University

Email: vbelyaev@kantiana.ru
Rússia, Kaliningrad, 236041

Bibliografia

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2. Fig. 1. Schematic diagram of the alternating magnetic field sensor based on the MPLC: 1 – laser diode; 2 – p-polarizer; 3 – MPLC; 4 – surface plasmon-polariton; 5 – silicon photodiode; 6 – synchronous amplifier. Hext – modulating alternating magnetic field, Hsig – alternating magnetic field created by the measured object, for example, a multi-core wire connected to an alternating voltage source Usig.

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3. Fig. 2. Schematic diagram of the experimental bath for recording the electrical activity of samples (a) with the test sample and (b) with filter paper: 1 – neuromuscular preparation; 2 – filter paper moistened with Ringer’s solution; 3 – stimulating electrodes; 4 – reading electrodes. The graphic diagrams from the Lt LabStation 1.8.3 ADInstruments LTd program were used as a basis for the images.

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4. Fig. 3. (a) The MOsig(Hext) dependence, which shows the position of Hmod determined by the maximum approximated Langevin function ∂MOsig/∂Hext; (b) the values ​​of MOsig(H=Hmod), measured at tс values ​​from 3000 to 3 ms.

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5. Fig. 4. Examples of measured (black lines with dots) and reconstructed (red lines) signals. Parameters Hsig: (a) rectangular signal, frequency 0.1 Hz, tc = 300 ms; (b) sinusoidal signal, frequency 1 Hz, tc = 100 ms; (c) sinusoidal signal, frequency 1 Hz, tc = 0.3 ms. The values ​​of ν, φ0, Δmin/N reconstructed by the FP minimization method are shown in the corresponding graphs.

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6. Fig. 5. Induction of action potential (CAP) in isolated frog sciatic nerve after stimulation with an electrical impulse (Stimulus).

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