A Radically New Principle of Operation Seismic Detector of Nano-Scale Vibrations

A new class broad-band, nano-scale shift position sensor is created and tested. It maybe used as an additional sensor in seismographs/accelerometers/vibrometers. It enables to extend band and enhance sensitivity of the technique available on market by 10-100 times, depending on model of the base pro...

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Veröffentlicht in:IEEE transactions on applied superconductivity 2007-06, Vol.17 (2), p.629-632
Hauptverfasser: Gevorgyan, S.G., Gevorgyan, V.S., Shirinyan, H.G., Karapetyan, G.H., Sarkisyan, A.G.
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container_end_page 632
container_issue 2
container_start_page 629
container_title IEEE transactions on applied superconductivity
container_volume 17
creator Gevorgyan, S.G.
Gevorgyan, V.S.
Shirinyan, H.G.
Karapetyan, G.H.
Sarkisyan, A.G.
description A new class broad-band, nano-scale shift position sensor is created and tested. It maybe used as an additional sensor in seismographs/accelerometers/vibrometers. It enables to extend band and enhance sensitivity of the technique available on market by 10-100 times, depending on model of the base product. Combined with such sensor traditional technique may enable to study quasi-static deformations and low-order free oscillations of Earth crust precursor to earthquakes - perhaps unnoticeable to other methods. It may permit to detect also gravity waves, and study peculiarities of tidal motion and tsunami. It may allow to transfer mechanical vibrations of constructions & buildings, with amplitudes over 1 nm, into detectable signal in a frequency range starting from quasi-static movements. It is based on detection of position changes of a vibrating metallic plate placed near the flat coil-being used as a pick-up in a stable tunnel diode oscillator. Frequency of oscillator is used as a detecting parameter, and the measuring effect is determined by a distortion of a MHz-range testing field configuration near the coil by a vibrating plate, leading to magnetic inductance changes of a coil with a resolution ~10 pH. This results in the changes of oscillator frequency. We discuss initial-test data of such position sensor, installed in a Russian SM-3 seismometer, as the additional pick-up component, showing its advantages compared to traditional. We discuss also future of such new position sensor related with substitution of a normal-metallic coil by the superconductive one & replacement of a tunnel diode by S/I/S structure - as less-powered active element in oscillator. These may strongly improve stability of oscillator, and hence, enhance resolution of the seismic detectors.
doi_str_mv 10.1109/TASC.2007.898678
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It maybe used as an additional sensor in seismographs/accelerometers/vibrometers. It enables to extend band and enhance sensitivity of the technique available on market by 10-100 times, depending on model of the base product. Combined with such sensor traditional technique may enable to study quasi-static deformations and low-order free oscillations of Earth crust precursor to earthquakes - perhaps unnoticeable to other methods. It may permit to detect also gravity waves, and study peculiarities of tidal motion and tsunami. It may allow to transfer mechanical vibrations of constructions &amp; buildings, with amplitudes over 1 nm, into detectable signal in a frequency range starting from quasi-static movements. It is based on detection of position changes of a vibrating metallic plate placed near the flat coil-being used as a pick-up in a stable tunnel diode oscillator. 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It maybe used as an additional sensor in seismographs/accelerometers/vibrometers. It enables to extend band and enhance sensitivity of the technique available on market by 10-100 times, depending on model of the base product. Combined with such sensor traditional technique may enable to study quasi-static deformations and low-order free oscillations of Earth crust precursor to earthquakes - perhaps unnoticeable to other methods. It may permit to detect also gravity waves, and study peculiarities of tidal motion and tsunami. It may allow to transfer mechanical vibrations of constructions &amp; buildings, with amplitudes over 1 nm, into detectable signal in a frequency range starting from quasi-static movements. It is based on detection of position changes of a vibrating metallic plate placed near the flat coil-being used as a pick-up in a stable tunnel diode oscillator. Frequency of oscillator is used as a detecting parameter, and the measuring effect is determined by a distortion of a MHz-range testing field configuration near the coil by a vibrating plate, leading to magnetic inductance changes of a coil with a resolution ~10 pH. This results in the changes of oscillator frequency. We discuss initial-test data of such position sensor, installed in a Russian SM-3 seismometer, as the additional pick-up component, showing its advantages compared to traditional. We discuss also future of such new position sensor related with substitution of a normal-metallic coil by the superconductive one &amp; replacement of a tunnel diode by S/I/S structure - as less-powered active element in oscillator. These may strongly improve stability of oscillator, and hence, enhance resolution of the seismic detectors.</abstract><cop>New York, NY</cop><pub>IEEE</pub><doi>10.1109/TASC.2007.898678</doi><tpages>4</tpages></addata></record>
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source IEEE Electronic Library (IEL)
subjects Accelerometers
Applied sciences
Circuit properties
Coiling
Coils
Detector for gravity waves search
Detectors
Diodes
Electric, optical and optoelectronic circuits
Electronic circuits
Electronics
Exact sciences and technology
Frequency
General equipment and techniques
Instruments, apparatus, components and techniques common to several branches of physics and astronomy
Mechanical sensors
nano-scale shift position sensor
Nanostructure
Oscillators
Oscillators, resonators, synthetizers
Physics
position sensing and controlling element for probe microscopes and seismic detectors
Seismic engineering
Seismic phenomena
Semiconductor electronics. Microelectronics. Optoelectronics. Solid state devices
Sensors
Sensors (chemical, optical, electrical, movement, gas, etc.)
remote sensing
single-layer flat-coil oscillator
Superconductors
Testing
Vibration
Vibrations
Vibrometers
title A Radically New Principle of Operation Seismic Detector of Nano-Scale Vibrations
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