Modeling of a superconducting sensor with microring-embedded gold-island space–time control

Bunruangses, M.; Arumona, A. E.; Youplao, P.; Pornsuwancharoen, N.; Ray, Kanad; Yupapin, P.P.

doi:10.1007/s10825-020-01548-9

Cited by 5 publications

(3 citation statements)

References 19 publications

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“…A moving robot (vehicle) in a hospital can be applied and controlled by the integrated sensors, which can connect with force sensors and the LiFi network for COVID-19 surveillance. The big data capacity network can accommodate all input information such as machine learning, artificial intelligence, and braininspired computing, which can be implemented within the robot brain [12,13,16,30,31,[39][40][41][42][43][44][45][46][47].…”

Section: Resultsmentioning

confidence: 99%

Integrating Metamaterial Antenna Node and LiFi for Privacy Preserving Intelligent COVID-19 Hospital Patient Management

et al. 2021

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Section: Resultsmentioning

confidence: 99%

Integrating Metamaterial Antenna Node and LiFi for Privacy Preserving Intelligent COVID-19 Hospital Patient Management

et al. 2021

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“…Both are designed and used microring structure and space-time control, where Fabry-Perot one has applications in quantum spectroscopy, quantum sensor, and microscopy regime. More details of interferometers and microring resonators can be found in the given references [24][25][26][27]. A microring embedded Sagnac interferometer is proposed for an integrated MEMS resonator structure, which can be applied for nano/micro-scale sensors, especially for micromachine applications.…”

Section: Introductionmentioning

confidence: 99%

Distributed MEMS Sensors Using Plasmonic Antenna Array Embedded Sagnac Interferometer

et al. 2022

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A micro Sagnac interferometer is proposed for electron cloud distributed sensors formed by an integrated (micro-electro-mechanical systems) MEMS resonator structure. The Sagnac interferometer consists of four microring probes integrated into a Sagnac loop. Each of the microring probes is embedded with the silver bars to form the plasmonic wave oscillation. The polarized light of 1.50µm wavelength is input into the interferometer, which is polarized randomly into upstream and downstream directions. The polarization outputs can be controlled by the space-time input at the Sagnac port. Electrons are trapped and oscillated by the whispering gallery modes (WGMs), where the plasmonic antennas are established and applied for wireless fidelity (WiFi) and light fidelity (LiFi) sensing probes, respectively. Four antenna gains are 2.59dB, 0.93dB, 1.75dB, and 1.16dB, respectively. In manipulation, the sensing probe electron densities are changed by input source power variation. When the electron cloud is excited by the microscopic medium, where the change in electron density is obtained and reflected to the required parameters. Such a system is a novel device that can be applied for brain-device interfering with the dual-mode sensing probes. The obtained WGM sensors are 1.35µm -2 , 0.90µm -2 , 0.97µm -2 and, 0.81µm -2 , respectively. The WGMs behave as a four-point probe for the electron cloud distributed sensors, where the electron cloud sensitivities of 2.31prads -1 mm 3 (electrons) -1 , 2.27prads -1 mm 3 (electrons) -1 , 2.22prads -1 mm 3 (electrons) -1 , 2.38prads -1 mm 3 (electrons) -1 are obtained, respectively.

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Section: Introductionmentioning

confidence: 99%

Distributed MEMS Sensors using Plasmonic Antenna Array Embedded Sagnac Interferometer

Garhwal

Arumona

Youplao

et al. 2021

Preprint

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A micro Sagnac interferometer is proposed for electron cloud distributed sensors formed by an integrated (micro-electro-mechanical systems) MEMS resonator structure. The Sagnac interferometer consists of four microring probes integrated into a Sagnac loop. Each of the microring probes is embedded with the silver bars to form the plasmonic wave oscillation. The polarized light of 1.50µm wavelength is input into the interferometer, which is polarized randomly into upstream and downstream directions. The polarization outputs can be controlled by the space-time input at the Sagnac port. Electrons are trapped and oscillated by the whispering gallery modes (WGMs), where the plasmonic antennas are established and applied for wireless fidelity (WiFi) and light fidelity (LiFi) sensing probes, respectively. Four antenna gains are 2.59dB, 0.93dB, 1.75dB, and 1.16dB, respectively. In manipulation, the sensing probe electron densities are changed by input source power variation. When the electron cloud is excited by the microscopic medium, where the change in electron density is obtained and reflected to the required parameters. Such a system is a novel device that can be applied for brain-device interfering with the dual-mode sensing probes. The obtained WGM sensors are 1.35µm-2, 0.90µm-2, 0.97µm-2 and, 0.81µm-2, respectively. The WGMs behave as a four-point probe for the electron cloud distributed sensors, where the electron cloud sensitivities of 2.31prads-1mm3 (electrons)-1, 2.27prads-1mm3 (electrons)-1, 2.22prads-1mm3(electrons)-1, 2.38prads-1mm3(electrons)-1 are obtained, respectively.

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Modeling of a superconducting sensor with microring-embedded gold-island space–time control

Cited by 5 publications

References 19 publications

Integrating Metamaterial Antenna Node and LiFi for Privacy Preserving Intelligent COVID-19 Hospital Patient Management

Integrating Metamaterial Antenna Node and LiFi for Privacy Preserving Intelligent COVID-19 Hospital Patient Management

Distributed MEMS Sensors Using Plasmonic Antenna Array Embedded Sagnac Interferometer

Distributed MEMS Sensors using Plasmonic Antenna Array Embedded Sagnac Interferometer

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