Novel micro‐scale sensors using WGMS within the modified add‐drop filter circuits

Yupapin, P.P.; Sarapat, N.

doi:10.1002/mop.27992

Cited by 7 publications

(5 citation statements)

References 11 publications

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“…In practice, the up and downlink should be the different wavelengths, for the instance, 1.30 and 1.55 μm, which is the convenience to distinguish between the up and downlink in the networks. By using the MCM concept, the 3D transmission of the data can also be available, which can be employed via the electro‐optic conversion circuit. The distributed sensors using the distributed nodes within the network can also be employed, which allows performing the required measurements via the network.…”

Section: Simulation Results and Discussionmentioning

confidence: 99%

Electro‐optic conversion circuit incorporating a fiber optic loop for light fidelity up‐down link use

Chaiwong

Bahadoran

Amiri

et al. 2018

Micro & Optical Tech Letters

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We propose the use of the electro‐optic circuit to integrate with the short distance fiber optic loop network, which can be used to form the light fidelity (LiFi) network platform within the building. The electro‐optic conversion circuit is formed by a plasmonic circuit. It is a passive device consisting of an embedded plasmonic island within the microring conjugate mirror (MCM), in which the applied input‐output information can be connected to the fiber optic loop. In this design, all sources of the information can be coupled to the plasmonic transducer and connected to the network. The transducer mobility and two different wavelengths of the input sources are demonstrated and all port signals plotted. The free spectral range and the full‐width at half maximum at the center wavelength of 1.30 μm are ~370.0 and ~0.62 nm, respectively. This is equal to the bandwidth of ~77 PetaHz, from which the output intensity power is ranged between 5 and 15 mW (μm)−2. The linear relationship between the driven mobility and the input power of ~0.75 (cm)2. (Vs)−1 W−1 is achieved at the drop port, with the gold layer length is 600 nm.

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Section: Simulation Results and Discussionmentioning

confidence: 99%

Electro‐optic conversion circuit incorporating a fiber optic loop for light fidelity up‐down link use

Chaiwong

Bahadoran

Amiri

et al. 2018

Micro & Optical Tech Letters

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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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Novel micro‐scale sensors using WGMS within the modified add‐drop filter circuits

Cited by 7 publications

References 11 publications

Electro‐optic conversion circuit incorporating a fiber optic loop for light fidelity up‐down link use

Electro‐optic conversion circuit incorporating a fiber optic loop for light fidelity up‐down link use

Distributed MEMS Sensors Using Plasmonic Antenna Array Embedded Sagnac Interferometer

Distributed MEMS Sensors using Plasmonic Antenna Array Embedded Sagnac Interferometer

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