Self-heated fiber Bragg grating sensors
Kevin P. Chen, Ben McMillen, Michael Buric, Chuck Jewart, Wei Lin Xu
Abstract
Open-access reader
Kevin P. Chen, Ben McMillen, Michael Buric, Chuck Jewart, Wei Lin Xu
Abstract
Open-access reader
This letter demonstrates an approach for tuning fiber Bragg grating sensors with optical energy carried in the same optical fiber. Optical energy carried in the optical fiber was used to heat in-fiber Bragg gratings in order to alter the grating’s optical response to surrounding media. The functional enhancement of optically heated Bragg gratings as sensor devices is demonstrated by a dual-function Bragg grating temperature and level sensing array for liquid at room and cryogenic temperatures.
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This letter demonstrates an approach for tuning fiber Bragg grating sensors with optical energy carried in the same optical fiber. Optical energy carried in the optical fiber was used to heat in-fiber Bragg gratings in order to alter the grating’s optical response to surrounding media. The functional enhancement of optically heated Bragg gratings as sensor devices is demonstrated by a dual-function Bragg grating temperature and level sensing array for liquid at room and cryogenic temperatures.
Key concepts: Fiber Bragg grating, PHOSFOS, Materials science, Optics, Fiber optic sensor, Long-period fiber grating, Optical fiber, Optoelectronics