Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen Detection

Abstract Since high efficiency and zero-carbon emission, hydrogen, as a clean energy carrier, is potentially an alternative fuel. Unfortunately, hydrogen is a gas with a high diffusion coefficient, wide explosion limit, and low ignition energy. Thus, to ensure the safe use of hydrogen, accurate and...

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Main Authors: Xuhui Zhang, Xiaotong Li, Xinpu Zhang, Wei Peng
Format: Article
Language:English
Published: SpringerOpen 2025-05-01
Series:Photonic Sensors
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Online Access:https://doi.org/10.1007/s13320-025-0742-8
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author Xuhui Zhang
Xiaotong Li
Xinpu Zhang
Wei Peng
author_facet Xuhui Zhang
Xiaotong Li
Xinpu Zhang
Wei Peng
author_sort Xuhui Zhang
collection DOAJ
description Abstract Since high efficiency and zero-carbon emission, hydrogen, as a clean energy carrier, is potentially an alternative fuel. Unfortunately, hydrogen is a gas with a high diffusion coefficient, wide explosion limit, and low ignition energy. Thus, to ensure the safe use of hydrogen, accurate and rapid monitoring of hydrogen leakage and abnormal concentration change must be addressed immediately, which is a critical scientific and technical problem. Therefore, we propose an optics-mechanics coupling fiber hydrogen sensor without electricity-related hazard factors. This proposed fiber hydrogen sensor is constructed by combining optics-mechanics coupling, specific adsorption of hydrogen to the surface of palladium (Pd), and Fabry-Pérot (F-P) interference mechanism; the optics-mechanics coupling is aroused by hydrogen-induced stress in the suspended Pd film, which functions as an F-P resonator mirror and a hydrogen-sensitive material. According to this configuration and principle, we achieve efficient and high-selective hydrogen detection at room temperature. This optics-mechanics coupling-based fiber hydrogen sensor is characterized by the high sensitivity (0.397 nm/1%), extensive dynamic range (0.5%–3.5%), 8 s response time, and 16 s recovery time. Hence, as an intrinsically safe hydrogen sensor with the high sensitivity and quick response, this optics-mechanics coupling-based fiber hydrogen sensor can be widely used in the hydrogen energy industry chain for rapid and high-performance hydrogen detection.
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publisher SpringerOpen
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series Photonic Sensors
spelling doaj-art-7d1d1d1cc5a14a2aa97134e787d190ca2025-08-20T01:47:33ZengSpringerOpenPhotonic Sensors1674-92512190-74392025-05-0115311610.1007/s13320-025-0742-8Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen DetectionXuhui Zhang0Xiaotong Li1Xinpu Zhang2Wei Peng3School of Physics, Dalian University of TechnologySchool of Physics, Dalian University of TechnologySchool of Physics, Dalian University of TechnologySchool of Physics, Dalian University of TechnologyAbstract Since high efficiency and zero-carbon emission, hydrogen, as a clean energy carrier, is potentially an alternative fuel. Unfortunately, hydrogen is a gas with a high diffusion coefficient, wide explosion limit, and low ignition energy. Thus, to ensure the safe use of hydrogen, accurate and rapid monitoring of hydrogen leakage and abnormal concentration change must be addressed immediately, which is a critical scientific and technical problem. Therefore, we propose an optics-mechanics coupling fiber hydrogen sensor without electricity-related hazard factors. This proposed fiber hydrogen sensor is constructed by combining optics-mechanics coupling, specific adsorption of hydrogen to the surface of palladium (Pd), and Fabry-Pérot (F-P) interference mechanism; the optics-mechanics coupling is aroused by hydrogen-induced stress in the suspended Pd film, which functions as an F-P resonator mirror and a hydrogen-sensitive material. According to this configuration and principle, we achieve efficient and high-selective hydrogen detection at room temperature. This optics-mechanics coupling-based fiber hydrogen sensor is characterized by the high sensitivity (0.397 nm/1%), extensive dynamic range (0.5%–3.5%), 8 s response time, and 16 s recovery time. Hence, as an intrinsically safe hydrogen sensor with the high sensitivity and quick response, this optics-mechanics coupling-based fiber hydrogen sensor can be widely used in the hydrogen energy industry chain for rapid and high-performance hydrogen detection.https://doi.org/10.1007/s13320-025-0742-8Fiber optics hydrogen sensorFabry-Pérot interferometerpalladiumoptics-mechanics coupling
spellingShingle Xuhui Zhang
Xiaotong Li
Xinpu Zhang
Wei Peng
Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen Detection
Photonic Sensors
Fiber optics hydrogen sensor
Fabry-Pérot interferometer
palladium
optics-mechanics coupling
title Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen Detection
title_full Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen Detection
title_fullStr Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen Detection
title_full_unstemmed Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen Detection
title_short Fiber Optics-Mechanics Coupling Sensor for High-Performance Hydrogen Detection
title_sort fiber optics mechanics coupling sensor for high performance hydrogen detection
topic Fiber optics hydrogen sensor
Fabry-Pérot interferometer
palladium
optics-mechanics coupling
url https://doi.org/10.1007/s13320-025-0742-8
work_keys_str_mv AT xuhuizhang fiberopticsmechanicscouplingsensorforhighperformancehydrogendetection
AT xiaotongli fiberopticsmechanicscouplingsensorforhighperformancehydrogendetection
AT xinpuzhang fiberopticsmechanicscouplingsensorforhighperformancehydrogendetection
AT weipeng fiberopticsmechanicscouplingsensorforhighperformancehydrogendetection