Next-Generation Sensors with Three-Dimensional Micro-/Nano-Structures
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Innovative sensor technologies are crucial in various fields, including environmental monitoring, healthcare, and industrial applications. Sensor fabrication at the nano/microscale and the introduction of 3D structures can improve the sensitivity, response time, andoverall performance of the sensor. Specifically, 3D architectures allow improved surface areas and interactions with target substances,whereas miniaturization facilitates improved sensitivity and integration into compact devices. This review discusses the recent advancementsin five types of sensors, namely, gas sensors, strain sensors, environmental sensors, photodetectors, and biosensors, emphasizingthe importance of structural innovations and size reduction in enhancing sensing capabilities. The essential design, fabrication methods,and potential applications are explored, highlighting the transformative impact of these technologies on future sensor development.
Abstract
Innovative sensor technologies are crucial in various fields, including environmental monitoring, healthcare, and industrial applications. Sensor fabrication at the nano/microscale and the introduction of 3D structures can improve the sensitivity, response time, andoverall performance of the sensor. Specifically, 3D architectures allow improved surface areas and interactions with target substances,whereas miniaturization facilitates improved sensitivity and integration into compact devices. This review discusses the recent advancementsin five types of sensors, namely, gas sensors, strain sensors, environmental sensors, photodetectors, and biosensors, emphasizingthe importance of structural innovations and size reduction in enhancing sensing capabilities. The essential design, fabrication methods,and potential applications are explored, highlighting the transformative impact of these technologies on future sensor development.
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