Litcius/Paper detail

Wearable anti-temperature interference strain sensor with metal nanoparticle thin film and hybrid ligand exchange

Young Kyun Choi, Taesung Park, Dong Hyun David Lee, Junhyuk Ahn, Yong Hwan Kim, Sanghyun Jeon, Myung Joon Han, Soong Ju Oh

2022Nanoscale29 citationsDOI

Abstract

was obtained. To investigate the origin of this near-zero TCR, analyses of correlated electrical, thermal, and mechanical properties were performed in addition to structural characterization and analysis. Density functional theory calculations and electrical percolation modeling were performed to illuminate the transport behavior in the near-zero-TCR NP thin films. Finally, we fabricated a high-performance anti-temperature-interference strain sensor using a solution process. The sensors detect a variety of strains, including those arising from large movements, such as wrist and knee movements, and fine movements, such as artery pulses or movements made during calligraphy, and did not respond to temperature changes.

Topics & Concepts

Materials scienceTemperature coefficientNanoparticleInterference (communication)Percolation (cognitive psychology)Strain (injury)SIGNAL (programming language)Resistive touchscreenThin filmNanotechnologyOptoelectronicsComposite materialComputer scienceComputer networkNeuroscienceComputer visionProgramming languageInternal medicineBiologyChannel (broadcasting)MedicineAdvanced Sensor and Energy Harvesting MaterialsGas Sensing Nanomaterials and SensorsConducting polymers and applications