Development of Interdigitated Capacitive Sensor for Real-Time Monitoring of Sub-Micron and Nanoscale Particulate Matters in Personal Sampling Device for Mining Environment

While current personal monitoring devices for mining industry are optimized for monitoring microscale particles, a higher resolution technique is required to detect sub-micron and nanoscale particulate matters (PM) due to smaller volume and mass of the particles. In this work, an interdigitated capa...

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Veröffentlicht in:IEEE sensors journal 2020-10, Vol.20 (19), p.11588-11597
Hauptverfasser: Back, Doosan, Theisen, Daniel, Seo, Weeseong, Tsai, Candace Su-Jung, Janes, David B.
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container_end_page 11597
container_issue 19
container_start_page 11588
container_title IEEE sensors journal
container_volume 20
creator Back, Doosan
Theisen, Daniel
Seo, Weeseong
Tsai, Candace Su-Jung
Janes, David B.
description While current personal monitoring devices for mining industry are optimized for monitoring microscale particles, a higher resolution technique is required to detect sub-micron and nanoscale particulate matters (PM) due to smaller volume and mass of the particles. In this work, an interdigitated capacitive sensor is designed for monitoring sub-micron and nanoscale particle concentration in real-time for mining environment and other applicable environments. The 2 mm \times12 mm disposable sensor chip fits generic air sampling cassette housing. The re-usable readout board uses resistance-capacitance (RC) delay time constant for monitoring capacitance shift and data is recorded in real-time. The sensor showed clear response with respect to a commonly used test dust, and positive capacitance shift is observed after test. Among the collected particles, about 77 % are sub-micron and most of microparticles are agglomerates of sub-micron particles. A simulation study showed that our sensor response is in a region that is proportional to the particle volume collected on sensor. A comparison with gravimetric method showed that less than 1/1000 of collected particle mass on the sampler is responsible for sensor response due to radial distribution of particle deposition and sensor location. The sensor response is converted into a standard airborne mass particle concentration (g/ \text{m}^{3} ) to demonstrate a continuous monitoring of particle concentration. An incorporated microheater improved stable capacitive sensor reading under air flow and various humidity.
doi_str_mv 10.1109/JSEN.2020.2995960
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subjects Agglomerates
Air flow
Air sampling
Airborne sensing
Capacitance
capacitive sensor
Capacitive sensors
Delay time
Dust control
Environmental monitoring
Gravimetry
microheater
Microparticles
Mining industry
Monitoring
Nanoparticles
Nanoscale devices
Particle deposition
Particle mass
Particulate matter
Radial distribution
Real time
real-time monitoring
Real-time systems
Sensors
Time constant
title Development of Interdigitated Capacitive Sensor for Real-Time Monitoring of Sub-Micron and Nanoscale Particulate Matters in Personal Sampling Device for Mining Environment
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