Environment-friendly wearable thermal flow sensors for noninvasive respiratory monitoring
Author(s)
Dinh, Toan
Hoang-Phuong, Phan
Qamar, Afzaal
Tuan-Khoa, Nguyen
Woodfield, Peter
Zhu, Yong
Nam-Trung, Nguyen
Dzung, Viet Dao
Griffith University Author(s)
Year published
2017
Metadata
Show full item recordAbstract
We report on a low-cost, environmentally friendly and wearable thermal flow sensor for non-invasive monitoring of human respiration. The sensor can be manufactured in-house using pencil graphite as a sensing hot film and biodegradable printing paper as a substrate, without using any toxic solvents or cleanroom facilities. The hot film flow sensor offers excellent characteristics such as high sensitivity, high signal-to-noise response to airflow and outstanding long-term stability. We further demonstrate a patch-type wearable sensor for monitoring human respiration. The results indicate that the sensor may be utilized to ...
View more >We report on a low-cost, environmentally friendly and wearable thermal flow sensor for non-invasive monitoring of human respiration. The sensor can be manufactured in-house using pencil graphite as a sensing hot film and biodegradable printing paper as a substrate, without using any toxic solvents or cleanroom facilities. The hot film flow sensor offers excellent characteristics such as high sensitivity, high signal-to-noise response to airflow and outstanding long-term stability. We further demonstrate a patch-type wearable sensor for monitoring human respiration. The results indicate that the sensor may be utilized to medically monitor sleep quality and other personal health concerns.
View less >
View more >We report on a low-cost, environmentally friendly and wearable thermal flow sensor for non-invasive monitoring of human respiration. The sensor can be manufactured in-house using pencil graphite as a sensing hot film and biodegradable printing paper as a substrate, without using any toxic solvents or cleanroom facilities. The hot film flow sensor offers excellent characteristics such as high sensitivity, high signal-to-noise response to airflow and outstanding long-term stability. We further demonstrate a patch-type wearable sensor for monitoring human respiration. The results indicate that the sensor may be utilized to medically monitor sleep quality and other personal health concerns.
View less >
Conference Title
30TH IEEE INTERNATIONAL CONFERENCE ON MICRO ELECTRO MECHANICAL SYSTEMS (MEMS 2017)
Publisher URI
Subject
Biomedical engineering not elsewhere classified