Review of Flexible Temperature Sensing Networks for Wearable Physiological Monitoring

Physiological temperature varies temporally and spatially. Accurate and real‐time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis, to assess sophisticated health conditions, and further to offe...

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Bibliographic Details
Published inAdvanced healthcare materials Vol. 6; no. 12
Main Authors Li, Qiao, Zhang, Li‐Na, Tao, Xiao‐Ming, Ding, Xin
Format Journal Article
LanguageEnglish
Published Germany Wiley Subscription Services, Inc 01.06.2017
Subjects
Computer Communication Networks
Detection
Emotions
healthcare
Homeostasis
Humans
Mapping
Mechanical properties
Monitoring, Physiologic - methods
Physiology
Platforms
Pliability
sensor networks
Sensors
Skin
stretchable electronics
Structural health monitoring
Temperature
Temperature effects
Temperature sensors
Tissues
wearable
Wearable Electronic Devices
Wearable technology
wearable
sensor networks
temperature sensors
stretchable electronics
healthcare
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Abstract Physiological temperature varies temporally and spatially. Accurate and real‐time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis, to assess sophisticated health conditions, and further to offer possibilities of building a smart healthcare and medical system. Additionally, continuous temperature mapping in flexible and stretchable formats opens up many other potential areas, such as artificially electronic skins and reflection of emotional changes. This review exploits a comprehensive investigation onto recent advances in flexible temperature sensors, stretchable sensor networks, and platforms constructed in soft and compliant formats for wearable physiological monitoring. The most recent examples of flexible temperature sensors are first discussed regarding to their materials, structures, electrical and mechanical properties; temperature sensing network technologies in new materials and structural designs are then presented based on platforms comprised of multiple physical sensors and stretchable electronics. Finally, wearable applications of the sensing network are described, such as detection of human activities, monitoring of health conditions, and emotion‐related bodily sensations. Conclusions are made with emphasis on critical issues and new trends in the field of wearable temperature sensor network technologies. Accurate and real‐time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis and to assess sophisticated health conditions. This review exploits recent advances in flexible temperature sensors, stretchable sensor networks, and platforms constructed in soft and compliant formats for wearable physiological monitoring.
AbstractList Physiological temperature varies temporally and spatially. Accurate and real‐time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis, to assess sophisticated health conditions, and further to offer possibilities of building a smart healthcare and medical system. Additionally, continuous temperature mapping in flexible and stretchable formats opens up many other potential areas, such as artificially electronic skins and reflection of emotional changes. This review exploits a comprehensive investigation onto recent advances in flexible temperature sensors, stretchable sensor networks, and platforms constructed in soft and compliant formats for wearable physiological monitoring. The most recent examples of flexible temperature sensors are first discussed regarding to their materials, structures, electrical and mechanical properties; temperature sensing network technologies in new materials and structural designs are then presented based on platforms comprised of multiple physical sensors and stretchable electronics. Finally, wearable applications of the sensing network are described, such as detection of human activities, monitoring of health conditions, and emotion‐related bodily sensations. Conclusions are made with emphasis on critical issues and new trends in the field of wearable temperature sensor network technologies.
Physiological temperature varies temporally and spatially. Accurate and real-time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis, to assess sophisticated health conditions, and further to offer possibilities of building a smart healthcare and medical system. Additionally, continuous temperature mapping in flexible and stretchable formats opens up many other potential areas, such as artificially electronic skins and reflection of emotional changes. This review exploits a comprehensive investigation onto recent advances in flexible temperature sensors, stretchable sensor networks, and platforms constructed in soft and compliant formats for wearable physiological monitoring. The most recent examples of flexible temperature sensors are first discussed regarding to their materials, structures, electrical and mechanical properties; temperature sensing network technologies in new materials and structural designs are then presented based on platforms comprised of multiple physical sensors and stretchable electronics. Finally, wearable applications of the sensing network are described, such as detection of human activities, monitoring of health conditions, and emotion-related bodily sensations. Conclusions are made with emphasis on critical issues and new trends in the field of wearable temperature sensor network technologies.Physiological temperature varies temporally and spatially. Accurate and real-time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis, to assess sophisticated health conditions, and further to offer possibilities of building a smart healthcare and medical system. Additionally, continuous temperature mapping in flexible and stretchable formats opens up many other potential areas, such as artificially electronic skins and reflection of emotional changes. This review exploits a comprehensive investigation onto recent advances in flexible temperature sensors, stretchable sensor networks, and platforms constructed in soft and compliant formats for wearable physiological monitoring. The most recent examples of flexible temperature sensors are first discussed regarding to their materials, structures, electrical and mechanical properties; temperature sensing network technologies in new materials and structural designs are then presented based on platforms comprised of multiple physical sensors and stretchable electronics. Finally, wearable applications of the sensing network are described, such as detection of human activities, monitoring of health conditions, and emotion-related bodily sensations. Conclusions are made with emphasis on critical issues and new trends in the field of wearable temperature sensor network technologies.
Physiological temperature varies temporally and spatially. Accurate and real‐time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis, to assess sophisticated health conditions, and further to offer possibilities of building a smart healthcare and medical system. Additionally, continuous temperature mapping in flexible and stretchable formats opens up many other potential areas, such as artificially electronic skins and reflection of emotional changes. This review exploits a comprehensive investigation onto recent advances in flexible temperature sensors, stretchable sensor networks, and platforms constructed in soft and compliant formats for wearable physiological monitoring. The most recent examples of flexible temperature sensors are first discussed regarding to their materials, structures, electrical and mechanical properties; temperature sensing network technologies in new materials and structural designs are then presented based on platforms comprised of multiple physical sensors and stretchable electronics. Finally, wearable applications of the sensing network are described, such as detection of human activities, monitoring of health conditions, and emotion‐related bodily sensations. Conclusions are made with emphasis on critical issues and new trends in the field of wearable temperature sensor network technologies. Accurate and real‐time detection of localized temperature changes in biological tissues regardless of large deformation is crucial to understand thermal principle of homeostasis and to assess sophisticated health conditions. This review exploits recent advances in flexible temperature sensors, stretchable sensor networks, and platforms constructed in soft and compliant formats for wearable physiological monitoring.
Author Li, Qiao
Zhang, Li‐Na
Tao, Xiao‐Ming
Ding, Xin
Author_xml – sequence: 1
  givenname: Qiao
  surname: Li
  fullname: Li, Qiao
  organization: Donghua University
– sequence: 2
  givenname: Li‐Na
  surname: Zhang
  fullname: Zhang, Li‐Na
  organization: Donghua University
– sequence: 3
  givenname: Xiao‐Ming
  surname: Tao
  fullname: Tao, Xiao‐Ming
  email: xiao-ming.tao@polyu.edu.hk
  organization: The Hong Kong Polytechnic University
– sequence: 4
  givenname: Xin
  surname: Ding
  fullname: Ding, Xin
  email: xding@dhu.edu.cn
  organization: Donghua University
BackLink https://www.ncbi.nlm.nih.gov/pubmed/28547895$$D View this record in MEDLINE/PubMed
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sensor networks
temperature sensors
stretchable electronics
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Snippet Physiological temperature varies temporally and spatially. Accurate and real‐time detection of localized temperature changes in biological tissues regardless...
Physiological temperature varies temporally and spatially. Accurate and real-time detection of localized temperature changes in biological tissues regardless...
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SubjectTerms Computer Communication Networks
Detection
Emotions
healthcare
Homeostasis
Humans
Mapping
Mechanical properties
Monitoring, Physiologic - methods
Physiology
Platforms
Pliability
sensor networks
Sensors
Skin
stretchable electronics
Structural health monitoring
Temperature
Temperature effects
Temperature sensors
Tissues
wearable
Wearable Electronic Devices
Wearable technology
Title Review of Flexible Temperature Sensing Networks for Wearable Physiological Monitoring
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fadhm.201601371
https://www.ncbi.nlm.nih.gov/pubmed/28547895
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https://www.proquest.com/docview/1903166587
Volume 6
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