Transition duration of ingested deuterium oxide to eccrine sweat during exercise in the heat

Church, Adam; Lee, Fanny; Buono, Michael J.

doi:10.1016/j.jtherbio.2016.11.018

Cited by 4 publications

(3 citation statements)

References 32 publications

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“…Textile optoelectronics‐integrated warning control systems capable of distinguishing different abnormal signals can potentially serve as a future on‐body “nurse” for routine personal healthcare monitoring and emergency assistance. [ 288,289 ] Yang et al. presented a non‐printed integrated‐circuit textile (NIT) by weaving fiber‐based transistors, sensors, diodes, and solar cells into a deformable textile circuit (Figure 8d).…”

Section: Application Of Textile Optoelectronics‐integrated Logic Systemsmentioning

confidence: 99%

“…Textile optoelectronics-integrated warning control systems capable of distinguishing different abnormal signals can potentially serve as a future on-body "nurse" for routine personal healthcare monitoring and emergency assistance. [288,289] Yang et al presented a non-printed integrated-circuit textile (NIT) by weaving fiber-based transistors, sensors, diodes, and solar cells into a deformable textile circuit (Figure 8d). [290] The NIT could make logical judgments and send different logical binaries to trigger early warning alarms for different emergencies including stumbling diabetes, hypoglycemia, nocturnal fever, diurnal dehydration, and metabolic alkalosis by emitting infrared LED signals with different intensities (Figure 8e).…”

Section: Logic Control Systemsmentioning

confidence: 99%

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Smart Textile Optoelectronics for Human‐Interfaced Logic Systems

Peng,

Li,

Tao

et al. 2023

Adv Funct Materials

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Textiles with a freedom of form factor, unlimited scalability, and high programmability provide an ideal platform for constructing wearable optoelectronic systems. The emerging wearable technologies, like artificial intelligence and Internet of Things, have driven the development of textile optoelectronics from simple functional blocks to sophisticated logic systems, offering a seamless, breathable, and programmable on‐body platform to synergistically sense, analyze, store, and feedback information in response to complex commands. In the past few years, the creation of such smart textile optoelectronics‐based logic systems is boosted by nanomaterial science and manufacturing integration technologies and has revolutionized human–machine interaction paradigms in numerous emerging fields. Herein, in this review, the recent progress of smart textile optoelectronics for human‐interfaced logic systems is timely summarized. This review begins with a concise discussion about the wearability evaluation and integration consideration of textile optoelectronic devices. Then, important breakthroughs in human‐interfaced logic systems based on smart textile optoelectronics are demonstrated by highlighting their representative device, working principle, and application scenarios. Finally, the existing challenges and potential directions in the field of textile optoelectronics‐integrated logic systems are analyzed.

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Section: Application Of Textile Optoelectronics‐integrated Logic Systemsmentioning

confidence: 99%

Section: Logic Control Systemsmentioning

confidence: 99%

Smart Textile Optoelectronics for Human‐Interfaced Logic Systems

Peng,

Li,

Tao

et al. 2023

Adv Funct Materials

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“…5d-f, a patient with a history of chronic diabetes needs special care for his or her sweating and body motion status. Complications, like hypoglycemia and epilepsy usually companied with an increased pH value of sweat and abnormal body moving, which can be life-threatening but in need of 24/7 monitoring for achieving early alarm [40][41][42] . COVID-19 patients also require extensive healthcare 43,44 .…”

Section: Structural Design Of the Non-printed Integrated-circuit Textilementioning

confidence: 99%

A non-printed integrated-circuit textile for wireless theranostics

et al. 2021

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While the printed circuit board (PCB) has been widely considered as the building block of integrated electronics, the world is switching to pursue new ways of merging integrated electronic circuits with textiles to create flexible and wearable devices. Herein, as an alternative for PCB, we described a non-printed integrated-circuit textile (NIT) for biomedical and theranostic application via a weaving method. All the devices are built as fibers or interlaced nodes and woven into a deformable textile integrated circuit. Built on an electrochemical gating principle, the fiber-woven-type transistors exhibit superior bending or stretching robustness, and were woven as a textile logical computing module to distinguish different emergencies. A fiber-type sweat sensor was woven with strain and light sensors fibers for simultaneously monitoring body health and the environment. With a photo-rechargeable energy textile based on a detailed power consumption analysis, the woven circuit textile is completely self-powered and capable of both wireless biomedical monitoring and early warning. The NIT could be used as a 24/7 private AI “nurse” for routine healthcare, diabetes monitoring, or emergencies such as hypoglycemia, metabolic alkalosis, and even COVID-19 patient care, a potential future on-body AI hardware and possibly a forerunner to fabric-like computers.

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