We use cookies to understand how you use our site and to improve your experience. This includes personalizing content and advertising. To learn more, click here. By continuing to use our site, you accept our use of cookies. Cookie Policy.

Features Partner Sites Information LinkXpress
Sign In
Advertise with Us
PURITAN MEDICAL

Download Mobile App




Smart Fibers Could Allow T-Shirts to Analyze Electrolytes and Metabolites in Sweat

By LabMedica International staff writers
Posted on 23 Jan 2023
Print article
Image: The microelectronic fibers fabricated by the thermal drawing process and its fabrics for sweat sensing (Photo courtesy of Jingxuan Wu et al)
Image: The microelectronic fibers fabricated by the thermal drawing process and its fabrics for sweat sensing (Photo courtesy of Jingxuan Wu et al)

Fibers and fabrics have become an integral part of our daily lives, although much remains unchanged for them despite centuries of human progression. Nevertheless, recent advancements in the multi-material fiber drawing process have led to the development of new multifunctional, fiber-based smart fabrics. Smart fabrics make it possible to seamlessly integrate electronics, optics, biosensors, and mechanics into a thin strand of fiber that is intrinsically flexible and as thin as the human hair. Such fabrics can then be used for monitoring the vital physiological signals related to human mental and physical health.

Now, a team of researchers at Tohoku University (Sendai, Japan) has developed a microelectronic fiber with microscopic parameters that is capable of analyzing electrolytes and metabolites in sweat. The micrometer scale of the microelectronic fiber enables it to be woven into clothes for healthcare applications. The researchers developed the microelectronic fiber by leveraging the versatile thermal drawing process, in which heat is applied to draw out micro-structured fiber from its macroscopic preform. The researchers also patterned on two sensing electrodes for sodium and uric acid on the longitudinal surface of the fiber.

Mainstream photolithography and printing technology have made wearable electronics possible, although this generally requires the attachment of fairly rigid electronic patches to the existing fabrics or directly on the skin, resulting in just a small area of the body being covered. The new microelectronic fiber could pave the way for fiber-based smart clothes that offer more versatility in terms of functions, larger sensing areas, and greater comfort. The new smart fabric could revolutionize the textile and healthcare industries, according to the researchers, benefiting the overall society.

"Our breakthrough is the first successful attempt at using thermally drawn fiber in wearable bioelectronics for monitoring biochemical signatures," said Dr. Yuanyuan Guo, assistant professor at Tohoku University's Frontier Research Institute for Interdisciplinary Sciences, who led the research team.

Related Links:
Tohoku University 

Platinum Member
COVID-19 Rapid Test
OSOM COVID-19 Antigen Rapid Test
Magnetic Bead Separation Modules
MAG and HEATMAG
POCT Fluorescent Immunoassay Analyzer
FIA Go
Gold Member
ADAMTS-13 Protease Activity Test
ATS-13 Activity Assay

Print article

Channels

Clinical Chemistry

view channel
Image: The 3D printed miniature ionizer is a key component of a mass spectrometer (Photo courtesy of MIT)

3D Printed Point-Of-Care Mass Spectrometer Outperforms State-Of-The-Art Models

Mass spectrometry is a precise technique for identifying the chemical components of a sample and has significant potential for monitoring chronic illness health states, such as measuring hormone levels... Read more

Hematology

view channel
Image: The CAPILLARYS 3 DBS devices have received U.S. FDA 510(k) clearance (Photo courtesy of Sebia)

Next Generation Instrument Screens for Hemoglobin Disorders in Newborns

Hemoglobinopathies, the most widespread inherited conditions globally, affect about 7% of the population as carriers, with 2.7% of newborns being born with these conditions. The spectrum of clinical manifestations... Read more

Immunology

view channel
Image: A false color scanning election micrograph of lung cancer cells grown in culture (Photo courtesy of Anne Weston)

AI Tool Precisely Matches Cancer Drugs to Patients Using Information from Each Tumor Cell

Current strategies for matching cancer patients with specific treatments often depend on bulk sequencing of tumor DNA and RNA, which provides an average profile from all cells within a tumor sample.... Read more

Microbiology

view channel
Image: Microscope image showing human colorectal cancer tumor with Fusobacterium nucleatum stained in a red-purple color (Photo courtesy of Fred Hutch Cancer Center)

Mouth Bacteria Test Could Predict Colon Cancer Progression

Colon cancer, a relatively common but challenging disease to diagnose, requires confirmation through a colonoscopy or surgery. Recently, there has been a worrying increase in colon cancer rates among younger... Read more

Pathology

view channel
Image: Fingertip blood sample collection on the Babson Handwarmer (Photo courtesy of Babson Diagnostics)

Unique Hand-Warming Technology Supports High-Quality Fingertip Blood Sample Collection

Warming the hand is an effective way to facilitate blood collection from a fingertip, yet off-the-shelf solutions often do not fulfill laboratory requirements. Now, a unique hand-warming technology has... Read more
Copyright © 2000-2024 Globetech Media. All rights reserved.