Trisha L. Andrew profile photo

Trisha L. Andrew

Professor of Chemistry and Chemical Engineering

  • Amherst MA UNITED STATES

Trisha L. Andrew is a materials scientist whose work focuses on wearable devices, smart garments and textile dyeing/finishing.

Contact

Expertise

Polymers
Textiles
Wearables
Personalized Health Monitoring

Biography

Trisha L. Andrew directs the Wearable Electronics Lab, a multi-disciplinary research team that produces garment-integrated technologies using reactive vapor deposition.

Andrew's lab recently developed a flexible, chalk-based coating which can be added to fabrics that has been found ittoreduced the temperature underneath clothes by up to 15 degrees compared to untreated fabrics.

In 2023, she led a team that solved the 80-year old quest to make a synthetic textile modeled on polar bear fur.

She is a David and Lucile Packard Foundation Fellow, a National Academy of Sciences Kavli Fellow, a L’Oréal USA For Women in Science Fellow, and was named as one Forbes’ magazine “30 Under 30” Innovators in Energy.

Social Media

Video

Education

Massachusetts Institute of Technology

Ph.D.

Chemistry

2012

University of Washington

B.Eng.

Electrical Engineering

2005

University of Washington

B.Sc.

Chemistry

2005

Select Recent Media Coverage

Coating clothes with this simple material could cool your body by up to 8 degrees

CNN  tv

2024-08-24

Researchers at the University of Massachusetts Amherst have developed a flexible, chalk-based coating which can be added to fabrics. ... “We start with your cotton T-shirt… and we just apply this coating on either one or both faces of the fabric,” Trisha L. Andrew, a chemist and materials scientist at UMass, told CNN. “The coating is entirely surface level. It does not penetrate or change the cotton fibers."

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UMass Chemistry Chalks Up a New Way to Keep Cool

UMass Amherst  online

2024-08-21

Who hasn’t wished for clothing that stays cooler during the sultry days of summer? Thanks to the work of Trisha L. Andrew, professor of chemistry, chemistry graduate student Evan D. Patamia and undergraduate Megan K. Yee, we may all be a little closer to comfort. The team has devised a durable chalk-based fabric coating that cools the air underneath the treated fabric by up to 8 degrees Fahrenheit.

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Why Does the Same Temperature Feel Hotter or Colder in Different Places?

Scientific American  online

2024-02-01

Trisha Andrew, professor of chemistry at UMass Amherst, discusses how fabrics behave differently in an article about why the same temperature can feel different. “Unlike synthetics, which are mostly plastics, natural materials actually absorb a small amount of moisture, drying out the air in between layers so that you have less of a conductive channel to radiate heat away from your body,” she says.

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Select Publications

Humidity‐Resistant, Broad‐Range Pressure Sensors for Garment‐Integrated Health, Motion, and Grip Strength Monitoring in Natural Environments

Advanced Materials Technologies

S. Zohreh Homayounfar, Ali Kiaghadi, Deepak Ganesan, Trisha L. Andrew

2022-12-26

Wearable electromechanical sensors are essential to improve health monitoring and off‐site point‐of‐care applications. However, their practicality is restricted by narrow ranges of detection, failure to simultaneously sense static and dynamic pressures, and low durability. Here, an all‐fabric pressure sensor with high sensitivity in a broad range of pressures, from subtle heart pulses to body posture, exceeding that of previously‐reported sensors is introduced.

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Solar thermal textiles for on-body radiative energy collection inspired by polar animals

ACS Applied Materials & Interfaces

Wesley Viola, Peiyao Zhao, and Trisha L. Andrew

2023-04-05

Humans use textiles to maintain thermal homeostasis amidst environmental extremes but known textiles have limited thermal windows. There is evidence that polar-dwelling animals have evolved a different mechanism of thermoregulation by using optical polymer materials to achieve an on-body “greenhouse” effect. Here, we design a bilayer textile to mimic these adaptations. Two ultralightweight fabrics with complementary optical functions, a polypropylene visible-transparent insulator and a nylon visible-absorber–infrared-reflector coated with a conjugated polymer, perform the same putative function as polar bear hair and skin, respectively.

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