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Electronics

Ethan Bowles, a senior biological systems engineering major, makes an adjustment to the steering wheel in an electric car during the GoBabyGo! Build. His team is modifying the car for four-year-old Dayana Torres of Omaha. Bowles was among seven Huskers to assist with the project. This was his third time volunteering for the event.

Twice yearly, Nebraska’s Go Baby Go chapter modifies kid-sized battery powered cars for children with movement difficulties, providing them at no cost to the families. Nebraska’s GoBabyGo! chapter is funded by the Munroe-Meyer Guild. The program is a partnership between MMI's Department of Physical Therapy, the University of Nebraska-Lincoln and the University of Nebraska-Omaha Engineering Department and the UNMC College of Allied Health Professions/Physical Therapy students. The event took place on at the MMI building at 69th and Pine Streets in Omaha on Saturday, April 2, 2022. Photo by Kent Sievers / University of Nebraska Medicine.

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Ethan Krings, graduate student in mechanical engineering from Humphrey, Nebraska, holds a rubber-like “N” embedded with liquid metal droplets that themselves contain glass microparticles, Markvicka's team has improved the material's thermal conductivity while retaining its natural pliability. That could make the approach useful in engineering wearable technologies and soft robotics that can shed the excess heat produced by their microelectronics — reducing the risk of overheating — while remaining lightweight and elastic enough for practical use. November 4, 2021. Photo by Craig Chandler / University Communication

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Eric Markvicka, Assistant Professor in Mechanical and Materials Engineering, center, and Ethan Krings, graduate student in mechanical engineering from Humphrey, Nebraska, look over an elastic polymer embedded with liquid metal droplets that themselves contain glass microparticles, Markvicka's team has improved the material's thermal conductivity while retaining its natural pliability. That could make the approach useful in engineering wearable technologies and soft robotics that can shed the excess heat produced by their microelectronics — reducing the risk of overheating — while remaining lightweight and elastic enough for practical use. November 4, 2021. Photo by Craig Chandler / University Communication.

211104 Markvicka 074

Eric Markvicka, Assistant Professor in Mechanical and Materials Engineering, holds a rubber-like “N” embedded with liquid metal droplets that themselves contain glass microparticles, Markvicka's team has improved the material's thermal conductivity while retaining its natural pliability. That could make the approach useful in engineering wearable technologies and soft robotics that can shed the excess heat produced by their microelectronics — reducing the risk of overheating — while remaining lightweight and elastic enough for practical use. November 4, 2021. Photo by Craig Chandler / University Communication

211104 Markvicka 044

Nebraska engineers (from left) Peter Sutter, Eli Sutter and Shawn Wimer have found advantages to natural imperfections that can emerge when growing nanoscopically thin wires. April 19, 2019. Photo by Greg Nathan / University Communication.

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Nebraska researchers Stephen Morin, and graduate student Abhi Konda, have developed a simpler, less expensive method for depositing circuits on curved, stretchable and textured surfaces. By freeing circuitry from the confines of the flat, rigid circuit board, the technique could expand circuitry's use while saving space, materials and money. September 20, 2018. Photo by Craig Chandler / University Communication.

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Stephen Morin, and graduate student Abhi Konda have reported an easier and cheaper method for painting circuits on curved, textured and stretchable surfaces. September 20, 2018. Photo by Craig Chandler / University Communication.

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Stephen Morin, and graduate student Abhi Konda have reported an easier and cheaper method for painting circuits on curved, textured and stretchable surfaces. September 20, 2018. Photo by Craig Chandler / University Communication.

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Stephen Morin, and graduate student Abhi Konda have reported an easier and cheaper method for painting circuits on curved, textured and stretchable surfaces. September 20, 2018. Photo by Craig Chandler / University Communication.

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All photos are available to UNL departments at no charge. Email the titles of the photos to Craig Chandler or Monica Myers.

cchandler2@unl.edu
mmyers2@unl.edu

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