Creating 3D-Printed Plastics with High Performance Electrical Circuits

Rutgers University

Smaller and better-performing biomedical implants, smart structures, advanced satellites, and tiny drones could all soon be on the horizon, thanks to a new innovation from engineers at Rutgers University. They’ve developed a technique that allows them to embed high-performance electrical circuits directly into 3D-printed plastics. This new research could help pave the way for devices that are smaller, faster, and more powerful than their predecessors.

To achieve this goal, engineers used pulses of high-energy light in order to fuse together tiny silver wires. The end result was circuits capable of conducting up to 10 times more electricity than current technologies on the market. The increased conductivity allows researchers to reduce energy use while simultaneously improving both the performance and lifespan of a host of high-tech devices.

Our innovation shows considerable promise for developing an integrated unit – using 3D printing and intense pulses of light to fuse silver nanoparticles – for electronics.

Senior author Rajiv Malhotra, an assistant professor in the Department of Mechanical and Aerospace Engineering in the School of Engineering at Rutgers University–New Brunswick

By embedding electrical interconnections directly inside 3D-printed devices, engineers can develop a whole new series paradigms that will allow them to create smaller, more energy-efficient technology. Constructing devices out of polymers helps to enhance these features, and researchers are already investigating creating a host of small satellites, pressure sensors, light and motion sensors, drones, electrical grids for electromagnetic shielding, and even Global Positioning Systems.

Engineers employed cutting edge “intense pulse light sintering.” This means that they took high-energy light from a xenon lamp and utilized it in order to fuse together long, thin rods of silver. These nanowires are often used to conduct electricity in all sorts of devices including radio-frequency identification (RFID) tags and solar cells. However, the next steps in the process are a bit more unorthodox; 3D internal circuits are constructed to help allow for flexible internal circuits as well as an overall flexible 3D structure. The final product is a versatile, powerful, and compact 3D printed plastic powered by high-performance electrical circuits that open up a whole new world of potential technological possibilities.

Scientists at Rutgers will continue to work on perfecting their new technology, as well as exploring ways it can be adapted to work with a plethora of different devices and applications.

About The Author

Lauren Saccone has been a freelance writer for over 15 years. Her work has appeared in Pacific Standard, The Mary Sue, Parade Magazine, Miles Away, DailyLounge, Inquisitr, Hello Giggles, Bust, and various other outlets. A professional copywriter and SEO specialist, she is a graduate of Eugene Lang College: The New School in New York City.

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