February 22nd, 2017 | by Faye Oney
A graduate student at the University of North Carolina created a portable solution to the cumbersome and expensive disease diagnostic tools currently on the market—watch how he used nanotechnology to create a simple biosensor using glass and thin metal films.
February 15th, 2017 | by April Gocha, PhD
A team at the University of Illinois at Urbana–Champaign, Electronics and Telecommunications Research Institute, and Dow Electronic Materials has developed two-way LEDs that can both emit and harvest light—and may enable next-gen, smart touchless displays.
February 8th, 2017 | by April Gocha, PhD
Researchers at Kansas State University have devised and patented a simple, inexpensive, and scalable method to mass produce graphene—using only hydrocarbon gas, oxygen, and a spark plug.
January 26th, 2017 | by April Gocha, PhD
Researchers at Georgia Institute of Technology have devised a technique to transform bulk materials into oxide nanowires at room temperature and pressure, without the use of catalysts, toxic chemicals, or expensive processes.
January 11th, 2017 | by April Gocha, PhD
Engineers at the Massachusetts Institute of Technology (Cambridge, Mass.) have figured out the key to building strong yet light 3-D structures from graphene.
December 14th, 2016 | by Eileen De Guire
Trinity College researchers have mixed graphene with homemade "Silly Putty" to make a composite with extraordinary electromechanical response.
December 6th, 2016 | by April Gocha, PhD
By further understanding the dependence between densification and grain growth, a University of California Davis team of researchers has devised a new process to fabricate fully dense ceramic parts with virtually no grain growth.
November 29th, 2016 | by April Gocha, PhD
Researchers at the University of Central Florida have developed a technique to incorporate 2-D materials into thin and flexible supercapacitor nanostructures that rapidly provide sufficient power and remain stable after countless charging cycles.
November 15th, 2016 | by Stephanie Liverani
Researchers at Rice University recently found that 2-D semiconducting molybdenum diselenide's tensile strength is more brittle than expected, due to the material's inherent flaws—as small as one missing atom can crack the material under strain.
October 19th, 2016 | by Stephanie Liverani
Yihui Zhang, a researcher from Tsinghua University in Beijing, China, developed a 2-D to 3-D model solution to help engineers better fabricate shapes at a microscopic scale.