Turning up the heat on next-generation semiconductors
Research sheds light on the properties of novel materials that could be used in electronics operating in extremely hot environments.
Research sheds light on the properties of novel materials that could be used in electronics operating in extremely hot environments.
The unexpected finding could be important for designing spacecraft shielding or in high-speed machining applications.
The material could be made as a thin coating to analyze air quality in industrial or home settings over time.
The chip-scale device could provide sensitive detection of lead levels in drinking water, whose toxicity affects 240 million people worldwide.
Ashutosh Kumar, a materials science and engineering PhD student and MathWorks Fellow, applies his eclectic skills to studying the relationship between bacteria and cancer.
Researchers engineered a hair-thin fabric to create a lightweight, compact, and efficient mechanism to reduce noise transmission in a large room.
The MIT-led projects will investigate novel high-performance designs, materials, processes, and assessment methods for an environmentally sustainable microchip industry.
A pioneer in solid-state ionics and materials science education, Wuensch is remembered for his thoughtful scholarship and grace in teaching and mentoring.
In research that may lead to next-generation airplanes and spacecraft, MIT engineers used carbon nanotubes to prevent cracking in multilayered composites.
Work by MIT engineers could lead to plethora of new applications, including better detectors for nuclear materials at ports.
The advance could help make 3D printing more sustainable, enabling printing with renewable or recyclable materials that are difficult to characterize.
Study shows neutrons can bind to nanoscale atomic clusters known as quantum dots. The finding may provide insights into material properties and quantum effects.
Professor Rafael Jaramillo relishes the challenge of developing new, environmentally beneficial semiconductor materials.
The behavior of granular materials has been difficult to visualize, but a new method reveals their internal forces in 3D detail.
Associate Professor Jeehwan Kim is exploring systems that could take over where silicon leaves off.