Sanghamitra Neogi News
In this seminar, I will present an overview of the research activities of my group, the CU Aerospace Nanoscale Transport Modeling (CUANTAM) Laboratory. In CUANTAM Laboratory, we design and discover new materials to realize future technologies. Additionally, we discover novel pathways to...
Sanghamitra Neogi has earned a key Department of Defense contract to tackle a big problem with tiny electronics: microchips crippled by heat. An assistant professor in the Ann and H.J. Smead Department of Aerospace Engineering Sciences at the University of Colorado 小蓝视频, Neogi is leading a multi-university research team to...
Sanghamitra Neogi is designing new materials at the quantum level to realize future technologies for thermal management and harsh environments like hypersonic flight. An assistant professor in the Ann and H.J. Smead Department of Aerospace
Physicists love recreating the world in software. A simulation lets you explore many versions of reality to find patterns or to test possibilities. But if you want one that鈥檚 realistic down to individual atoms and electrons, you run out of computing
Think of them as master Lego builders, only at an atomic scale. Engineers at CU 小蓝视频 have taken a major step forward in combing advanced computer simulations with artificial intelligence to try to predict how electronics, like the transistors
New findings from CU 小蓝视频 researchers in Physical Review Applied show that nanoscale structures on the surfaces of silicon membranes can significantly change the way that heat travels through the bulk of the membrane. This work could make
Sanghamitra Neogi is part of a team seeking nothing less than a revolutionary leap forward in computing technology by making computers work more like the human brain. The National Science Foundation thinks they may be onto something and has awarded a two-year, $1.7 million "Ideas Lab" grant to further the research. Investigations into...
Sanghamitra Neogi - Assistant Professor, Smead Aerospace Wed. Oct. 10, 2018 | DLC | 12:00 pm Download Flyer Abstract: Heat conduction in macroscopic continuum media is well described by classical physics. However, with continued miniaturization of