Faculty highlight: Nuh Gedik
Associate professor's work on topological insulators and atomically thin materials yields new, laser-driven approaches to materials for electronics.
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The second semiconductor revolution
Materials Day, Oct. 14, presents insights into the next generation of extremely thin, tough quantum materials for sensing, energy. and computing devices.
Big range of behaviors for tiny graphene pores
Like biological channels, graphene pores are selective for certain types of ions.
How to make large 2-D sheets
MIT-led team develops method for scaling up production of thin electronic material.
Inexpensive new catalysts can be fine-tuned
Material could replace precious metals and produce precisely controlled electrochemical reactivity.
How to spawn an “exceptional ring”
Researchers create exotic states that could lead to new kinds of sensors and optical devices.
Tiny wires could provide a big energy boost
Yarns of niobium nanowire can make supercapacitors to provide a surge of energy when it’s needed
Explained: chemical vapor deposition
Technique enables production of pure, uniform coatings of metals or polymers, even on contoured surfaces.
Thin coating on condensers could make power plants more efficient
Graphene layer one atom thick could quadruple rate of condensation heat transfer in generating plants.
Measuring hot electrons
MIT graduate student Qiong Ma is uncovering electrical properties of graphene-based devices using laser-light stimulation.
How to make continuous rolls of graphene
New manufacturing process could take exotic material out of the lab and into commercial products.
Taking control of light emission
Researchers find a way of tuning light waves by pairing two exotic 2-D materials.
Probing graphene physics
MIT postdoc Javier Sanchez-Yamagishi charts quantum signatures of electronic transport in graphene.
