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Researchers at Penn State have discovered a method for improving the quality of one class of 2D materials with potential to achieve wafer-scale growth in the future.

A technique to substitute carbon-hydrogen species into a single atomic layer of the semiconducting material tungsten disulfide, a transition metal dichalcogenide (TMD), dramatically changes the electronic properties of the material.

Proof that a new ability to grow thin films of an important class of materials called complex oxides will, for the first time, make these materials commercially feasible, according to Penn State materials scientists.

In 2017, MRI and Penn State began piloting a new program aimed to support the further development of strategic collaboration with industry.

A new strategic partnership between Penn State and the University of Freiburg in Germany will propel the development of a new class of engineered living materials with potential applications in sustainable infrastructure, robotics technologies, and next-generation medical care.

Ibrahim Tarik Ozbolat, has received four grants totaling about $1.5 million to explore ways to bioprint biological tissues like bone, lungs and other organs for use as models in a variety of studies.

The way barn owl brains use sound to locate prey may be a template for electronic directional navigation devices.

Catchmark is developing new biomaterials by manipulating compounds found in nature.

By discovering a way to combine lithium salts with ceramics, Penn State researchers may have created a new class of materials for longer-lasting batteries.

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