In Print

Raymond ShawRaymond Shaw (Physics/EPSSI) is the principal investigator on a project that has received a $185,703 research and development grant from the National Science Foundation (NSF). Will Cantrell (Physics) is Co-PI on the project “Laboratory Studies of the Effect of Turbulence on Aerosol-Cloud Interactions.”
This is the first year of a possible three-year project potentially totaling $719,035.

Optics Poster Presentations

Students in PH3210 presented posters on their class projects.

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Keegan Downham, Sam Groetsch, and Zack Hjorth (above, L to R) presented “The Quantum Eraser and the Brachistochrone Problem.”

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Robert Stenger (above) presented “Teaching the NGSS Standard HA-PS4-3 Using Diffraction”

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Chris Colby, Matt DeMario, and Jon Berman (above, L to R) presented “Power Modulation of Light through Various Media.”

Yap’s Review Article Top 10 in 2017

Yoke Kin Yap in a lab with lab coat and safety glassesFrontier Review article published by Yoke Khin Yap was one of the Top 10 most downloaded articles published in Environmental Science: Nano in 2017 and was included in a feature collection showcasing the journal’s Most Downloaded Articles. This article, entitled “Water Purification: Oil-water Separation by Nanotechnology and Environmental Concerns” was co-authored by Chee Huei Lee, Bishnu Tiwari, and Dongyan Zhang.

Environmental Science: Nano is a high-impact journal published by the Royal Society of Chemistry. This journal is designated to publish articles on nanomaterial applications and interactions with environmental and biological systems.

Do the Room Temp Melt: Physics of Soft Materials

Screen Shot 2018-01-08 at 4.59.40 PMSalt-doped block polymers and ionic liquids—it’s a thermodynamic party. Better physics simulations crank up the possibilities for new composite materials.

Issei Nakamura is a theoretical physicist bringing a reality check to soft materials development. Specifically, he models the complex interactions of ionic liquids and block polymers, which together create salt-doped block polymers.

The ionic liquid squishes in between all the loops and strands of the block polymer. Because an ionic liquid can assemble a block polymer into millions of structures with wide-ranging properties, the possibilities are nearly endless. The composite materials show promise for battery electrodes, fuel cell membranes, electrochemical sensors and even artificial muscles.

The catch is that the materials have to get their thermodynamic groove figured out. Right now, untwining the conditions and properties of all those possible structures is like learning to tango blindfolded. Researchers and engineers can go through the motions, but understanding the sequence, the steps—and why—requires a new way to look at the system. And that’s where Nakamura steps in. Read the full story in Unscripted.