Tag Materials science
UW's Materials Research Science and Engineering Center bring together teams of researchers from diverse backgrounds to better understand disordered materials, including various types of glass, as well as the emergence of order from disordered materials.
UW researchers have discovered a way to enable a prominent additive manufacturing technique called laser powder bed fusion to produce metal parts that have significantly fewer defects.
Silicon-based fiber optics are currently the best structures for high-speed, long distance transmissions, but graphene — an all-carbon, ultra-thin and adaptable material — could improve performance even more.
Not only are top UW–Madison materials science students sought after by industry, but breakthroughs in materials developed at the university often have direct impacts on local businesses.
The study may help structural engineers to understand environmental stressors of polymer composite materials and how to design them to resist microbial degradation.
In the future, these new types of armor could potentially be used as a shield on military vehicles to provide enhanced protection from bullets, as well as on spacecraft to mitigate impacts from meteorite debris.
UW–Madison engineers and Field Day Lab game designers have developed options for productive screen time for kids at home during the COVID-19 pandemic.
UW-Madison researchers demonstrated a method for using magnetic fields to remotely induce soft composite materials to rearrange their internal structure into a variety of new patterns.
To grow layers of single-crystal oxides for electronic components requires neighboring layers to interlock like Lego blocks. A new method throws out that limitation, producing new capabilities for data storage, sensing, energy technologies, biomedical devices and many other applications.
Reversing baldness could someday be as easy as wearing a hat, thanks to a noninvasive, low-cost hair-growth-stimulating technology developed by UW–Madison engineers.
A UW–Madison researcher has succeeded in creating an array of colorful thin diamond films, which will help explore light-powered chemical reactions catalyzed by diamond.
New research at UW–Madison helped researchers achieve the longest-ever useful life of a key component of some types of photovoltaic cells called the photoelectrochemical electrode.
UW-Madison researchers have provided evidence of a hole gas coexisting with two-dimensional electron gas, a key discovery for oxide electronics.