The Wisconsin MRSEC Educational Video Competition has been launched to promote online science and engineering outreach in the current environment of social distancing where the majority of students are receiving science enrichment at home. The deadline to submit videos is January 20, 2021.
The 2020 Breakthrough Research and Education Workshop (BREW) was held on Thursday, October 1st. 74 faculty, graduate students, postdocs, guest presenters, and staff attended. One of the themes of this year’s BREW was the use of data and machine learning in materials science. The second half of the event was the education workshop.
The Wisconsin MRSEC Research Experience for Teachers (RET) program is a cross-cultural collaboration with the University of Puerto Rico-Mayagüez (UPRM). The RET program provides science teachers from Wisconsin and Puerto Rico an authentic research and cultural literacy professional development experience. The program culminates with an in-person capstone week where the RETs from both sites share the research-inspired classroom activities they have developed and learn from one another about teaching in a different cultural and geographic environment. The teachers learn about the area and culture that is unique to the site hosting the capstone.
The Wisconsin MRSEC has created thin films of a fascinating magnetic material, Pr2Ir2O7, in which the magnetic moments are frustrated: No matter how they are arranged, some of the moments are always fighting to change their direction, like two bar magnets with their north poles shoved together. Frustration creates a rich landscape for discovery and manipulation of new magnetic effects and of electronic phenomena linked to magnetism.
Using physical vapor deposition, researchers produced glassy films that are smooth and uniform, but which also have the molecules aligned with one another and organized in layers. This added structure could make the glass more efficient for conductors and expand the range of materials that can be used in future organic electronics. The colorful images in the figure show measurements using synchrotron x-rays that contrast the disordered starting material and the ordered glass.
IRG 1 showed how the atoms around the defects can restrict their ability to jump between configurations and how defects can talk to each other via sound waves. Both phenomena keep the defects from interfering with sound waves allowing the waves to travel long distances.
Looking for high-quality science and engineering activities that your young learner can do from the comfort of your home? Well then, we’ve got you covered! Check out our At-Home Science Activities page! On that page, you’ll find videos guiding you through the activities, links to more detailed information, and age range. All the activities we post on that page will have their estimated cost listed, as well. We are aiming for the activities to be inexpensive, or even better, FREE!
The Wisconsin MRSEC is committed to being a leader in Open Science, which shares data in digital forms following FAIR1 principles. As part of these efforts the Center has developed a new web site, a best practices guide, and held informational events. This year the Center launched the first Wisconsin MRSEC Excellence in Open Science Prize. The winner was graduate student Bradley Dallin2 for his work on molecules interacting with water, with potential applications from understanding human blood to protein folding diseases like Alzheimer’s. Bradley shared his results in papers, but also shared all his simulations and tools in an open accessible format for the community, increasing the impact of his work.
Researchers at the Wisconsin MRSEC have developed a new instrument using very bright synchrotron x-ray beams to watch nanoscale crystals as they grow. The system has a unique design that allows the crystals to grow in vacuum while keeping the x-ray lenses and the x-ray beam in air but bringing them very close to the crystal. Wisconsin MRSEC researchers are using this new instrument to learn about solid phase epitaxy, a process based on the growth of ordered crystals from a disordered amorphous solid, which is capable of creating new materials for applications in electronics, optics, sensors, and quantum information.
The Wisconsin MRSEC has developed machine learning techniques that enable the design of new toxin sensors using liquid crystal droplets that respond to the presence of different bacterial toxins and at extremely low concentrations by changing shape and appearance. Machine learning enables computers to automatically analyze the droplet responses to measure toxin concentration and type automatically at high accuracy. More generally, these results demonstrate that the machine learning approach can quickly extract valuable information from complex datasets.