The U.S. Department of Energy (DOE) announced $8 million in funding for 12 research awards on a range of topics in both basic and use-inspired research in particle accelerator science and technology.
A team of researchers from Penn State’s Materials Research Institute and the University of Utah has developed a wearable energy harvesting device that could generate energy from the swing of an arm while walking or jogging. The device, about the size of a wristwatch, produces enough power to run a personal health monitoring system.
Researchers have made a MOF with the highest electron charge mobilities ever observed, along with a technique to improve the conductivity of other MOFs. The work was led by Lawrence Berkeley National Laboratory.
Visitors flocked to the U.S. Department of Energy’s (DOE) Argonne National Laboratory for the ninth annual Modeling, Experimentation and Validation (MeV) Summer School in late July.
A self-healing membrane that also acts as a reverse filter can block small particles and let large ones through is possible, according to Penn State mechanical engineers who say it is "straight out of science fiction."
Californians do not purchase electric vehicles because they are cool, they buy EVs because they live in a warm climate. Conventional lithium-ion batteries cannot be rapidly charged at temperatures below 50 degrees Fahrenheit
Scientists at the U.S. Department of Energy’s (DOE) Brookhaven National Laboratory have developed a new approach to 3-D x-ray imaging that can visualize bulky materials in great detail—an impossible task with conventional imaging methods. The novel technique could help scientists unlock clues about the structural information of countless materials, from batteries to biological systems.
On August 9, 2018, the U.S. Department of Energy’s (DOE) Brookhaven National Laboratory bid farewell—for now—to approximately 250 students at the concluding ceremony to their 10 weeks of summer research. The daylong celebration honored the students’ efforts and accomplishments—and gave them the opportunity to showcase their work to their mentors, fellow interns, university administrators and faculty, and Brookhaven Lab staff.
Lithium-ion batteries commonly used in consumer electronics are notorious for bursting into flame when damaged or improperly packaged. These incidents occasionally have grave consequences, including burns, house fires and at least one plane crash. Inspired by the weird behavior of some liquids that solidify on impact, researchers have developed a practical and inexpensive way to help prevent these fires.
A team of researchers led by the University of Minnesota has developed a new material that could potentially improve the efficiency of computer processing and memory.
Dr. Gregory E. Hilmas, a ceramic engineer and leading expert in methods to create more durable, next-generation materials, has been named chair of materials science and engineering at Missourri University of Science and Technology.The Curators’ Distinguished Professor of ceramic engineering has served as interim department chair since July 2017.
Ceramic materials are used in nuclear, chemical and electrical power generation industries because of their ability to withstand extreme environments. However, at high temperatures, ceramics are susceptible to thermal-shock fractures caused by rapid temperature-changing events, such as cold water droplet contact with hot surfaces. In a novel interdisciplinary approach, engineers at the University of New Mexico report in AIP Advances the use of a cheap, simple, water-repelling coating to prevent thermal shock in ceramics.
Soldiers on the battlefield or at remote bases often have to wait weeks for vital replacement parts. Now scientists report they have found a way to fabricate many of these parts within hours under combat conditions using water bottles, cardboard and other recyclable materials
found on base as starting materials for 3D printing. They say this ‘game-changing’ advance could improve operational readiness, reduce dependence on outside supply chains and enhance safety.
Once in the territory of science fiction, “nanobots” are closer than ever to becoming a reality, with possible applications in medicine, manufacturing, robotics and fluidics. Today, scientists report progress in developing the tiny machines: They have made nanobot pumps that destroy nerve agents, while simultaneously administering an antidote.
Scientists in the School of Engineering & Applied Science at Washington University in St. Louis have, for the first time, created a biosynthetic spider silk that behaves like the real thing. And they may soon make it even stronger.
Researchers recently discovered that the strength of the magnetic field required to elicit a particular quantum mechanical process corresponds to the temperature of the material. Based on this finding, scientists can determine a sample’s temperature to a resolution of one cubic micron by measuring the field strength at which this effect occurs. Temperature sensing is integral in most industrial, electronic and chemical processes, so greater spatial resolution could benefit commercial and scientific pursuits. The team reports their findings in AIP Advances.
Scientists report they have successfully developed and tested the world’s first ultrathin artificial retina that could vastly improve on existing implantable visualization technology for the blind. The flexible device, based on very thin 2D materials, could someday restore sight to the millions of people with retinal diseases. And with a few modifications, the device could be used to track heart and brain activity.
A fabric coating with thin, lightweight and flexible pressure sensors that can be embedded into shoes and other functional garments, sensors that can measure everything from the light touch of a finger to being driven over by a forklift. And it’s comfortable to boot!