Scientists from Berkeley Lab have developed a practical method that brightens atomically thin TMDC semiconductors for device applications such as solar cells, LEDs, and lasers without chemically treating the materials for defects.
Using cutting-edge theoretical calculations performed at NERSC, researchers at Berkeley Lab’s Molecular Foundry have predicted fascinating new properties of lithium – a light alkali metal that has intrigued scientists for two decades with its remarkable diversity of physical states at high pressures. “Under standard conditions, lithium is a simple metal that forms a textbook crystalline solid. However, scientists
Four Lawrence Berkeley National Laboratory (Berkeley Lab) scientists have been elected into the National Academy of Sciences (NAS) in recognition of their exemplary past and and continuing original research.
Researchers at Berkeley Lab have 3D-printed an all-liquid “lab on a chip” that, with the click of a button, can be repeatedly reconfigured on demand to serve a wide range of applications – from making battery materials to screening drug candidates.
A team of researchers led by Berkeley Lab has observed chirality for the first time in polar skyrmions in a material with reversible electrical properties – a combination that could lead to more powerful data storage devices that continue to hold information, even after they’ve been turned off.
A team of researchers working at Berkeley Lab has discovered the strongest topological conductor yet, in the form of thin crystal samples that have a spiral-staircase structure. The team’s result is reported in the March 20 edition of the journal Nature.
Researchers at Berkeley Lab have developed a platform that uses living cells as “scaffolds” for building self-assembled composite materials. The technology could open the door to self-healing materials and other advanced applications in bioelectronics, biosensing, and smart materials.
A team led by scientists at Berkeley Lab has learned how natural nanoscale defects can enhance the properties of tungsten disulfide, a 2D material.
A simple method developed by a Berkeley Lab-led team could turn ordinary semiconducting materials into quantum machines – superthin devices with extraordinary electronic behavior. Such an advancement could help to revolutionize a number of industries aiming for energy-efficient electronic systems – and provide a platform for exotic new physics.
A research team led by Berkeley Lab has created a nanoscale “playground” on a chip that simulates the formation of exotic magnetic particles called “monopoles.” The study could unlock the secrets to ever-smaller, more powerful memory devices, microelectronics, and next-generation hard drives that employ the power of magnetic spin to store data.