Published in Nature Physics, a collaboration between the Zuerch Research Group and international colleagues studied the birth of topological defects in a charge density wave.
Sarah C.P. Williams | Heising-Simons Faculty Fellows Program
Felix Fisher, Associate Professor of Chemistry, in his lab where he applies his organic chemistry background to build quantum materials. (Photo by Elena Zhukova)
Imagine a strand of hair, how tiny and fragile it is. Now try to imagine something ten thousand times smaller, which carries electricity and data in the form of...
New video footage captured by Berkeley Lab scientists reveals for the first time that nanoparticle growth is directed not by difference in size, but by defects. (Credit: Haimei Zheng/Berkeley Lab....
Follow the path of Markita Landry to becoming a scientist at UC Berkeley. (Video produced by the Vilcek Foundation)
Markita del Carpio Landry was born in Quebec, Canada, to a Bolivian mother and French Canadian father. She grew up a dual citizen of Bolivia and Canada, and when she was 14, her family immigrated to the United States. The challenge of being thrust into a new school while learning English bolstered del Carpio Landry’s love of science and mathematics; she...
Artist rendering of a layered charge-density-wave material. Blue spheres represent lattice ions while sinusoidal curves represent waves of electron density. In this case, the charge density wave possesses long-range order both within a layer and between layers. (Illustration by Alfred Zong)...
Using 3D STEM (scanning transmission electron microscope) tomography at Berkeley Lab’s Molecular Foundry, Ting Xu and her team mapped out the precise placement of nanoparticles in a self-assembling material. (Courtesy of ACS Nano)
A research team led by Lawrence Berkeley National Laboratory (Berkeley Lab) has demonstrated tiny concentric nanocircles that self...
Photo: Scanning tunneling microscopy image of a zigzag graphene nanoribbon. (Credit: Felix Fischer/Berkeley Lab)
Ever since graphene – a thin carbon sheet just one-atom thick – was discovered more than 15 years ago, the wonder material became a workhorse in materials science research. From this body of work, other researchers...
Scientists at Berkeley Lab, UC Berkeley design 3D-grown material that could speed up production of new technologies for smart buildings and robotics. STEM tomography image of a 3D-grown 100-200-nanometer crystalline disc. (Credit: Berkeley Lab)
Glennda Chui | SLAC National Accelerator Laboratory
Atomic scale quantum dot arrays. Illustration courtesy of the SLAC National Accelerator Laboratory
Bright semiconductor nanocrystals known as quantum dots give QLED TV screens their vibrant colors. But attempts to increase the intensity of that light generate heat instead, reducing the dots’ light-producing efficiency.
