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...
On the Cover: Artist rendering of second harmonic generation spectroscopy in the extreme ultraviolet state. Illustration by Ella Marushenko. (Nano Letters, Vol 21, No 14)
Laura Bush, Editorial Director of Spectroscopy magazine virtually presented Markita Landry with the Emerging Leader in Molecular Spectroscopy Award during the 2020 SciX 2020 conference. Photo courtesy of...
Understanding the detailed nature of complex interfaces has become a quest of profound significance, as it underlies urgently needed advances in many applications, including water purification, desalination, and reclamation technologies, and is vital to central processes in electrochemistry, atmospheric chemistry, biochemistry, and energy conversion. Scientists have developed a new technique to probe interfaces with both surface and element-specific selectivity, demonstrated for the individual graphene layers within bulk graphite.
This year, there will be three new lab groups forming under three new professors. Alanna Schepartz and Michael Zuerch are joining the Department of Chemistry; Karthik Shekhar will be in the Department of Chemical and Biomolecular Engineering. In the fall, new professors are often still in the process of moving in and awaiting new lab space setups.
Matthew Francis, Chair of the Department of Chemistry at UC Berkeley, announces the addition of two new faculty members who will join the College in July. Alanna Schepartz joins the faculty as the T. Z. and Irmgard Chu Distinguished Chair in Chemistry; Michael Zuerch joins the faculty as an Assistant Professor of Physical Chemistry.
Professors Stephen Leone and Norman Yao have been awarded a $1m science and engineering research grant from the W. M. Keck Foundation. The two scientists will utilize a new technique, ultrafast X-ray spectroscopy, to address important unanswered questions about the formation of non-equilibrium topological phases.
UC Berkeley College of Chemistry professors Jeffrey Long and Daniel Neumark have been announced as 2019 American Chemical Society (ACS) awardees for their pioneering chemical research. They will be honored at a ceremony at the spring ACS national meeting in Orlando, Florida, March 31–April 4, 2019.
The three main components of a lithium-ion battery—anode, cathode, and electrolyte—must all be optimized to produce a safe, low-cost, and high-energy product. The cathode has traditionally been the most expensive piece; it stores energy in ordered crystal structures that are based on costly and rare metals, like cobalt. In contrast, manganese is inexpensive, earth abundant, and non-toxic, but substituting the disordered crystal structures of manganese for cobalt-based structures had long been thought to introduce an energy tradeoff. Now, researchers have delivered outstanding performance using two new manganese-based materials.
On the Cover: Artist rendering of second harmonic generation spectroscopy in the extreme ultraviolet state. Illustration by Ella Marushenko. (
Professors Stephen Leone and Norman Yao have been awarded a $1m science and engineering research grant from the W. M. Keck Foundation. The two scientists will utilize a new technique, ultrafast X-ray spectroscopy, to address important unanswered questions about the formation of non-equilibrium topological phases.
UC Berkeley College of Chemistry professors Jeffrey Long and Daniel Neumark have been announced as 2019 American Chemical Society (ACS) awardees for their pioneering chemical research. They will be honored at a ceremony at the spring ACS national meeting in Orlando, Florida, March 31–April 4, 2019.
The three main components of a lithium-ion battery—anode, cathode, and electrolyte—must all be optimized to produce a safe, low-cost, and high-energy product. The cathode has traditionally been the most expensive piece; it stores energy in ordered crystal structures that are based on costly and rare metals, like cobalt. In contrast, manganese is inexpensive, earth abundant, and non-toxic, but substituting the disordered crystal structures of manganese for cobalt-based structures had long been thought to introduce an energy tradeoff. Now, researchers have delivered outstanding performance using two new manganese-based materials.