National Semiconductor Distinguished Professor of Engineering
Associate Dean for Research
Office: 510 Sutardja Dai Hall
Email: jbokor AT eecs DOT berkeley DOT edu
Prof Bokor's Website
jgorchon AT lbl DOT gov
Jon received his engineering degree and M.A. in nanosciences in 2011 from the National Institute of Applied Sciences (INSA) of Toulouse, France. During his studies he completed an exchange year in Tohoku University
in Sendai (Japan), where he initiated his lab training in the Information and Storage Systems group. He then worked as a PhD student on field and current induced magnetisation dynamics in metallic and semiconducting
ferromagnets at the Laboratoire de Physique des Solides in Orsay (near Paris).
After he completed his PhD in 2014, he joined the Bokor group at UC Berkeley in order to study ultrafast magnetisation dynamics and spin-orbital effects by using an amplified femtosecond laser and different magnetic probing techniques such as MOKE or MSHG.
leekhoon AT berkeley DOT edu
Roberto Lo Conte
rloconte AT berkeley DOT edu
Roberto received his B.S. and M.S. in Physics Engineering from the Politecnico di Milano (Italy) in 2009 and 2012, and his M.S. in Engineering (Microelectronics) from the Royal Institute of Technology (KTH) in
Stockholm (Sweden) in 2012, with a final project in Spintronics. Roberto joined the Institute of Physics of the Johannes Gutenberg University of Mainz (Germany), where
he received his Doctorate in Physics in December 2015. His PhD project was focused on the study of spin-orbit torques and Dzyaloshinskii-Moriya interaction in low symmetry magnetic heterostructures.
After he completed his PhD, Roberto joined the Bokor Group at UC Berkeley in March 2016. His current research topic is the investigation of magnetic DW motion in multiferroic heterostructures, which seem to offer a new path towards the development of energy efficient memory, logic, and microfluidic devices. X-ray photo-emission electron microscopy, MOKE and Kerr microscopy are some of the experimental tools employed in his esperimental work.
shuangwu AT berkeley DOT edu
aelghazaly AT berkeley DOT edu
Amal received both her B.S. and M.S. degrees in electrical and computer engineering from Carnegie Mellon University in 2011. She then earned a PhD in electrical engineering from Stanford University, where she was
funded by both NSF and NDSEG graduate research fellowships until her graduation in 2016. Her PhD research focused on radio frequency devices using magnetic and magnetoelectric thin-film composites.
Her current research explores new possibilities for ultrafast switching of magnetic nanodots. This project involves examining avenues for reducing the energy and time required for switching as well as completely integrating the magnetic nanoscale devices into semiconductor electrical systems.
6th year graduate student, MSE
y-yang AT berkeley DOT edu
Yang got his B.S. in mathematics and physics from Tsinghua University, China. Yang works on studying ultrafast spin dynamics with femtosecond laser. To investigate ultrafast spin dynamics triggered by
ultrashort laser pulse (60fs), he built up a Time-Resolved Magneto Optic Kerr Effect (TRMOKE) setup. With this we are able to probe the spin dynamics within one picosecond.
He is working on projects such as heat assisted spin-hall switching and ultrafast all-optical switching of GdFeCo.
3rd year graduate student, EECS
akshaypattabi AT berkeley DOT edu
His research interests include nanomagnetism and ultrafast magnetization dynamics, and he is currently working on a project on Spin Hall Effect. Spin Hall Effect is the creation of a spin imbalance transverse to the direction of charge flow in materials with high spin-orbit coupling. Potential applications of this phenomenon include integration into spintronic devices for memory and logic. The aim of the project is to measure Spin Hall Effect in different metals optically through magnetization induced second harmonic generation.
Juan Pablo "JP" Llinás
3rd year graduate student, EECS
jpllinas AT berkeley DOT edu
JP investigates the electrical transport and optical properties of self-assembled graphene nanoribbons (GNRs) and GNR heterojunctions via device measurements and optical spectroscopy. His goal is to fabricate high performance GNR devices.