Stanford Institute for Materials & Energy Sciences (SIMES)
SIMES researchers study complex, novel materials that could transform the energy landscape by making computing much more efficient or transmitting power over long distances with no loss, for instance.
An illustration shows polarons – fleeting distortions in a material’s atomic lattice ––in a promising next-generation energy material, lead hybrid perovskite.
(Greg Stewart/SLAC National Accelerator Laboratory)
Computer simulations by SLAC physicists show how light pulses can create channels that conduct electricity with no resistance in some atomically thin semiconductors.
Scientists at Stanford and SLAC use diamondoids – the smallest possible bits of diamond – to assemble atoms into the thinnest possible electrical wires.
Understanding how a material’s electrons interact with vibrations of its nuclear lattice could help design and control novel materials, from solar cells to high-temperature...
Researchers have engineered a low-cost plastic material that could become the basis for clothing that cools the wearer, reducing the need for energy-consuming air...
Computer simulations by SLAC physicists show how light pulses can create channels that conduct electricity with no resistance in some atomically thin semiconductors.
Scientists at Stanford and SLAC use diamondoids – the smallest possible bits of diamond – to assemble atoms into the thinnest possible electrical wires.
Squeezing a platinum catalyst a fraction of a nanometer nearly doubles its catalytic activity, a finding that could lead to better fuel cells and other clean energy technologies.
Understanding how a material’s electrons interact with vibrations of its nuclear lattice could help design and control novel materials, from solar cells to high-temperature superconductors.
Researchers have engineered a low-cost plastic material that could become the basis for clothing that cools the wearer, reducing the need for energy-consuming air conditioning.