Flipping Electrons with Light
Molecular design and light can control electron spin, resulting in fast orientation of the spin direction relative to an applied magnetic field.
Molecular design and light can control electron spin, resulting in fast orientation of the spin direction relative to an applied magnetic field.
Scientists use quantum entangled light for a new form of microscopy able to detect signals normally hidden by quantum noise.
Researchers create DNA nano-chambers with bonds that can control the assembly of targeted nanoparticle structures.
Ozone injection may lead to cleaner, more efficient internal combustion engines.
Highly selective interactions between regions of hybrid polymer particles means they can be programmed to assemble into crystal superstructures.
Study finds atomic-scale ordering of elements in a metallic alloy that is responsible for alloy’s increased strength.
Scientists uncover a microscopic mechanism that involves atomic vibrations in a quantum material that trap electrons.
Scientists discover a ‘super’ current on the perimeter of an exotic material.
Short carbon nanotubes in liposome membranes help fuse the liposomes and cancer cells to directly deliver a cancer-killing drug.
Chromium defects in silicon carbide may provide a new platform for quantum information
Researchers improve their scientific understanding of heterogeneous catalysis by imaging the gas just above the surface of the catalyst.
Using the connected moments mathematical technique decreases the time and computational power needed for quantum computing simulations of chemical systems.