Scientists explain a new process that maximizes photon conversion in 2D materials, which could innovate photonic-based applications.
The discovery of green fluorescent protein (GFP), which is made by a jellyfish, transformed cell biology. It allowed scientists to stitch the GFP sequence to proteins from other organisms to trace their movements and interactions in living cells. Now, researchers have designed peptide nanoparticles that can each glow in a variety of colors, opening the door for many new biomedical applications.
Researchers have focused the beam of an X-ray free-electron laser to 6 nanometers, closer to the diameter of a typical atom than obtained in prior work. In conjunction with the extremely brief pulses and high intensities of the laser, researchers can now study matter at extremely high resolution and unprecedented speed.
According to the United Nations, about one-fifth of the world's population lives in areas where water is scarce. Therefore, technologies to produce clean water from undrinkable sources, such as seawater, river or lake water, and contaminated water, are urgently needed. Now, researchers have developed a wood-based steam generator that, with the help of bacterial-produced nanomaterials, harnesses solar energy to purify water.
New technique could lead to new microprocessors that defy Moore's Law.
Researchers have designed peptide nanoparticles that can each glow in a variety of colors, opening the door for many new biomedical applications.
Scientists have succeeded in producing the first graphene ribbons whose crystal lattice contains both periodic pores and a regular pattern of nitrogen atoms. The structure of this new material resembles a ladder, with each rung containing two atoms of nitrogen.
Researchers have developed a wood-based steam generator that, with the help of bacterial-produced nanomaterials, harnesses solar energy to purify water.
Researchers have found a way to detect nanostructures buried under many layers of opaque material, using very high frequency sound waves induced by light. Their findings are promising in view of applications in the semiconductor manufacturing industry, such as wafer alignment.
For many applications in electronics and energy technology, graphene must be combined with other materials: Since graphene is so thin, its properties drastically change when other materials are brought into direct contact with it.
Researchers enhance the accuracy of X-ray free-electron laser measurements closer to the diameter of typical atoms than previously possible.
A unique nanoparticle to deliver a localized cancer treatment inhibits tumor growth in mice, according to researchers.
3D printed cubes,with intricate fractal voids efficiently dissipate shockwaves, potentially leading to new types of lightweight armor and materials to better withstand explosions and impacts.
Researchers have created an innovative new device that will emit single particles of light, or photons, from quantum dots that are the key to practical quantum computers, quantum communications, and other quantum devices.
Researchers develop a set of entirely novel knobs to control correlated electrons and demonstrate that superconductivity can exist without insulating phases in Magic Angle Twisted Bi-layer Graphene.
Scientists have developed a novel instrument that can make three kinds of atom-scale measurements simultaneously: It images single atoms. It maps atomic-scale hills and valleys on metal and insulating surfaces. And it records the flow of current across atom-thin materials subject to giant magnetic fields.
The smallest cell structures can now be imaged even better: The combination of two microscopy methods makes fluorescence imaging with molecular resolution possible for the first time.
Physics team observed extremely fast electronic changes in real time in a special material class.
Scientists have developed a new form of ptychography that uses complex algorithms to achieve faster, more efficient imaging with picometer (one-trillionth of a meter) precision that won?t damage samples so easily.
Layered van der Waals materials are of high interest for electronic and photonic applications, according to researchers who provide new insights into the interactions of layered materials with laser and electron beams.