Articles tagged with Organic Semiconductors
NYU researchers have elucidated a mechanism by which organic molecules attach to semiconductor surfaces, leading to the formation of four principal products. This finding has significant implications for the semiconductor industry, particularly in lithography and surface patterning.
Scientists have developed a novel fabrication technique to study charge transport in organic crystals, resulting in the highest recorded mobility in an organic semiconductor. The method eliminates exposure of fragile surfaces to conventional processing, allowing for pristine crystal samples to be used for device fabrication.
Researchers at University of Utah developed switch-like valves made from organic materials, increasing electrical current flow by 40%. The innovation paves the way for new electronic devices, including computer chips and sensors.
The Cornell team will study the chemistry of inorganic-organic interfaces and develop fabrication methods to overcome difficulties in connecting wires to organic transistors. Their goal is to produce testable devices with useful properties, tackling challenging problems in molecular-based electronics.
A junior scientist has improved the efficiency of organic solar cells and discovered a new type of transistor, enabling flexible circuit manufacture. This breakthrough paves the way for simplification of circuit manufacturing and potential replacement of traditional silicon-based solar cells.
Weizmann Institute scientists developed a new method to incorporate organic molecules into electronic devices, controlling their properties and predicting behavior. The approach overcomes challenges in detecting electrical properties of organic molecules, enabling a feasible way to harness their diversity.
Researchers developed nanometer-sized semiconductor crystals that emit multiple colors of light, enabling the simultaneous measurement of several biological markers. These crystal probes show improved photochemical stability and fluorescence lifetime compared to conventional dye molecules.