Graphene-quantum dot hybrid enables compact multispectral light detection
Novel photodetector combines quantum dots and graphene to achieve multispectral sensing without bulky optics, advancing miniaturized spectral analysis technology.
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Novel photodetector combines quantum dots and graphene to achieve multispectral sensing without bulky optics, advancing miniaturized spectral analysis technology.
Researchers develop a 3D nanoprinting method that allows real-time observation of color changes as nanostructures grow, enabling precise control of structural colors.
Researchers map confined light states in 3D photonic crystals, revealing novel symmetries and paving the way for advanced optical devices and quantum technologies.
Researchers harness unique properties of graphene oxide integrated onto silicon waveguides to enable all-optical control, power limiting, and nonreciprocal transmission on photonic chips.
Researchers have created a 3D 'dumpling-shaped' structured light field that could enable nanoscale position sensing with 10 nm accuracy and facilitate rapid production of complex microstructures.
Researchers have developed a new 3D printing technique that enables rapid fabrication of smooth, precise optical lenses by eliminating surface defects.
Flat optics metasurfaces enable enhanced, compact, and versatile quantum light sources for applications in quantum communication, sensing, and imaging.
Researchers have developed a method to 3D print complex architectures made of perovskite quantum dot-polymer composites, which could enable sophisticated optoelectronic devices.