26 Operationen mit der Herz-Lungen-Maschine

Novel Application of Phosphorescent Material for Non‐Volatile Flash Photomemory and Artificial Photonic Synapse

“…With a high level of security, low cost, broad bandwidth, and high data transfer rates make Li-Fi an alternative to wireless fidelity (Wi-Fi). [1][2][3] The development of Li-Fi must follow the exploration of non-volatile flash photomemory with a short photo-programming time, multiple wavelength response, and multilevel behavior to realize big data storage. Optoelectronic devices with photon-recordable functionalities are also exploited to simulate the behaviors of artificial photonic synapses.…”

Nanophotonic Color Routing

“…In contrast to the spectral filtering scheme, the light is sorted toward different directions according to its wavelength. Therefore, it provides promising potentials to overcome commercial pigment/dye coloring technique in terms of efficiency, and may open up entirely new design paradigms for various applications including high-pixel-density imaging/ display, [6][7][8][9][10][11] hologram, [52][53][54][55] optical switching, [69][70][71][72] photovoltaics, [21][22][23]73,74] on-chip spectroscopy, [13,[43][44][45][46][47][48] etc. The content will more focus on the emerging concepts and the technology development trend in particular for the applications in high-resolution imaging, and discuss the pros and cons of current techniques for the integration with image sensors.…”

“…[36,37] Optical properties of microstructures (e.g., gratings) and device performance are usually sizedependent and thus bulky methods in the case of photovoltaics or display are not applicable for imaging, where the dimensions of the image sensor pixels are orders of magnitude smaller than solar cells and display units as shown in Figure 1b,d. It is not only interesting in science to study the fundamental physics in dispersive light manipulating in a scale down to a micron or sub-micron, but also extremely important to develop advanced spectral routing techniques with high-efficiency utilization of the full spectrum for applications such as high-resolution color imaging, [10,38] hyperspectral imaging, [41][42][43] on-chip spectroscopy, [13,[44][45][46][47][48] multi-channel data storage, [49][50][51] color computer-generated hologram, [52][53][54] light fidelity, [55] etc.Recently, nanophotonic spectral engineering technologies have being received tremendous attention and made significant progress. [13,[56][57][58][59][60][61][62] Plasmonic structures demonstrated a color encoding resolution as high as 100 000 dpi.…”