Abstract: In one embodiment, the wireless charger can be light-weight, thin, and can be hidden and/or integrated inside of handbags, backpacks, jackets, and other accessories. The wireless charger can also be used as a standalone product. The wireless charger charges phones using wireless power transmission and incorporates a battery which can be recharged through a power adapter. When properly integrated, the wireless charger according to embodiments described herein can be integrated into such apparel, accessories, or other products without altering or affecting the appearance of the product. For example, the wireless charger may be seamlessly incorporated into most any apparel and accessories from purses to apparel to jackets if the product has a pocket. Because various aspects of the wireless charger are adaptable, it can be easily customized to meet customer needs.

Abstract: Aspects of present disclosure relates to a binocular pedestrian detection system (BPDS). BPDS includes: a binocular camera to capture certain binocular images of pedestrians passing through a predetermined area, an image/video processing ASIC to process binocular images captured, and a binocular pedestrian detection system controller having a processor, a network interface, and a memory storing computer executable instructions. When executed by processor, computer executable instructions cause processor to perform: capturing, by binocular camera, binocular images of pedestrians, binocularly rectifying binocular images, calculating disparity maps of binocular images rectified, training a dual-stream deep learning neural network, and detecting pedestrians passing through predetermined area using dual-stream deep learning neural network trained.

Abstract: In one embodiment, the wireless charger can be light-weight, thin, and can be hidden and/or integrated inside of handbags, backpacks, jackets, and other accessories. The wireless charger can also be used as a standalone product. The wireless charger charges phones using wireless power transmission and incorporates a battery which can be recharged through a power adapter. When properly integrated, the wireless charger according to embodiments described herein can be integrated into such apparel, accessories, or other products without altering or affecting the appearance of the product. For example, the wireless charger may be seamlessly incorporated into most any apparel and accessories from purses to apparel to jackets if the product has a pocket. Because various aspects of the wireless charger are adaptable, it can be easily customized to meet customer needs.

Abstract: Method for nanopatterning of inorganic materials, such as ceramic (e.g. metal oxide) materials, and organic materials, such as polymer materials, on a variety of substrates to form nanopatterns and/or nanostructures with control of dimensions and location, all without the need for etching the materials and without the need for re-alignment between multiple patterning steps in forming nanostructures, such as heterostructures comprising multiple materials. The method involves patterning a resist-coated substrate using electron beam lithography, removing a portion of the resist to provide a patterned resist-coated substrate, and spin coating the patterned resist-coated substrate with a liquid precursor, such as a sol precursor, of the inorganic or organic material. The remaining resist is removed and the spin coated substrate is heated at an elevated temperature to crystallize the deposited precursor material.

Abstract: Method for nanopatterning of inorganic materials, such as ceramic (e.g. metal oxide) materials, and organic materials, such as polymer materials, on a variety of substrates to form nanopatterns and/or nanostructures with control of dimensions and location, all without the need for etching the materials and without the need for re-alignment between multiple patterning steps in forming nanostructures, such as heterostructures comprising multiple materials. The method involves patterning a resist-coated substrate using electron beam lithography, removing a portion of the resist to provide a patterned resist-coated substrate, and spin coating the patterned resist-coated substrate with a liquid precursor, such as a sol precursor, of the inorganic or organic material. The remaining resist is removed and the spin coated substrate is heated at an elevated temperature to crystallize the deposited precursor material.