Abstract: A system includes a lighting module, a processing module, and photovoltaic units. Each of the photovoltaic units receives light reflected off a body portion which is illuminated by light from the lighting module, and converts light energy of the reflected light into electricity. The processing module stores modes each of which specifies a code set. When one of the modes is selected, the processing module activates the lighting module to emit light based on the code set specified by the mode thus selected. The processing module converts electrical quantities measured individually for the photovoltaic units into respective code parameters, and composes an identification code using the code parameters.

Abstract: A solar cell device includes a light-transmissive substrate, a solar cell module, an optical composite film assembly, and a light-transmissive top plate. The solar cell module is disposed on the light-transmissive substrate and includes a solar cell unit. The optical composite film assembly is light-transmissive, and includes a light diffusion layer and a fiber layer. The optical composite film assembly and the solar cell module are disposed on each other. The light-transmissive top plate is disposed spaced apart from the light-transmissive substrate and cooperates with the light-transmissive substrate to sandwich the solar cell module and the optical composite film assembly.

Abstract: A solar cell device includes a light-transmissive substrate, a solar cell module, an optical composite film assembly, and a light-transmissive top plate. The solar cell module is disposed on the light-transmissive substrate and includes a solar cell unit. The optical composite film assembly is light-transmissive, and includes a light diffusion layer and a fiber layer. The optical composite film assembly and the solar cell module are disposed on each other. The light-transmissive top plate is disposed spaced apart from the light-transmissive substrate and cooperates with the light-transmissive substrate to sandwich the solar cell module and the optical composite film assembly.

Abstract: A system includes a lighting module, a processing module, and photovoltaic units. Each of the photovoltaic units receives light reflected off a body portion which is illuminated by light from the lighting module, and converts light energy of the reflected light into electricity. The processing module stores modes each of which specifies a code set. When one of the modes is selected, the processing module activates the lighting module to emit light based on the code set specified by the mode thus selected. The processing module converts electrical quantities measured individually for the photovoltaic units into respective code parameters, and composes an identification code using the code parameters.

Abstract: A solar module includes a substrate, a light permeable cover plate, a cell layer, an encapsulate layer and a heat-insulation space. The light permeable cover plate faces a light entry surface of the substrate. The cell layer includes a plurality of solar cells disposed between the substrate and the light permeable cover plate. A total area of the solar cells is smaller than a total area of the substrate. The encapsulation layer is disposed between the substrate and the light permeable cover plate, and encapsulates the solar cells. The heat-insulation space is disposed either between the light permeable base plate and the first diffusion film or between the substrate and the cell layer.

Abstract: An identification system includes an input device and a verification device. A plurality of photovoltaic panels of the input device cooperatively receive light reflected off an object that is illuminated by a lighting module. Each photovoltaic panel converts light energy of the light received thereby into electricity. The input device further includes an electrical measurement unit to measure electrical quantities of the electricity generated by the photovoltaic panels, and an encoding unit to convert the electrical quantities into code parameters and to compose an input code using the code parameters. The verification device communicates with the input device, and verifies the input code.

Abstract: An identification system includes an input device and a verification device. A plurality of photovoltaic panels of the input device cooperatively receive light reflected off an object that is illuminated by a lighting module. Each photovoltaic panel converts light energy of the light received thereby into electricity. The input device further includes an electrical measurement unit to measure electrical quantities of the electricity generated by the photovoltaic panels, and an encoding unit to convert the electrical quantities into code parameters and to compose an input code using the code parameters. The verification device communicates with the input device, and verifies the input code.

Abstract: A solar module having uniform light for assembling on the top of a building to act as a roof is revealed. It comprises a transparent substrate, at least one solar chip, a hot melt adhesive film, a transparent cover plate, and a diffusion film disposed between the transparent substrate and the solar chip.

Abstract: A device for generating electric power and absorbing heat is revealed. It comprises a substrate, a plurality of solar chips, a broad spectrum light absorbing layer and a light scattering film on the substrate and beside the solar chips, a hot melt adhesive film, and a transparent cover plate.

Abstract: A solar energy module is provided and includes a substrate comprising at least one light diffusion layer and a plurality of light guiding layers adjacent to the light diffusion layer, and solar chips disposed on the lateral surfaces of the substrate. Solar light enters the substrate and is diffused by the light diffusion layer, and the diffused solar light is reflected by an interface of the light diffusion layer and the light guiding layer and is collected by the solar chips. A part of the solar light enters the light guiding layers and is reflected by the interface of the light guiding layers, and the reflected light is collected by the solar chips.

Abstract: A curable material is provided. The curable material has the structure of formula I or formula II: wherein, X, R1, R2, m1 to m3, and n1 to n3 are defined as cited in the description.

Abstract: A solar-powered lighting system includes a substrate, wherein at least one solar chip is disposed on one lateral side of the substrate, and at least one light source is disposed on one lateral side of the substrate. Solar light enters the substrate and propagates therein. Solar light energy is collected by the at least one solar chip which transforms the solar light energy into electrical power for the at least one light source to emit light to the substrate, before propagating therein and leaving the substrate.

Abstract: A curable material is provided. The curable material has the structure of formula I or formula II: wherein, X, R1, R2, m1 to m3, and n1 to n3 are defined as cited in the description.

Abstract: An organic opto-electronic polymer having the structure of formula (I) is provided: The polymer can be used in the light-emitting layer of an organic light-emitting element as a blue light-emitting material.

Abstract: A solar-powered lighting system includes a substrate, wherein at least one solar chip is disposed on one lateral side of the substrate, and at least one light source is disposed on one lateral side of the substrate. Solar light enters the substrate and propagates therein. Solar light energy is collected by the at least one solar chip which transforms the solar light energy into electrical power for the at least one light source to emit light to the substrate, before propagating therein and leaving the substrate.

Abstract: A solar energy module is provided and includes a substrate comprising at least one light diffusion layer and a plurality of light guiding layers adjacent to the light diffusion layer, and solar chips disposed on the lateral surfaces of the substrate. Solar light enters the substrate and is diffused by the light diffusion layer, and the diffused solar light is reflected by an interface of the light diffusion layer and the light guiding layer and is collected by the solar chips. A part of the solar light enters the light guiding layers and is reflected by the interface of the light guiding layers, and the reflected light is collected by the solar chips.

Abstract: An organic opto-electronic polymer having the structure of formula (I) is provided: The polymer can be used in the light-emitting layer of an organic light-emitting element as a blue light-emitting material.

Abstract: The invention provides an organic light-emitting polymer having the structure of formula (I): wherein each of the substituents is as defined in the specification and the attached claims. The organic light-emitting polymer can be used in the manufacture of organic light-emitting diode elements.

Abstract: A substituted oligofluorene for organic light-emitting diode (OLED) and organic photoconductor (OPC) has a chemical structure of: wherein X and Y are an integer of 0 or 1, G1 and G2 are independently of either CnH2n+1 or CnH2n+1O; and n is an integer of 0 to 16.