Abstract: An X-ray measurement system with high signal resolution is provided. The X-ray measurement system includes an X-ray generator, an X-ray optical element group, a multi-dimensional X-ray detector and a processing device. The X-ray generator is configured to generate an incident X-ray beam. X-ray optics are used to guide the incident X-ray beam to a to-be-tested sample. The multi-dimensional X-ray detector is used to receive the measurement X-ray generated by irradiating the incident X-ray beam on the to-be-tested sample. The multi-dimensional X-ray detector includes an insulation layer, a plurality of first electrode layers, a photodiode layer, an X-ray conversion material layer made of amorphous selenium, and a second electrode layer. The processing device is configured to collect a to-be-tested X-ray signal and generate a plurality of measurement results that include a plurality of mode signals of different orders.

Abstract: An electrochemical device includes a lithium anode having a red poly(benzonitrile) coating covering at least a portion of the anode; a separator and an air cathode comprising reduced graphene oxide over gas diffusion layer; and an electrolyte comprising an ether solvent, benzonitrile, and a lithium salt.

Abstract: A system and method for performing circuit design analysis obtains a circuit design comprising cells. The cells are associated with cell types. Aging parameters of a core analytical model are determined for each of the cell types in the circuit design to generate a calibrated analytical model. Aging effects for the cells are determined based on the calibrated analytical model and target stress conditions. An aged timing model is determined for the cell types based on the aging effects, an unaged timing model, and the target stress conditions.

Abstract: An electrochemical device includes a lithium anode having a red poly(benzonitrile) coating covering at least a portion of the anode; a separator and an air cathode comprising reduced graphene oxide over gas diffusion layer; and an electrolyte comprising an ether solvent, benzonitrile, and a lithium salt.

Abstract: A composite structure and dispersion employing the same are provided. The composite structure includes 1 part by weight of silver nanowires, and 1.2 to 3 parts by weight of nanofibers, wherein the diameter of the silver nanowires and the diameter of the nanofibers have a ratio of 1:1 to 1:10.

Abstract: An inner slide rail mounting structure for a two-stage server slide rail includes an outer rail, a front bracket, a rear bracket, an outer rail reinforcement bar and an inner rail. The front bracket is affixed to a front end of a front bracket supplementary rail that is slidably inserted into the outer rail reinforcement bar. The rear end of the front bracket supplementary rail is connected with a spring plate that has one end thereof connected to the outer rail reinforcement bar through a tension spring and an opposite end thereof fixedly connected with an outer rail ejection control plate that has an abutment portion abutted against the outer rail reinforcement bar and a press portion extended from the abutment portion for pressing by the user to release the abutment portion from the outer rail reinforcement bar.

Abstract: An inner slide rail mounting structure for a two-stage server slide rail includes an outer rail, a front bracket, a rear bracket, an outer rail reinforcement bar and an inner rail. The front bracket is affixed to a front end of a front bracket supplementary rail that is slidably inserted into the outer rail reinforcement bar. The rear end of the front bracket supplementary rail is connected with a spring plate that has one end thereof connected to the outer rail reinforcement bar through a tension spring and an opposite end thereof fixedly connected with an outer rail ejection control plate that has an abutment portion abutted against the outer rail reinforcement bar and a press portion extended from the abutment portion for pressing by the user to release the abutment portion from the outer rail reinforcement bar.

Abstract: A composite structure and dispersion employing the same are provided. The composite structure includes 1 part by weight of silver nanowires, and 1.2 to 3 parts by weight of nanofibers, wherein the diameter of the silver nanowires and the diameter of the nanofibers have a ratio of 1:1 to 1:10.

Abstract: A separator is provided, which includes a porous polyolefin layer and a nano fiber web thereon, wherein the nano fiber web includes a plurality of nano fibers interwoven with each other. The nano fiber includes polyimide polymerized of diamine and dianhydride, wherein at least one of the diamine and the dianhydride is aliphatic or cycloaliphatic.

Abstract: A single layer structure of micron or nano fibers, and a multi-layer structure of micron and nano fibers. The single layer structure of micron fibers includes a web of micron fibers and an impregnating resin, and has a pore size of 1 nm-500 nm. The web of micron fibers is formed by plural interweaved micron fibers (D?1 ?m). The single layer structure of nano fibers includes a web of nano fibers formed by plural interweaved nano fibers (D<1 ?m). The multi-layer structure of micron and nano fibers includes a web of interweaved micron fibers, a web of nano fibers formed by plural nano fibers interweaved on the web of micron fibers, a mixture layer formed by parts of the interweaved nano and micron fibers, and a resin at least impregnating the mixture layer and parts of the micron fibers of the web of micron fibers.

Abstract: A single fiber layer structure of micron or nano fibers, and a multi-layer structure of micron and nano fibers are provided. The single fiber layer structure of micron fibers comprises a web of micron fibers and an impregnating resin, and has a pore size of 1 nm-500 nm. The web of micron fibers is formed by plural interweaved micron fibers (D?1 ?m). The single fiber layer structure of nano fibers comprises a web of nano fibers formed by plural interweaved nano fibers (D<1 ?m). The multi-layer structure of micron and nano fibers comprises a web of interweaved micron fibers, a web of nano fibers formed by plural nano fibers interweaved on the web of micron fibers, a mixture layer formed by parts of the interweaved nano and micron fibers, and a resin at least impregnating the mixture layer and parts of the micron fibers of the web of micron fibers.

Abstract: A single fiber layer structure of micron or nano fibers, and a multi-layer structure of micron and nano fibers are provided. The single fiber layer structure of micron fibers comprises a web of micron fibers and an impregnating resin, and has a pore size of 1 nm-500 nm. The web of micron fibers is formed by plural interweaved micron fibers (D?1 ?m). The single fiber layer structure of nano fibers comprises a web of nano fibers formed by plural interweaved nano fibers (D<1 ?m). The multi-layer structure of micron and nano fibers comprises a web of interweaved micron fibers, a web of nano fibers formed by plural nano fibers interweaved on the web of micron fibers, a mixture layer formed by parts of the interweaved nano and micron fibers, and a resin at least impregnating the mixture layer and parts of the micron fibers of the web of micron fibers.

Abstract: Disclosed is a method to manufacture a carbon composite structure. First, a polymer nano fiber net is provided. The polymer nano fiber net is thermal oxidized to form an oxidized nano fiber net. The oxidized nano fiber net and an oxidized micro fiber net are stacked and impregnated in a resin. The resin is oxidized. Finally, the oxidized nano fiber net, the oxidized micro fiber net, and the oxidized resin are carbonized at a high temperature to form the carbon composite structure.

Abstract: A single fiber layer structure of micron or nano fibers, and a multi-layer structure of micron and nano fibers are provided. The single fiber layer structure of micron fibers comprises a web of micron fibers and an impregnating resin, and has a pore size of 1 nm-500 nm. The web of micron fibers is formed by plural interweaved micron fibers (D?1 ?m). The single fiber layer structure of nano fibers comprises a web of nano fibers formed by plural interweaved nano fibers (D<1 ?m). The multi-layer structure of micron and nano fibers comprises a web of interweaved micron fibers, a web of nano fibers formed by plural nano fibers interweaved on the web of micron fibers, a mixture layer formed by parts of the interweaved nano and micron fibers, and a resin at least impregnating the mixture layer and parts of the micron fibers of the web of micron fibers.

Abstract: A method for backlight control includes: receiving a display synchronization signal; generating a backlight control signal according to the display synchronization signal; and driving a backlight source according to the backlight control signal. An apparatus for backlight control includes: a signal receiving circuit, for receiving a display synchronization signal; a control circuit, coupled to the signal receiving circuit, for generating a backlight control signal according to the display synchronization signal; and a driving circuit, coupled to the control circuit, for driving a backlight source according to the backlight control signal.

Abstract: A method of fabricating a separator is provided. The method includes providing a porous non-woven substrate, and coating a first resin on the non-woven substrate, wherein the first resin includes hydrophilic oxyalkyl compounds, oxyalkyl polymers, oxyalkenyl alkyl polymers or derivatives thereof. The disclosure also provides a separator prepared by the method.

Abstract: Disclosed is a method to manufacture a carbon composite structure. First, a polymer nano fiber net is provided. The polymer nano fiber net is thermal oxidized to form an oxidized nano fiber net. The oxidized nano fiber net and an oxidized micro fiber net are stacked and impregnated in a resin. The resin is oxidized. Finally, the oxidized nano fiber net, the oxidized micro fiber net, and the oxidized resin are carbonized at a high temperature to form the carbon composite structure.

Abstract: A sensing apparatus includes a sensing cell and a processing circuit. The sensing cell is disposed inside a display panel, and includes a first type sensing device and a second type sensing device. The first type sensing device is arranged to generate a first type sensing signal when the sensing cell receives an input event. The second type sensing device is adjacent to the first type sensing device, and arranged to generate a second type sensing signal when the sensing cell receives the input event, wherein a sensing ability of the first type sensing device to detect the input event is different from a sensing ability of the second type sensing device to detect the input event. The processing circuit is arranged to output a sensing output signal corresponding to the sensing cell according to a difference between the first type sensing signal and the second type sensing signal.

Abstract: An activated carbon fiber for fabricating a supercapacitor electrode and its precursor material are provided. The precursor material of the activated carbon fiber includes polyacrylonitrile (PAN) and a polymer having formula (I): wherein R1 is cyano, phenyl, acetate, or methoxycarbonyl, R2 is ?R3 is C1-7 alkyl, X is chlorine, bromine, tetrafluoroborate (BF4), hexafluorophosphate (PF6), or NH(SO2CH3)2, and m/n is 1-99/99-1.

Abstract: A method for backlight control includes: receiving a display synchronization signal; generating a backlight control signal according to the display synchronization signal; and driving a backlight source according to the backlight control signal. An apparatus for backlight control includes: a signal receiving circuit, for receiving a display synchronization signal; a control circuit, coupled to the signal receiving circuit, for generating a backlight control signal according to the display synchronization signal; and a driving circuit, coupled to the control circuit, for driving a backlight source according to the backlight control signal.