Abstract: Disclosed herein is a water-based electrolyte for an electric double layer capacitor. The water-based electrolyte includes a solution having a first salt and a second salt. The cation of the first salt may be Li+, Na+ or K+, whereas the cation of the second salt may be Cl?, SO42?, PO43? or NO3?, whereas the anion of the second salt is OH?.

Abstract: A method for manufacturing an electrode of a supercapacitor is provided. First, a poly(acrylonitrile) (PAN) fabric is provided. The PAN fabric includes a plurality of PAN fibers each having a diameter of about 50-500 nm. Then, the PAN fabric undergoes a heat treatment so that the PAN fibers are carbonized to form a carbon fiber textile. The carbon fiber fabric includes a plurality of carbon fibers each having a diameter of about 50-500 nm. The surface of each carbon fiber is nano-porous having a plurality of nano pores of about 1-50 nm in diameter. The total surface area of the nano pores account for about 85-95% of the total surface area of the carbon fibers. The carbon fiber fabric is then cut to acquire the electrode of the supercapacitor.

Abstract: Disclosed herein is a water-based electrolyte for an electric double layer capacitor. The water-based electrolyte includes a solution having a first salt and a second salt. The cation of the first salt may be Li+, Na+ or K+, whereas the cation of the second salt may be Cl?, SO42?, PO43? or NO3?, whereas the anion of the second salt is OH?.

Abstract: A flexible super capacitor including a pair of flexible electrodes and a separator film is disclosed. Each flexible electrode includes a carbon fiber layer and a collector formed on a surface of the carbon fiber layer. The pair of flexible electrodes has two outer surfaces, and the collector layers are formed on the outer surfaces of the pair of the flexible electrodes. The separator film is disposed between the flexible electrodes. The collector layer would be formed on the carbon fiber layer with surface metalizing the carbon fiber layer. A method for fabricating the flexible electrode of the flexible super capacitor is also disclosed.

Abstract: A liquid crystal display (LCD) panel including an opposite substrate, an active device array substrate, and conductive members is provided. The opposite substrate has transparent conductive blocks. The conductive members are disposed between the opposite substrate and the active device array substrate. The active device array substrate includes scan lines, data lines, common lines, first active devices, pixel electrodes, second active devices, and storage electrodes. Each first active device is electrically connected to the corresponding data line and scan line, and each pixel electrode is electrically connected to one of the first active devices. Each second active device is electrically connected to the corresponding scan line and common line, and each storage electrode is electrically connected to one of the second active devices. Each conductive member is electrically connected to the corresponding transparent conductive block and storage electrode.

Abstract: A flexible power supply apparatus includes a flexible textile capacitor, a power source, a charging part, and a control circuit. The power source is electrically coupled with the flexible textile capacitor. The charging part for charging an electric product or a secondary battery is electrically coupled with the power source. The charging part and the flexible textile capacitor are connected in parallel. The flexible textile capacitor discharges a current to the charging part when the flexible textile capacitor is charged to a predetermined charging level. The control circuit for controlling the charging and discharging of the flexible textile capacitor, and the charging part is electrically coupled with the flexible textile capacitor the power source, and the charging part.

Abstract: A laminate electrode of a bendable supercapacitor has a carbon fabric element and an electrically conductive current collector element secured by staple-shaped metallic fasteners or metallic wires so as to prevent two elements from being taken apart when the laminate electrode is bent.

Abstract: A flexible power supply apparatus includes a flexible textile capacitor, a power source, a charging part, and a control circuit. The power source is electrically coupled with the flexible textile capacitor. The charging part for charging an electric product or a secondary battery is electrically coupled with the power source. The charging part and the flexible textile capacitor are connected in parallel. The flexible textile capacitor discharges a current to the charging part when the flexible textile capacitor is charged to a predetermined charging level. The control circuit for controlling the charging and discharging of the flexible textile capacitor, and the charging part is electrically coupled with the flexible textile capacitor the power source, and the charging part.

Abstract: A method for manufacturing an electrode of a supercapacitor is provided. First, a poly(acrylonitrile) (PAN) fabric is provided. The PAN fabric includes a plurality of PAN fibers each having a diameter of about 50-500 nm. Then, the PAN fabric undergoes a heat treatment so that the PAN fibers are carbonized to form a carbon fiber textile. The carbon fiber fabric includes a plurality of carbon fibers each having a diameter of about 50-500 nm. The surface of each carbon fiber is nano-porous having a plurality of nano pores of about 1-50 nm in diameter. The total surface area of the nano pores account for about 85-95% of the total surface area of the carbon fibers. The carbon fiber fabric is then cut to acquire the electrode of the supercapacitor.

Abstract: A liquid crystal display (LCD) panel including an opposite substrate, an active device array substrate, and conductive members is provided. The opposite substrate has transparent conductive blocks. The conductive members are disposed between the opposite substrate and the active device array substrate. The active device array substrate includes scan lines, data lines, common lines, first active devices, pixel electrodes, second active devices, and storage electrodes. Each first active device is electrically connected to the corresponding data line and scan line, and each pixel electrode is electrically connected to one of the first active devices. Each second active device is electrically connected to the corresponding scan line and common line, and each storage electrode is electrically connected to one of the second active devices. Each conductive member is electrically connected to the corresponding transparent conductive block and storage electrode.

Abstract: A vacuum chamber having a TiO2 target and a base therein is first provided wherein a plastic substrate is fixed onto the base. After that, a plasma gas consisting of argon and oxygen is filled into the vacuum chamber. The filling pressure of the plasma gas is in the range of 1˜10 Pa and the flow ratio of argon to oxygen thereof is in the range of 9:1˜7:1. Finally, an anatase TiO2 layer is formed on the plastic substrate by sputtering, wherein the temperature of the plastic substrate is kept between 50˜180 during the sputtering.

Abstract: A laminate electrode of a bendable supercapacitor has a carbon fabric element and an electrically conductive current collector element secured by staple-shaped metallic fasteners or metallic wires so as to prevent two elements from being taken apart when the laminate electrode is bent.

Abstract: A method for forming photoelectric conversion substrate is provided. First, a conductive substrate is fixed onto a base in a vacuum chamber having a TiO2 target therein. After that, the vacuum chamber is heated so that the temperature therein is kept between 70˜100° C. Then, a plasma gas consisting of argon and oxygen is filled into the vacuum chamber. The filling pressure of the plasma gas is in the range of 1˜10 Pa and the flow ratio of argon to oxygen thereof is in the range of 9:1˜7:1. Finally, an anatase TiO2 layer is formed on the conductive substrate by sputtering. A method for manufacturing a dye-sensitized solar cell is also disclosed in the specification.

Abstract: A flexible super capacitor including a pair of flexible electrodes and a separator film is disclosed. Each flexible electrode includes a carbon fiber layer and a collector formed on a surface of the carbon fiber layer. The pair of flexible electrodes has two outer surfaces, and the collector layers are formed on the outer surfaces of the pair of the flexible electrodes. The separator film is disposed between the flexible electrodes. The collector layer would be formed on the carbon fiber layer with surface metalizing the carbon fiber layer. A method for fabricating the flexible electrode of the flexible super capacitor is also disclosed.

Abstract: A solar cell includes a pair of electrodes, an electrolyte and a titanium dioxide layer. The electrolyte is positioned between the electrodes. The titanium dioxide layer is positioned between one of the electrodes and the electrolyte. Furthermore, the titanium dioxide layer has a rough surface opposite the electrolyte, and a range of ratios of oxygen ions to titanium ions is about 2˜1.9 in the titanium dioxide layer.

Abstract: Each of light bulb assemblies of a light bulb series of the present invention comprises following elements. A base body is having a receiving cavity inside and two conductor holes are positioned in its bottom. An aligning block, configured on a bottom surface of the receiving cavity, held around with an annular frame are respectively positioned two penetrating openings on both sides of the aligned block. A soft holder, holding a light bulb, inserted into the receiving cavity are configured two terminal conductor wires, which are respectively passing through those conductor holes, electrically coupling within its bottom edge. A base plug is formed by configured two fixed pieces on a plate body, wherein two fixed pieces are respectively having a rectangle-like extension portion in a top end and passing through those penetrating openings and positioned in both sides of the soft holder. A light bulb inserted into the soft fuse of the soft holder is hooded by a light bulb housing, which is fixed on the base body.

Abstract: A manufacturing method of Christmas lamp bulb with multiple light spots is proposed. The upper half of a glass pipe is processed by blowing to form a bulb body, and a bulb head is simultaneously formed at the top end of the bulb body by blowing. Next, a mold is used for the step of integral die-casting to form various kinds of strips and patterns on the surface of the bulb body. A light-emitting device is then installed in the bulb body. Subsequently, air in the bulb body is extracted out to vacuate the inside of the bulb body. Finally, a sealing operation is performed to the bulb body to finish a Christmas lamp bulb. Through modification of the surface structure, diversified lighting effects can be produced to effectively set off a string of lamps, hence achieving a better decorative effect.