Abstract: A display device includes a plurality of transparent voltage-dividing common electrodes and a plurality of pixel units. The transparent voltage-dividing common electrodes are electrically isolated from each other in a first direction. Each of the pixel units includes a first pixel electrode, a second pixel electrode, and a voltage-dividing switch. The first pixel electrode is configured to receive a data voltage. The second pixel electrode is configured to receive the data voltage. The voltage-dividing switch is configured to divide the data voltage on the second pixel electrode to one of the transparent voltage-dividing common electrodes.

Abstract: A display device includes a first substrate, a first metal layer, a gate insulating layer, semiconductor channels, a second metal layer, a color filter layer, a shielding electrode, an insulating layer, pixel electrodes, a liquid crystal layer, a second substrate and a second common electrode. The first metal layer is located on the first substrate and includes scan lines, gates and first common electrodes. The gate insulating layer is located on the first metal layer. The semiconductor channels are located on the gate insulating layer. The second metal layer is located on the gate insulating layer, and includes sources, drains and data lines. The color filter layer is located on the second metal layer. The shielding electrode at least partially overlaps the second metal layer. The insulating layer is located on the color filter layer. The second common electrode is located on the second substrate.

Abstract: A display device includes a plurality of transparent voltage-dividing common electrodes and a plurality of pixel units. The transparent voltage-dividing common electrodes are electrically isolated from each other in a first direction. Each of the pixel units includes a first pixel electrode, a second pixel electrode, and a voltage-dividing switch. The first pixel electrode is configured to receive a data voltage. The second pixel electrode is configured to receive the data voltage. The voltage-dividing switch is configured to divide the data voltage on the second pixel electrode to one of the transparent voltage-dividing common electrodes.

Abstract: A display device includes a first substrate, a first metal layer, a gate insulating layer, semiconductor channels, a second metal layer, a color filter layer, a shielding electrode, an insulating layer, pixel electrodes, a liquid crystal layer, a second substrate and a second common electrode. The first metal layer is located on the first substrate and includes scan lines, gates and first common electrodes. The gate insulating layer is located on the first metal layer. The semiconductor channels are located on the gate insulating layer. The second metal layer is located on the gate insulating layer, and includes sources, drains and data lines. The color filter layer is located on the second metal layer. The shielding electrode at least partially overlaps the second metal layer. The insulating layer is located on the color filter layer. The second common electrode is located on the second substrate.

Abstract: A display device includes a plurality of transparent voltage-dividing common electrodes and a plurality of pixel units. The transparent voltage-dividing common electrodes are electrically isolated from each other in a first direction. Each of the pixel units includes a first pixel electrode, a second pixel electrode, and a voltage-dividing switch. The first pixel electrode is configured to receive a data voltage. The second pixel electrode is configured to receive the data voltage. The voltage-dividing switch is configured to divide the data voltage on the second pixel electrode to one of the transparent voltage-dividing common electrodes.

Abstract: A curved display panel bended along a first direction is provided. The curved display panel has a first peripheral area, a center area, and a second peripheral area sequentially arranged along the first direction. The curved display panel includes a first substrate, data lines, scan lines, pixel units, a second substrate opposite to the first substrate, and a display medium disposed between the first substrate and the second substrate. The data lines and the scan lines are crossed to define pixel regions. The pixel units are respectively located in the pixel regions. The aperture ratio of at least one of the pixel regions located in the first peripheral area and the aperture ratio of at least one of the pixel regions located in the second peripheral area are smaller than the aperture ratio of at least one of the pixel regions located in the center area.

Abstract: An LED diaphragm structure includes an insulation base, a plurality of frames, and a plurality of LED chips, wherein the insulation base includes an upper surface on which a plurality of receiving recesses are provided. The plural frames include a plurality of positive-pole frames and a negative-pole frame, where the positive-pole frames do not contact with the negative-pole frame. The plural frames and the insulation base are formed together as an integral structure. The plural LED chips are correspondingly disposed in the plural receiving recesses of the insulation base, where each LED chip has its positive-pole terminal and negative-pole terminal electrically connected with contact portions of the plural positive-pole frames and of the negative-pole frame, respectively. Accordingly, the plural frames are combined with the insulation base as an integral structure, such that the LED diaphragm structure so assembled can be lightweight and compact.

Abstract: A heat-dissipating structure of a disc drive comprises a tray and a diversion plate. The tray has a body with a concavity loading surface for loading a disc to be in and out the disc drive, and the loading surface has a central hole. Further the diversion plate is disposed on one side of the loading surface, and connected to the loading surface, wherein the diversion plate extends downward and slopes from the connection of the diversion plate and the loading surface.

Abstract: An LED diaphragm structure includes an insulation base, a plurality of frames, and a plurality of LED chips, wherein the insulation base includes an upper surface on which a plurality of receiving recesses are provided. The plural frames include a plurality of positive-pole frames and a negative-pole frame, where the positive-pole frames do not contact with the negative-pole frame. The plural frames and the insulation base are formed together as an integral structure. The plural LED chips are correspondingly disposed in the plural receiving recesses of the insulation base, where each LED chip has its positive-pole terminal and negative-pole terminal electrically connected with contact portions of the plural positive-pole frames and of the negative-pole frame, respectively. Accordingly, the plural frames are combined with the insulation base as an integral structure, such that the LED diaphragm structure so assembled can be lightweight and compact.

Abstract: A heat-dissipating structure of a disc drive comprises a tray and a diversion plate. The tray has a body with a concavity loading surface for loading a disc to be in and out the disc drive, and the loading surface has a central hole. Further the diversion plate is disposed on one side of the loading surface, and connected to the loading surface, wherein the diversion plate extends downward and slopes from the connection of the diversion plate and the loading surface.

Abstract: The present invention provides an LED device with a flip chip structure. The LED device comprises an insulating substrate, an LED flip chip, a molding compound, a first conductive element, and a second conductive element. The LED flip chip is electrically connected to the connection pads on the insulating substrate via the two conductive elements. The P-type and N-type electrodes are connected to the P-type and N-type electrodes layers, respectively. The invention need not require a conventional wire bonding process. It not only increases the yield rate of the product but also makes the product more compact.

Abstract: A cover member is adapted for use with a food processor, and includes a cover body formed with a straight rod passage and a food passage that branches from the rod passage. The rod passage has an open inner passage portion, and an open outer passage portion opposite to the inner passage portion in a vertical direction. The food passage has an open inlet end adjacent to the outer passage portion of the rod passage, an open outlet end in spatial communication with the inner passage portion of the rod passage, and a guide passage portion between the inlet and outlet ends. The guide passage portion is capable of guiding a food item fed into the food passage via the open inlet end to move into the inner passage portion of the rod passage via the open outlet end.

Abstract: The present invention discloses a method for forming shallow trench isolation in a semiconductor device, particularly a nonvolatile memory device. A dielectric layer, an amorphous silicon layer, and a mask layer are sequentially formed over a substrate. Isolation trenches are etched in the substrate through the layers. An oxide layer is thermally grown lining the sidewalls of the amorphous silicon layer and the trenches. Due to the lower oxidation rate of amorphous silicon, the liner oxide layer is thinner at the position lining the amorphous silicon layer than at the position lining the trench. The trenches are filled with an isolation layer to form shallow trench isolation (STI) structures. After removing the mask layer, the amorphous silicon layer can be converted into a polysilicon layer to serve as a floating gate for a nonvolatile memory device.

Abstract: The garage door position indicator contains a radio frequency (RF) transmitter with an electronic angle sensor attached onto a garage door, and a RF receiver with a visual/audio indicator. The electronic angle sensor supplies signals to the RF transmitter during the changes in orientation of a garage door from vertical to horizontal and from horizontal to vertical. The RF receiver is responsive to the RF signals from the RF transmitter and controls a visual/audio indicator to indicate the position of a garage door accordingly.

Abstract: An alcohol and tobacco age identification perpetual calendar specifically designed for cashiers of the stores that sells alcohol or tobacco products to check customer's identification and can easily verify customer's age before making the sales.