Abstract: A display device is provided and includes a display panel, a light source, a light source controller, and a timing controller. The light source is adjacent to the display panel. The light source controller is electrically connected to the light source. The timing controller is electrically connected to the light source controller and the display panel. The timing controller includes a decoding unit and first and second processing units. The first processing unit is electrically connected to the decoding unit and the display panel. The second processing unit is electrically connected to the decoding unit and the light source controller. The decoding unit provides a refresh signal to the first and second processing units so that the display panel refreshes displayed content in a first refresh sequence according to first refresh rates, and the light source refreshes brightness in a second refresh sequence according to second refresh rates.

Abstract: A method is implemented in a video playback system that includes a video editing interface for assigning geotagging data to a video. The method comprises receiving, by the video playback system, the video from a tangible storage medium. The method further comprises reading metadata associated with the video, selecting a frame from the video, providing a user interface with a map, displaying a default location of the selected frame on the map according to the metadata, receiving geotagging data via the user interface, and associating the geotagging data with the selected frame of the video to generate a geo-based timeline.

Abstract: A method of fabricating a semiconductor image sensor device is disclosed. A plurality of radiation-sensing regions is formed in a substrate. The radiation-sensing regions are formed in a non-scribe-line region of the image sensor device. An opening is formed in a scribe-line region of the image sensor device by etching the substrate in the scribe-line region. A portion of the substrate remains in the scribe-line region after the etching. The opening is then filled with an organic material.

Abstract: Various embodiments are disclosed for facilitating media management. A method for managing digital content comprises obtaining a media file and generating a primary identifier unique to the media file and obtaining at least one storage destination for the media file, wherein the at least one storage destination comprises one of: at least one user-specified storage destination and at least one storage destination automatically determined by an analyzing component. Based on the at least one storage destination, a secondary identifier unique to the at least one storage destination is generated. The method further comprises generating a media identifier based on primary identifier and the secondary identifier, storing the media identifier, and performing batch processing of media files based on corresponding media identifiers.

Abstract: An ice-making system is adapted to operate within a section of a refrigeration appliance where the ice-making system and the ice made in the ice-making system are exposed to a temperature greater than zero degrees Centigrade. When installed in the fresh food compartment of a refrigerator that also has a freezer section compartment, the refrigeration system furnishes a cooling effect to the freezer compartment sufficient to maintain the freezer compartment at a temperature of zero degrees or less and separately furnish to the ice-making unit a cooling effect sufficient to freeze water for making ice in the ice-making unit of the ice-making system. The ice-making system can include a reservoir that is operatively associated with the ice-making unit of the ice-making system for delivering water to the ice-making unit and for receiving water returned from the ice-making unit.

Abstract: A player and a method for processing a file with vector-based format are disclosed. The player comprises a reading unit, a central processing unit, a memory unit and an output unit. The reading unit is controlled by the central processing unit, which determines whether a file with vector-based format exists in a data storage media. The memory unit, in which software for executing the file with vector-based format is stored, is electrically connected to the central processing unit. The player thus can play the file with vector-based format recorded in the data storage media directly.

Abstract: An ice-making system is adapted to operate within a section of a refrigeration appliance where the ice-making system and the ice made in the ice-making system are exposed to a temperature greater than zero degrees Centigrade. When installed in the fresh food compartment of a refrigerator that also has a freezer section compartment, the refrigeration system furnishes a cooling effect to the freezer compartment sufficient to maintain the freezer compartment at a temperature of zero degrees or less and separately furnish to the ice-making unit a cooling effect sufficient to freeze water for making ice in the ice-making unit of the ice-making system. The ice-making system can include a reservoir that is operatively associated with the ice-making unit of the ice-making system for delivering water to the ice-making unit and for receiving water returned from the ice-making unit.

Abstract: A cable antenna assembly (1) connecting with an electronic device via a connector (5) includes a connecting portion (4), a rotating portion (3) rotatably mounted on the connecting portion, and a cable antenna element (9) including a coaxial cable (6) including an inner conductor (62), an inner insulator, an outer conductor (61) and an outer insulator (60), and a grounding sleeve (7) surrounding the coaxial cable and inserted between an inner and an outer rings (30a) and (30b) of the rotating portion. The grounding sleeve defines a fixing hole (71) for connecting with the outer conductor of the coaxial cable and a slot (70) for making the fixing hole elastically expand when the coaxial cable is inserted and then elastically contract for securely fixing the coaxial cable.

Abstract: The present invention discloses a driving apparatus for a display, capable of providing a respective driving voltage/current for each of three primary colors so as to overcome color dispersion on the display. The driving apparatus comprises a converting device for receiving a digital data representing a first driving voltage; wherein said converting device converts said digital data into a second driving voltage, a third driving voltage and a fourth driving voltage according to a transfer function, and then outputs said second driving voltage, said third driving voltage and said fourth driving voltage into a red-pixel source driving device, a green-pixel source driving device and a blue-pixel source driving device, respectively.

Abstract: A pixel equivalent circuit and a method for improving a hold-type effect are disclosed. The present invention provides a capacitor having a plurality of pixel charging paths for a pixel equivalent circuit and supplies a target image voltage and such as a black image voltage or a compensating voltage to the capacitor during a corresponding duty cycle. Therefore, a color curve, which is shown by a corresponding pixel of the pixel equivalent circuit of the present invention, is similar to that of the CRT monitor or the speed of renewing data of the target image voltage is raised such that the pixel equivalent circuit of the present invention is capable of improving the color-renewing speed and image quality while processing moving images.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (20), a cable (40), a casing (50) and a cover (60). The insulative housing defines a L-shaped receiving space (23). The contacts are received in the insulative housing, each contact comprises a mating portion, a retention portion, and a tail portion extending rearwardly and downwardly from the retention portion. The cable comprises an insulative jacket and a number of conductive cores extending upwardly beyond an upper end of the insulative jacket and connecting with the tail portions of the contacts. A cover is over-molded with the rear portion of the insulative housing and the cable. A method for making such a cable end connector assembly is also disclosed.

Abstract: A method for editing a video data stream is suited for converting an analog AV signal into a MPEG file in a recordable player. The method includes the steps of: converting the analog AV signal into a plurality of continuous digital frames; inserting time information onto the digital frames; and encoding the digital frames with the time information into the MPEG file and recording the MPEG file onto an optical disc. In this way, when the recorded disc is played by different optical disk players, the time information is always shown on a screen at the same position.

Abstract: A player and a method for processing a file with vector-based format are disclosed. The player comprises a reading unit, a central processing unit, a memory unit and an output unit. The reading unit is controlled by the central processing unit, which determines whether a file with vector-based format exists in a data storage media. The memory unit, in which software for executing the file with vector-based format is stored, is electrically connected to the central processing unit. The player thus can play the file with vector-based format recorded in the data storage media directly.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (60) received in the insulative housing, a cable (50) electrically connecting with the contacts, a casing (20) defining a slot (22) in one side, a cover (40) enclosing the insulative housing and the cable, and a positioning member (30). The insulative housing includes a guiding protrusion (14) projecting outwardly from an outer surface thereof. The positioning member includes an arm portion (31) defining a receiving cavity (32) for receiving the guiding protrusion therein, a positioning portion (33) having an engaging bar (330) received in the slot of the casing, and a middle portion (34) connecting the arm portion and the positioning portion.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (60) received in the insulative housing, a cable (50) electrically connecting with the contacts, a casing (20) defining a slot (22) in one side, a cover (40) enclosing the insulative housing and the cable, and a positioning member (30). The insulative housing includes a guiding protrusion (14) projecting outwardly from an outer surface thereof. The positioning member includes an arm portion (31) defining a receiving cavity (32) for receiving the guiding protrusion therein, a positioning portion (33) having an engaging bar (330) received in the slot of the casing, and a middle portion (34) connecting the arm portion and the positioning portion.

Abstract: A recordable video player is applied to Real Time Multimedia Communication. An image and audio capture device and an Internet I/O port are added to the recordable video player. The image and audio capture device is used to capture the user's image and audio, and the Internet I/O port is used in multimedia signal input and output transfer. By the usage of the encoder and decoder inside the recordable video player that connected to an image and audio capture device and an Internet I/O port, the goal of Real Time Multimedia Communication is reached.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (20), a cable (40), a casing (50) and a cover (60). The insulative housing includes a rear portion. The contacts are received in the insulative housing. The cable includes a number of conductive cores (41) electrically connected with the contacts respectively and an insulative jacket (43) surrounding and separating the conductive cores. The casing is molded with a connection between the contacts and the cable. The cable is bent along a rear edge of the casing. The cover is over-molded with the rear portion of the insulative housing, the casing and the cable. A method for making such a cable end connector assembly is also disclosed.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (20), a cable (40), a casing (50) and a cover (60). The insulative housing defines a L-shaped receiving space (23). The contacts are received in the insulative housing, each contact comprises a mating portion, a retention portion, and a tail portion extending rearwardly and downwardly from the retention portion. The cable comprises an insulative jacket and a number of conductive cores extending upwardly beyond an upper end of the insulative jacket and connecting with the tail portions of the contacts. A cover is over-molded with the rear portion of the insulative housing and the cable. A method for making such a cable end connector assembly is also disclosed.

Abstract: A cable end connector assembly (1) includes an insulative housing (10), a number of contacts (20), a cable (40), a casing (50) and a cover (60). The insulative housing includes a rear portion. The contacts are received in the insulative housing. The cable includes a number of conductive cores (41) electrically connected with the contacts respectively and an insulative jacket (43) surrounding and separating the conductive cores. The casing is molded with a connection between the contacts and the cable. The cable is bent along a rear edge of the casing. The cover is over-molded with the rear portion of the insulative housing, the casing and the cable. A method for making such a cable end connector assembly is also disclosed.

Abstract: A cable end connector assembly (1) includes a dielectric housing (10), a plurality of contacts (20) received in the housing, a cable (40), and a cover (50). The housing comprises a front portion (11) and a rear portion (19) extending rearwardly from the front portion. A hole (191) is defined in one wall (192, 193, 194) of the rear portion. Each contact comprises a mating portion (21) and a tail portion (23) opposite to the mating portion. The cable comprises a plurality of conductive cores (41) electrically connecting the tail portions of the contacts, respectively. The cover is over-molded with the rear portion of the housing and a front end of the cable. A projection (54) is formed on an inner surface of one wall (51, 52, 55) of the cover and received in the hole of the housing for enhancing a retaining force between the cover and the housing.