Abstract: A manufacturing method of a display device includes forming light emitting components on a first substrate, the light emitting components include a first side and a second side, and the second side is away from the first substrate; forming a circuit layer on the first substrate and on the second side of the light emitting components; forming a first protective layer on the circuit layer and forming an insulating layer on the first protective layer; removing the first substrate after forming a second substrate on the insulating layer; forming a black matrix layer on the first side of the light emitting components, and the black matrix layer includes openings; forming light conversion layers in the openings of the black matrix layer; forming a second protective layer on the black matrix layer and the light conversion layers; and forming a third substrate on the second protective layer.

Abstract: A display device includes a display panel, a data driving unit, and a timing control unit. The display panel includes a plurality of data driving lines. The data driving unit is electrically coupled to the display panel for driving at least one part of the plurality of data driving lines. The timing control unit is disposed on a side of the display panel for processing a plurality of data vectors generated by a data source. The timing control unit includes an encoder module, a serializer module, and a data transmitter module. The encoder module is used for encoding a plurality of N bit data vectors to a plurality of N+m bit data vectors. The serializer module is electrically coupled to the encoder module for serializing the plurality of N+m bit data vectors. The data transmitter module is used for transmitting the plurality of serialized N+m bit data vectors to the data driving unit.

Abstract: A display device includes a display panel, a data driving unit, and a timing control unit. The display panel includes a plurality of data driving lines. The data driving unit is electrically coupled to the display panel for driving at least one part of the plurality of data driving lines. The timing control unit is disposed on a side of the display panel for processing a plurality of data vectors generated by a data source. The timing control unit includes an encoder module, a serializer module, and a data transmitter module. The encoder module is used for encoding a plurality of N bit data vectors to a plurality of N+m bit data vectors. The serializer module is electrically coupled to the encoder module for serializing the plurality of N+m bit data vectors. The data transmitter module is used for transmitting the plurality of serialized N+m bit data vectors to the data driving unit.

Abstract: A bonding structure of a touch panel and a flexible circuit board includes a touch panel, a flexible circuit board and a conductive adhesive film. The touch panel includes a shielding layer and multiple transmission wires disposed on the shielding layer. The flexible circuit board is under the touch panel and includes a substrate and multiple connection wires on the substrate. Each the connection wire includes a first connection portion and a second connection portion, and the two connection portions are separated from each other by an interval and electrically insulated from each other. The conductive adhesive film is between the transmission wires of the touch panel and the connection wires of the flexible circuit board, in which the first connection portions and the second connection portions of the connection wires are electrically connected to the transmission wires via the conductive adhesive film so as to form an electric loop.

Abstract: The present invention is related to a back frame of a display device. The back frame includes a frame piece and a fixing member having a first portion, a second portion, and a third portion. The first portion extends toward the inside of the back frame. The second portion extends from the first portion and connects with the third portion, fixing a printed circuit board to prevent other internal connecting interfaces from loosening due to the printed circuit board shifting.

Abstract: A bonding structure of a touch panel and a flexible circuit board includes a touch panel, a flexible circuit board and a conductive adhesive film. The touch panel includes a shielding layer and multiple transmission wires disposed on the shielding layer. The flexible circuit board is under the touch panel and includes a substrate and multiple connection wires on the substrate. Each the connection wire includes a first connection portion and a second connection portion, and the two connection portions are separated from each other by an interval and electrically insulated from each other. The conductive adhesive film is between the transmission wires of the touch panel and the connection wires of the flexible circuit board, in which the first connection portions and the second connection portions of the connection wires are electrically connected to the transmission wires via the conductive adhesive film so as to form an electric loop.

Abstract: A touch screen display apparatus and a cover lens and an assembling method thereof are disclosed. The apparatus comprises the cover lens, a touch panel, a display panel and a backlight module. The cover lens comprises a plate body, a display area and a plurality of engage elements. The engage elements are disposed on one side of the plate body and around the display area for engaging with the backlight module. In the assembling method of the apparatus, the touch panel and the display panel are firstly disposed on the cover lens, and then the backlight module is engaged with the cover lens.

Abstract: The present invention is related to a back frame of a display device. The back frame includes a frame piece and a fixing member having a first portion, a second portion, and a third portion. The first portion extends toward the inside of the back frame. The second portion extends from the first portion and connects with the third portion, fixing a printed circuit board to prevent other internal connecting interfaces from loosening due to the printed circuit board shifting.

Abstract: An apparatus is for use in a display device having a defective signal line with a defect that isolates a first signal line portion from a second signal line portion of the defective signal line. The apparatus includes a signal driver that has a driver output terminal electrically connected to the first signal line portion, and a first repair buffer having an input terminal and an output terminal. A repair line is electrically connected to the output terminal of the first repair buffer. The input terminal of the first repair buffer is initially electrically isolated from the defective signal line. To repair the defective signal line, the input terminal of the first repair buffer is electrically connected to the defective signal line to enable a signal from the signal driver to travel through the first repair buffer over the repair line to the second signal line portion of the defective signal line.

Abstract: A flat panel display includes a plurality of pixel circuits, each pixel circuit including a switch and a storage capacitor, in which the storage capacitor receives pixel data from a data line when the switch is turned on. A scan driver controls the switches of the pixel circuits, in which the scan driver turns on a first switch of a first pixel circuit for a first length of time within a frame period, and turns on a second switch of a second pixel circuit for a second length of time within the frame period, the first length of time being different from the second length of time.

Abstract: A display and a two step driving method thereof are provided. The method includes: converting an image signal to a corresponding data driving voltage by using a driver; providing a pre-driving voltage by using a voltage generator; and finally, driving the display panel by using the pre-driving voltage and data driving voltage orderly during a horizontal synchronizing period. A display includes a display panel, a voltage generator, and a driver. The display panel also includes at least one data line. The voltage generator outputs a pre-driving voltage to the data line of the display. The driver outputs a data driving voltage to the data line according to an image signal, in which the data line receives the pre-driving voltage and the data driving voltage orderly during the horizontal synchronizing period.

Abstract: A flat panel display includes a plurality of pixel circuits, each pixel circuit including a switch and a storage capacitor, in which the storage capacitor receives pixel data from a data line when the switch is turned on. A scan driver controls the switches of the pixel circuits, in which the scan driver turns on a first switch of a first pixel circuit for a first length of time within a frame period, and turns on a second switch of a second pixel circuit for a second length of time within the frame period, the first length of time being different from the second length of time.

Abstract: A flat panel display includes pixel circuits, a signal divider for associating portions of the image signal with corresponding portions of the pixel circuits, and timing controller circuitry for receiving the portions of the image signal and outputting corresponding sets of control signals and pixel data, the timing controller circuitry outputting the sets in parallel. The flat panel display includes groups of data drivers, each group for receiving respective sets of control signals and pixel data from the timing controller circuitry and driving corresponding pixel circuits, different groups receiving the sets in parallel.

Abstract: An apparatus is for use in a display device having a defective signal line with a defect that isolates a first signal line portion from a second signal line portion of the defective signal line. The apparatus includes a signal driver that has a driver output terminal electrically connected to the first signal line portion, and a first repair buffer having an input terminal and an output terminal. A repair line is electrically connected to the output terminal of the first repair buffer. The input terminal of the first repair buffer is initially electrically isolated from the defective signal line. To repair the defective signal line, the input terminal of the first repair buffer is electrically connected to the defective signal line to enable a signal from the signal driver to travel through the first repair buffer over the repair line to the second signal line portion of the defective signal line.

Abstract: According to the backlight module in the present invention, a plurality of reflective members is used in this module to reflect light from lamps. Each lamp is arranged between any two adjacent reflective members. These reflective members are respectively arranged between any two adjacent lamps. The reflective members can concentrate the light to avoid the generation of shadows in specific regions on the LCD panel.

Abstract: According to the backlight module in the present invention, a plurality of reflective members is used in this module to reflect light from lamps. Each lamp is arranged between any two adjacent reflective members. These reflective members are respectively arranged between any two adjacent lamps. The reflective members can concentrate the light to avoid the generation of shadows in specific regions on the LCD panel.

Abstract: A backlight module mainly includes a housing and a lamp. The lamp is disposed in the housing and includes two conductive terminals extending from two ends of the lamp and each connected with one of two wires. The present invention is characterized in that the backlight module has an engaging portion provided on the housing for fastening the two wires such that any external stress to which the wires are subjected can be transmitted to the engaging portion rather than concentrates in the joints between the wires and the conductive terminals of the lamp. The present invention further provides a liquid crystal display device utilizing the backlight module.

Abstract: A backlight module mainly includes a housing and a lamp. The lamp is disposed in the housing and includes two conductive terminals extending from two ends of the lamp and each connected with one of two wires. The present invention is characterized in that the backlight module has an engaging portion provided on the housing for fastening the two wires such that any external stress to which the wires are subjected can be transmitted to the engaging portion rather than concentrates in the joints between the wires and the conductive terminals of the lamp. The present invention further provides a liquid crystal display device utilizing the backlight module.

Abstract: The present invention discloses an integrated single-body antenna-transceiver assembly for a multi-channel multi-point distribution system (MMDS) transceiver for bi-directional signal transmission and reception. The assembly comprises a dipole antenna-body comprising a surrounded plastic-molded exterior with interior metal dipole antenna extending vertically from a metal attachment-seat surrounding a signal feed pin connected to the dipole antenna. The assembly further comprises an MMDS transceiver having a transmitter printed circuit board (PCB) and a receiver PCB enclosed in a waterproof-metal housing having an antenna-attachment pad including a signal feed pin opening. The dipole antenna-body is securely attached to the waterproof-metal housing by attaching to the antenna-attachment pad sealed with an O-ring with the signal feed pin extended through the signal feed pin opening to contact the receiver PCB, the diplexer, and the transmitter PCB.