Abstract:
A supporting member and a liquid crystal module with the same are disclosed. The supporting member includes a first sub-supporting member for supporting a liquid crystal panel, and a second sub-supporting member for abutting against a light guiding plate and an optical film on the light guiding plate. The second sub-supporting member is arranged on the first sub-supporting member. A hardness of the first sub-supporting member is higher than the hardness of the second sub-supporting member. With the structure, the safety of the liquid crystal panel under a vibration environment is enhanced, and a tolerance range of the liquid crystal module subjected to the vibrations is guaranteed.
Abstract:
A hydraulic pump includes a housing (12), a cylinder block (14), a plurality of pistons (16), a swash plate (18), a trunnion arm (22), a first biasing assembly (54), and a second biasing assembly (56). The cylinder block includes a plurality of piston chambers. The swash plate is disposed for pivotal movement in the housing and cooperates with the pistons to vary the working volume of the piston chambers. The swash plate is pivotal about a pivot axis (80). The trunnion arm includes a cylindrical shaft portion (140) and a cam portion (142) connected with or integrally formed with the shaft portion. The trunnion arm is operatively connected with the swash plate for controlling pivotal movement of the swash plate. The cylindrical shaft portion defines a trunnion arm rotational axis (144) that is parallel to and offset from the pivot axis (80). The cam portion is disposed within the housing and includes a first lateral cam surface (154) and a second lateral cam surface (156) disposed on an opposite side of a cam portion axis (158) that extends through the cam portion, intersects the trunnion arm rotational axis and is perpendicular to the trunnion arm rotational axis. The first biasing assembly (54) is disposed in the housing and cooperates with the first lateral cam surface to urge the cam portion in a first direction toward a neutral position. The second biasing assembly (56) is disposed in the housing and cooperates with the second lateral cam surface to urge the cam portion in a second direction toward the neutral position. The second direction is opposite to the first direction.
Abstract:
The present disclosure relates to a backlight module and a liquid crystal display (LCD) device. The backlight module includes a light guide panel (LGP), and a backplane. The backplane includes sidewalls, and a bottom wall. The LGP is arranged in the backplane. The backlight module further includes fixing pieces. The LGP is configured with a first fixing hole, and the sidewall or the bottom wall of the backplane is configured with a second fixing hole. The fixing piece penetrates through the first fixing hole in the LGP and the second fixing hole in the backplane and fixes the LGP to the backplane. In the present disclosure, the LGP is fixed to the backplane through the fixing piece penetrating through both the first fixing hole in the LGP and the second fixing hole in the backplane thereby preventing the LGP from moving upwards and downwards in the vertical direction.
Abstract:
The present invention provides a wall mounting device and a wall mounting method for liquid crystal display. The wall mounting device includes a cross frame, brackets for supporting a bottom of a liquid crystal display, and connection sections connecting the cross frame and the brackets. The cross frame forms through holes corresponding to the mounting pegs of the liquid crystal display. To assemble, the bottom of the liquid crystal display is positioned on the brackets and the mounting pegs and the through holes are connected to each other so as to couple the liquid crystal display and the wall mounting device together. The wall mounting device for liquid crystal display of that uses brackets to reduce the number of mounting pegs used in the liquid crystal display so as effectively lower down the cost and enable the use of a thinner back frame for the liquid crystal display.
Abstract:
A frameless liquid crystal display device includes a rear enclosure, a backlight module arranged inside the rear enclosure, a mold frame arranged on the backlight module and mounted to the rear enclosure, and a liquid crystal display panel arranged on the mold frame. The liquid crystal display panel has an upper portion that is mounted to the mold frame through a connection section, which includes an elongate base plate to which an elongate projection structure is mounted. The mold frame forms a recess receiving and fixing the connection section therein by screws so as to fix the connection section and the mold frame to the rear enclosure. The liquid crystal display panel includes a CF substrate forming a step with respect to a lower edge of a TFT substrate. A surface decoration is bonded to the step to assemble the liquid crystal display panel to the mold frame.
Abstract:
A liquid crystal display device with connector, wherein the front frame includes a front plate and a front plate side frame which defines with a front plate opening and has a first hole; the back plate includes a bottom plate and a bottom plate side frame which defines with a back plate opening, has an area smaller than that of the front plate opening, disposes with a second hole, moreover, a third hole is disposed on the bottom plate at a position corresponding to the second hole; the connector includes a first sheet body and a second sheet body which is provided with a first snap and a second snap, respectively; wherein, during the assemble process of the front frame and the back plate, the first snap engages with the first hole and the second hole, while the second snap engages with the third hole.
Abstract:
The present invention discloses a spring plate type connector for use in backlight module, which includes a retention base and a plurality of connection bodies. The plurality of connection bodies is integrally formed on the retention base. The retention base includes a corresponding structure of a component contained in the backlight module. The connection body includes: a connection section, which is connected to the retention base; and an engagement section, which extends from the connection section and is connected to a solder pad inside the backlight module. Practicing the spring plate type connector for use in backlight module simplifies the manufacture process of the connector, realizes expanded range of application, and allows of application to connection with backlight modules of various models, thereby improving sharability of the connector and making the backlight module compact and light-weighted.
Abstract:
A backlight module including a back frame, a light guiding plate received in the back frame, and a position piece is disclosed. The position piece is arranged between the back frame and the light guiding plate, and the position piece is detachably fixed on sidewalls of the back frame to firmly press the light guiding plate within the back frame. In addition, a liquid crystal display with the backlight module is also disclosed. The light guiding plate is reliably positioned by adopting the above position piece.
Abstract:
A method of fabricating a stable, high mobility metal oxide thin film transistor includes the steps of providing a substrate, positioning a gate on the substrate, and depositing a gate dielectric layer on the gate and portions of the substrate not covered by the gate. A multiple film active layer including a metal oxide semiconductor film and a metal oxide passivation film is deposited on the gate dielectric with the passivation film positioned in overlying relationship to the semiconductor film. An etch-stop layer is positioned on a surface of the passivation film and defines a channel area in the active layer. A portion of the multiple film active layer on opposite sides of the etch-stop layer is modified to form an ohmic contact and metal source/drain contacts are positioned on the modified portion of the multiple film active layer.
Abstract:
The present invention discloses a backframe used to carry and support a refractive film of a liquid crystal display device. The backframe includes a backboard, and a reinforced tab and an upright portion. The backboard is incorporated with a plurality of reinforced ribs for supporting and carrying the refractive film. A groove is defined between every two adjacent reinforced ribs. A plurality of reinforced tabs spanned over the groove in an alternative manner so as to support and carry the refractive film. The present invention also discloses a liquid crystal display device. The deformation of the refractive film can be readily avoided by incorporating with reinforced tabs covering grooves on the backboard.