Abstract:
Exendins or exendin analogs modified by one or more PEG derivatives that may be linked to one or more amino acids of the exendins or exendin analogs are provided. The PEG derivatives may have branched structure set forth in any one of formulas I-IV. Compositions including the PEG derivative modified exendin or exendin analog, methods of making or administering the modified exendin or exendin analog, and various uses thereof are also provided.
Abstract:
A method of fabricating a pixelated projector display includes providing a wafer with a supporting substrate, a first semiconductive layer, an emission layer, and a second semiconductive layer. The wafer is patterned into an array of LEDs/LDs and a planarization layer is deposited over the array. One via for each LED/LD element is formed through the planarization layer. A MOTFT backplane is positioned on the planarization layer, one driver circuit in controlling electrical communication with each via through the planarization layer. A passivation layer is deposited over the MOTFT backplane and heat plugs are extended through the passivation layer, the MOTFT backplane, the planarization layer, and the III-V LED/LD wafer partially through the first semiconductive layer to thermally couple heat from the array of LEDs/LDs to the surface of the passivation layer. An upper end of the heat plugs is accessible for thermal coupling to a heat spreader and/or a heatsink.
Abstract translation:制造像素化投影仪显示器的方法包括向晶片提供支撑衬底,第一半导体层,发射层和第二半导体层。 将晶片图案化成LED / LD阵列,并且平坦化层沉积在阵列上。 通过平坦化层形成每个LED / LD元件的一个通孔。 MFTFT背板位于平坦化层上,一个驱动电路通过平坦化层控制与每个通孔的电连通。 钝化层沉积在MOTFT背板上,并且热插塞通过钝化层,MOTFT背板,平坦化层和III-V LED / LD晶片部分延伸穿过第一半导体层,以热耦合来自 LED / LDs到钝化层的表面。 散热器和/或散热器的热连接可以接近热塞的上端。
Abstract:
A method of forming ohmic source/drain contacts in a metal oxide semiconductor thin film transistor includes providing a gate, a gate dielectric, a high carrier concentration metal oxide semiconductor active layer with a band gap and spaced apart source/drain metal contacts in a thin film transistor configuration. The spaced apart source/drain metal contacts define a channel region in the active layer. An oxidizing ambient is provided adjacent the channel region and the gate and the channel region are heated in the oxidizing ambient to reduce the carrier concentration in the channel area. Alternatively or in addition each of the source/drain contacts includes a very thin layer of low work function metal positioned on the metal oxide semiconductor active layer and a barrier layer of high work function metal is positioned on the low work function metal.
Abstract:
A metal oxide thin film transistor includes a metal oxide semiconductor channel with the metal oxide semiconductor having a conduction band with a first energy level. The transistor further includes a layer of passivation material covering at least a portion of the metal oxide semiconductor channel. The passivation material has a conduction band with a second energy level equal to, or less than 0.5 eV above the first energy level.
Abstract:
The present invention provides a frameless liquid crystal display device, which includes a rear enclosure, a backlight module arranged inside the rear enclosure, a mold frame arranged on the backlight module and fixedly coupled to the rear enclosure, a liquid crystal display panel arranged on the mold frame, and a surface decoration arranged at a lower end of the liquid crystal display panel. The liquid crystal display panel includes a CF substrate and a TFT substrate laminated on the CF substrate and a top polarization plate and a bottom polarization plate respectively laminated to the CF substrate and the TFT substrate. The bottom polarization plate forms projections on upper and lower ends of the liquid crystal display panel. The mold frame forms retention slots in which the projections are received to mount the liquid crystal display panel to the mold frame.
Abstract:
A method of fabricating metal oxide TFTs on transparent substrates includes the steps of positioning an opaque gate metal area on the front surface of the substrate, depositing transparent gate dielectric and transparent metal oxide semiconductor layers overlying the gate metal and a surrounding area, depositing transparent passivation material on the semiconductor material, depositing photoresist on the passivation material, exposing and developing the photoresist to remove exposed portions, etching the passivation material to leave a passivation area defining a channel area, depositing transparent conductive material over the passivation area, depositing photoresist over the conductive material, exposing and developing the photoresist to remove unexposed portions, and etching the conductive material to leave source and drain areas on opposed sides of the channel area.
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 method of forming a gate dielectric in each MOTFT of an active matrix includes depositing a layer of gate metal on a substrate and patterning the gate metal to define a matrix of MOTFTs each including a gate electrode with all gate electrodes in each column connected together by a gate metal line and the line in each column connected at one end to the line in the next adjacent column by a gate metal bridging portion. The gate metal is anodized to form a layer of gate dielectric material. A layer of semiconductor metal oxide is deposited over the anodized gate metal and patterned to define an active layer for each MOTFT. Source/drain electrodes are formed on the layer of metal oxide for each MOTFT, and a laser is used to cut the bridging portion electrically connecting each gate metal line to the next adjacent gate metal line.
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:
The present invention provides a frameless liquid crystal display device, which includes a rear enclosure, a backlight module arranged inside the rear enclosure, a mold frame arranged on the backlight module and fixedly coupled to the rear enclosure, and a liquid crystal display panel arranged on the mold frame. The liquid crystal display panel includes a CF substrate and a TFT substrate laminated on the CF substrate and a top polarization plate and a bottom polarization plate respectively laminated to the CF substrate and the TFT substrate. The top polarization plate is a flexible polarization film having an upper end coupled to the mold frame so as to fix an upper end of the liquid crystal display panel to the mold frame. The liquid crystal display panel forms a step on which a surface decoration is positioned to fix to the mold frame.