Abstract:
A metal oxide semiconductor material includes a semiconductor base material and at least one kind of rare earth compound doped in the semiconductor base material, Each kind of rare earth compound has a general formula represented as (MFD)aAb, where in s the general formula (MFD)aAb, MFD is an element selected from rare earth elements capable of undergoing f-d transition and/or charge transfer transition, A is selected from elements capable of stretching a wavelength range of an absorption spectrum of MFD capable of undergoing the f-d transition and/or the charge transfer transition towards red light into a visible light range, a is a number of the element MFD in the general formula (MFD)aAb, and b is a number of the element A in the general formula (MFD)aAb.
Abstract:
Provided are a driving backplane, a method for manufacturing the same and a display device. The driving backplane includes a substrate, a first gate disposed on a side of the substrate, an active layer disposed on a side of the first gate away from the substrate, and a second gate disposed on a side of the active layer away from the substrate. An orthographic projection of the second gate on the substrate is located in an orthographic projection of the first gate on the substrate, and in a direction parallel to the substrate, an edge of an orthographic projection of the first gate on the substrate extends beyond an edge of the orthographic projection of the second gate on the substrate.
Abstract:
An array substrate includes a base substrate, a driving circuit layer, and a functional device layer which are sequentially stacked; the driving circuit layer is provided with first driving circuits, and each first driving circuit at least comprises a driving transistor; and the driving circuit layer comprises a first gate layer, a first gate insulation layer, a semiconductor layer, a second gate insulation layer, a second gate layer, an interlayer dielectric layer, and a source-drain metal layer which are sequentially stacked on one side of the base substrate.
Abstract:
A shift register unit includes an input sub-circuit, a pull-down node driving sub-circuit and an output sub-circuit. The pull-down node driving sub-circuit includes a first connection unit, a first voltage-reduction unit and a second connection unit, and configured to: under the control of the first voltage signal terminal and the pull-up node, transmit a first voltage signal from the first voltage signal terminal to the first pull-down node via the first connection unit, and reduce a voltage applied to the second connection unit via the first voltage-reduction unit; and transmit a second voltage signal from the second voltage signal terminal to the first pull-down node via the second connection unit under the control of the pull-up node.
Abstract:
An oxide semiconductor composition for use in thin film transistors includes indium oxide, zinc oxide, and an oxide including a doping element of scandium, such as scandium oxide. A molar percentage of the indium oxide can be larger than approximately 50%. The oxide semiconductor composition can have a formula of In2Sc2ZnO7. Manufacturing of the oxide semiconductor composition can include: mixing indium oxide powder, scandium oxide powder, and zinc oxide powder to thereby obtain an oxide shaped object; and sintering the oxide shaped object to form the oxide semiconductor composition. A thin-film transistor for use in a semiconductor device, such as a display apparatus, can include the oxide semiconductor composition, and can thereby have improved mobility of the oxide semiconductor due to the reduced oxygen vacancy therein.
Abstract:
A method for fabricating an array substrate is disclosed. The method comprises: forming a first oxide semiconductor active layer of a first TFT in a GOA area of a substrate; performing a first annealing process on the first oxide semiconductor active layer at a first temperature; forming a first insulating layer which covers the first oxide semiconductor active layer; performing a second annealing process on the first oxide semiconductor active layer at a second temperature, wherein the second temperature is lower than the first temperature. This improves a forward bias stability of the first TFT and increases the device lifetime.
Abstract:
The present disclosure provides an array substrate and fabricating method thereof, a display panel, and a display apparatus. A first active layer and common electrodes are formed on the substrate. A first gate insulating layer is formed on the first active layer. A gate electrode is formed on the first gate insulating layer. A second gate insulating layer is formed on he common electrodes and the gate electrode. Via-holes are formed in the second gate insulating layer to expose surface portions of the common electrodes. Source/drain electrodes are formed and electrically connected to the coma on electrodes through the via-holes. A second active layer and pixel electrodes are formed on the second gate insulating layer.
Abstract:
The present disclosure relates to the field of display technology and provides a method for manufacturing a TFT, the TFT, an array substrate including the TFT, and a display device. The method includes steps of forming a pattern of a gate electrode on a base substrate, forming a gate insulation layer on the base substrate, and forming patterns of a source electrode and a drain electrode arranged above the gate insulation layer. The method further includes forming an antioxidation metal protection layer on a surface or surfaces of the gate electrode, the source electrode and/or the drain electrode.
Abstract:
An oxide thin-film transistor, an array substrate and methods for manufacturing the same, and a display device are provided. The method for manufacturing the oxide thin-film transistor includes: forming a pattern of an oxide semi-conductor layer above a base substrate; and illuminating, by a light source, two opposite boundary regions of the pattern of the oxide semi-conductor layer, where the illuminated two opposite boundary regions of the pattern of the oxide semi-conductor layer form ohmic contact layers and a region of the pattern of the oxide semi-conductor layer that is not illuminated forms a semi-conductor active layer; forming a source electrode and a drain electrode which are connected to the semi-conductor active layer via the ohmic contact layers respectively.