Abstract:
A thin film transistor (TFT) array substrate is provided. The thin film transistor (TFT) array substrate includes an insulating substrate, an oxide semiconductor layer formed on the insulating substrate and including an additive element, a gate electrode overlapping the oxide semiconductor layer, and a gate insulating layer interposed between the oxide semiconductor layer and the gate electrode, wherein the oxygen bond energy of the additive element is greater than that of a base element of the oxide semiconductor layer.
Abstract:
A display substrate includes; a base substrate, a deformation preventing layer disposed on a lower surface of the base substrate, wherein the deformation preventing layer applies a force to the base substrate to prevent the base substrate from bending, a gate line disposed on an upper surface of the base substrate, a data line disposed on the base substrate, and a pixel electrode disposed on the base substrate.
Abstract:
A TFT array substrate includes a semiconductive oxide layer disposed on an insulating substrate and including a channel portion, a gate electrode overlapping the semiconductive oxide layer, a gate insulating layer interposed between the semiconductive oxide layer and the gate electrode, and a passivation layer disposed on the semiconductive oxide layer and the gate electrode. At least one of the gate insulating layer and the passivation layer includes an oxynitride layer, and the oxynitride layer has a higher concentration of oxygen than that of nitrogen in a location of the oxynitride layer closer to the semiconductive oxide layer.
Abstract:
Conductive carbon nanotubes (CNTs) obtained by dotting carboxylated CNTs with metal nanocrystals by chemical functional groups, are described, as well as a method for fabricating a pattern or film of the conductive CNTs which involves repeatedly depositing conductive CNTs on a substrate to achieve high surface density. A biosensor is described, in which bioreceptors that bind to target biomolecules are selectively attached to conductive CNTs or a conductive CNT pattern or film. By use of the conductive biosensor, various target biomaterials that bind or react with the bioreceptors can be precisely measured directly or by electrochemical signals at large amounts in one step. Additionally, the biosensor can be used for an electrical detection method capable of providing precise measurement results even with a small amount of source material.
Abstract:
A compound for organic semiconductor devices having a triazine group, an organic semiconductor thin film and an organic semiconductor device comprising the same, and methods of preparing them are provided. The compound for organic semiconductor devices is represented by the following Formula: where each of R1, R2 and R3 is a perfluorophenylene derivative.
Abstract:
Provided are compounds having a thiol group as an anchoring group introduced into a Rose Bengal molecule, a method of producing the compound, an electronic device comprising the compound immobilized on an electrode by a self-assembling method, and a method of manufacturing the electronic device. The compound has the following formula: wherein R is an unsaturated or saturated C2-C20 hydrocarbon group. The compound can provide switch/memory properties and form a single molecular layer by self-assembling when manufacturing a molecular electronic device.
Abstract:
A method for manufacturing a thin film transistor array panel includes forming a gate line on a substrate; sequentially forming a gate insulating layer, a silicon layer, and a conductor layer including a lower layer and an upper layer on the gate line, forming a photoresist film, on the conductor layer, patterning the photoresist film to form a photoresist pattern including a first portion and a second portion having a greater thickness than the first portion, etching the upper layer and the lower layer by using the photoresist pattern as art etch mask, etching the silicon layer by using the photoresist pattern as an etch mask to form a semiconductor, removing the second portion of the photoresist pattern by using an etch back process, selectively wet-etching the upper layer of the conductor layer by using the photoresist pattern as an etch mask, dry-etching the lower layer of the conductor layer by using the photoresist pattern as an etch mask to form a data line and a drain electrode including remaining upper and lower layers, and forming a pixel electrode connected to the drain electrode.
Abstract:
A thin film transistor substrate and fabricating method thereof, the thin film transistor substrate including a substrate, a gate line and a gate electrode, each including a metal adhesion layer and a Cu alloy layer disposed on the substrate, an active layer and an ohmic contact layer disposed over the gate electrode, a gate insulating layer disposed between the gate electrode and the active and ohmic contact layers, source and drain electrodes disposed on the ohmic contact layer, and a data line connected to the source electrode.
Abstract:
An array substrate includes a switching element, a signal transmission line, a passivation layer and a pixel electrode. The switching element is disposed on an insulating substrate. The signal transmission line is connected to the switching element and includes a barrier layer, a conductive line, and a copper nitride layer. The barrier layer is disposed on the insulating substrate. The conductive line is disposed on the barrier layer and includes copper or copper alloy. The copper nitride layer covers the conductive line. The passivation layer covers the switching element and the signal transmission line and has a contact hole through which a drain electrode of the switching element is partially exposed. The pixel electrode is disposed on the insulating substrate, and is connected to the drain electrode of the switching element through the contact hole.
Abstract:
The surface mounting method includes: transferring the PCB to one conveyer among multiple conveyers capable of moving from a first transfer; transferring the PCB to another conveyer; transferring the PCB to one conveyer, while electronic parts from a parts feeder are mounted onto the transferred PCB; mounting the electronic parts from the parts feeder again onto the transferred PCB, while the PCB onto which the parts have been mounted is transferred to the second transfer; and transferring the PCB onto which the parts have been mounted again to the second transfer, while a new PCB is transferred to one conveyer of the conveyers from the first transfer.