Abstract:
The present invention relates to an electric-field drive display device. According to one embodiment of the present invention, the electric-field drive display device comprises: a first substrate; a first electrode which is formed on the first substrate; a second electrode which is formed on the first substrate and is disposed in parallel with the first electrode; a drive partition wall which is formed on the first electrode and the second electrode and has a plurality of opening and closing holes; and a plurality of drive bodies which are disposed inside each of the opening and closing holes. Consequently, the electric-field drive display device according to one embodiment of the present invention can adjust the amount of light transmitted and so display the desired image by adjusting the positions of the drive bodies in the horizontal direction through the use of electrical force.
Abstract:
A source electrode and a metal pattern for a storage capacitor are formed on an insulating substrate, a silicon layer having a doped source region and a doped drain region is formed on the substrate and the source and the drain regions directly contact to the source electrode and the metal pattern. A gate insulating film is formed thereon, and a storage electrode is formed on the gate insulating film opposite the metal pattern. A passivation film covering the storage electrode is formed and the pixel electrode is formed thereon. The pixel electrode is directly connected to the drain region or to the metal pattern.
Abstract:
A source electrode and a metal pattern for a storage capacitor are formed on an insulating substrate, a silicon layer having a doped source region and a doped drain region is formed on the substrate and the source and the drain regions directly contact to the source electrode and the metal pattern. A gate insulating film is formed thereon, and a storage electrode is formed on the gate insulating film opposite the metal pattern. A passivation film covering the storage electrode is formed and the pixel electrode is formed thereon. The pixel electrode is directly connected to the drain region or to the metal pattern.
Abstract:
Methods of forming thin-film transistors include the steps of forming an amorphous silicon (a-Si) layer of predetermined conductivity type on a face of an electrically insulating substrate and then forming a first insulating layer on the amorphous silicon layer. The first insulating layer and amorphous silicon layer are then patterned to define spaced amorphous source and drain regions having exposed sidewalls. An amorphous silicon channel region is then deposited in the space between the source and drain regions and in contact with the sidewalls thereof. An annealing step is then performed to convert the amorphous source, drain and channel regions to polycrystalline silicon, prior to the step of forming an insulated gate electrode on the channel region.
Abstract:
A method for manufacturing a thin-film transistor includes forming a silicon pattern on a substrate; forming a gate insulating film by a thermal oxidization process or a deposition process; forming a gate pattern by depositing a gate electrode and a gate line; implanting ions into the substrate; forming an interlayer-insulating film; activating the implanted ions; forming a gate contact hole and source-drain contact holes; and forming a wiring pattern. The resultant thin-film transistor increases reliability of devices and yield by reducing breakdown voltage between the gate line and the silicon pattern and improving characteristics of the insulation-destruction.
Abstract:
Provided are a photo sensor, a display device including the same, and a driving method thereof. The photo sensor includes: an amplifying element including an input terminal coupled to a scan line for receiving a scan signal, an output terminal configured to output a sensing signal, and a control terminal connected to a first node; a sensing capacitor connected with the first node; a photosensitive sensing element including a control terminal connected with a terminal of a first control signal, an output terminal connected with the first node, and an input terminal; and a reset element connected with the output terminal of the amplifying element and resetting the output terminal of the amplifying element to second voltage according to a reset control signal.
Abstract:
A source electrode and a metal pattern for a storage capacitor are formed on an insulating substrate, a silicon layer having a doped source region and a doped drain region is formed on the substrate and the source and the drain regions directly contact to the source electrode and the metal pattern. A gate insulating film is formed thereon, and a storage electrode is formed on the gate insulating film opposite the metal pattern. A passivation film covering the storage electrode is formed and the pixel electrode is formed thereon. The pixel electrode is directly connected to the drain region or to the metal pattern.
Abstract:
A source electrode and a metal pattern for a storage capacitor are formed on an insulating substrate, a silicon layer having a doped source region and a doped drain region is formed on the substrate and the source and the drain regions directly contact to the source electrode and the metal pattern. A gate insulating film is formed thereon, and a storage electrode is formed on the gate insulating film opposite the metal pattern. A passivation film covering the storage electrode is formed and the pixel electrode is formed thereon. The pixel electrode is directly connected to the drain region or to the metal pattern.
Abstract:
An LCD device with reduced off-current comprising one glass substrate on which a TFT array, a first ITO common electrode and data gate line are formed, a confronting glass substrate joined to the other glass substrate and on which a color filter array and a second ITO common electrode are formed, and a liquid crystal poured between the joined glass substrates. Part of the second ITO common electrode positionally corresponding to a respective TFT is eliminated, thereby preventing electrons from gathering on the upper surface of the thin film transistor (TFT).
Abstract:
A thin film transistor formed in a liquid crystal display, comprising; a silicon layer formed over a transparent substrate, a first insulating layer formed over the silicon layer, a gate electrode and a plurality of gate line electrodes formed on the first insulating layer, a second insulating layer formed over the gate electrode and the gate line electrodes having a plurality of contact holes, and a metal line ohmically connected to the gate electrode and the plurality of gate line electrodes through the plurality of contact holes.