Abstract:
A lock device that may be locked automatically includes a base fixed on a door plate. An actuating tube received in the hole of the base is provided with a locking member combined with a handle. The lock core unit has a lock core that may drive an actuating plate to rotate. The drive wheel has a drive slot for insertion of the actuating plate, so that the drive wheel and the actuating plate may be rotated simultaneously. An elastic member has two stop ends rested on the leg of the restoring wheel, and rested on the two sides of the ear plate of the locking plate. The drive plate has a first end inserted into an unlocking rotation knob of the other side of the door plate, and a second end inserted into the drive slot of the drive wheel.
Abstract:
An active device array substrate and a fabricating method thereof are provided. A first patterned conductive layer including separated scan line patterns is formed on a substrate. Each scan line pattern includes a first and second scan lines adjacent to each other. Both the first and the second scan lines have first and second contacts. An open inspection on the scan line patterns is performed. Channel layers are formed on the substrate. A second patterned conductive layer including data lines interlaced with the first and second scan lines, sources and drains located above the channel layers, and connectors is formed on the substrate. The sources electrically connect the data lines correspondingly. At least one of the connectors electrically connects the first and second scan lines, so as to form a loop in each scan line pattern. Pixel electrodes electrically connected to the drains are formed.
Abstract:
An active device array substrate and a fabricating method thereof are provided. A first patterned conductive layer including separated scan line patterns is formed on a substrate. Each scan line pattern includes a first and second scan lines adjacent to each other. Both the first and the second scan lines have first and second contacts. An open inspection on the scan line patterns is performed. Channel layers are formed on the substrate. A second patterned conductive layer including data lines interlaced with the first and second scan lines, sources and drains located above the channel layers, and connectors is formed on the substrate. The sources electrically connect the data lines correspondingly. At least one of the connectors electrically connects the first and second scan lines, so as to form a loop in each scan line pattern. Pixel electrodes electrically connected to the drains are formed.
Abstract:
A metal interconnect structure includes a plurality of first plugs adjacent to each other, a first metal line extending in a first direction and contacting each first plug to form a first section with a tapered second section in between, and a second plug adjacent to the second section, both in a second direction normal to the first direction.
Abstract:
Disclosed is a test mask structure. The test mask structure of the present invention comprises at least an array pattern region, in a certain proportion to the final product, having a first pattern density according to the certain proportion; and at least one test mask pattern region having a second pattern density. In the test mask structure of the present invention, the required pattern density is obtained by adjusting the area of the array pattern region and the area of the test mask pattern region according to the first pattern density and the second pattern density.
Abstract:
A method of preventing repeated collapse in a reworked photoresist layer. First, oxygen-containing plasma is applied to remove a collapsed photoresist. Because the plasma containing oxygen reacts with a bottom anti-reflect layer comprising SiOxNy, some acids are produced on the bottom anti-reflect layer, resulting in undercutting in a subsequently reworked photoresist. Next, an alkaline solution treatment is performed on the anti-reflect layer after the collapsed photoresist layer is removed. Finally, the reworked photoresist with is formed on the anti-reflect layer, without undercutting.
Abstract translation:防止再加工的光致抗蚀剂层中的重复塌陷的方法。 首先,施加含氧等离子体以除去塌陷的光致抗蚀剂。 因为含有氧的等离子体与包含SiO x N y Y y的底部防反射层反应,所以在底部防反射层上产生一些酸,导致在 随后再加工光致抗蚀剂。 接下来,在去除塌陷的光致抗蚀剂层之后,在抗反射层上进行碱性溶液处理。 最后,在反射层上形成返工光致抗蚀剂,而没有底切。
Abstract:
A method of improving lithography resolution on a semiconductor, including the steps of providing a substrate on which a protecting layer, a first etching layer and a photoresist layer are sequentially formed; patterning the photoresist layer to form an opening so as to partially reveal the first etching layer; implanting a first ion into the revealed first etching layer to form a first doped area; and implanting a second ion into the revealed first etching layer to form a second doped area, wherein the first doped area is independent from the second doped area is provided.
Abstract:
A method for enhancing adhesion between a reworked photoresist and an underlying oxynitride film. A photoresist pattern layer is formed on an oxynitride layer overlying a substrate. The photoresist pattern layer is removed by acidic solution or oxygen-containing plasma. A surface treatment is performed on the oxynitride layer using a development solution to repair the damaged oxynitride layer due to removing the overlying photoresist pattern layer. A reworked photoresist pattern layer is formed on the oxynitride layer.
Abstract:
A method for evaluating reticle registration between two reticle patterns. A wafer is defined and etched to form a first exposure pattern, by photolithography with a first reticle having a first reticle pattern thereon. A photoresist layer is formed over the wafer and defined as a second exposure pattern, by photolithography with a second reticle having a second reticle pattern thereon. A deviation value between the first and second exposure patterns is measured by a CD-SEM. The deviation value is calibrated according to the scaling degree and the overlay offset to obtain a registration data. The reticle registration between the two reticle patterns is evaluated based on the registration data.
Abstract:
An optical proximity correction (OPC) method for correcting a photomask layout. The photomask layout has at least a photomask pattern. The steps of the OPC method include collecting an assist feature bias of a predetermined assist feature, performing a rule-based OPC by taking account of the assist feature bias to compute a target bias of the photomask layout, outputting a corrected photomask layout according to the target bias, and adding the predetermined assist feature to the corrected photomask layout.