Abstract:
An active device, a pixel structure, and a display panel are provided. The pixel structure includes a scan line, a data line, an active device, a gate insulating layer, a pixel electrode, a capacitor electrode, and a capacitor dielectric layer. The active device includes a gate, a channel, a source, and a drain. The gate is electrically connected to the scan line. The source is electrically connected to the data line. The gate insulating layer is disposed between the gate and the channel. The pixel electrode is electrically connected to the drain. The capacitor electrode is located on the gate insulating layer. The capacitor dielectric layer is located between the capacitor electrode and the drain.
Abstract:
A thin film transistor device, disposed on a substrate, includes a gate electrode, a semiconductor channel layer, a gate insulating layer disposed between the gate electrode and the semiconductor channel layer, a source electrode and a drain electrode disposed at two opposite sides of the semiconductor channel layer and partially overlapping the semiconductor channel layer, respectively, a capacitor electrode at least partially overlapping the gate electrode, and a capacitor dielectric layer disposed between the capacitor electrode and the gate electrode. The capacitor electrode, the gate electrode and the capacitor dielectric layer form a capacitor device.
Abstract:
A method for forming a semiconductor structure includes following steps. A substrate structure is provided. The substrate structure includes a semiconductor substrate, a first oxide-nitride-oxide (ONO) layer, and a second ONO layer. The semiconductor substrate has first and second surfaces opposite to each other. The first ONO layer includes a first oxide layer, a first nitride layer and a second oxide layer formed on the first surface in sequence. The second ONO layer includes a third oxide layer, a second nitride layer and a fourth oxide layer formed on the second surface in sequence. A nitride mask layer is formed on the first ONO layer. The fourth oxide layer is removed. The second nitride layer and the nitride mask layer are removed. The second oxide layer and the third oxide layer are removed. A fifth oxide layer is formed on the first nitride layer.
Abstract:
A pixel array is located on a substrate and includes a plurality of pixel sets. Each of the pixel sets includes a first scan line, a second scan line, a data line, a data signal transmission line, a first pixel unit, and a second pixel unit. The data line is not parallel to the first and the second scan lines. The data signal transmission line is disposed parallel to the first and the second scan lines and electrically connected to the data line. Distance between the first and the second scan lines is smaller than distance between the data signal transmission line and one of the first and the second scan lines. The first pixel unit is electrically connected to the first scan line and the data line. The second pixel unit is electrically connected to the second scan line and the data line.
Abstract:
This invention in one aspect relates to a pixel structure. In one embodiment, the pixel structure includes a scan line formed on a substrate and a data line formed over the substrate defining a pixel area, a switch formed inside the pixel area on the substrate, a shielding electrode formed over the switch, a plane organic layer formed over the date line and the pixel area and having no overlapping with the shielding electrode, and a pixel electrode having a first portion and a second portion extending from the first portion, and formed over the shielding electrode and the plane organic layer in the pixel area, wherein the first portion is overlapped with the shielding electrode so as to define a storage capacitor therebetween, and the second portion overlays the plane organic layer and has no overlapping with the data line.
Abstract:
Method, network apparatus and computer readable medium thereof for detecting the defect of the network are provided. The network apparatus comprises a controlling module and a relaying module. The controlling module comprises a generating module for generating a plurality of sub-detecting packets; and a first combining module for combining the plurality of sub-detecting module into a detecting packet; the relaying module is for receiving the detecting packet from the controlling module, the relaying module comprises a decomposing module for decomposing the detecting packet into the plurality of sub-detecting packets and transfer the sub-detecting packets to a target host; and a second combining module for receiving a plurality sub-result packets from the target host which are corresponding to the sub-detecting packets, combining the sub-result packets into a result packet and transferring the result packet to the controlling module to complete the detection.
Abstract:
The present invention relates to a tilt wheel type mouse. The tilt wheel type mouse includes a tiltable scroll wheel, a switch button and a switching program. Under execution of the switching program, a frame shown on a computer screen is backward to the previous page or forward to the next page when the scroll wheel is rotated in the left or right direction.
Abstract:
A mouse having a hot key is used for performing an internet searching operation. The mouse is electrically connected to a computer system, which is linked to a preset search website including a search box. The mouse includes a hot key and a hot key processing program. The hot key is activated to generate a depressing signal and a release signal. The hot key processing program is executed to be linked to the search website and implement the internet searching operation, wherein at least a search keyword marked by a user is copied in response to the depressing signal, and the computer system is linked to the preset search website and the marked search keyword is pasted into the search box in response to the release signal, thereby implementing the internet searching operation.
Abstract:
This invention is about a DAPD-LUT technique of dynamically adapting an LUT spacing for linearizing a power amplifier (PA). It optimizes the LUT spacing for the PA without prior knowledge of system state information. A size-N LUT divides a whole unsaturated PA input amplitude range into N bins, each predistorted by an entry of the LUT. The LUT is indexed by an input amplitude of a modulated signal via an index mapper to implement an unconditionally non-uniform LUT spacing. A spacing adaptor online interactively adapts the LUT spacing. The adapted LUT spacing balances the IMD power at the PA output corresponding to each bin, so that the total IMD power at the PA output is minimized. This dynamically-optimum technique is practical, robust, and with low complexity.
Abstract:
A semiconductor process is provided. A substrate is provided and then a to-be-etched layer is formed on the substrate. A patterned photoresist layer is formed on the to-be-etched layer. The to-be-etching layer is etched using a gaseous etchant to form a patterned layer. In the meantime, some of the gaseous etchant is condensed on the patterned photoresist layer and above the substrate after the etching process. Thereafter, a heat treatment process is performed to remove the condensed gaseous etchant. An ion implanting process is performed to form a doped region in the substrate. After the ion implanting process, the patterned photoresist layer is removed.