Abstract:
A method for writing a memory cell in a specific write cycle is provided. The method includes the following steps: providing a first signal having a first transition edge in the specific write cycle; providing a second signal having a second transition edge in the specific write cycle, wherein the second transition edge lags behind the first transition edge; providing a first voltage level to the memory cell; and lowering the first voltage level to a second voltage level in the specific write cycle for writing the memory cell in response to the second transition edge. A memory device is also provided.
Abstract:
A circuit includes a first node, a second node, a memory cell, a first data line, a second data line, and a write driver. The memory cell is coupled to the first node and the second node and powered by a first voltage at the first node and a second voltage at the second node. The first data line and the second data line are coupled to the memory cell. The write driver has a third node carrying a third voltage less than the first voltage during a write operation. The write deriver is coupled to the first data line and the second data line and configured to, during a write operation, selectively coupling one of the first data line and the second data line to the third node and coupling the other one of the first data line and the second data line to the first node.
Abstract:
A modulized touch panel is revealed. The modulized touch panel includes a first substrate layer and a second substrate layer while the second substrate layer is corresponding to the first substrate layer A touch panel is integrated with a control chip so as to reduce complexity and occupied area of the circuit that transmits signals between electronic devices and the touch panel while increasing scan lines of the touch panel. Thus circuit of electronics is simplified. Moreover, the first substrate layer or the second substrate layer of the touch panel is disposed with a metal layer for reducing impedance and improving signal stability.
Abstract:
A separative extended gate field effect transistor based uric acid sensing device is provided, including: a substrate; a conductive layer including a silver paste layer on the substrate and a graphite-based paste layer on the silver paste layer; a conductive wire extended from the conductive layer; a titanium dioxide layer on the conductive layer; and a uric acid enzyme sensing film on the titanium dioxide layer.
Abstract:
An adjustment circuit for color sequential liquid crystal displays and an adjustment method thereof applied to a color sequential liquid crystal display are disclosed. The color sequential liquid crystal display receives a plurality of driving signals from a light-source driving circuit to generate a plurality of primary color backlights and at least one adjusted-color backlight and also receives one display driving signal. The adjusted-color backlight is generated behind one of three primary color backlights. By means of the adjusted-color backlight, the color and brightness of the frame are adjusted.
Abstract:
A control IC (integrated circuit) for color sequential liquid crystal displays (LCD) is revealed. The control IC includes an interface for receiving a command and at least one display data and a timing generator to generate a scan timing signal, a data timing signal, and a driving timing signal. According to the scan timing signal, a scan driving circuit generates a scan signal that is sent to the color sequential LCD. In accordance with the data timing signal, a data driving circuit receives the display data for generating a data signal sent to the color sequential LCD. According to the driving timing signal, a light-source driving circuit generates a plurality of driving signals sent to the color sequential LCD so as to generate a plurality of color backlights. In accordance with the scan signal, the data signal and the plurality of backlights, the color sequential LCD displays a frame.
Abstract:
A method for dynamic channel allocation for access points in wireless networks. Communication information of wireless devices is gathered. A network topology formed by the wireless devices is derived according to the communication information. Switch channel indexes for each wireless device are calculated according to the communication information and network topology. Desired wireless devices for switching channels are determined according to the switch channel indexes.
Abstract:
A method for dynamic channel allocation for access points in wireless networks. Communication information of wireless devices is gathered. A network topology formed by the wireless devices is derived according to the communication information. Switch channel indexes for each wireless device are calculated according to the communication information and network topology. Desired wireless devices for switching channels are determined according to the switch channel indexes.