Abstract: The present invention is related to a novel high fixation ink composition for digital textile printing, which comprises: (A) at least one reactive dye compound with two reactive groups in an amount of 1% to 50% by weight; (B) an organic buffer in an amount of 0.05% to 10% by weight; (C) a humectant in an amount of 10% to 50% by weight; and (D) a solvent in remaining amount. When the aforesaid ink composition is applied in digital textile printing, fixation rate of dye on fabrics is high.

Abstract: A siphon-type heat dissipation device includes a first plate body, a second plate body and a working liquid. An accommodation space is formed between the first plate body and the second plate body. The working liquid is accumulated in a lower portion of the accommodation space. A heat source is attached on the siphon-type heat dissipation device. After a heat energy generated by the heat source is transferred into the working liquid, the heat energy is absorbed by the working liquid, so that a portion of the working liquid is vaporized into a working vapor. After the working vapor ascends to an upper portion of the accommodation space, the heat energy is dissipated to surroundings, and the working vapor is condensed and changed into the working liquid. The working liquid flows back to the lower portion of the accommodation space.

Abstract: A water-cooling heat dissipation module includes a hot-water heat exchange structure, a cold-water heat exchange structure, a fluid communication structure and a fan. The fluid communication structure is in communication with the hot-water heat exchange structure and the cold-water heat exchange structure. The fan and the hot-water heat exchange structure are opposed to each other with respect to the cold-water heat exchange structure. An airflow produced by the fan blows the cold-water heat exchange structure and the hot-water heat exchange structure sequentially. Consequently, the cold-water heat exchange structure will not receive the heat from the hot-water heat exchange structure through the airflow.

Abstract: An electronic device with a heat-dissipating function and a liquid-cooling radiator module are provided. The electronic device includes a first circuit board, a second circuit board and a liquid-cooling radiator module. The second circuit board is mounted on the first circuit board. The liquid-cooling radiator module is attached on the second circuit board and in thermal contact with an electronic component of the second circuit board. The liquid-cooling radiator module includes plural airflow channels and a fan. The plural airflow channels are in parallel with the second circuit board. The fan produces airflow toward the plural airflow channel. After the airflow passes through the plural airflow channels, the airflow is outputted in a direction parallel with the second circuit board. Since the airflow is not obstructed by the adjacent function circuit boards, the heat-dissipating efficiency is enhanced.

Abstract: A driving apparatus of a light emitting diode (LED) display device is provided. The driving apparatus includes a timing control circuit. The timing control circuit outputs a plurality of driving control signals to a gate driving circuit on an LED display panel of the LED display device. Wherein, the plurality of driving control signals includes a first driving control signal and a second driving control signal, and the pulse width of the first driving control signal in a first horizontal line period is different from the pulse width of a second driving control signal in a second horizontal line period preceding to the first horizontal line period.

Abstract: A liquid-cooling heat dissipation device includes a thermally conductive base and a covering structure. The thermally conductive base has a bottom surface and a top surface opposed to the bottom surface. The bottom surface is in contact with a heat source. A heat dissipation structure is formed on the top surface. The thermally conductive base is covered by the covering structure. An input chamber and an output chamber are defined by the thermally conductive base and the covering structure collaboratively. The input chamber is disposed over the heat dissipation structure and has an entrance. The output chamber has an exit. The input chamber is a tapered space. A vertical height of the input chamber is gradually decreased in a direction from the entrance toward the exit. Consequently, liquid flowing into the input chamber through the entrance is guided to the heat dissipation structure.

Abstract: A liquid cooling device is provided. The materials of the conduits of the liquid cooling device are improved and specially designed. After the conduit is bent, twisted or retracted, the joint between a water-cooling head or a water-cooling radiator and the conduit is maintained in the secure connection state. Moreover, the materials of the conduits meet the environmental regulations.

Abstract: A mask is designed for patterning organic light emitting material on a surface. The mask includes a substrate having a first surface and a second surface opposite to the first surface. The mask further includes a plurality of holes extended though the substrate with a pitch not greater than 150 um, and each hole having a first exit at the first surface and a second surface at the second surface. At least one of the plurality of holes has a smallest dimension being not greater than about 15 um.

Abstract: An integrated circuit for driving a display panel is provided. The integrated circuit includes a gamma mapping circuit and a mura compensation circuit. The gamma mapping circuit is configured to receive a gray level of an image data, map the gray level to a gamma code according to at least one gamma table, and output the gamma code. The mura compensation circuit is configured to receive the gamma code, and compensate the gamma code according to at least one de-mura table to generate a compensation result after the gamma mapping circuit performs the step of mapping the gray level to the gamma code. The integrated circuit drives the display panel according to the compensation result. In addition, a method for driving a display panel is also provided.

Abstract: A memory erase method for a rewritable non-volatile memory module is provided. The method includes: identifying a to-be-erased logical address range and a logical unit that the erased logical address range belongs to according to an erase command; determining whether the logical unit is mapped to any physical erasing unit; and if no, transmitting a message indicating that the erase command is finished in response to the erase command without performing a physical erasing operation. The method further includes: if a mother physical erasing unit for the logical unit is assigned and no physical erasing unit is assigned as a child physical erasing unit for the logical unit, creating an erase index table for the first logical unit and marking bits corresponding to the to-be-erased logical address range in the erase index table as a value indicating that a logical address is erased.

Abstract: An integrated circuit for driving a display panel is provided. The integrated circuit includes a gamma mapping unit and a mura compensation unit. The gamma mapping unit is configured to receive a gray level of an image data, map the gray level to a gamma code according to at least one gamma table, and output the gamma code. The mura compensation unit is configured to receive the gamma code, and compensate the gamma code according to at least one de-mura table to generate a compensation result after the gamma mapping unit performs the step of mapping the gray level to the gamma code. The integrated circuit drives the display panel according to the compensation result. In addition, a method for driving a display panel is also provided.

Abstract: A display driving apparatus including a receiver circuit, a detection circuit and a driving circuit is provided. The receiver circuit receives the video image data at a first rate. The detection circuit is coupled to the receiver circuit. The detection circuit detects whether the video image data is a static image, and determines whether the display driving apparatus enters a power saving mode based on a detecting result. The driving circuit is coupled to the receiver circuit. The driving circuit drives the display panel. In the power saving mode, the receiver circuit continuously receives the video image data at the first rate, and periodically masks a part of the video image data according to the detecting result and outputs an unmasked part of the video image data to the driving circuit. Furthermore, a display driving method adapted for the foregoing display driving apparatus is also provided.

Abstract: A memory erase method for a rewritable non-volatile memory module is provided. The method includes: identifying a to-be-erased logical address range and a logical unit that the erased logical address range belongs to according to an erase command; determining whether the logical unit is mapped to any physical erasing unit; and if no, transmitting a message indicating that the erase command is finished in response to the erase command without performing a physical erasing operation. The method further includes: if a mother physical erasing unit for the logical unit is assigned and no physical erasing unit is assigned as a child physical erasing unit for the logical unit, creating an erase index table for the first logical unit and marking bits corresponding to the to-be-erased logical address range in the erase index table as a value indicating that a logical address is erased.

Abstract: A liquid-cooling heat dissipating module includes a water-cooling radiator, a water-cooling head and an external pump. The water-cooling radiator includes a radiator inner channel, a radiator outlet tube and a radiator inlet tube. The water-cooling head assembly includes a water-cooling head and a bracket. The water-cooling head includes a first chamber, a head inlet and a head outlet. The head outlet is connected with the radiator inlet tube. The bracket is contacted with the water-cooling head. The external pump is contacted with the water-cooling head assembly. The external pump includes a second chamber, a pump inlet, a pump outlet and a pump tube. Two ends of the pump tube are connected with the pump outlet and the head inlet, respectively. The radiator inner channel, the radiator outlet tube, the radiator inlet tube, the first chamber, the pump tube and the second chamber are in fluid communication.

Abstract: A liquid-cooling heat dissipating module includes a water-cooling radiator, a water-cooling head and an external pump. The water-cooling radiator includes a radiator inner channel, a radiator outlet tube and a radiator inlet tube. The water-cooling head assembly includes a water-cooling head and a bracket. The water-cooling head includes a first chamber, a head inlet and a head outlet. The head outlet is connected with the radiator inlet tube. The bracket is contacted with the water-cooling head. The external pump is contacted with the water-cooling head assembly. The external pump includes a second chamber, a pump inlet, a pump outlet and a pump tube. Two ends of the pump tube are connected with the pump outlet and the head inlet, respectively. The radiator inner channel, the radiator outlet tube, the radiator inlet tube, the first chamber, the pump tube and the second chamber are in fluid communication.

Abstract: A display driving apparatus configured to drive a touch display panel is provided. The touch display panel includes gate drivers and scan lines. The display driving apparatus includes a driving controller. The driving controller provides clock signals to the gate drivers during a display period. The display period includes scan operation periods. The gate drivers drive the scan lines according to the clock signals during the scan operation periods. The driving controller further provides a clear signal and a pre-charge signal to at least one of the gate drivers to insert at least one touch sensing period between the scan operation periods, so that the touch display panel performs a touch sensing operation during the at least one touch sensing period. Furthermore, a method for driving the touch display panel is also provided.

Abstract: A display driving apparatus including a signal transmission interface, a timing control circuit and an image detection circuit is provided. The signal transmission interface is configured to receive video image data and output the video image data. The timing control circuit is configured to receive the video image data and drive a display panel based on the video image data. The image detection circuit determines whether the video image data is a static image and determines whether the display driving apparatus operates in a power-saving mode based on the determination result. Under the power-saving mode, the signal transmission interface masks a part of the video image data, so as not to output the masked video image data to the timing control circuit. Furthermore, a display driving method adapted for the foregoing display driving apparatus is also provided.

Abstract: An electronic device and a transmission method thereof are disclosed. The transmission method includes the following steps: establishing a virtual private network (VPN) and establishing an initial routing table corresponding to the virtual private network; receiving a packet and obtaining a network destination of the packet; determining whether the network destination is directed to a host located in an internal network; and transmitting the packet directly according to a first process or revising the initial routing table to generate an updated routing table and then transmitting the packet according to the updated routing table if it is determined that the network destination is not directed to the host located in the internal network. Thus, the electronic device is allowed to automatically select the suitable routing path depending on operating situations.

Abstract: A water cooling device includes a communication structure, a water cooling structure and a driving device. The communication structure includes a first chamber and a second chamber. The water cooling structure includes plural water tubes. The driving device is installed in at least one of the first chamber and the second chamber. The first chamber includes a water inlet and plural inlet ports. The second chamber comprises a water outlet and plural outlet ports. The water inlet and the water outlet are formed in the same lateral surface of the communication structure. At least two additional lateral surfaces of the communication structure are located beside the water cooling structure. The plural water tubes are in communication with the plural inlet ports and the plural outlet ports. A cooling medium is guided to flow through the plural water tubes.

Abstract: An electroluminescent (EL) device is disclosed, comprising a nanostructured composite electrode, one or more functional layers and an top electrode. The nanostructured composite electrode is consisting essentially of a first layer having a nanostructure and a second layer disposed on the nanostructure. The first and second layers are transparent and conducting, and one of the refractive-indexes of the first and second layers is lower than or equal to 1.65, and the other of the refractive-indexes of the first and second layers is higher than or equal to 1.75. One or more functional layers including a light emitting layer is disposed on the second layer. The top electrode is disposed on the functional layers. Especially, each of feature pits and each of intervals between the feature pits of the nanostructure of the first layer is smaller than or equal to a major wavelength of light emitted from the light emitting layer.