Abstract:
An electrooptic device includes first and second substrates that are disposed opposing each other with an electrooptic material layer therebetween, a sealing material that bonds the first and second substrates, a pixel area, and an ion trap portion between the pixel area and the sealing material. The ion trap portion includes first and second electrodes that are formed in a comb-tooth shape and are disposed so that branch electrodes of the first electrode and branch electrodes of the second electrode are engaged with each other. A direction of the branch electrodes intersects with an orientation direction of the electrooptic material at an interface between the electrooptic material layer and the first substrate.
Abstract:
A CPU perform the steps of: (a) causing a compression/decompression processor to decompress the compressed data of one of three bands in the data area except for the first block in the band, and storing decompressed bitmap data in the data area; (b) rasterizing each of the intermediate data blocks in the band and synthesizing the rasterized data and the decompressed bitmap data in the band; and (c) causing the compression/decompression processor to compress the synthesized bitmap data and storing the compressed data in the data area. The CPU performs the steps (a) to (c) in different respective tasks in parallel, and performs the steps (a) to (c) along the order of (a), (b), (c) for each of the intermediate code blocks in each of the bands while using the 1st to the 3rd bitmap data area in turn for each of the steps (a) to (c).
Abstract:
A CPU perform the steps of: (a) causing a compression/decompression processor to decompress the compressed data of one of three bands in the data area except for the first block in the band, and storing decompressed bitmap data in the data area; (b) rasterizing each of the intermediate data blocks in the band and synthesizing the rasterized data and the decompressed bitmap data in the band; and (c) causing the compression/decompression processor to compress the synthesized bitmap data and storing the compressed data in the data area. The CPU performs the steps (a) to (c) in different respective tasks in parallel, and performs the steps (a) to (c) along the order of (a), (b), (c) for each of the intermediate code blocks in each of the bands while using the 1st to the 3rd bitmap data area in turn for each of the steps (a) to (c).
Abstract:
A data processing apparatus includes a storage controller and a processor. The storage controller is configured to write a series of data blocks constituting a particular unit of data to a storage and read out the series of data blocks from the storage. The processor is further configured to generate a write-side process and a read-side process, notify the read-side process from the write-side process of an identifier of a storage area in the storage, cause the storage controller to sequentially write the series of data blocks to the storage area using the write-side process, and cause the storage controller to read the series of data blocks from the storage area corresponding to the identifier using the read-side process after the identifier is received in the read-side process.
Abstract:
In a display region, pixel electrodes are arranged with a predetermined pitch in a matrix. Dummy pixel electrodes provided in a dummy display region surrounding the display region are formed from the same layer as the pixel electrodes, and are arranged in an island shape so as to have the same size and pitch as the pixel electrodes. The dummy pixel electrodes are connected to each other via a wire positioned under the pixel electrodes.
Abstract:
In an electro-optical device, a liquid crystal element can be driven more appropriately.An electro-optical device 1 includes: a scanning line driving circuit 130 which, in a plurality of subfields sf1 to sf8 constituting a field, sequentially supplies scanning signals for causing selection transistors 116 to be in an ON state to a plurality of scanning lines 112 and selects a pixel 110 for each of the scanning lines 112; and a data line driving circuit 140 which writes a signal potential corresponding to an image to be displayed on a pixel electrode 118 of the pixel 110 selected by the scanning line driving circuit 130 via a plurality of data lines 114, in the writing of the signal potential, when it is assumed that a polarity of the signal potential with respect to a potential of an opposite electrode 119 is a writing polarity, reverses the writing polarity a plurality of times in the field, and writes the signal potential so that the writing polarities of the plurality of subfield periods constituting a given field are the reverse of the writing polarities of the plurality of subfields constituting the next field.
Abstract:
A data processing apparatus includes a storage controller and a processor. The storage controller is configured to write a series of data blocks constituting a particular unit of data to a storage and read out the series of data blocks from the storage. The processor is further configured to generate a write-side process and a read-side process, notify the read-side process from the write-side process of an identifier of a storage area in the storage, cause the storage controller to sequentially write the series of data blocks to the storage area using the write-side process, and cause the storage controller to read the series of data blocks from the storage area corresponding to the identifier using the read-side process after the identifier is received in the read-side process.
Abstract:
An electro-optical device includes: a data line driver applying the signal potential in such a manner that a writing polarity is reversed more than once in the field time period, and the writing polarity of each of sub field time periods making up a certain field time period is the opposite of the writing polarity of the corresponding one of sub field time periods making up the next field time period; a scanning line driver applying the scanning signal in such a manner that a total length of the sub field time periods in which writing in one polarity is performed in each cycle of two consecutive fields one of which is an odd field and the other of which is an even field is different from a total length of the sub field time periods in which writing in the other polarity is performed in the each cycle of two consecutive fields.
Abstract:
To provide an antifouling composition which is a fluorine-type antifouling composition using a short chain perfluoroalkyl group and which is excellent in antifouling properties and water/oil repellency and presents good durability against washing.An antifouling composition comprising a fluorocopolymer which comprises from 30 to 65 mass % of polymerized units (a) having a C1-6 perfluoroalkyl group, from 1 to 67 mass % of polymerized units (b1) having —(C2H4O)— and from 3 to 34 mass % of polymerized units (b2) having —(C4H8O)—, wherein the content of —(C2H4O)— is from 20 to 65 mass %, and the content of —(C4H8O)— is from 2 to 13 mass %.
Abstract translation:提供一种使用短链全氟烷基的氟型防污组合物的防污组合物,其防污性和拒水拒油性优异,耐洗涤性好。 包含含氟共聚物的防污组合物,其含有30〜65质量%的具有C1-6全氟烷基的聚合单元(a),1〜67质量%的具有 - (C 2 H 4 O)的聚合单元(b1) 34质量%的具有 - (C 4 H 8 O) - 的聚合单元(b2),其中 - (C 2 H 4 O)的含量为20〜65质量%, - (C 4 H 8 O)的含量为2〜13质量%。
Abstract:
An ink cartridge that is filled with ink and, used with the ink cartridge loaded into a printer includes a reservoir that reserves the ink, an outlet through which the ink is supplied to the printer with the ink cartridge loaded, at least one ink supply system that includes a channel that leads the ink from the reservoir to the outlet, and a sensor that detects whether the channel is filled with the ink or gas, an ink cartridge terminal that is electrically coupled to the sensor and makes contact with a printer terminal disposed on the printer upon loading of the ink cartridge. A detection region of the channel where detection is carried out by the sensor is previously filled with gas with the ink cartridge yet to be used. Whether or not the use of the ink cartridge is proper is determined based on information from the sensor.