36results about How to "Easy to uniformly" patented technology

It is an object of this invention to make the amounts of liquid discharged from the nozzles of a liquid discharge head uniform. To achieve this object, there is provided a liquid discharge apparatus for discharging a liquid to a medium using a liquid discharge head having a plurality of nozzles for discharging the liquid, characterized by comprising a discharge amount changing device which can change the amounts of liquid discharged from the respective nozzles of the liquid discharge head independently of each of the plurality of nozzles, the discharge amount changing device including a voltage control device which can change a driving voltage value of a driving pulse to be supplied to each of the plurality of nozzles.

Branched crystalline polypropylene compositions and methods for the preparation of branched crystalline polypropylene compositions are provided. For example, described herein is a process of preparing a branched crystalline polypropylene composition that includes combining two or more different metallocene catalyst compounds with a polymerization medium that includes propylene, for a time sufficient to provide branched crystalline polypropylene that has from 0.0 wt % to 2.0 wt % ethylene and a heat of fusion of 70 J/g or more.

A thermotherapy treatment apparatus includes a human body mounting portion, a cover portion for covering a human body corresponding site on the human body mounting portion, a far infrared ray radiation source for radiating far infrared rays onto the human body corresponding site, a ventilation hole for ventilating the human body corresponding site, and a ventilation duct which is in communication with the ventilation hole.

An image recording apparatus that is capable of realizing a favorable print layout where bottom orientations of image data are made uniform easily and at low cost. Rotation information of image data is obtained. A print layout type or pattern in accordance with the rotation information is selected. In accordance with the selected print layout type or pattern, print data for printing a print medium on which the image data is laid out is generated.

A heat storage apparatus comprises a heat storage material accommodation cell for accommodating therein a heat storage material having an electricity conductive characteristic and configured to be electrically heated, and a fluid passageway for allowing a heat exchanging fluid to flow therethrough, the fluid passageway being adjacent to the heat storage material accommodation cell via a bulkhead. The heat storage material accommodation cell and the fluid passageway are put in a spiral configuration together with the bulkhead in a heat storage main body of the heat storage apparatus. Heat held in the heat storage material is transferred to the heat exchanging fluid so as to be taken out of the heat storage apparatus.

A pair of indentations is formed with a vertical spacing on a side wall of a toner cartridge, respective translucent windows are arranged on opposing upper and lower surfaces of the indentations protruding into the toner cartridge, and a light-emitting element and a light-receiving element of a remaining toner sensor are inserted to the indentations such that the light-emitting element and the light-receiving element of the remaining toner sensor face each other via the translucent windows of the indentations. When there is sufficient toner remaining in the toner cartridge, there is toner in the space between the transparent plates, and the space between a light-emitting diode and a phototransistor is blocked such that light is not incident on the phototransistor, whereas when there is little toner remaining in the toner cartridge, there is no toner in the space between the transparent plates, and the light is incident on the phototransistor via the space between the light-emitting diode and the photoresistor.

A method for manufacturing a stereoscopic image display apparatus includes a bonding step of bonding an image display panel and a phase difference element by disposing an adhesive layer between the entire surfaces thereof, the image display panel displaying a right-eye image and a left-eye image by regularly mixing them in a plane, the phase difference element including a right-eye image display section corresponding to the right-eye image and a left-eye image display section corresponding to the left-eye image, the phase difference element achieving different polarizations between the right-eye image display section and the left-eye image display section, the adhesive layer being composed of a transparent gel acrylic adhesive with a thickness of 25 to 100 μm, hardness of the adhesive being more than 0 and 350000 μN or less, holding strength of the adhesive at 40° C. after bonding being 8 to 20 N/20 mm.

An electro-optic device includes first and second pixels that form first and second images, respectively. The first and second pixels are arranged alternately in a first direction. A light blocking element overlaps the pixels in plan view. The pixels are divided into pixel groups, each corresponding to every two pixels, which are one of the first pixels and one of the second pixels adjacent to each other in the first direction. The light blocking element has openings, each corresponding to one of the pixel groups and located in a region that overlaps the two pixels of the pixel group in plan view. Each first pixel has a light blocking region that partially intercepts light emitted from the first pixel. Each second pixel has a light blocking region that partially intercepts light emitted from the second pixel. The light blocking regions are positioned symmetrically to each other in plan view.

There is provided a slicing method including winding a wire around a plurality of grooved rollers and pressing the wire against an ingot to be sliced into wafers while supplying a slurry for slicing to the grooved rollers and causing the wire to travel, in which a test of slicing the ingot while supplying the slurry for slicing to the grooved rollers and controlling a supply temperature thereof is previously conducted to examine a relationship between an axial displacement of the grooved rollers and a supply temperature of the slurry for slicing, a supply temperature profile of the slurry for slicing is set based on the relationship between an axial displacement of the grooved rollers and a supply temperature of the slurry for slicing, and the slurry for slicing is supplied based on the supply temperature profile to slice the ingot while controlling an axial displacement of the grooved rollers and to uniform Sori of all wafers to be sliced out in one direction. As a result, the slicing method that can easily perform slicing with excellent reproducibility while uniforming Sori of all wafers in one direction at the time of slicing an ingot by using a wire saw is provided.

A liquid crystal device includes: a liquid crystal layer being interposed between a pair of substrates; an electrode disposed on surfaces of at least one of the pair of substrates facing the liquid crystal layer; a self-assembled film disposed to cover the electrode on the side of the liquid crystal layer; and an inorganic alignment film disposed between the self-assembled film and the liquid crystal layer.

An exposure system includes an exposure apparatus, a mask, a test pattern portion and a uniformity measuring part. The exposure apparatus includes a first module and a second module. The first and second modules each emit light and are overlapped in an overlapping area. The mask includes a plurality of transmission portions which are spaced apart from each other. Each of the transmission portions has a width less than a width of the overlapping area. The test pattern portion includes a plurality of test patterns which are patterned by using the light transmitted through the transmission portions of the mask. The uniformity measuring part measures a uniformity of the test patterns.

While a semiconductor substrate having a metal film formed thereover by electrolytic plating is rotated, an etching solution for the metal film is supplied to the peripheral portion of the metal film at a first flow rate and then the etching solution is continuously supplied at a second flow rate, which is lower than the first flow rate.