133results about How to "Suppress blur" patented technology

An image display method includes dividing one frame into a plurality of sub-frames by multiplying a frame frequency of an input image signal, reducing a high-spatial frequency component of an image signal which is used for image display in at least one predetermined sub-frame among the plurality of sub-frames in comparison with that of an image signal which is used for image display in another sub-frame, and displaying an image in each sub-frame.

The water-based ink set for ink-jet recording includes a magenta ink and a red ink with dynamic surface tensions thereof satisfying the following inequalities (IM), (IIM), (IIIM) and (IVM) σ30M≦about 49 mN / m   (IM) σ30M+σ30R≦about 100 mN / m   (IIM) wherein σ30M is the dynamic surface tension of the magenta ink at a lifetime of 30 ms and σ30R is the dynamic surface tension of the red ink at a lifetime of 30 ms, σ1000R≧about 36 mN / m   (IIIM) σ1000M+σ10000R≧about 70 mN / m   (IVM) wherein σ1000 M is the dynamic surface tension of the magenta ink at a lifetime of 1,000 ms and σ1000R is the dynamic surface tension of the red ink at a lifetime of 1,000 ms).

The invention provides a zooming method and a zooming system of a data image, and includes an interpolation-point space position calculation module that is used for calculating the specific position of the prior interpolation point in an original image and calculating the correspondent zooming ratio, a correlation-degree calculation module that is used for calculating the correlation degree on different directions according to the different positions of the interpolation points, a classification judging module that is used for classifying the interpolation points on different directions, a reference-point and correspondent direction obtaining module that is used for selecting four reference points on the most relevant corresponding direction and calculating the corresponding direction of the interpolation point in the four reference points that have the most correlation degree, and an inner-interpolation module that is used for the interpolation on different directions. Under the condition that the integration is rather simpler, the method of the invention can select the appropriate correlation-point information for the interpolation according to the content of the image, and obtain relevant reference-point data so as to reform the interpolation point value according to the inner interpolation direction, thereby effectively protecting the border of the object and suppressing the vagueness of the valuable information.

The present invention provides a vacuum evaporation apparatus. The blurring phenomenon of a pattern is avoided when the ratio of the flat portion of the film pattern is increased. Meanwhile, an evaporation film with the thickness thereof to be uniformly distributed is obtained. A plurality of evaporation openings (2) are formed on an evaporation source (1) along the length direction of the evaporation source. The evaporation source (1) is capable of moving relative to a substrate (3) arranged opposite to the evaporation source (1) in a direction vertical to the length direction of the evaporation source (1). The film formation material is ejected out of the evaporation openings (2). Therefore, an evaporation film is formed on the substrate (3). At least one pair of external evaporation openings (2), out of the plurality of evaporation openings (2), are respectively provided with an opening end surface inclined towards the outside along the length direction of the evaporation source (1). At least one internal evaporation opening (2), positioned on the inner side of the external evaporation openings (2) and selected out of the plurality of evaporation openings (2), is provided with an opening end surface inclined towards the centre along the length direction of the evaporation source (1).

Disclosed is a display device wherein: a first substrate 11, a second substrate 12, and a plurality of light emitting elements 10 are provided; light is outputted through the second substrate 12; eachof the light emitting elements 10 is formed by laminating, from the first substrate side, a first electrode 51, an organic layer 70 having a light emitting layer, a second electrode 52, and a sealinglayer 15; a light diffusion layer 80 containing fine particles 81 is formed between the sealing layer 15 and the second substrate 12, and orthographic images of the fine particles 81 in the light diffusion layer 80 do not overlap each other on the second substrate 12; and / or the light diffusion layer is formed between the sealing layer and the second substrate, and the light diffusion layer is configured from a flat section and a plurality of protruding sections that are configured from parts of spherical surfaces protruding from the flat section.

In the present invention, a vapor deposition source (60), a limiting plate unit (80), and a vapor deposition mask (70) are disposed in the given order. The limiting plate unit is provided with a plurality of limiting plates (81) disposed in a first direction. Side walls of the limiting plates delimiting in the first direction a limiting space (82) between adjacent limiting plates in the first direction are configured in a manner so that a portion at which the dimensions in the first direction of the limiting space are broader than a narrowest section (81n) at which the dimensions in the first direction of the limiting space are narrowest is formed at least at the vapor deposition source side with respect to the narrowest section. As a result, it is possible to form a coating film having suppressed blurring at the edges at a desired position on a large substrate.

The invention relates to an imaging apparatus and its control method. The imaging apparatus controls a movement of a second lens unit to compensate for an image-plane movement due to a movement of a first lens unit when a captured image is zoomed by moving the first lens unit, and controls the movement of the second lens unit to be performed within a range selected from data based on second information corresponding to an object distance. The data indicates a position of the first lens unit and a position of the second lens unit on an optical axis located behind the first lens unit, and is provided for each of object distances. The range of the movement of the second lens unit is changed according to a detection result by a second detection unit at a predetermined time.

The invention discloses an image restoration method based on a generative adversarial network and a system and application thereof, wherein the method comprises the steps of obtaining an optimized generated defect image boundary map through a trained boundary generation model in a first generative adversarial network; in a second generative adversarial network, training a restoration model by taking the original complete image, the original defect image and the optimized generated defect image boundary map as input to obtain a trained restoration model; and performing image restoration throughthe trained boundary generation model and restoration model. The restoration method provided by the invention can accurately restore the image defect area, significantly inhibits the image generatedby the defect area from generating blurring or artifacts, and is especially suitable for medical image restoration with high requirements for restoration accuracy and the like.

This invention is a printing control apparatus for generating print data to be supplied to a print unit to print. The print unit is capable of forming dots on a print medium by ejecting at least one type of colored ink containing a color material and a quality-enhancing ink for enhancing quality of a printed material. The printing control apparatus includes an outline area extractor configured to extract an outline area of an image expressed by given image data and a dot data generator configured to generate colored dot data and transparent dot data according to the image data. The dot data generator is configured to reduce ink volume of dots formed in the outline area among the transparent dots.

A coating film (90) is formed by causing vapor deposition particles (91) discharged from a vapor deposition source opening (61) of a vapor deposition source (60) to pass through a space (82) between a plurality of limiting plates (81) of a limiting plate unit (80) and a mask opening (71) of a vapor deposition mask in this order and adhere to a substrate while the substrate is moved relative to the vapor deposition mask in a state in which the substrate (10) and the vapor deposition mask (70) are spaced apart at a fixed interval. It is determined whether or not it is necessary to correct the position of at least one of the plurality of limiting plates in the X axis direction, and in the case where it is necessary to correct the position, the position of at least one of the plurality of limiting plates in the X axis direction is corrected. Accordingly, a coating film whose edge blur is suppressed can be stably formed at a desired position on a large-sized substrate.

The invention discloses a stepping ISAR imaging method aiming at a high-speed air and space object, and mainly solves the problem that under a large-time-width bandwidth product signal, the difference between a real echo phase of the high-speed air and space object and an approximate echo phase of a one-step-one-stop model leads to the decrease of the imaging effect. The method comprises the steps of: (1) precisely expressing the stepping echo information of the high-speed air and space object; (2) inhibiting doppler fuzzy in the echo information; (3) reconstructing coherence among different sub-bands; (4) removing frequency spectrum center offsets among the sub-bands; (5) carrying out stepping frequency band synthesis and distance matched filtering; and (6) carrying out keystone conversion and finishing orientation focusing. By adopting the method, the stepping ISAR imaging effect of the high-speed air and space object is substantially improved, and the method can be used for carrying out observation, monitoring and imaging on the high-speed air and space object a large-time-width bandwidth product condition.

A system (method and program for storing the method) for displaying an image, includes a motion object detector for detecting a motion object in image information inputted to the system, a recognizing device for recognizing a moving state in the motion object detected by the motion object detector, a modification information adder for adding modification information to the image information in regard to the motion object detected by the motion object detector based on the moving state recognized by the recognizing device, and a display device for displaying the image information having been added with the modification information by the modification information adder.

Y-driving section is disposed in X-direction of an image sensor holder, and a slider is arranged for the image sensor holder to come in succession to Z-direction and extend to X-direction, so that X-driving section is disposed at the end of the slider. Regarding Y-direction, Y-driving section directly drives the image sensor holder. Regarding X-direction, X-driving section drives the slider and indirectly drives the image sensor holder in X-direction.