91results about How to "Image quality can be hindered" patented technology

The image forming apparatus, comprises: a plurality of ejection heads which eject liquid containing, a first ultraviolet curing initiator having spectral absorption characteristics at least in a first wavelength range, a second ultraviolet curing initiator which has spectral absorption characteristics at least in a second wavelength range being on a shorter wavelength side from the first wavelength range and has no spectral absorption characteristics in the first wavelength range, an ultraviolet-polymerizable compound, and a coloring material, onto a medium; a semi-curing device which radiates, at least once, ultraviolet light having at least a wavelength which is in the first wavelength range and which is on a longer wavelength side from the second wavelength range, onto dots formed by the liquid ejected from the ejection heads onto the medium; an intermediate processing device which performs intermediate processing of an image formed on the medium by the dots; and a main curing device which radiates ultraviolet light having at least a wavelength in the second wavelength range, onto the image which has undergone intermediate processing by the intermediate processing device.

A display device in which variations in luminance due to variations in characteristics of transistors are reduced, and image quality degradation due to variations in resistance values is prevented. The invention comprises a transistor whose channel portion is formed of an amorphous semiconductor or an organic semiconductor, a connecting wiring connected to a source electrode or a drain electrode of the transistor, a light emitting element having a laminated structure which includes a pixel electrode, an electro luminescent layer, and a counter electrode, an insulating layer surrounding an end portion of the pixel electrode, and an auxiliary wiring formed in the same layer as a gate electrode of the transistor, a connecting wiring, or the pixel electrode. Further, the connecting wiring is connected to the pixel electrode, and the auxiliary wiring is connected to the counter electrode via an opening portion provided in the insulating layer.

A liquid droplet ejecting head that drives pressure generating portions disposed in pressure chambers inside ejectors to thereby pressurize liquid inside the pressure chambers and cause liquid droplets to be ejected from nozzles communicated with the pressure chambers, wherein the ejectors are connected at a plurality of places via a plurality of communicating paths to common flow paths in which forcible liquid flows are formed, is provided.

It is an object to prevent the image quality deterioration of a moving image likely to include a plurality of the same consecutive images such as a movie video and an animation video due to the motion-compensated frame rate conversion (FRC) processing. An image displaying device is provided with an FRC portion (10) for converting the number of frames in an input image signal by interpolating an image signal to which a motion compensation processing has been given between the frames in the input image signal, a genre determining portion (14) for determining whether the input image signal is a predetermined genre, and a controlling portion (15). The FRC portion (10) includes a motion vector detecting portion (11e) for detecting a motion vector between the frames of the input image signal, an interpolating vector evaluating portion (11f) for allocating an interpolating vector between the frames based on the motion vector information, and an interpolating frame generating portion (102) for generating an interpolating frame from the interpolating vector. In the case that the input image signal is relating to a movie or animation, the control portion (15) set the motion vector detected by the motion vector detecting portion (11e) to zero-vector to make the motion compensation processing of the FRC portion (10) ineffective.

The quality of moving picture image with a large moving amount is prevented from deterioration due to moving compensation type frame rate conversion (FRC) processing. The image display device is comprised of an FRC unit (10) that interpolates an image signal subjected to moving compensation processing between frames so as to convert the number of frames of the input image signal, a moving amount judging unit (14) that judges whether a moving amount of the input image signal between the frames is larger than a predetermined value or not, and a control unit (15). The FRC unit (10) is provided with a moving vector detecting unit (11e) that detects a moving vector between the frames of the input image signal, an interpolation vector evaluating unit (11f) that allocates an interpolation vector between the frames on the basis of the moving vector information and an interpolation frame generating unit (12d) that generates an interpolation frame from the interpolation vector. In the case where the moving amount between the frames of the input image signal is larger than the predetermined value, the control unit (15) sets the moving vector detected by the moving vector detecting unit (11e) to be zero-vector, and it invalidates the moving compensation processing of the FRC unit (10).

A liquid discharger is provided, which includes a gap adjustor that moves a first liquid discharge head between a first position and a second position where a gap between the first liquid discharge head and a sheet is smaller than when the first liquid discharge head is in the first position, and a controller configured to, when determining that second liquid is left enough to form an image and that a quality level stored in a storage unit is equal to or more than a predetermined level, control the gap adjustor to place the first liquid discharge head in the second position, control the first liquid discharge head to discharge the first liquid, and forbid a second liquid discharge head to discharge the second liquid.

An image pickup apparatus that makes it unnecessary to temporarily stop image pickup performed by an image pickup device to thereby improve operability of the image pickup apparatus, and achieves power saving. In an image pickup apparatus having an electronic viewfinder function, first image signals for live view are acquired by thinning read lines of an image pickup device, and second image signals for AF evaluation value calculation are acquired from the other read lines at a higher speed than the first image signals, for simultaneous output with the first image signals. Reading of the second image signals is started when the state of the object of image data changed or when one photographing mode is changed to another by a user's operation, and is terminated when a reading termination condition set in advance in association with the reading start condition is satisfied.

An image forming apparatus includes a color converting part to convert an RGB color data of each pixel in a predetermined size block including an object pixel to a luminance information and a color difference information to be output, a color object detecting part to determine whether the object pixel is a color object pixel using a distribution characteristic of the color difference information of the block, and an image quality improving part to change the RGB color data of the object pixel if the object pixel is not the color object pixel.

OCT measuring that uses an optical fiber and is capable of preventing degradation in the resolution due to the wavelength dispersion of the optical fiber. For controlling the optical path length of the reference light in the OCT measuring, the following are provided: a diffraction grating element for dispersing the reference light; a collimator lens for collimating the dispersed reference light; and a reflection mirror for reflecting the reference light transmitted through the collimator lens back to the collimator lens and inputting to the diffraction grating element. The reflection mirror pivots on a position offset from the optical axis of the collimator lens. The diffraction grating element is tilted with respect to the optical axis of the collimator lens to compensate for the wavelength dispersion of the optical fiber.

Disclosed are a wafer-level lens array, a method of manufacturing a wafer-level lens array, a lens module, and an imaging unit that can prevent the influence of, for example, the shrinkage of a forming material, prevent the positional deviation between lenses when the wafer-level lens arrays overlap each other or when the wafer-level lens array overlaps an imaging element array, and be easily designed.

A method of manufacturing a wafer-level lens array including a substrate unit and a plurality of lens units that is arranged on the substrate unit includes: forming the substrate unit; and integrally forming the lens units that are made of a resin having substantially the same optical characteristics as a material forming the substrate unit with the substrate unit.

An apparatus is provided which maintains alignment of panels in a projector. The apparatus includes a synthesizing system holding device positioned at an upper portion of a synthesizing system of the projector which securely supports the synthesizing system and maintains a relative position of various components of the synthesizing system, even in the event of an external force or vibration applied to the projector. This apparatus can prevent deviation or misalignment between at least two or more prisms and panels in the synthesizing system of the projector, thereby improving reliability and durability of the projector and enhancing image quality.

In an image processing device which carries out processing for detecting and correcting defective portions of an image, it is possible to pre-emptively prevent the defective portion detecting and correcting processing from causing a deterioration in image quality or an excessive processing requiring time requirement. In cases in which a film type of a photographic film on which the image is recorded is a film type known to have a characteristic that an IR image is also formed at a time of image exposure and recording, and in cases in which a density distribution width of IR data is a predetermined value or more, defect detection-correction processing is cancelled. Further, in cases in which a non-image region is included in the image, either defect detection-correction is carried out only on regions other than the non-image region, or defective portion detection-correction is cancelled.

A filtering characteristic error concealing apparatus according to the present invention has: a calculation unit whch calculates a characteristic value of each block included in a picture, the characteristic value being used in deblocking filtering for the bock and representing strength of the deblocking filtering; a control unit which controls the calculation unit (i) to start and terminate the calculation for the block, and (ii) to designate locations of boundaries of the block; an error detection unit which detects an error related to the calculation; and a mask circuit which conceals deblocking filtering that is performed for each of a block for which the error is detected and blocks subsequent to the block with the error, when the error is detected.

The type of an object included in an image is automatically recognized. An image is divided into object regions and into block regions each having a predetermined number of pixels and smaller than any one of the object regions. The types of the respective block regions are recognized and totaled up for each of the object regions. The type of each of the object regions is then recognized by using a result of totaling.

It is an object to prevent the image quality deterioration of a moving image likely to include a plurality of the same consecutive images such as 2-3 or 2-2 pulldown video due to the motion-compensated frame rate conversion (FRC) processing. An image displaying device is provided with an FRC portion (10) for converting the number of frames in an input image signal by interpolating an image signal to which a motion compensation processing has been given between the frames in the input image signal, a pulldown detecting portion (14) for detecting whether the input image signal is an image signal to which pulldown conversion has been performed, and a controlling portion (15). The FRC portion (10) includes a motion vector detecting portion (11e) for detecting a motion vector between the frames of the input image signal, an interpolating vector evaluating portion (11f) for allocating an interpolating vector between the frames based on the motion vector information, and an interpolating frame generating portion (12d) for generating an interpolating frame from the interpolating vector. In the case that the input image signal is an image signal to which pulldown conversion has been performed, the controlling portion (15) set the motion vector detected by the motion vector detecting portion (11e) to zero-vector to make the motion compensation processing of the FRC portion (10) ineffective.

Stray light in an oblique direction penetrates a channel part of a thin-film transistor, which sometimes causes light leakage current. This phenomenon becomes more pronounced in the case of using an optical system with high intensity, leading to deterioration in an image quality.

To prevent the light that possibly penetrates an equivalent optical waveguide from reaching the channel part, on the condition that a first insulating layer is set to have a layer-thickness t (nm) and a refraction index n, a relation is to be expressed by the following expression. t<(0.61×λ)/(n×sin θ) A value of λ is set to a lower limit 400 (nm) of a visible light wavelength and a value L_c (nm) is set to a distance between an end of a light-shielding layer and an end of a channel region. With those values, an expression of nt²/244 (nm)<L_c (nm) is set up. By controlling a layer-thickness of the first insulating layer and a distance between the end of the light-shielding layer and the end of the channel region in a manner to fulfill the above expression, the deterioration in the image quality due to the stray light in the oblique direction can be minimized.