127results about How to "Reduce image data" patented technology

Apparatus and methods for detecting salient features. In one implementation, an image processing apparatus utilizes latency coding and a spiking neuron network to encode image brightness into spike latency. The spike latency is compared to a saliency window in order to detect early responding neurons. Salient features of the image are associated with the early responding neurons. A dedicated inhibitory neuron receives salient feature indication and provides inhibitory signal to the remaining neurons within the network. The inhibition signal reduces probability of responses by the remaining neurons thereby facilitating salient feature detection within the image by the network. Salient feature detection can be used for example for image compression, background removal and content distribution.

Image data scanned by way of a scanner controller is transferred from a memory controller to a memory by way of a G bus. A CPU reduces the image data stored in the memory by thinning processing or the like, and displays the image data on an operation panel by way of a B bus and interface. In this manner, an image can be input using the first bus while data transferred by way of the first bus is output by way of the second bus. This enables processing using image data which is being input, such as processing of immediately displaying an input image.

Some embodiments provide a method and system for efficiently transferring medical images. Some embodiments receive a medical image in a first platform dependent format of a Picture Archiving and Communication System (PACS). The first platform dependent format is one that is accessible by a first format compliant device that includes a library that specifies how to decode the first format. Some embodiments transform the medical image from the first format to a second format. The second format includes decoded content of the first format that is viewable on a first format non-compliant device. The transformed image is then passed to the device for viewing. Additionally, some embodiments efficiently transfer medical images by identifying image settings for one or more devices and by passing requested images that are optimized by resizing the images according to the image settings of the requesting device.

When a subject is imaged for the purpose of deciding the angle of view, the full image that is capable of being sensed by a CCD is displayed on an LCD. The user designates the position of a cropping area in the image being displayed. Only image data representing the image within the border of the designated area is recorded on a memory card. Since the amount of image data to be recorded on the memory card is thus reduced, image data representing images of a greater number of frames can be recorded on the memory card.

A method and system are presented for real time Super-Resolution image reconstruction. According to this technique, data indicative of a video frame sequence compressed by motion compensated compression technique is processed, and representations of one or more video objects (VOs) appearing in one or more frames of said video frame sequence are obtained. At least one of these representations is utilized as a reference representation and motion vectors, associating said representations with said at least one reference representation, are obtained from said data indicative of the video frame sequence. The representations and the motion vectors are processed, and pixel displacement maps are generated, each associating at least some pixels of one of the representations with locations on said at least one reference representation. The reference representation is re-sampled according to the sub-pixel accuracy of the displacement maps, and a re-sampled reference representation is obtained. Pixels of said representations are registered against the re-sampled reference representation according to the displacement maps, thereby providing super-resolved image of the reference representation of said one or more VOs.

A light-source drive control unit divides each pixel of the image data into a plurality of subpixels, deletes certain subpixels from the image data in accordance with predetermined correction data, shifts remaining subpixels in the sub-scanning direction thereby obtaining reduced image data, and controls a plurality of light sources based on the reduced image data in such a manner that one line of the subpixels is formed with a light beam emitted from a corresponding one of the light sources.

A pattern matching device 1 includes an image obtaining unit 101 that obtains an image of a subject containing plural types of biometric patterns. Further, the pattern matching device 1 includes a separation-and-extraction unit 102 that separates and extracts the plural types of biometric patterns from the image. Yet further, the pattern matching device 1 includes a matching unit 103 that matches the separated and extracted plural types of biometric patterns against pre-registered biological information for matching, thereby to derive plural matching results.

System and methods for using a fluid ejection system to distribute fluid drop density of a region between at least two overlapping swaths having pixels on a receiving medium. Using the method, overlapping swaths are stitched together by distributing a fluid ejection pattern between the overlapping swaths within the overlapped region. Because small drops of fluid can be distributed within a single region, the fluid ejection pattern can be controlled and intermediate density regions can be created by distributing the fluid of drops within a region between two fluid ejector heads or between two swaths of the same fluid ejector head. The distribution can be linear or non-linear. Furthermore, overlapping swaths are stitched together by randomly varying a stitch location within the overlapped region. In this case, a stitch location is randomly varied in the slow scan direction.

Image data scanned by way of a scanner controller is transferred from a memory controller to a memory by way of a G bus. A CPU reduces the image data stored in the memory by thinning processing or the like, and displays the image data on an operation panel by way of a B bus and interface. In this manner, an image can be input using the first bus while data transferred by way of the first bus is output by way of the second bus. This enables processing using image data which is being input, such as processing of immediately displaying an input image.

Apparatus and methods for detecting salient features. In one implementation, an image processing apparatus utilizes latency coding and a spiking neuron network to encode image brightness into spike latency. The spike latency is compared to a saliency window in order to detect early responding neurons. Salient features of the image are associated with the early responding neurons. A dedicated inhibitory neuron receives salient feature indication and provides inhibitory signal to the remaining neurons within the network. The inhibition signal reduces probability of responses by the remaining neurons thereby facilitating salient feature detection within the image by the network. Salient feature detection can be used for example for image compression, background removal and content distribution.

An inventory management tracking control system includes a first event processor operative to receive a video data signal from at least one video capturing device, the video data signal including an archive attribute signal, relating an item being tracked; reader circuitry operative to generate an event attribute signal in response to information provided by a radio frequency identification tag; and a second event processor operative to adjust the image characteristics of the video data signal in response to the event attribute, the second event processor further operative to adjust the event attribute subsequent to the time the event attribute is received. An inventory management control method includes receiving video image data from at least one video capturing device; receiving an archive attribute corresponding to the received video image data; receiving an event attribute corresponding to an occurrence of an event of interest; and adjusting the characteristics of the video image data in response to an event attribute.

The invention discloses a moving object extraction method based on superpixel division and an optical flow method, and mainly solves the problems of more noises, high-frequency information loss, inaccurate boundary and the like of the existing moving object extraction method. The implementation steps of the method are as follows: (1), inputting an image, and pre-dividing the image into a superpixel set S to obtain a mark sheet I 2; (2), taking images of two adjacent frames in a video sequence and determining a rough position of a moving object by a Horn-Schunck optical flow method; (3), using the optical flow method to obtain the speed u in the horizontal direction and the speed v in the vertical direction, wherein V is speed amplitude of the optical flow method; (4) performing median filtering, Gauss filtering, binarization operation and morphology opening and closing operation on the optical flow result V to obtain V4; (5) using a superpixel division result to further correct the optical flow result, and extracting to obtain the accurate moving object. Superpixels belonging to a moving area are extracted accurately. Simulation experiments show that compared with the prior art, the moving object extraction method has the advantages of simple operation, small noise, clear boundary and the like, and can be used for extracting the moving object in the video sequence.

An information processing apparatus includes a first obtaining unit, a second obtaining unit and a display control unit. The first obtaining unit obtains, from an electronic device connected to the information processing apparatus, image data stored in a memory medium connected to the electronic device. The second obtaining unit obtains in advance reduced image data corresponding to the image data before obtainment of the image data by the first obtaining unit. The display control unit updates reduced image data displayed on a display unit, obtained by the second obtaining unit, in accordance with a display condition designated by a user. When the display condition is changed while the first obtaining unit is executing obtainment of image data, the first obtaining unit changes an obtainment order of image data based on the changed display condition.

A codec device is disposed in a display control device for instantly supplying decompressed image data to manipulating devices in the display control chip. Reference images are stored in compressed format after instantly compressed by the codec device. In addition, MSB portions and LSB portions are separately compressed for gaining higher compression ratio. Predication of the pixel value is also modified in variable length coding. On-chip line buffer is also applied with the instant compression mechanism. Fixed compression ratio is predetermined to actually downsize the chip design for the worst case.

The invention discloses a semi-automatic image cutting method based on nuclear transfer, which mainly solves the problems that the existing interactive image cutting method can not keep data consistency, the cutting result is not stable, and edges are not clear. The method is realized through the following steps: inputting an image to be cut, obtaining a superpixel set of the input image through a mean shift method, calculating a superpixel color column diagram feature set, building a similarity matrix W through a Bhattacharyya coefficient formula, performing interactive operation on the precut image by a user to obtain a seed superpixel set, building a must-link constrain set M and a cannot-link constrain set C, transferring constrain information M and C to the whole nuclear space through a nuclear transfer method, so as to obtain a nuclear matrix R, clustering the nuclear matrix R through a k mean clustering method, so as to obtain a clustering mark vector, and outputting and displaying a cutting result. The method has the advantages of good data consistency, stable cutting result, simplicity of operation and clear edges, and can be applied to image retrieval, the technology of converting 2D to 3D, target detection and tracking, and medical image analysis.

The present invention relates to systems and methods for compiling communication material across a range of formats. A first aspect of the present invention relates to a method of editing an image for printing. The image data for a high resolution image is stored and the image is displayed at a lower resolution. The user can then edit the displayed image and image modifier data is generated based on the editing performed by the user. The image modifier data is subsequently applied to the stored high resolution image data and a modified version of the image is output based on said modified high resolution image data. The present invention also relates to a system and method for monitoring an electronic file. Furthermore, the present invention relates to a system and method of sharing data across a range of different templates for online and print material. The invention also relates to a system and method of generating online and print material in a common file format.

A photographed subject authentication system comprising: a compressed image data writing device for writing the first compressed image data and related information into the photographed object authentication card; a compressed image data reading device for reading a third compressed image data from the photographed subject authentication card; a data specifying device for specifying the original image data corresponding to the first compressed image data and the compression condition read based on the obtained related information; and a second compression device for compressing the specified original image data based on the specified compression condition to obtain second compressed image data, wherein the data verifying device determines that the third compressed image data is equal to the first compressed image data when the result of the comparison is that the third compressed image data is equal to the second compressed image data.

A portable terminal apparatus confirms whether it conforms to an image data sending and receiving method to which an image forming apparatus for printing image data can be adapted, and receives data of the printable image format from the image forming apparatus. The portable terminal apparatus displays image identification data for identifying each piece of stored image data, and determines whether each piece of the image data is printable, based on at least one of a result of the confirmation with respect to the sending and receiving method, the image format information, and the image data. Based on a result of the determination, the display is controlled so that the user can distinguish whether each piece of the image data is printable. Among image data selected by the user, printable image data due to the determination is sent to the image forming device.

This invention discloses a screen locating device based on CMOS digital imaging sensor which consists of no less than one optical pen, a screen, a optical lens, a CMOS digital imaging sensor connected to the optical lens, a processor module connected to the sensor and a PC connected to the module. This equipment shows many advantages such as structure briefness, principle simpliness, less image data to be processed and low cost.

A defect inspection apparatus is provided which allows a technology for inspecting a pattern on a wafer by using an electron beam to implement a high-resolution and higher-speed inspection. A semiconductor wafer is irradiated with an electron beam and electrons reflected in the vicinity of the wafer are detected. The presence or absence of a defect and the location thereof are measured by forming an image from only a component which changes with a periodicity larger than a size of a circuit pattern or the repetition periodicity thereof by using lenses and comparing an image signal with a preset value. Since only the component which changes with a periodicity larger than the size of the circuit pattern with a surface potential distortion and the repetition periodicity thereof is observed with a resolution lower than required to observe the pattern itself instead of detecting a defect through a comparison between extremely small pattern images, an inspection throughput can be increased exponentially compared with that of a conventional SEM inspection.

There is provided a method for deciding an image data reduction ratio in image processing which enables performance of stable positioning even on an unclear image, the method being a method for deciding an image data reduction ratio in image processing where an object to be searched that is similar to a pre-registered image is searched to be positioned out of the image to be searched by use of a pattern model corresponding to the registered image, the method including the steps of: computing a sharpness of each edge point based on the edge points with reference to an edge image where the edge points are extracted from image date; and deciding an image data reduction ratio based on each edge sharpness such that positional accuracy of the edge points becomes higher than a predetermined value.

The invention discloses one remote desk plane simultaneous method in common environment, which comprises the following steps: a, when servo screen generates changes, servo gets minimum rectangle composed of sub area and change area; b, dividing the sub area into macro block and then into a, b, and c sub areas; c, regularizing sub area to become rectangle; d, servo sends the screen change information to customer end to form relative sub area. The invention considers the adjacent two frames time redundancy for process by types.

A device, system, and method for reducing image data using spatially varying reduction are described. Images may be captured from an in-vivo device, while the reduced images may be transmitted via wireless communications. Reduction may be achieved by selecting a spatial area of interest on an image frame, dividing the spatial area of interest into one or more sub-regions, reducing each sub-region by a defined reduction ratio according to the spatial properties of said sub-region, and transmitting image data from spatial area of interest.

A defect inspection apparatus is provided which allows a technology for inspecting a pattern on a wafer by using an electron beam to implement a high-resolution and higher-speed inspection. A semiconductor wafer is irradiated with an electron beam and electrons reflected in the vicinity of the wafer are detected. The presence or absence of a defect and the location thereof are measured by forming an image from only a component which changes with a periodicity larger than a size of a circuit pattern or the repetition periodicity thereof by using lenses and comparing an image signal with a preset value. Since only the component which changes with a periodicity larger than the size of the circuit pattern with a surface potential distortion and the repetition periodicity thereof is observed with a resolution lower than required to observe the pattern itself instead of detecting a defect through a comparison between extremely small pattern images, an inspection throughput can be increased exponentially compared with that of a conventional SEM inspection.

A system using an in-vehicle camera mounted on a vehicle for an image pickup object of the face of the driver, for: continuously taking an image of the image pickup object; performing manipulation, such as enlargement of an area including the image pickup object with a reference point being the center, for a second image based on image pickup after a first image, on the basis of the range of the image pickup object detected from the first image, the width of the facial contour of the driver, for example, and also a reference point such as the center of the face to be decided based on the location of the eyes and nose of the driver; and performing image processing, such as detection of the range of the image pickup object and decision of the reference point, for the manipulated second image.

The present invention relates to adjusting a display of a mobile communications terminal. The present invention detects a user's voice data, wherein the user's voice data corresponds to image data displayed on the display. The user's eyesight level is then determined based on the detected user's voice data and preset reference data. Accordingly, the display is adjusted based on the determined eyesight level.

Disclosed are image data acquisition methods and systems that utilizes selective temporal co-adding of detector integration samples to construct improved high-resolution output imagery for arrays with selectable line rates. Configurable TDI arrays are used to construct output imagery of various resolutions dependent upon array commanding, the acquisition geometry, and temporal sampling. The image acquisition techniques may be applied to any optical sensor system and to optical systems with multiple sensors at various relative rotations which enable simultaneous image acquisitions of two or more sensors. Acquired image data may be up-sampled onto a multitude of image grids of various resolution.