12403 results about "Image processing" patented technology

A system and method for measuring an item's dimensions using a time-of-flight dimensioning system is disclosed. The system and method mitigate multipath distortion and improve the accuracy of the measurements, especially in a mobile environment. To mitigate the multipath distortion, an imager captures an image of an item of interest. This image is processed to determine an illumination region corresponding item-of-interest's size, shape, and position. Using this information, an adjustable aperture's size, shape, and position are controlled so the light beam used in the time-of-flight analysis substantially illuminates the illumination region without first being reflected.

A system and method use computer image processing for setting the parameters for an image acquisition device of a camera. The image parameters are set automatically by analyzing the image to be taken, and setting the controls according to the subject matter, in the same manner as an expert photographer would be able to. The system can run in a fully automatic mode choosing the best image parameters, or a "guided mode" where the user is prompted with choices where a number of alternate settings would be reasonable.

An identity verification system is used to identify persons with high accuracy, while avoiding direct contact with the device to prevent any negative psychological reaction from a user. The system includes: a camera unit and an image processing unit for obtaining object images of body parts (such as fingerprints and irides) by scanning, without physical contact; an image display unit for displaying layered images of the body part as scanned and a guide showing the body part in an optimal position; a control unit for extracting biometric characteristic data from object images and sending the data to a verification server after encrypting by an encryption unit; and a communications interface unit.

A temporary object is registered in a document managing system in advance on the basis information about an object that a user wants to use. Then, when an object is registered by another user, it is determined whether the registered object is a similar object corresponding to the temporary object. If the registered object is a similar object, the user is notified of that fact, and the temporary object in target document data is updated with the similar object.

A banknote detector device for an automatic teller machine, for differentiating between non-accepted and accepted banknotes, includes a banknote image sensor to receive and scan at least one face of an input banknote and to store a banknote image (BI) of each scanned. The image includes image data in the form of a number of pixels; and a reference banknote image (RBI) storage where one reference banknote image, being processed from a predetermined number of banknote images from accepted banknotes, is stored for each face of each banknote. The device includes an alignment, a banknote face classification unit, a printed pattern positioning unit and a comparison unit where, for at least one face of the banknote, the BI and RBI, being in exact pattern position in relation to each other, are compared pixel per pixel according to a predefined comparison procedure to classify the banknote as accepted or non-accepted.

An image processing apparatus for generating a three-dimensional model of a three-dimensional object from an image displaying the object in two dimensions includes a three-dimensional model generator operable to generate the three-dimensional model of the object from the image, and an extender operable to extend a lateral region of the three-dimensional model in a depth direction orthogonal to the two dimensions.

A scanning system includes a hand-held scanning device that generates two-dimensional images of a pattern reflected off an object. The system also includes a memory and processing unit. The memory stores a calibration table for the scanner and received scanned bitmap images. The processing unit generates three-dimensional information as to a scanned object. The scanning can be performed without knowledge or even precise control of the position of the object relative to the scanner. Random movement of the object during scanning is also possible. For example, the scanner is simply swept over the surface of the object by hand. Three-dimensional information of the object is obtained from the captured images using a calibration table for the scanner. A method of calibration of the scanner in X, Y and Z directions is also described. The scanner can be used for a variety of purposes, including medical and industrial purposes. The illustrated embodiment is in-vivo scanning of human teeth for purposes of orthodontic treatment planning and diagnosis.

Methods and apparatuses for the image guidance and documentation of medical procedures. One embodiment includes combining small field of view images into a recorded image of with a large field of view and aligning the small field of view real time image with the recorded image through correlation of imaging data. A location and orientation determination system may be used to track the imaging system and provide a starting set of image alignment parameters and / or provide change updates to a set of image alignment parameters, which is then further improved through correlating imaging data. The recorded image may be selected according to real time measurement of a cardiac parameter during an image guided cardiac procedure. Image manipulations planned based on the recorded image can be stored and applied to the real time information. The position of the medical device may be determined and recorded through manipulating a cursor in a 3-D image space shown in two non-parallel views.

An image processing apparatus includes an image input unit that inputs a two-dimensional image signal, a depth information output unit that inputs or generates depth information of image areas constituting the two-dimensional image signal, an image conversion unit that receives the image signal and the depth information from the image input unit and the depth information output unit, and generates and outputs a left eye image and a right eye image for realizing binocular stereoscopic vision, and an image output unit that outputs the left and right eye images. The image conversion unit extracts a spatial feature value of the input image signal, and performs an image conversion process including an emphasis process applying the feature value and the depth information with respect to the input image signal, thereby generating at least one of the left eye image and the right eye image.

The present invention provides systems and methods for enhancing the delivery and display of medical images over a network. Authorized users may access and view images by accessing a secure server and selecting images for viewing. Various characteristics of the image or images being viewed may be manipulated. Additionally, measuring devices, such as a goniometer, may be placed on an image to measure distances, angles and the like. In one embodiment, one or more templates, for example of medical devices, may be placed on an image and manipulated. In another embodiment, two or more users may view the same image simultaneously, while also viewing a template, measuring device, image manipulations and the like simultaneously. In yet another embodiment, two or more users may discuss one or more images via a discussion board.

An imaging system for automated segmentation and visualization of medical images (100) includes an image processing module (107) for automatically processing image data using a set of directives (109) to identify a target object in the image data and process the image data according to a specified protocol, a rendering module (105) for automatically generating one or more images of the target object based on one or more of the directives (109) and a digital archive (110) for storing the one or more generated images. The image data may be DICOM-formatted image data (103), wherein the imaging processing module (107) extracts and processes meta-data in DICOM fields of the image data to identify the target object. The image processing module (107) directs a segmentation module (108) to segment the target object using processing parameters specified by one or more of the directives (109).

A single integrated circuit includes first and second data processors operating on different instruction sets independently operating on disjoint programs and data. The single integrated circuit preferably includes an external interface, a shared data transfer controller and shared memory divided into plural independently accessible memory banks. The two data processors are preferably a digital signal processor (DSP) and a reduced instruction set computer (RISC) processor. The DSP and RISC processors are suitably programmed to perform differing aspects of computer image processing.

An image processing method, an image processing system and a recording medium capable of reproducing images in colors which are close to those memorized by man including a process to create a histogram of an original image, a process to adequately locate a highlight point on the histogram by comparing peaks of the histogram and setting image processing conditions dependently on a shape of a selected peak.

A system for broad area geospatial object recognition, identification, classification, location and quantification, comprising an image manipulation module to create synthetically-generated images to imitate and augment an existing quantity of orthorectified geospatial images; together with a deep learning module and a convolutional neural network serving as an image analysis module, to analyze a large corpus of orthorectified geospatial images, identify and demarcate a searched object of interest from within the corpus, locate and quantify the identified or classified objects from the corpus of geospatial imagery available to the system. The system reports results in a requestor's preferred format.

A method of image processing, including:(a) calculating at least one pixel color feature (PCF) value for each pixel in a color medical image to generate a set of PCF data; and(b) filtering the PCF data with at least one spatial adaptive bandpass filter (ABPF) to sort the pixels into physiologically significant regions;wherein the at least one PCF value for at least one pixel depends on at least 2 color components of the medical image.

The present invention discloses handheld tracking systems and devices comprising of at least one handheld tracking device for intra-operative aligning or positioning of surgical implant systems and instruments with reference to the anatomy of a patient. The handheld tracking system further comprises of at least one trackable element. The handheld device is mounted at the proposed implantation site using the holding means while trackable element(s) is / are mounted at predetermined location(s) such that data from said deployed trackable element(s) relating to the position of the patient and the surgical instruments are input continuously into the handheld devices. The handheld device then processes the data on the basis of pre-loaded preoperative scanned images in the processing means to monitor the accurate placement of said implant system onsite in sterile environment.

A method, apparatus, and computer readable recording medium for processing an image. The method includes detecting a face area and a blur area from an image; checking a degree of overlap between the face area and the blur area by comparing a location of the face area with a location of the blur area; and determining whether the image is an abnormal image according to the degree of overlap between the face area and the blur area.

System and method for tracking and control in medical procedures. The system including a device that deploys fluorescent material on at least one of an organ under surgery and a surgical tool, a visual light source, a fluorescent light source corresponding to an excitation wavelength of the fluorescent material, an image acquisition and control element that controls the visual light source and the fluorescent light source, and captures and digitizes at least one of resulting visual images and fluorescent images, and an image-based tracking module that applies image processing to the visual and fluorescent images, the image processing detecting fluorescent markers on at least one of the organ and the surgical tool.

A motion detection method, apparatus and system are disclosed in the present invention, which relates to the video image processing field. The present invention can effectively overcome the influence of the background on motion detection and the problem of object “conglutination” to avoid false detection, thereby accomplishing object detection in complex scenes with a high precision. The motion detection method disclosed in embodiments of the present invention comprises: acquiring detection information of the background scene and detection information of the current scene, wherein the current scene is a scene comprising an object(s) to be detected and the same background scene; and calculating the object(s) to be detected according to the detection information of the background scene and the detection information of the current scene. The present invention is applicable to any scenes where moving objects need to be detected, e.g., automatic passenger flow statistical systems in railway, metro and bus sectors, and is particularly applicable to detection and calibration of objects in places where brightness varies greatly.

An apparatus is provided for communicating over a network images captured by a digital camera, such as a digital camera without an on-board network interface. The apparatus includes a housing separate from the digital camera having a processing unit with memory for storage of images, a camera interface card received in a memory card slot of the digital camera, and a cable or wireless connection coupling the camera interface card to the processing unit for data communication. The apparatus emulates a memory card to the digital camera, such that the digital camera's electronics operate with the memory of the processing unit through the camera interface card, as if such memory was on a memory card located in slot of the digital camera. Images captured by the digital camera are transferred, via the camera interface card and cable, to memory of the processing unit, and the digital camera can access images stored in memory of the processing unit. The processing unit has a wireless data network interface and Ethernet communication interface, whereby captured images stored in memory of the processing unit are queued in real-time for network transfer, and subsequently transferred via one of the network communication interfaces, to a computer system, such as an web site or file server, at a network destination address configurable in the processing unit. Data may be inputted by the user before and / or after image capture for association with images prior to their network transfer. The housing for the processing unit may be shaped like a motor drive unit and attached to the bottom of the camera, or worn by the user of the camera in the form of a belt pack or backpack.

Exemplary systems and methods for performing registration applications are provided. An exemplary system includes a central processing unit (CPU) for transferring a plurality of images to a graphics processing unit (GPU); wherein the GPU performs a registration application on the plurality of images to produce a registration result, and wherein the GPU returns the registration result to the CPU. An exemplary method includes the steps of transferring a plurality of images from a central processing unit (CPU) to a graphics processing unit (GPU); performing a registration application on the plurality of images using the GPU; transferring the result of the step of performing from the GPU to CPU.

An image processing apparatus includes an image display element, an instruction position detection unit for accepting an instruction operation from a user through an operation face provided to a display screen of the image display element and detecting and outputting an instruction position of the instruction operation with respect to the operation face, a storage unit for storing and holding image data of images, and a display control unit for performing a control for displaying an image in accordance with the stored and held image data on the image display element, in which when the user performs a continuous movement on the operation face, the display control unit performs a control for scrolling the display image while being reduced together with images before and after the display image in accordance with a direction of the operation determined on the basis of a detection output from the instruction position detection unit.

A three-dimension image processing apparatus includes a CPU. When the CPU detects by collision determination that another object, e.g., a wall, is existent between an operable object and a camera, it calculates such a moving angle of the camera that an eye of the camera to the operable object is not obstructed by the other object. The camera is moved in accordance with the moving angle to a position where the operable object and the other object existing in a photographed three-dimensional space are displayed on a display.

The system performs complicated processing at high speed on image data which is obtained by a camera-equipped mobile phone, thereby reducing the time required for image data processing. The system includes first equipment and second equipment, communicably interconnected each other with a first communication path. The first equipment includes: an image inputting unit for obtaining image information in the form of image data; and an image data transmitting unit for transmitting the image data, which has been obtained by the image inputting unit, to the second equipment over the first communication path. The second equipment includes: an image data receiving unit for receiving the image data, which has been transmitted over the first communication path, from the first equipment; and an image data processing unit for processing the image data, which has been obtained by the image data receiving unit.

A computer-implemented method, a system and a computer-readable medium provide useful feedback for a user involved in exercise. A camera is used to track user motion by using image processing techniques to identify key points on a user's body and track their motion. The tracked points are compared to proper form for an exercise, and an embodiment gives feedback based on the relationship between the actual movement of the user and the proper form. Alternatively, silhouette information may be used in a similar manner in another embodiment.