113 results about "3d mapping" patented technology

A method, apparatus, computer readable medium, computer system, network, or system is provided for mobile and online payment systems for mobile and online promotions or offers or daily deal coupons or daily deal coupons aggregation provided using impressions tracking and analysis, location information, 2D and 3D mapping, social media, and user behavior and information for generating mobile and internet posted promotions or offers or daily deal coupons or daily deal coupons aggregation for, and / or sales of, products and / or services in a social network, online or via a mobile device-for mobile and web based promotions or offers that connect information and user behavior data to a user or related demographic location or user specified or predicted demographic location(s) for targeted promotions or offers for products and / or services in a social network, online or via a mobile device.

A method, apparatus, computer readable medium, computer system, network, or system, is provided for using impressions tracking and analysis, location information, 2D and 3D mapping, social media, and user behavior and information for generating mobile and internet posted promotions or offers for, and / or sales of, products and / or services, for example, through an advertising application programming interfaces (APIs) on mobile devices, tablets, or computers, that provides mobile and web based promotions or offers that connect information and user behavior data to a user or related demographic location or user specified or predicted demographic location(s), such as through the use of as social networking, user or demographic profiles, behavior, and / or relationships, for targeted promotions or offers for products and / or services.

A method and apparatus for obtaining an image to determine a three dimensional shape of a stationary or moving object using a bi dimensional coded light pattern having a plurality of distinct identifiable feature types. The coded light pattern is projected on the object such that each of the identifiable feature types appears at most once on predefined sections of distinguishable epipolar lines. An image of the object is captured and the reflected feature types are extracted along with their location on known epipolar lines in the captured image. Displacements of the reflected feature types along their epipolar lines from reference coordinates thereupon determine corresponding three dimensional coordinates in space and thus a 3D mapping or model of the shape of the object at any point in time.

A method, apparatus, non-transitory computer readable storage medium, computer system, network, or system, is provided for using location information, 2D and 3D mapping, social media, and user behavior and information to provide alternative a consumer feedback social media analytics platforms for providing analytic measurements data of online consumer feedback for global brand products or services of past, present or future customers, users, and / or target markets, for companies, organizations, government agencies, and the like, by electronically collecting and analyzing, on a networked computer system using a processor, qualitative or quantitative online social media online communications, activity, and online communications and activity relevant to consumer products or services, or promotions thereof, of interest, in order to provide targeted, location based, 2D or 3D mapped, or impressions to generate online location information data or promotions to provide improved or desired customer perception or sentiment regarding a company's products, services or promotions thereof

The present disclosure relates to a control system for user-guided robotic control of a medical device and includes an electronic control unit, a computer-readable memory coupled to the ECU, and a visualization system configured to provide a view of an anatomical model. The memory contains user interface logic configured to be executed by the ECU, and configured to obtain input from a touch screen display with respect to the view of an anatomical model. Control logic stored in the memory is also configured to be executed by said ECU and is configured to produce an actuation control signal responsive to the input to control actuation of a manipulator assembly so as to move the medical device.

An electrophysiology (EP) system includes an interface for operator-interaction with the results of code executing therein. A template model can have channels positioned or repositioned thereupon by the user to define a set-up useful in rapid catheter positioning. Mapping operations can be performed without the requirement for precise catheter location determinations. A map module coordinates EP data associated with each selected channel and its associated position on the template model to provide this result, and can update the resulting map in the event that the channel or location is changed. Messaging and other dynamic features enable synchronized presentation of a myriad of EP data. Additional systems and methods are disclosed herein.

A method, apparatus, non-transitory computer readable storage medium, computer system, network, or system, is provided for using location information, 2D and 3D mapping, social media, and user behavior and information to provide alternative a consumer feedback social media analytics platforms for providing analytic measurements data of online consumer feedback for global brand products or services of past, present or future customers, users, and / or target markets, for companies, organizations, government agencies, and the like, by electronically collecting and analyzing, on a networked computer system using a processor, qualitative or quantitative online social media online communications, activity, and online communications and activity relevant to consumer products or services, or promotions thereof, of interest, in order to provide targeted, location based, 2D or 3D mapped, or impressions to generate online location information data or promotions to provide improved or desired customer perception or sentiment regarding a company's products, services or promotions thereof.

The present invention relates to a non-invasive optical system equipped with optical tomographic scanning method and algorithm for quantifying scattering and absorption properties and chromophore concentrations of highly scattering medium such as biological tissues, for 3D mapping and imaging reconstruction of the spatial and temporal variations in such properties. The invention further relates to a method and an apparatus for simultaneous measurement of concentrations of biochemical substances and blood oxygen saturation inside a biological tissue and arterial blood.

The invention discloses a three-dimensional human body posture estimation method and device. The method comprises the following steps of S1, using a monocular camera to collect the depth images and the RGB color images of a human body at different angles; S2, constructing a human body skeleton key point detection nerve network based on the RGB color images, and obtaining a key point labeling image; S3, constructing hand joint node 2D-3D mapping network; S4, calibrating the depth image of the human body at the same angle and the key point labeling image, and then carrying out three-dimensionalpoint cloud color conversion on the corresponding depth image so as to obtain a colored depth image; S5, based on the key point labeling image and the colored depth image, using a preset learning network to predict the corresponding position of the labeled human body skeleton key point in the depth image; and S6, combining the outputs of the step S3 and the step S5 to achieve the refined estimation of three-dimensional human body posture estimation.

A system for Semantic Simultaneous Tracking, Object Registration, and 3D Mapping (STORM) can maintain a world map made of static and dynamic objects rather than 3D clouds of points, and can learn in real time semantic properties of objects, such as their mobility in a certain environment. This semantic information can be used by a robot to improve its navigation and localization capabilities by relying more on static objects than on movable objects for estimating location and orientation.

A client device sends the following data to the servers: still frames from captured video and in some embodiments other data such as GPS coordinates, compass reading, and accelerometer data. The servers break down each frame into feature points and match those feature points to existing point cloud data to determine client device's point of view (POV). The servers send the resulting information back to the client device, which uses the POV information to render augmentation content on a video stream. Information sent by client devices to the server can be used to augment the feature-point cloud.

Interactive multi-view video presents new types of video capture systems, video formats, video compression algorithms, and services. Many video cameras are allocated to capture an event from various related locations and directions. The captured videos are compressed and are sent to a server in real-time. The compressed video can also be transcoded through an off-line compression approach to further reduce the data amount. A key idea of off-line compression is to decompose all views into a 3D mapping, which consists of a group of feature points in the 3D environment. Each feature point is represented by its 3D coordinates (x, y, z) and the corresponding color components (Y, U, V). The created mapping is the minimum set of feature points that can reconstruct all of the pixels in each view. After the 3D mapping creation, the obtained feature points are predicted and transformed to further decompose the correlations among them. The transformed results are quantized and encoded as a ‘base layer’ bit stream. The dequantized feature points are mapped back onto each view to form a predicted view image. The predicted image is close to the original one; however, there are still some differences between them. The difference is encoded independently as an ‘enhancement layer’ of each view image.

Filtering matrix structure comprising at least three color filters and a plurality of near Infrared filters, each one of the color filters and the near Infrared filters having an optimum transmission frequency, wherein the filtering matrix structure is made of n metal layers (m1, m2, m3) and n substantially transparent layers (d1, d2, d3) which alternate between a first metal layer (m1) and an nth substantially transparent layer (d3), each of the n metal layers (m1, m2, m3) having a constant thickness and at least one substantially transparent layer having a variable thickness which sets the optimum transmission frequency of each color filter and each near Infrared filter, n being an integer larger than or equal to 2.Application to 3D mapping and imaging.

A 3D mapping apparatus is provided that includes a light source, a projector, and a portable device. The projector is constructed to project a structured light pattern onto a target object. The projector includes an interface enabled to collects light from the light source, a grating that corresponds to the structured light pattern, and a lens interposed between the light source and the target object. The portable device includes an integrated camera for capturing light reflected from the target object and generating an image therefrom. Also included is a storage medium enabled to store the image. The camera and the lens of the projector are located at a predetermined distance from each other. Also provided are multicomponent items having a desired surface contour and method for producing such items.

Method and apparatus for visually supporting an electrophysiological catheter application in the heart by means of bidirectional information transfer The present invention relates to a method and apparatus for visually supporting an electrophysiological catheter application in the heart. For the method, 3D image data of at least the heart, which is captured using a tomographic 3D imaging method prior to execution of the catheter application, and electroanatomical 3D mapping data of at least one area of the heart to be treated, which is captured during execution of the catheter application, is provided and the electroanatomical 3D mapping data and / or at least part of the 3D image data is displayed during execution of the catheter application. The method is characterized in that, in the electroanatomical 3D mapping data and / or the 3D image data, the contour of one or more areas (3) relevant to the catheter application is captured and transferred to the other system in each case on which the areas (3) are superimposed as a single polyline (5) in the representation (2, 4) of the electroanatomical 3D mapping data and / or 3D image data. The method proposed and the associated apparatus provide the user with a rapid overview of the areas relevant to the catheter application.

A new and useful multi-component method of creating computer models of real estate properties for the purpose of conducting virtual and interactive real estate tours. The present invention comprises a 3D mapping component where a 3D model of a property is created using a 3D modeling program, and a 3D walkthrough component where panoramic photos are created and interconnected to create a virtual tour of the interior spaces of the property. A method according to the present invention is believed to allow a user to virtually tour the exterior and interior of a property remotely on their computer, on their own schedule, and other benefits over still photos and current listing practices.

The present invention relates to a non-invasive optical system equipped with optical tomographic scanning method and algorithm for quantifying scattering and absorption properties and chromophore concentrations of highly scattering medium such as biological tissues, for 3D mapping and imaging reconstruction of the spatial and temporal variations in such properties. The invention further relates to a method and an apparatus for simultaneous measurement of concentrations of biochemical substances and blood oxygen saturation inside a biological tissue and arterial blood.

A method, apparatus, computer readable medium, computer system, network, or system, is provided for using impressions tracking and analysis, location information, 2D and 3D mapping, social media, and user behavior and information for generating mobile and internet posted promotions or offers for, and / or sales of, products and / or services, for example, through an advertising application programming interfaces (APIs) on mobile devices, tablets, or computers, that provides mobile and web based promotions or offers that connect information and user behavior data to a user or related demographic location or user specified or predicted demographic location(s), such as through the use of as social networking, user or demographic profiles, behavior, and / or relationships, for targeted promotions or offers for products and / or services.

An interferometric method and system enabling light echoes-to-spectrum mapping, applicable for laser rangefinder, biomedical imaging including surface 3D mapping and tomography, vehicle position identification, and spectrum analysis. The direct mapping into spectrum allows a time-of-flight detection without using any timing pulse modulation. The sensitivity of the detection can be as high as that of the conventional low coherence interferometry, thereby an eye-safe and low-cost solution not compromising performance. In a practical implementation, high accurate range detection can be easily achievable with the level of accuracy equivalent to the laser rangefinder using a 20 ps Full-Width-at-Half-Maximum (FWHM) timing pulse. The system and method comprise applying dispersion-unbalanced interference (referred to as ‘cross-chirp interference’) and gating a phase matched spectral component. The dispersion unbalance used to induce linear one-to-one correspondence between the relative time delay and the spectral component, the performances in terms of range and resolution of the system and method increase with the increase in dispersion unbalance

The invention discloses a radiotherapy positioning device comprising a CT (Computer Tomography) machine, a CT bed, a radiotherapy machine, a radiotherapy bed, a time flying camera and a computer connected with the members. The time flying camera is fixedly arranged right at the rear upper part of the radiotherapy bed and is opposite to the radiotherapy machine. The time flying camera is a real-time 3D mapping camera based on the time flying principle and can realize real-time three-dimensional imaging on the patients. In a computer, tumor position information in the CT three-dimensional imageobtained by scanning the CT machine is guided into the real-time three-dimensional image captured by the time flying camera so as to drive the radiotherapy bed to move by the computer according to the position of the tumor in the real-time three-dimensional image and perform accurate and located radiotherapy by the radiotherapy machine. By adopting the single-lens camera, the positioning device can realize real-time three-dimensional imaging on the patients, and has rapid positioning speed, good instantaneity and lower cost.

An imaging system includes a video camera having a wide field of view lens, an imaging sensor operable to form a first image having a first pixel area, and an interface operable to receive commands from a host entertainment device. The video camera is operable to receive a command requesting at least one secondary image having a second pixel area for a 3D mapping of a portion of the first image. The system includes a graphics processor operable to perform the 3D mapping to generate the at least one each secondary image from the first image. The 3D mapping transforms a section of the first image depicting a surface having a normal in a first direction to form a secondary image in which the normal of that surface faces directly out of the secondary image.

A method for visually supporting an electrophysiological catheter application is provided. An electroanatomical 3D mapping data of a region of interest in the heart is visualized. A 3D image data of the region of interest is captured before the catheter application. A 3D surface profile of objects in the region of interest is extracted from the 3D image data by segmentation. The electroanatomical 3D mapping data and 3D image data forming at least the 3D surface profile is assigned by registration and visualized superimposed on one another. Characteristic parameters are measured for catheter guidance during the catheter application. The characteristic parameters are compared with at least one predefined threshold value and regulation data for catheter guidance is generated as a function of the comparison result. The regulation data is integrally displayed and represented in the superimposed visualization.

UMAPS is a multifaceted system that can be robot-mounted, human-worn, or canine carried. UMAPS produces real-time, 3D mapping and localization for the user as they move throughout a GPS-denied environment (e.g. buildings, caves, or tunnels). An Operator Control Unit (OCU) displays information collected by UMAPS; 2D floorplans; 3D textured-enriched surfaces of the structure's interior; and the location of the users within that structure. UMAPS has an open architecture that allows it to function with any OCU. UMAPS has three distinct subsystems: obstacle maps for robot mobility, mapping, and positioning

The invention provides raster scanning for depth detection. Techniques are provided for determining distance to an object in a depth camera's field of view. The techniques may include raster scanning light over the object and detecting reflected light from the object. One or more distances to the object may be determined based on the reflected image. A 3D mapping of the object may be generated. The distance(s) to the object may be determined based on times-of-flight between transmitting the light from a light source in the camera to receiving the reflected image from the object. Raster scanning the light may include raster scanning a pattern into the field of view. Determining the distance(s) to the object may include determining spatial differences between a reflected image of the pattern that is received at the camera and a reference pattern.