33 results about "Georeferenced data" patented technology

A validation database (VDB) is built from geographic reference data sources such as MSAG and USPS using automatic address correlation, and links between the records are stored in the VDB. The automatic address correlation employs multiple correlation algorithms, and a score is assigned to each link representing a confidence level. The score is based on a combination of results from the different algorithms. Links having a score representing a partial or exact match are used for address validation purposes. A management interface allows the VDB agent to edit master records and the links, including the score. A remote subscriber can request validation of a proposed address from the VDB, and may include match criteria with the request. If any matches are found, a validation reply is sent from the VDB to the subscriber with the corresponding MSAG records.

A roaming sensor system collects data on the condition of roads and bridge decks and identifies and maps defects, including cracks, potholes, debonding, tracking, delamination, surface ice, surface water, and rebar corrosion. Data are collected by a vehicle or a fleet of vehicles driven at normal traffic speeds. The vehicle is outfitted with sensors that collect data using acoustic surface waves, ground penetrating radar, mm wave surface radar, and/or video images. The data are transmitted to a control center for analysis and distribution.

A system and method for describing local area geo-reference features and landmarks in providing high resolution asset location information. Geo-image data is integrated to a mapping application and geo-reference data to add more detailed scale levels to the map. The geo-image data includes geo-images and its features to provide more detailed references to the asset and support the larger references of the geo-reference data. To describe a geo-reference landmark, an original landmark representation is selected with a center point and a radius. The asset location points located at the original landmark representation are compiled along with the asset location points generated by events occurring at the landmark to create a point set. The point set replaces the original landmark representation when a prescribed number of points is reached. The asset location points that are within a specified distance from any of the points in the point set are added to the point set to complete the landmark representation. The geo-image data and landmark representation data are combined to provide high resolution asset location information.

Embodiments of the present invention provide a three dimensional model object, a method of producing the three dimensional model object, and a kit comprising the three dimensional model object and a scaled measurement device. The method in accordance with the present invention includes surveying a constructed structure which is georeferenceable in the real world, obtaining spatial data associated with the constructed structure, generating a digital three dimensional model of the constructed structure in a computer, and producing a physical model object with accurately surveyed as-built data of the constructed structure. The physical model object of the constructed structure can incorporate, on its surface, surveyed and measured useful real world intelligence, such as dimensions, georeference data, or orientation, associated with the constructed structure.

A method and apparatus for measuring depth of waterways and elevation of land features through autonomous consolidation of GPS device data acquired from a plurality of mobile platforms is disclosed. The GPS device data may then be processed and compared to published reference data. A data recorder and a wireless transmission system comprise an onboard unit, which serves to interface with the GPS device for collecting, recording and transmitting data. The onboard device also provides an apparatus for collecting other georeferenced data from multiple mobile platforms, and serves as a node on a two-way meshed communication network.

A system and method for spatially stretching visual interactive computer-based renderings of hierarchical 3D/4D object models is disclosed. Hierarchical 3D/4D object models are transformed into a stretchable structure. Utilizing user interface controls, a user manipulates and visually stretches the 3D/4D object model hierarchy to expose 3D/4D object model components for an unobstructed view. Real-time geo-referenced data feeds are processed to interactively update specific sensor objects contained as components of the hierarchical 3D/4D object models. Real-time geo-referenced tracking data feeds are also processed to dynamically include new visual components of the 3D/4D object model hierarchy at the proper location, representative of the locations of mobile tracking devices within the 3D/4D object model hierarchy.

A spectator sport system and method that displays different views of a sporting event and, in particular, uses a position selected by the spectator to assist in displaying a view from the selected position. The spectator, using an internet device, can zoom, pan, tilt and change the view, as well as change the view to another position, such as a finish line, goal, or a participant position (e.g. Driver of car #3 or Tiger Wood's position). The starting position can be specified, as well as the target position or orientation from the starting position. Vital information on the sporting event or a participant can be appended to the view. In some forms, augmented reality or any geographic referenced datasets can be used and combined, such as 3D imagery or 3D renderings, to enhance the experience.

A virtual satellite system may receive, re-project to a spatial resolution and interpolate to a desired temporal resolution, georeferenced data representing an image of a geographic region from a plurality of different satellites. Bias in the georeferenced data between the plurality of satellites is determined and based on which satellite's image data contains an identified minimum spatial resolution, vegetation index data may be set to one of the satellite's data, which may or may not be adjusted. A target image may be generated based on the set vegetation index data.

Systems and methods for discovering and annotating geo-fences from geo-referenced data are disclosed. The systems and methods input an area of interest containing a plurality of geo-referenced points having associated labels, and divides the area interest into cells. Each cell is assigned an initial label from among the plurality of labels and hierarchical clustering is used to find clusters of cells having a common label based on a maximization of an objective function for each cell with the objective function being dependent upon favoring spatially adjacent cells having a common label and limiting overgeneralization of the common label.

Systems, methods, and computer storage mediums are provided for requesting a geo-referenced interactive tour using media objects collected from a plurality of users. An exemplary method includes accessing a plurality of selected user profiles. Each user profile is associated with one or more users. Media objects hosted by the selected user profiles are clustered into trip segments based on a velocity value associated with each media object. Geo-referenced data for at least one trip segment is collected based on a first and last media object associated with the trip segment. The trip segments are combined into the digital video. Each trip segment is rendered to include its associated media objects and geo-referenced data. Each trip segment is rendered according to a presentation style that is selected based on its associated media objects.

Systems and methods for automatic detection of disaster relief assets from a satellite image can include a satellite and a processor, which can contain non-transitory written directions that perform a method, which includes the step of defining spectra of interest (SOI). A reference spectral profile that is based on the SOI is built. The reference spectral profile can extend into the near infrared range to eliminate false positive indications. A satellite image of the spatial region of interest (ROI) is taken. For each pixel in the ROI, test spectra of the spatial region can be extracted and compared to the reference spectral profile using a spectral angle mapper (SAM) tool. When the comparison meets predetermined parameters, that pixel of the ROI can be deemed to be indicative of a disaster relief asset, and the geo-reference data for that pixel can be transmitted to a remote user.