Abstract:
Generating wireless coverage maps includes receiving, for each of a plurality of mobile devices communicating wirelessly with a server system, mobile device location information and mobile device communication service information; generating a dead zone volume map based on the mobile device location information and the mobile device communication service information, the dead zone volume map defining a dead zone volume for a wireless communication service; and generating a dead zone geofence boundary volume map based on the dead zone volume map, the dead zone geofence boundary volume map defining a geofence boundary relative to the dead zone volume and further defining a buffer zone between at least a portion of the geofence boundary and at least a portion of the dead zone volume, the buffer zone defining a zone in which the wireless communication service is available for at least one of the mobile devices.
Abstract:
Various embodiments of the present disclosure provide methods, apparatuses, systems, computing devices, computing entities, and/or the like for determining optimized solutions to input problems in a containerized, cloud-based (e.g., serverless) manner. In one embodiment, an example method is provided. The method comprises: receiving a problem type of an input problem originating from a client computing entity; mapping the problem type to one or more selected solver types; generating one or more container instances of one or more compute containers, each compute container corresponding to a selected solver type; generating a problem output using the one or more container instances; and providing the problem output comprising a solution to the input problem to the client computing entity. In various embodiments, optimized solutions for input problems are determined using a cloud-based multi-domain solver system configured to dynamically allocate computing and processing resources between different solution-determining tasks.
Abstract:
Exemplary embodiments of the present invention provide a virtual dispatch assist system in which various types of Intelligent Agents are deployed (e.g., as part of a new CAD system architecture or as add-ons to existing CAD systems) to analyze vast amounts of historic operational data and provide various types of dispatch assist notifications and recommendations that can be used by a dispatcher or by the CAD system itself (e.g., autonomously) to make dispatch decisions.
Abstract:
A computer-implemented method for creating a shadow mask representing irradiation of a physical scene based upon a plurality of elevation grid points of an array of elevation data associated with the physical scene. Elevation point data are received and stored in array format and a shadow frontline is propagated across the array based on a quadrant associated with a light source. A shadow horizon is projection onto successive lines of elevation data generating a binary shadow mask based on whether a specified elevation point lies above or below the shadow horizon. The direction of the light source may be transformed to reflect curvature of an underlying surface of the physical scene.
Abstract:
Embodiments use holographic projection in augmented reality to visualize a building in 3D and show, as a holographic figure, the position of personnel in the building. In some embodiments, a user can “tap” on a holographic figure to view data on that person, such as skin temperature, room temperature, heart rate, etc.
Abstract:
A computer-implemented method for ordering vertices in an image frame within a data stream, wherein the image frame corresponds to Earth-viewing data. A point of intersection of a primary pair of lines is determined and loaded into computer memory, and interrogated as to a sign of a signed remainder with respect to each of two secondary lines defined by the pairwise ordered sets of vertices. In the case of opposite remainder sign with respect to the two secondary lines, two provisional indices are swapped to obtain a rectified index for each of the four vertices. The process is repeated with respect to the signed remainder of the intersection point of the secondary lines relative to the primary lines. The four vertices are then fit, in accordance with index ordering, into a tiling of the surface of the Earth based on the rectified index of each of the four vertices.
Abstract:
A computer-implemented method for creating a shadow mask representing irradiation of a physical scene based upon a plurality of elevation grid points of an array of elevation data associated with the physical scene. Elevation point data are received and stored in array format and a shadow frontline is propagated across the array based on a quadrant associated with a light source. A shadow horizon is projection onto successive lines of elevation data generating a binary shadow mask based on whether a specified elevation point lies above or below the shadow horizon. The direction of the light source may be transformed to reflect curvature of an underlying surface of the physical scene.
Abstract:
An intuitive interface that allows a non-technical person to search a computer database without having to understand the underlining database software or its structure by assembling a graphical database query.
Abstract:
An intuitive graphical interface on a computer allows a user to quickly and easily create and edit plant hierarchy templates, and/or plant hierarchies, without having to leave the graphical editing environment. Hierarchies may represent complex data structures, and the graphical interfaces allow editing and manipulation of their graphical forms while creating or maintaining such complex structures.
Abstract:
Modifying 2.5D GIS data for a 2D GIS system involves displaying 3D graphic indicia on a display device, the graphic indicia being displayed in a geospatial manner as a function of 2.5D GIS data in a GIS database associated with a 2D GIS system, and further involves modifying the 2.5D GIS data in the GIS database using the 3D graphic indicia displayed on the display device, including mapping user selections relating to the 3D graphic indicia to 2D geo-location coordinates and modifying the 2.5D GIS data based on the 2D geo-location coordinates.