Abstract: Techniques facilitating anomaly detection and root cause analysis using distributed trace data. In one example, a system can comprise a processor that executes computer executable components stored in memory. The computer executable components comprise: a preprocessing component; and a monitor component. The preprocessing component can generate a trace frame comprising a vectorized representation of textual trace data produced by microservices of a microservice application. The monitor component can identify a state of the microservice application using the trace frame.

Abstract: Embodiments of the present invention provide computer implemented methods, computer program products and computer systems. For example, embodiments of the present invention can, in response to receiving a request, collect trace data and specifications for a sequence of requests for normal behavior of a microservice application. Embodiments of the present invention can then generate request contextual features from the collected trace data and specification. Embodiments of the present invention can then train a neural network model based on the generated contextual features; and predicting anomalous behavior of the microservice application using the trained neural network model.

Abstract: Techniques facilitating anomaly detection and root cause analysis using distributed trace data. In one example, a system can comprise a processor that executes computer executable components stored in memory. The computer executable components comprise: a preprocessing component; and a monitor component. The preprocessing component can generate a trace frame comprising a vectorized representation of textual trace data produced by microservices of a microservice application. The monitor component can identify a state of the microservice application using the trace frame.

Abstract: The present invention provides a method, system, and computer program product for displaying images of conference call participants. A method in accordance with an embodiment of the present invention includes receiving a call from a user to join a conference call, obtaining a phone number of the user, matching the phone number to a stored graphical representation, and distributing and displaying the matching graphical representation to a predetermined set of users. A voice identification/recognition process can also be used to match the user to a stored graphical representation.

Abstract: A fully programmable graphics processing engine is provided. The graphics processing engine includes three independent, programmable processors that run independent sets of instructions from independent instruction storage facilities. Graphics processing tasks may be distributed among the serially pipelined processors to allow for load balancing and parallel processing. The graphics processing engine may be a graphics co-processing core within a larger, general purpose computing system. Register files and storage units may be addressable by the system host processor. Each processor accepts incoming data for state or context updates. Each processor may execute a specific graphics processing function by executing a set of instructions when a predetermined memory address is accessed.

Abstract: A computer system, method, and article of manufacture for shading graphical objects and/or displays is disclosed. A graphical geometric data structure has a plurality of vertex positions defining one or more polygons, typically triangles. In a preferred embodiment, the polygons define a wireframe representation of a geometric object. Each of the vertex positions is associated with one or more sets of vertex color information. A color table has one or more fill colors to be rendered (shaded) between two or more of the vertex positions on a rendering of the geometric object. These colors can uniformly vary between the vertices of the triangle over the entire surface. A substitute color is associated with each of the fill colors so that at least two of the fill colors are associated with the same substitute color.

Abstract: A quantization transform, corresponding to a geometric object, is determined. The geometric object represents at least a portion of an object in a three-dimensional scene. The quantization transform is suitable for converting a floating point space to a fixed point space, where the floating point space contains floating point data corresponding to the geometric object. The quantization transform is used to convert floating point data to fixed point data. The floating point data is typically vertices corresponding to the geometric object. Additionally, a quantization transform corresponding to a geometric object is determined. The geometric object represents at least a portion of the three-dimensional scene. The quantization transform is suitable for converting a floating point space to a fixed point space, and the fixed point space contains one or more fixed point data corresponding to the geometric object. The floating point space defines at least the portion of the three-dimensional scene.

Abstract: Apparatus and methods are provided to perform volume rendering via composited texture-mapped convex polyhedra. This is accomplished by generating a sequence of z polygons defined by the intersection of a sequence of z planes parallel to the view plane with the convex polyhedron. The vertices of the convex polyhedron are numbered sequentially based on z-axis depth and this defines a sequence of slabs that are bounded by z planes intersecting the vertices. The edges of the convex polyhedron are numbered based on viewing the polyhedron along an axis from the closest vertex to the furthest vertex. A data structure maintains a list of active edges for each slab, where an edge is “active” if the edge intersects any z plane in the slab. Each vertex in the z polygon is defined by the intersection of an active edge with the z plane. The z polygon is rendered by connecting adjacent vertices, where the ordering is determined by the order of the active edges in the slab.