Abstract: A computer-implemented method (400) to generate an avatar, such as an avatar forming part of synthetic user generated content. The method comprises determining a rigid model based on an appearance error, a shape error and a dimensionality (425) of received images (405), and an appearance component and shape component of the rigid model. The non-rigid digital model may be a person specific active appearance model. Other aspects of include a computer system (200) and software (225).

Abstract: A 3D model can be modeled using “pattern-instance” representation, wherein an instance component may be represented as transformation (for example, rotation, translation, and scaling) of a pattern. To improve compression efficiency, the quantization parameters for the rotation part and translation part for transformation of an instance can be determined based on the quantization parameter used for encoding a corresponding pattern. Specifically, the quantization parameter for the rotation part may depend on the size of the instance, and the quantization parameter for the translation part may depend on the scale of translation. That is, a larger instance may use a finer quantization parameter for the rotation part. The quantization parameters are so determined that quantization errors caused by compressing the patterns, the translation part of transformation, and the rotation part of transformation are at similar levels.

Abstract: An image processing apparatus includes a memory configured to store a data structure in which gather rays generated by performing gather ray tracing from a rendering viewpoint are clustered hierarchically, the gather rays including a first gather ray and a second gather ray associated with the first gather ray in the data structure, and a processor configured to merge a photon gathering result associated with the second gather ray with a photon gathering result associated with the first gather ray in response to the photon gathering result associated with the first gather ray not satisfying a first condition.

Abstract: A storage unit stores structure data that includes coordinates of vertices of a plurality of polygons representing a three-dimensional structure. A computation unit calculates coordinates of a certain point with reference to the structure data. This point is used, together with the vertices of the polygons, to produce a graph from the structure data according to spatial arrangement of the polygons and further to calculate characteristic quantities based on the produced graph. The computation unit stores the calculated coordinates of the point in a memory device, as a piece of information relating to the structure data.

Abstract: A method, an apparatus and a terminal for reconstructing a three-dimensional object, where the method includes acquiring two-dimensional line drawing information, segmenting, according to the two-dimensional line drawing information and according to a degree of freedom, the two-dimensional line drawing to obtain at least one line sub-drawing, where the degree of freedom is a smallest quantity of vertices that need to be known for determining a spatial location of the three-dimensional object that includes planes, reconstructing a three-dimensional sub-object according to the line sub-drawing, and combining all three-dimensional sub-objects to obtain the three-dimensional object, and hence, the three-dimensional object can be automatically reconstructed according to two-dimensional line drawing information.

Abstract: A memory access request associated with a data unit is received from a first thread of a pixel shader. A processing status associated with the data unit is obtained from a window buffer. It is determined whether the data unit is being processed by a second thread. If so, a rejection procedure is performed to avoid the first thread gaining to access an attribute value associated with the data unit from/to a DRAM (Dynamic Random Access Memory). Otherwise, an acknowledgement procedure is performed to grant the first thread to access the attribute value associated with the data unit from/to the DRAM.

Abstract: An apparatus and method for load balancing in a ray tracing architecture. For example, one embodiment of a graphics processing apparatus comprises: an intersection unit engine to test a plurality of rays against a plurality of primitives to identify a closest primitive that each ray intersects; an intersection unit queue to store work to be performed by the intersection unit engine; and an intersection unit offload engine to monitor the intersection unit queue to determine a pressure level on the intersection unit engine, the intersection unit offload engine to responsively offload some of the work in the intersection unit queue to intersection program code executed on one or more execution units of the graphics processor.

Abstract: A method of enhancing a visual image of a display is described. The visual image is displayed on a first display of a display device having a first display pixel density and a first display dimension. The display device detects an enhancer device oriented in an operable position to the display device. The enhancer display device has a second display having a second display pixel density higher than the first display pixel density and a second display dimension less than the first display dimension. A spatial orientation is determined between the first display of the display device with the second display of the enhancer display device. The display device sends the visual image and the spatial orientation to the enhancer display device to display a portion of the visual image that is defined by the spatial orientation on the second display in the second display pixel density.

Abstract: Techniques for displaying an augmented reality toy. Embodiments capture a visual scene for display. The visual scene includes a first physical object and is captured using one or more camera devices. The first physical object is identified as a first predetermined object type, based on one or more object identifiers associated with the first physical object. Embodiments retrieve predefined geometric information corresponding to the first predetermined object type and render a sequence of frames for display in which the captured visual scene is augmented, based on the predefined geometric information.

Abstract: Aspects of the present invention include a display control device comprising a determining unit configured to determine an orientation of a real object in a real space image. The device may also comprise a control unit configured to select between first and second orientations of a virtual object based on the real object orientation, one of the first or second virtual object orientations aligning the virtual object with the orientation of the real object, and output an image of the virtual object based on the selected orientation, for display on an associated display device.

Abstract: A system for real-time or near real-time coordination of personnel and a method for creating a gridded reference graphic (GRG) for use in such a system is provided. A GRG is created by obtaining imagery of an area a team is to be operating in, wherein the imagery is obtained from overhead, taken from a position substantially orthogonal to the central portion of the area of operation. A grid, which may then be further modified with labels allowing identification of areas within the grid, is then overlaid thereon, creating a GRG. The GRG may then be served to personnel and displayed on a user device. The system includes a GRG comprising scale images of an intended area of operation, a labeled grid overlaid thereon and a scale for measurement of distances wherein the GRG are dispersed among and displayed to personnel.

Abstract: A system and a method for image alignment between at least two images to a three-dimensional model. The method including: determining a lower bound and an upper bound of an acceptable likelihood of mismatch between the at least two images; evaluating the likelihood of mismatch between the at least two images over a set of poses (r), shifts (t), or both poses (r) and shifts (t); and discarding those evaluations resulting beyond the lower bound and upper bound.

Abstract: A method for creating a graphical representation of data is performed at an electronic device having one or more processors and memory. The device receives a finite set of data points and calculates a respective conical distribution for each respective data point centered on the respective data point and based on a respective data value. Each conical distribution comprises a set of locations and a unique distribution value corresponding to each location. The device determines that a first data value of a first data point is less than a distribution value for a second data point. The distribution value has a location that corresponds to the first data point. Based on that determination, the device calculates an inverse conical distribution in a region around the first data point. The device combines the conical distributions and inverse conical distributions to display a data visualization that includes each of the data points.

Abstract: A label-information processing device for a multi-viewpoint image, which contains images by image signals of a subject photographed from multi-viewpoints, assigns label-information to a remarkable-portion common to the images. The device includes: a display unit for displaying a specific image by a specific image signal which depicts the remarkable-portion; and a controller for assigning the label-information to the remarkable-portion depicted in the specific image.

Abstract: A dynamically configured tree form and corresponding graphical elements graphically represent information contained in a live stream of event data. The tree form is positioned in virtual three dimensional space within a computer graphical user interface such that the root of the tree is in the center of the screen, originating at the farthest distance from the viewer along the z axis. The tree form is configured to guide movement of the three dimensional graphical elements which represent individual measurements of events during specific time periods. The outermost, or leaf, portions of the tree represent the present time. The root or base of the tree represents the maximum duration that is being measured.

Abstract: Systems, apparatus and methods for localizing and/or determining the relative position of surgical instruments during a surgical procedure are disclosed. A method includes capturing an image depicting at least a portion of a first surgical instrument disposed at a first position with respect to a target tissue, and at least a portion of a second surgical instrument disposed at a second position with respect to the target tissue, the second position different from the first position. The method includes transforming the image to a three-dimensional model so the first position of the portion of the first surgical instrument is rendered with the three-dimensional model, and the second position of the portion of the second surgical instrument is rendered with the three-dimensional model. The method includes calculating distance between the portion of the first surgical instrument and the portion of the second surgical instrument based on the three dimensional model.

Abstract: A method including playing a first interactive 3D simulation for a first 3D location of a computer graphics (CG) content clip for at least a first predetermined length of time. The method also includes, while playing the first interactive 3D simulation and within the first predetermined length of time, determining a first subset of the plurality of 3D assets to be downloaded for rendering two or more second 3D locations of the plurality of 3D locations; adapting the level of detail for one or more first 3D assets of the first subset of the plurality of 3D assets based at least in part on (a) a bandwidth for downloading the first subset of the plurality of 3D assets through the network, and (b) a processing power of the player device; and downloading the first subset of the plurality of 3D assets at the level of detail as adapted for the bandwidth and the processing power.

Abstract: A transmission type head mounted display device includes an image display unit configured to display an image and causes a user wearing the head mounted display device to visually recognize the image, and to transmit an outside scene; a movement detection unit configured to detect that the head mounted display device moves to a specific place; and a processing control unit configured to change at least a part of predetermined functions mounted on the head mounted display device.

Abstract: A method and system is implemented at an electronic device for displaying output from an application on a fixed orientation display. The electronic device includes a display module and an application. The application sends a request to display output from the application in a second orientation with second dimensions, and receives from the electronic device a notification that a display associated with the electronic device is a fixed orientation display with a first orientation and first dimensions. The application then obtains application data verifying that it is able to scale the output for displaying in an orientation and dimensions different from the requested second orientation and second dimensions, and determines optimal dimensions to display the output from the application based on the first orientation and first dimensions associated with the fixed display. The electronic device then scales output data to match the determined optimal dimensions.

Abstract: Generally discussed herein are systems, apparatuses, and methods for providing contextually relevant augmented reality (AR) to a wearable device. In one or more embodiments, a method can include extracting features of one or more objects in a location in a field of view of a camera of a wearable device, retrieving a three dimensional model of the location based on the extracted features, assessing a situation of a user associated with the wearable device, modifying the three dimensional model based on the assessed user situation, and presenting, using the wearable device, at least a portion of the modified three dimensional model.