Abstract: A display device includes a substrate and a plurality of pixels disposed on the substrate is provided by the present disclosure. The substrate has an edge, wherein the edge extends along a first direction. The plurality of pixels include a first pixel closest to the edge and a second pixel adjacent to the first pixel, wherein the first pixel and the second pixel are arranged along a second direction perpendicular to the first direction, and any one of the first pixel and the second pixel includes a plurality of sub-pixels arranged along the first direction. A width of the first pixel is less than a width of the second pixel in the second direction.

Abstract: Provided is a device for upscaling resolution based on a slice image, in which a low-resolution image is divided into a plurality of slice images so that a high-resolution image is generated. The device includes a convolution operation unit configured to convert a low-resolution input slice image into a high-resolution output slice image using a convolutional neural network. The convolutional neural network includes a cascading block configured to perform a convolution operation using a convolution filter having a predetermined size and a residual operation on an input feature map generated from the low-resolution input slice image to generate an output feature map, and an upscaling block configured to upscale the output feature map to generate the high-resolution output slice image.

Abstract: A surface analyzer is provided with a measuring unit, a scatter diagram generation unit, a cluster analysis unit, and a cluster region detection unit. The measuring unit acquires a signal reflecting a quantity of each of a plurality of components or elements that are analysis targets at a plurality of positions on a sample. The scatter diagram generation unit generates a scatter diagram based on a measurement result by the measuring unit. The cluster analysis unit performs the clustering of points in the scatter diagram. The cluster region detection unit acquires, based on clustering information given to each point in the scatter diagram by the cluster analysis unit, for each cluster, cluster region boundary information on a polygon having a predetermined number or less of vertices.

Abstract: A method of performing anisotropic texture filtering includes generating one or more parameters describing an elliptical footprint in texture space; performing isotropic filtering at each of a plurality of sampling points along a major axis of the elliptical footprint, wherein a spacing between adjacent sampling points of the plurality of sampling points is proportional to ?{square root over (1???2)} units, wherein ? is a ratio of a major radius of an ellipse to be sampled and a minor radius of the ellipse to be sampled, wherein the ellipse to be sampled is based on the elliptical footprint; and combining results of the isotropic filtering at the plurality of sampling points with a Gaussian filter to generate at least a portion of a filter result.

Abstract: A system may provide for searching terrain data of real-world locations based on input representing a terrain for a game world. The system may receive terrain inquiry data including height data for terrain of a game world, generate an inquiry descriptor based on the terrain inquiry data at least in part by applying a plurality of filters to the terrain inquiry data, the inquiry descriptor including a plurality of inquiry descriptor values corresponding to the plurality of filter and determine, based on the inquiry descriptor and respective sample descriptors of one or more terrain samples corresponding to terrain of real-world locations, one or more matching terrain samples.

Abstract: An appearance-responsive material map generation system generates a set of material maps based on the appearance of a material depicted in the source material data. A neural network included in the appearance-responsive material map generation system is trained to identify features of particular source material data, such as features that contribute to a highly realistic appearance of a graphical object rendered with the material depicted in the source material data. In some cases, the trained neural network receives source material data that includes at least one source material map. Based on the features that are identified for the particular source material data, the appearance-responsive material map generation system creates a respective set of appearance-responsive material maps for the particular source material data. In some cases, the appearance-responsive rendering map set is arranged as an inconsistent pyramid of material maps.

Abstract: A method is provided to model a 3D structure comprising: producing a surface mesh representation of the 3D structure; producing a volume mesh representation of the 3D structure based upon the surface mesh; sorting vertices of the volume mesh into a first sub-list that includes only surface vertices and a second sub-list that includes only internal vertices; applying shading to the surface mesh by accessing only surface vertices in the first sub-list; determining deformation of the volume mesh by accessing both surface vertices in the first sub-list and internal vertices in the second sub-list.

Abstract: An augmented reality (AR) platform supports concurrent operation of multiple AR applications developed by third-party software developers. The AR platform may include an application programming interface (API) that third-party software developers can use to integrate features of the AR platform into the overall user experience of their AR applications. The AR platform includes a feature set having a variety of AR-specific features that interact with and are accessible to the AR applications or AR layers that define a collection of AR content.

Abstract: An image processing method includes generating a second image by applying noise to a first image, as a first process, and generating a third image by upsampling the second image through a neural network, as a second process. The second image is generated by applying noise to the first image expressed in a second bit depth higher than a first bit depth of the first image and then restoring the bit depth to the first bit depth.

Abstract: An image processing system for an extended reality, XR, device comprising an eye-tracking subsystem, for determining a focus region of the eye, and a processor. The processor is configured to process application data to render image content for an application for display on the XR device, and obtain metadata indicating that a virtual object is to be generated as a hologram as part of the image content for display. Based on a determination that the virtual object belongs to a predetermined class of objects and is to be displayed in the focus region, the processor performs, using a neural network corresponding to the predetermined class of objects, foveated processing of the image content, including at least part of the hologram, such that relatively high-quality image content is generated for display in the focus region and relatively low-quality image content is generated for display outside the focus region.

Abstract: Implementations are directed to processing a content object model through a ML model to provide a set of base content feature representations, processing a style object model through the ML model to provide sets of base style feature representations, executing iterations including: generating, by the ML model, sets of stylized feature representations for an initial stylized object model, the initial stylized object model having one or more adjusted parameters relative to a previous iteration, determining a total loss based on the sets of stylized feature representations, the set of base content feature representations, and the sets of base style feature representations, and determining that the total loss is non-optimized, and in response, initiating a next iteration, executing an iteration of the iterative process, the iteration including determining that the total loss is optimized, and in response providing the initial stylized object model as output of the iterative process.

Abstract: A method includes accessing a first object in a virtual environment, the first object representing a first asset at a first level of detail (LoD). A second object is generated to represent the first asset at a second LoD having decreased complexity. The method further includes determining a first importance value for the first asset and, based on the first importance value, selecting the first object to represent the first asset. Additionally, the method includes accessing a third object representing the second asset at the first LoD and generating a fourth object representing the second asset at the second LoD. The method further includes determining a second importance value, lower than the first importance value, for the second asset and selecting the fourth object to represent the second asset. The method further includes causing a client device to update a display of the virtual environment by transmitting the selected objects.

Abstract: Systems, apparatuses and methods may provide for technology that estimates poses of a plurality of input images, reconstructs a proxy three-dimensional (3D) geometry based on the estimated poses and the plurality of input images, detects a user selection of a virtual viewpoint, encodes, via a first neural network, the plurality of input images with feature maps, warps the feature maps of the encoded plurality of input images based on the virtual viewpoint and the proxy 3D geometry, and blends, via a second neural network, the warped feature maps into a single image, wherein the first neural network is deep convolutional network and the second neural network is a recurrent convolutional network.

Abstract: The present invention facilitates efficient and effective image processing. A network can comprise: a first system configured to perform a first portion of lighting calculations for an image and combing results of the first portion of lighting calculations for the image with results of a second portion of lighting calculations; and a second system configured to perform the second portion of lighting calculations and forward the results of the second portion of the lighting calculations to the first system. The first and second portion of lighting calculations can be associated with indirect lighting calculations and direct lighting calculations respectively. The first system can be a client in a local location and the second system can be a server in a remote location (e.g., a cloud computing environment). The first system and second system can be in a cloud and a video is transmitted to a local system.

Abstract: Methods and hardware for cube mapping comprise receiving fragment coordinates for an input block of fragments and texture instructions for the fragments and then determining, based on gradients of the input block of fragments, whether a first mode of cube mapping or a second mode of cube mapping is to be used, wherein the first mode of cube mapping performs calculations at a first precision for a subset of the fragments and calculations for remaining fragments at a second, lower, precision and the second mode of cube mapping performs calculations for all fragments at the first precision. Cube mapping is then performed using the determined mode and the gradients, wherein if the second mode is used and more than half of the fragments in the input block are valid, the cube mapping is performed over two clock cycles.

Abstract: Systems and methods include transforming a digital file into a three-dimensional object that is spatially positioned in a three-dimensional virtual environment to visually organize the digital file relative to the three-dimensional virtual environment. Embodiments of the present disclosure relate to receiving the digital file that includes digital file parameters and is in a file format. The digital file is transforming into the three-dimensional object based on the digital file parameters associated with the digital file. The three-dimensional object is representative of the presentation of the digital file when executed by the computing device. The three-dimensional object is spatially positioned at a spatial location in the three-dimensional environment based on the digital file parameters of the digital file.

Abstract: Methods, systems, and apparatus, including medium-encoded computer program products, for designing three dimensional lattice structures include, in one aspect, a method including: obtaining a mechanical problem definition including a 3D model of an object; generating a numerical simulation model for the 3D model of the object using one or more loading cases and one or more isotropic solid materials identified as a baseline material model for a design space; predicting performance of different lattice settings in different orientations in the design space using a lattice structural behavior model in place of the baseline material model in the numerical simulation model; and presenting a set of lattice proposals for the design space based on the predicted performance of the different lattice settings in the different orientations; wherein the lattice structural behavior model has been precomputed for the different lattice settings, which are generable by the 3D modeling program.

Abstract: A navigation system for generating turn segments includes a processor, a memory module communicatively coupled to the processor, a segment list stored in the memory module that includes a plurality of known segments, and machine readable instructions stored in the memory module. The machine readable instructions cause the navigation system to identify a current location of the navigation system, search the segment list for at least one known segment candidate that is within a threshold distance of the current location, determine whether at least one known segment candidate from the segment list includes the current location, track turn movements of the navigation system to form an unknown segment in response to determining at least one known segment candidate does not include the current location, and to link the unknown segment to the plurality of known segments from the segment list.

Abstract: The present disclosure provides a head-mounted display that includes an image generation device generating a display image to be viewed through an eyepiece disposed in front of a display panel, the image generation device including a source image reception control section that receives a source image, a distorted image generation section that generates data on pixels in a display image obtained by giving the source image a distortion corresponding to the eyepiece, a partially distorted image storage section that stores the data on the pixels in an order of data generation, and an image display control section that, whenever data on a predetermined number of pixels smaller than a total number of pixels in the display image is stored in the partially distorted image storage section, outputs the stored data to the display panel; the display panel that sequentially displays data outputted from the image generation device; and a content processing device that generates the source image and transmits the generated

Abstract: A digital map based online platform is provided. The online platform comprises an outdoor map server, a data store, a building database, a space database, and a computer program stored in a medium. The data store manages digital files related to buildings including floor plans of buildings and digital files including website source codes related to spaces in individual folders for each building and space. The building database and the space database manage map setting data of buildings and spaces, respectively. The computer program stored in a medium executes a series of stages to integrally display an outdoor map, an indoor map including floor plans of buildings, Internet links, and responsive HTML pages on the view of a digital map. The medium includes a web server and a user terminal.

Abstract: A system and method for content creation via interactive layers is provided. A mutable general object on which to build an artefact is stored. The mutable general object includes a plurality of n-dimensional data units capable of being rendered in a multi-dimensional display. An environment represented by the artefact is displayed. The artefact includes layers that each represent a different characteristic of the environment. Each layer includes a generator and layer parameters. A unique identifier is assigned to each layer. The identifiers for the layers of the artefact are composited and the composited identifiers are stored. Upon accessing the composited identifiers, the artefact is reconfigured for display using the generator and layer parameters from each of the layers.

Abstract: In implementations of systems for augmented reality authoring of remote environments, a computing device implements an augmented reality authoring system to display a three-dimensional representation of a remote physical environment on a display device based on orientations of an image capture device. The three-dimensional representation of the remote physical environment is generated from a three-dimensional mesh representing a geometry of the remote physical environment and digital video frames depicting portions of the remote physical environment. The augmented reality authoring system receives input data describing a request to display a digital video frame of the digital video frames. A particular digital video frame of the digital video frames is determined based on an orientation of the image capture device relative to the three-dimensional mesh. The augmented reality authoring system displays the particular digital video frame on the display device.

Abstract: A mobile communication device is provided. The mobile communication includes a first touch display forming a portion of a first surface of the mobile communication device, a second touch display forming a portion of a second surface of the mobile communication device, and a processor configured to display in the first touch display a first screen corresponding to an application executed in a first folding state while a state of the device is the first folding state, identify the state of the mobile communication device changing to a second folding state, and display in the second touch display, based on the identification, a second screen corresponding to the application and an image partially overlapping the second screen, a touch input on the second touch display while the second screen and the image are displayed in the second touch display as overlapping is configured to not be processed as an input.

Abstract: Techniques for building and managing data models are provided. According to certain aspects, systems and methods may enable a user to input parameters associated with building one or more data models, including parameters associated with sampling, binning, and other factors. The systems and methods may automatically generate program code that corresponds to the inputted parameters and display the program code for review by the user. The systems and methods may build the data models and generate charts and plots depicting aspects of the data models. Additionally, the systems and methods may combine data models and select champion data models.

Abstract: In one embodiment, a computing system may determine a focus point of a viewer based on received sensor data. The system may determine, for a current frame, a first viewing region encompassing a focus point of the viewer and a second view region excluding the first viewing region. The system may determine, for the current frame, color values for the first viewing region using respective first sampling resolutions, and color values for the second viewing region using respective second sampling resolutions. At least one second sampling resolution may be lower than a corresponding first sampling resolution associated with a same color channel. At least two of the second sampling resolutions for the color channels of the second viewing region may be different from each other. The system may output the color values for the first viewing region and the second viewing region of the current frame for display.

Abstract: Disclosed are systems and methods for augmenting a customer image with at least one virtual object. One or more customer images depicting a customer environment are received from a customer computing device and 3D feature data for the customer images is determined. A virtual object is determined which corresponds to a desired merchant item. A positioning signal is received which corresponds to a desired location of virtual object in the customer environment, and a corresponding first location in each customer image at which to overlay the virtual object using the positioning signal is determined. An appropriate size and orientation of the virtual object is determined for each customer image based on corresponding 3D feature data, causing an overlay of an appropriately sized and oriented virtual object at the corresponding first location in customer images.

Abstract: Disclosed herein are systems, methods, and software for providing a virtual environment with enhanced visual textures and haptic detail. In some embodiments, a texture atlas and UV mapping is used to render virtual objects having multiple textures that can be manipulated in real time. In some cases, UV coordinates are used to provide enhanced haptic detail.

Abstract: Aspects of the present disclosure provide systems, methods, and computer-readable storage media that support activity recognition using image or video processing (e.g., computer vision) and machine learning. To illustrate, a monitoring device may receive video data from a camera configured to capture video of a scene that includes a pipe of an oil rig. The monitoring device may perform motion detection on the video data to identify frames of the video data depicting motion. The identified frames may be provided to one or more machine learning models that are configured to determine whether the pipe is moving based on input video clips. The one or more machine learning models may be trained using labeled video clips that depict movement of the pipe or lack thereof. The monitoring device may generate an output based on the determination, the output indicating a slip to slip time associated with the pipe.

Abstract: A cross reality system enables any of multiple devices to efficiently access previously stored maps. Both stored maps and tracking maps used by portable devices may have any of multiple types of location metadata associated with them. The location metadata may be used to select a set of candidate maps for operations, such as localization or map merge, that involve finding a match between a location defined by location information from a portable device and any of a number of previously stored maps. The types of location metadata may prioritized for use in selecting the subset. To aid in selection of candidate maps, a universe of stored maps may be indexed based on geo-location information. A cross reality platform may update that index as it interacts with devices that supply geo-location information in connection with location information and may propagate that geo-location information to devices that do not supply it.

Abstract: An information processing method, a device, and a storage medium, which relates to a screen transmission technology, are provided. The method includes: in response to a first operation acting on characters, displaying the characters in an input box, where the input box is an input box of a screen transmission application; determining a target screen-transmission code in candidate screen-transmission codes stored in a screen-transmission sending end according to input characters, where the number of characters contained in the target screen-transmission code is greater than the number of the input characters, the target screen-transmission code contains the input characters, the target screen-transmission code is a screen-transmission code of a screen-transmission receiving end, and the target screen-transmission code is acquired by the screen-transmission sending end from a beacon received from the screen-transmission receiving end; displaying the target screen-transmission code in the input box.

Abstract: Method and apparatus are provided for updating unmanned aerial vehicle (UAV) status in unmanned aircraft system (UAS) ecosystem. In accordance with some implementation, a UE may determine a change in flight state of an unmanned aerial vehicle (UAV). The UE upon such determination may communicating to an unmanned aerial system traffic management (UTM) the fight state via a wireless wide area network (WWAN). This may allow the UTM to more efficiently manage and allocate resources to UAVs.

Abstract: Systems and techniques for aggregated physical and logical network mesh view are described herein. A selection may be obtained of a portion of a graph network data structure. Nodes may be identified in the portion of the graph network data structure. Geolocation data may be determined for each node of the nodes. Geographical boundaries may be calculated for the portion of the graph network data structure. A geographical map and a network map may be generated. A physical network view may be generated for display in the user interface as an aggregated view of the geographical map and the network map. The geographical map may represent a physical layer and the network map may represent a logical layer. The aggregated view may be output for display with a set of controls that correspond to the physical layer and a set of controls that correspond to the logical layer.

Abstract: Particular embodiments described herein provide for an electronic device that includes a first housing, where the first housing includes at least one first housing accelerometer and at least one first housing gyroscope, a second housing, where the second housing includes at least one second housing accelerometer and at least one second housing gyroscope, and a hinge. The hinge rotatably couples the first housing to the second housing, where a hinge angle is determined using data from the first housing accelerometer, the second housing accelerometer, the first housing gyroscope, and the second housing gyroscope if the electronic device is not in a portrait orientation where the hinge is vertical to a ground or not in motion and is determined using data from the first housing gyroscope and the second housing gyroscope if the electronic device is in portrait orientation or is in motion.

Abstract: Disclosed is a system and associated methods for the generative drawing and customization of three-dimensional (“3D”) objects in 3D space using hand gestures. The system adapts the hand gestures as intuitive controls for rapidly creating and customizing the 3D objects to have a desired artistic effect or a desired look. The system selects a 3D model of a particular object in response to a first user input, sets a position in a virtual space at which to generate the particular object in response to a mapped position of a first hand gesture tracked in a physical space, and generates a first state representation of the particular object at the position in the virtual space in response to a second hand gesture. The first state representation presents the particular object at one of different modeled stages of the particular object lifecycle.

Abstract: A video encoder for providing an encoded video representation, wherein the video encoder is configured to provide a video stream comprising encoded parameter information describing a plurality of encoding parameters, encoded video content information and one or more merge identifiers indicating whether and/or how the encoded video representation can be merged with another encoded video representation.

Abstract: The patent discloses improved methods and systems for detecting a collision between a player controlled virtual character in a video game and an object positioned on a surface in a virtual environment of the video game. Two geometric models are defined, one of which is preferably a cylinder and the other of which is preferably a capsule. For a frame of the video game, data indicative of a position, velocity and direction of the virtual character is acquired and, in a subsequent frame, data indicative of another position of the virtual character is acquired. The first geometric model is moved vertically downward by a predefined distance to identify a level of the ground surface and the second geometric model is moved horizontally forward to detect a collision of the virtual character with the object.

Abstract: An image processing method includes determining a display mode; processing, according to an image processing manner corresponding to the display mode, original image data to obtain target image data; and transmitting the target image data to an image display terminal, so that the image display terminal performs image display according to a scanning display manner corresponding to the display mode, a resolution of the target image data is less than or equal to that of the original image data, and the target image data carries indication information of the display mode.

Abstract: Disclosed approaches provide for irradiance caches which may be used to share irradiance between ray interactions spatially and/or temporally. An irradiance cache may store incoming irradiance or outgoing irradiance and may be updated by casting one or more rays from one or more locations to sample irradiance for the location(s). The number of rays that are cast may be reduced by ranking the locations, irradiance caches, and/or corresponding groups of geometry based on one or more characteristics thereof. For example, a ranking score may be computed based on camera distance, camera visibility, and/or a number of frames since a prior update. When sampling a location, outgoing irradiance from an outgoing irradiance cache may be used to determine shading when a hit distance of a ray used to generate the sample exceeds a threshold value.

Abstract: The present disclosure provides a route processing method and apparatus. The specific implementation includes: acquiring a vehicle driving route according to a standard definition map, where the vehicle driving route comprises multiple standard definition map road sections of the standard definition map; determining at least one first road section from the multiple standard definition map road sections according to a road section mapping relationship between the standard definition map and a high definition map, where each first road section has a unique corresponding target road section in the high definition map; determining the target road section corresponding to each first road section in the high definition map according to the road section mapping relationship; and determining a target driving route corresponding to the vehicle driving route in the high definition map according to the target road section corresponding to each first road section and the high definition map.

Abstract: A method for decoding a 360-degree image includes: receiving a bitstream obtained by encoding a 360-degree image; generating a prediction image by making reference to syntax information obtained from the received bitstream; combining the generated prediction image with a residual image obtained by dequantizing and inverse-transforming the bitstream, so as to obtain a decoded image; and reconstructing the decoded image into a 360-degree image according to a projection format. Here, generating the prediction image includes: checking, from the syntax information, prediction mode accuracy for a current block to be decoded; determining whether the checked prediction mode accuracy corresponds to most probable mode (MPM) information obtained from the syntax information; and when the checked prediction mode accuracy does not correspond to the MPM information, reconfiguring the MPM information according to the prediction mode accuracy for the current block.

Abstract: Methods and devices are provided to encode and decode a data stream carrying data representative of a three-dimensional scene, the data stream comprising color pictures packed in a color image; depth pictures packed in a depth image; and a set of patch data items comprising de-projection data; data for retrieving a color picture in the color image and geometry data. Two types of geometry data are possible. The first type of data describes how to retrieve a depth picture in the depth image. The second type of data comprises an identifier of a parametric function and a list of parameter values for the identified parametric function.

Abstract: Methods, systems, and apparatus, including computer programs encoded on a computer storage medium, for providing content. One of the methods includes providing a plurality of image content items to an application interface of a client device for presentation; receiving a user selection of a particular image content item of the plurality of presented image content items; and responsive to the selection, providing a combination of native content and third party content associated with the selected image content item, wherein the native content includes a close up view of the selected image content item and the third party content includes a third party webpage.

Abstract: Methods, systems, and apparatuses, including computer programs encoded on computer storage media, for sharing views of large digital files are described. An example method includes generating a plurality of content blocks of a digital file and uploading the plurality of content blocks to one or more servers for storage; determining one or more of the plurality of content blocks representing a view of the digital file to share with one or more viewer computer devices; transmitting storage addresses of the one or more determined content blocks to the one or more viewer computer devices; executing one or more host commands to the one or more determined content blocks on the host computer device for managing the view of the digital file; and transmitting the one or more host commands to the one or more viewer computer devices for execution.

Abstract: A method involves receiving a color video signal having a first frame rate. The color video signal is pre-processed to produce a pre-processed color video stream. The pre-processed color video stream is transformed into a monochromatic sketch stream. The first frame rate of the sketch stream is adapted to a second frame rate in accordance with dynamics of objects in a scene and are encoded to produce an encoded sketch stream. Frame-hints are produced using the pre-processed color video stream and are encoded to produce encoded frame-hints. The encoded sketch stream is multiplexed with the encoded frame-hints and service data to produce multiplexer output data which is transmitted via a communication channel or stored in a data storage system.

Abstract: An image processing method includes determining a display mode; processing, according to an image processing manner corresponding to the display mode, original image data to obtain target image data; and transmitting the target image data to an image display terminal, so that the image display terminal performs image display according to a scanning display manner corresponding to the display mode, a resolution of the target image data is less than or equal to that of the original image data, and the target image data carries indication information of the display mode.

Abstract: Methods, systems and apparatus, including computer programs encoded on computer storage media for receiving a set of images at a social media system, wherein each image includes one or more recognized features associated with one or more lightness values; indexing each image using the one or more recognized features and the associated range of lightness values; receiving a query; determining a first group of images that is responsive to the query; determining that the query triggers a lightness filter to be displayed on the user device; providing the first group of images for display on a user interface with one or more lightness filter indicators; and in response to a user selection of one of the one or more lightness filter indicators: filtering the first group of images to determine a filtered group of images, and updating the images provided for display according to the filtered group of images.

Abstract: A system comprises an encoder configured to compress attribute information for a point cloud and/or a decoder configured to decompress compressed attribute information. Attribute values for at least one starting point are included in a compressed attribute information file and attribute correction values are included in the compressed attribute information file. An order for the points is determined based on a space filling curve, wherein an encoder and a decoder determine a same order for the points based on the space filling curve. Levels of detail are determined by sampling the ordered points according to different sampling parameters, and attribute values are predicted for the points in the levels of detail using the determined order. The encoder determines attribute correction values based on a comparison of the predicted values to an original value prior to compression. The decoder corrects the predicted attribute values based on received attribute correction values.

Abstract: Embodiments of the present disclosure provide an end-cloud collaborative media data processing method and apparatus, a device and a storage medium, where the method includes: calling a target processing flow in response to a first operation triggering a target functionality, where the target processing flow includes a local algorithm node and a remote algorithm node, and the target functionality is used for adding a special effect to media data to be processed; executing, based on the target processing flow, a corresponding local algorithm node and remote algorithm node to obtain first processing data output by the local algorithm node and second processing data output by the remote algorithm node; and generating third processing data through the first processing data and/or the second processing data.

Abstract: A method of providing adaptive augmented reality (AR) streaming and an apparatus performing the method are disclosed. An AR streaming method includes identifying an AR content to be displayed, obtaining a metafile corresponding to the AR content, extracting information of chunks to render the AR content from the metafile, requesting the chunks based on the information, receiving the requested chunks, and rendering the AR content based on the received chunks.

Abstract: The present disclosure provides a route processing method and apparatus. The specific implementation includes: acquiring a vehicle driving route according to a standard definition map, where the vehicle driving route comprises multiple standard definition map road sections of the standard definition map; determining at least one first road section from the multiple standard definition map road sections according to a road section mapping relationship between the standard definition map and a high definition map, where each first road section has a unique corresponding target road section in the high definition map; determining the target road section corresponding to each first road section in the high definition map according to the road section mapping relationship; and determining a target driving route corresponding to the vehicle driving route in the high definition map according to the target road section corresponding to each first road section and the high definition map.