Abstract: One or more disclosed techniques comprise generating an extended reality (XR) template at a first location, where the XR template represents a virtual space in an XR environment that is associated with a real-world object at a second location, and generating a template object that represents the real-world object, wherein the template object is included in the XR template. The techniques further comprise modifying the template object to include a marker that corresponds to a real-world marker associated with the real-world object, generating a first template XR object that corresponds a first XR object to be displayed in the XR environment, where the first template XR object is positioned within the XR template relative to the marker included on the template object, and assigning the XR template to the real-world marker.

Abstract: Various implementations of the present application set forth a method comprising receiving, by a remote device from a host device, geometry data representing a physical space that is remote to a location of the remote device, where the geometry data comprises a set of vertices, a set of faces comprising edges between pairs of vertices, and texture data, constructing, based on the geometry data, an adaptable three-dimensional (3D) representation of the physical space for display at the location of the remote device, receiving, by the remote device, an input representing an interaction with at least one portion of the adaptable 3D representation, and transmitting, to the host device, data corresponding to the interaction.

Abstract: A mobile device executes an augmented reality (AR) software application that detects an orientation of a client device. The AR software application projects a line from a reference position on the client device to a physical object. The AR software application identifies a first location on the physical object that intersects with the line. The AR software application determines an x-coordinate and a y-coordinate of a portion of the physical object included in an image displayed on the client device based on the first location. The AR software application receives a z-coordinate of the portion of the physical object. In response to receiving user input via the client device, the AR software application anchors an augmented reality object at a second location that corresponds to the x-coordinate, the y-coordinate, and the z-coordinate. The orientation of the augmented reality object corresponds to the orientation of the client device.

Abstract: Various implementations or examples set forth a method for scanning a three-dimensional (3D) environment. The method includes generating, based on sensor data captured by a depth sensor on a device, a 3D mesh representing a physical space; dividing the 3D mesh into a plurality of sub-meshes, wherein each of the plurality of sub-meshes comprises a corresponding set of vertices and a corresponding set of faces comprising edges between pairs of vertices; determining that at least a portion of a first sub-mesh in the plurality of sub-meshes is in a current frame captured by an image sensor on the device; and updating the 3D mesh by texturing the at least a portion of the first sub-mesh with one or more pixels in the current frame onto which the first sub-mesh is projected.

Abstract: Various implementations of the present application set forth a method comprising generating a host extended reality (XR) environment representing a physical space that includes a real-world asset, generating, based on sensor data captured by a depth sensor on a mobile device, three-dimensional data representing the physical space, generating, based on sensor data captured by an image sensor on the mobile device, two-dimensional data representing the physical space, generating, based on the three-dimensional data and the two-dimensional data, an adaptable three-dimensional (3D) representation of the physical space, transforming the adaptable 3D representation into geometry data comprising a set of vertices, a set of faces comprising edges between pairs of vertices, and texture data, transmitting the geometry data to a set of one or more remote devices for at least a partial reconstruction of the adaptable 3D representation of the physical space in a set of one or more remote environments.

Abstract: Various implementations or examples set forth a method for scanning a three-dimensional (3D) environment. The method includes generating, based on sensor data captured by a depth sensor on a device, one or more 3D meshes representing a physical space, wherein each of the 3D meshes comprises a corresponding set of vertices and a corresponding set of faces comprising edges between pairs of vertices; determining that a mesh is visible in a current frame captured by an image sensor on the device; determining, based on the corresponding set of vertices and the corresponding set of faces for the mesh, a portion of the mesh that lies within a view frustum associated with the current frame; and updating the one or more 3D meshes by texturing the portion of the mesh with one or more pixels in the current frame onto which the portion is projected.

Abstract: A client device that includes a camera and an extended reality client application program is employed by a user in a physical space, such as an industrial or campus environment. The user aims the camera within the mobile device at a real-world asset, such as a computer system, classroom, or vehicle. The client device acquires a digital image via the camera and detects textual and/or pictorial content included in the acquired image that corresponds to one or more anchors. The client device queries a data intake and query system for asset content associated with the detected anchors. Upon receiving the asset content from the data intake and query system, the client device generates visualizations of the asset content and presents the visualizations via a display device.

Abstract: Various implementations or examples set forth a method for scanning a three-dimensional (3D) environment. The method includes generating a 3D representation of the 3D environment that includes one or more 3D meshes. The method also includes determining at least a portion of the 3D environment that falls within a current frame captured by the image sensor. The method further includes generating one or more additional 3D meshes representing the at least a portion of the 3D environment and combining the one or more additional 3D meshes with the one or more 3D meshes into an update to the 3D representation of the 3D environment.

Abstract: A mobile device is fitted with a camera and an extended reality (XR) software application program executing on a processor within an XR system. Via the XR software application program, techniques are performed for manipulating virtual objects in an XR environment. In one technique, the XR software application program facilitates the movement of a virtual object from a first location to a second location, within a plane parallel to a touchscreen of a mobile device, responsive to a displacement determined based on user input detected via the touchscreen.

Abstract: Various implementations of the present application set forth a method comprising generating three-dimensional data and two-dimensional data representing a physical space that includes a real-world asset, generating an extended-reality (XR) stream representing a remote collaboration session between a host device and a set of remote devices, where the XR stream includes a combination of the three-dimensional data and the two-dimensional data, a set of augmented-reality (AR) elements associated with the real-world asset, and a set of performed actions associated with a portion of the digital representation or at least one AR element, serializing the XR stream into a set of serialized chunks, transmitting the serialized chunks to the remote devices, where the remote devices recreate the XR stream in a set of remote XR environments, and transmitting the serialized chunks to a remote storage device, where a device subsequently retrieves the serialized chunks to replay the remote collaboration session.

Abstract: Various implementations or examples set forth a method for scanning a three-dimensional (3D) environment. The method includes generating, based on sensor data captured by a depth sensor on a device, one or more 3D meshes representing a physical space, wherein each of the 3D meshes comprises a corresponding set of vertices and a corresponding set of faces comprising edges between pairs of vertices; determining that a mesh is visible in a current frame captured by an image sensor on the device; determining, based on the corresponding set of vertices and the corresponding set of faces for the mesh, a portion of the mesh that lies within a view frustum associated with the current frame; and updating the one or more 3D meshes by texturing the portion of the mesh with one or more pixels in the current frame onto which the portion is projected.

Abstract: A client device that includes a camera and an extended reality client application program is employed by a user in a physical space, such as an industrial or campus environment. The user aims the camera within the mobile device at a real-world asset, such as a computer system, classroom, or vehicle. The client device acquires a digital image via the camera and detects textual and/or pictorial content included in the acquired image that corresponds to one or more anchors. The client device queries a data intake and query system for asset content associated with the detected anchors. Upon receiving the asset content from the data intake and query system, the client device generates visualizations of the asset content and presents the visualizations via a display device.

Abstract: Various embodiments of the present application set forth a computer-implemented method that includes detecting a tag that is associated with a real-world object, determining an object identifier (ID) associated with the tag, transmitting a request for data associated with the real-world object, wherein the request includes the object ID, receiving a set of values associated with the object ID from a data source, where the set of values is provided by the data source based on the object ID and on a query executed on raw machine data associated with the real-world object, and displaying, by a client device within the XR environment, a visualization associated with the set of values.

Abstract: A mobile device is fitted with a receiver, a location sensor, and optionally a camera. The mobile device may be further fitted with a data visualization software application program, which may include extended reality (XR) functionality, executing on a processor within a system. Via the data visualization software application program, various techniques are performed for displaying data visualizations based on any number of geofences and beacon devices in proximity to the mobile device.

Abstract: Various embodiments of the present application set forth a computer-implemented method that includes determining a first set of criteria associated with at least a first user or a first client device, transmitting, by the first client device, a first request for data to a data source, wherein the first request includes the first set of criteria, receiving a first dashboard that includes a first set of visualizations, wherein each visualization in the first set of visualizations is generated by filtering a set of field values based on the first set of criteria, and wherein the set of field values is determined by the data source based on executing a query on raw machine data, and displaying, by the first client device, at least a portion of the first dashboard.

Abstract: A mobile device is fitted with a camera and an extended reality (XR) software application program executing on a processor within an XR system. Via the XR software application program, various techniques are performed for manipulating virtual objects in an XR environment. In a first technique, the XR software application program facilitates the movement of a virtual object from a first location to a second location. In a second technique, the XR software application program facilitates the rotation of a virtual object. In a third technique, the XR software application program facilitates the scaling of a virtual object along one or more axes.

Abstract: A mobile device is fitted with a camera and an extended reality (XR) software application program executing on a processor within an XR system. Via the XR software application program, various techniques are performed for manipulating virtual objects in an XR environment. In a first technique, the XR software application program facilitates the movement of a virtual object from a first location to a second location. In a second technique, the XR software application program facilitates the rotation of a virtual object. In a third technique, the XR software application program facilitates the scaling of a virtual object along one or more axes.

Abstract: One or more disclosed techniques comprise generating an extended reality (XR) template at a first location, where the XR template represents a virtual space in an XR environment that is associated with a real-world object at a second location, and generating a template object that represents the real-world object, wherein the template object is included in the XR template. The techniques further comprise modifying the template object to include a marker that corresponds to a real-world marker associated with the real-world object, generating a first template XR object that corresponds a first XR object to be displayed in the XR environment, where the first template XR object is positioned within the XR template relative to the marker included on the template object, and assigning the XR template to the real-world marker.

Abstract: An extended reality (XR) system includes an extended reality application executing on a processor within the XR system. The XR system receives, via a client device, a selection of a first extended reality (XR) object located within an XR environment. The XR system receives, via the client device, a request to move the selected first XR object within the XR environment. The XR system calculates a distance between a first feature of the first XR object and a first plane associated with a second XR object within the XR environment. The XR system determines that the distance is within a particular distance. In response to determining that the distance is within the particular distance, the XR system positions the first feature within the XR environment such that the first feature is coplanar with the first plane.

Abstract: A mobile device is fitted with an extended reality (XR) software application program executing on a processor within an XR system, and optionally a camera. Via the XR software application program, various techniques are performed for interacting with a physical object via the XR environment. In particular, the XR software application program generates and displays visual representations of real-time metric data received from a data intake and query system along with auxiliary data received from an asset management system. In addition, the XR software application program detects user interactions with the XR environment. In response, the XR software application generates messages directed to the asset management system. The messages include commands to update the auxiliary data associated with the physical object.