Abstract: Embodiments are disclosed for transitioning views presented via a head-mounted display device. One example method for operating a head-mounted display device includes displaying a virtual model at a first position in a coordinate frame of the head-mounted display device, receiving sensor data from one or more sensors of the head-mounted display device, and determining a line of sight of the user that intersects the virtual model to identify a location the user is viewing. The example method further includes, responsive to a trigger, moving the virtual model to a second position in the coordinate frame of the head-mounted display device corresponding to the location the user is viewing and simultaneously scaling the virtual model.

Abstract: A field of view of a virtual environment is visually presented via a near-eye display from a first perspective. A begin-adjustment command is received. A peripheral region of the field of view that surrounds a wearer's gaze target is dimmed, via the near-eye display, based on the begin-adjustment command. A navigation command is received. The field of view of the virtual environment is adjusted from the first perspective to a second perspective based on the navigation command. An end-adjustment command is received. The peripheral region of the field of view is brightened, via the near-eye display, based on the end-adjustment command. The field of view of the virtual environment is visually presented, via the near-eye display, from the second perspective.

Abstract: Various embodiments relating to editing holograms by extending real world interfaces are disclosed. One embodiment includes a computing device configured to communicatively couple to a head mounted display device having an at least partially see-through display. The computing device includes a non-see-through display, a user input device, and a processor configured to determine whether a user focus is on an image or a hologram, if a determination is made that the user focus is on the image, map the user input to a first coordinate space of the non-see-through display, and if a determination is made that the user focus is the on the hologram, map the user input to a second coordinate space of the head mounted display device.

Abstract: A method to display a virtual object includes receiving virtual-object data representing a virtual object, a first rendering of the virtual object being displayed on a display screen during a first interval. The method also includes receiving display-screen data indicating a physical size, position, and orientation of the display screen, and receiving display-device data indicating a position and orientation of a near-eye display device. The method includes composing a second, 3D rendering of the virtual object based on the virtual-object data and on the relative position and orientation of the display screen versus the near-eye display device, as indicated by the display-screen and display-device data, and, displaying the second rendering binocularly on the near-eye display device during a subsequent second interval, such that the second rendering coincides with the first rendering in an augmented field of view of the user.

Abstract: A method to display a virtual object includes receiving virtual-object data representing a virtual object, a first rendering of the virtual object being displayed on a display screen during a first interval. The method also includes receiving display-screen data indicating a physical size, position, and orientation of the display screen, and receiving display-device data indicating a position and orientation of a near-eye display device. The method includes composing a second, 3D rendering of the virtual object based on the virtual-object data and on the relative position and orientation of the display screen versus the near-eye display device, as indicated by the display-screen and display-device data, and, displaying the second rendering binocularly on the near-eye display device during a subsequent second interval, such that the second rendering coincides with the first rendering in an augmented field of view of the user.

Abstract: A method for moving a virtual cursor on a virtual reality computing device including a display comprises presenting a virtual cursor at a first screen-space position that occludes a world-space position of a first object, the virtual cursor having a first world-space position based on the first screen-space position and the world-space position of the first object. Based on receiving an input, the method includes moving the virtual cursor from the first screen-space position to a second screen-space position that occludes a world-space position of a second object, the virtual cursor having a second world-space position based on the second screen-space position and the world-space position of the second object. While the virtual cursor is presented at an intermediate screen-space position, the method includes assigning an intermediate world-space position based on the intermediate screen-space position and simulated attractive forces for each of the first and second objects.

Abstract: Various embodiments relating to editing holograms by extending real world interfaces are disclosed. One embodiment includes a computing device configured to communicatively couple to a head mounted display device having an at least partially see-through display. The computing device includes a non-see-through display, a user input device, and a processor configured to determine whether a user focus is on an image or a hologram, if a determination is made that the user focus is on the image, map the user input to a first coordinate space of the non-see-through display, and if a determination is made that the user focus is the on the hologram, map the user input to a second coordinate space of the head mounted display device.

Abstract: A field of view of a virtual environment is visually presented via a near-eye display from a first perspective. A begin-adjustment command is received. A peripheral region of the field of view that surrounds a wearer's gaze target is dimmed, via the near-eye display, based on the begin-adjustment command. A navigation command is received. The field of view of the virtual environment is adjusted from the first perspective to a second perspective based on the navigation command. An end-adjustment command is received. The peripheral region of the field of view is brightened, via the near-eye display, based on the end-adjustment command. The field of view of the virtual environment is visually presented, via the near-eye display, from the second perspective.

Abstract: Various embodiments relating to editing holograms by extending real world interfaces are disclosed. One embodiment includes a computing device configured to communicatively couple to a head mounted display device having an at least partially see-through display. The computing device includes a non-see-through display, a user input device, and a processor configured to determine whether a user focus is on an image or a hologram, if a determination is made that the user focus is on the image, map the user input to a first coordinate space of the non-see-through display, and if a determination is made that the user focus is the on the hologram, map the user input to a second coordinate space of the head mounted display device.

Abstract: Embodiments are disclosed for transitioning views presented via a head-mounted display device. One example method for operating a head-mounted display device includes displaying a virtual model at a first position in a coordinate frame of the head-mounted display device, receiving sensor data from one or more sensors of the head-mounted display device, and determining a line of sight of the user that intersects the virtual model to identify a location the user is viewing. The example method further includes, responsive to a trigger, moving the virtual model to a second position in the coordinate frame of the head-mounted display device corresponding to the location the user is viewing and simultaneously scaling the virtual model.

Abstract: A method is disclosed that includes accessing a building information modeling database comprising building information data of a structure. A position of a head-mounted display device with respect to the structure may be tracked, with the head-mounted display device comprising an at least partially see-through display. In response to a portal user input, a world-locked holographic portal may be displayed via the device on a surface of the structure, where the portal comprises a world-locked holographic representation of a portion of the structure otherwise hidden from view by the surface. In response to an operation user input, a virtual operation is performed on the structure, and the building information modeling database is updated based on the virtual operation.

Abstract: Various embodiments relating to editing holograms by extending real world interfaces are disclosed. One embodiment includes a computing device configured to communicatively couple to a head mounted display device having an at least partially see-through display. The computing device includes a non-see-through display, a user input device, and a processor configured to determine whether a user focus is on an image or a hologram, if a determination is made that the user focus is on the image, map the user input to a first coordinate space of the non-see-through display, and if a determination is made that the user focus is the on the hologram, map the user input to a second coordinate space of the head mounted display device.