Hewlett-Packard Development Company, L.p.

Qualcomm Incorporated

Micro Focus Lcc

Ian N Robinson

Hiroshi Horii

Kar-Han Tan

Daniel George Gelb

April Slayden Mitchell

Mary G Baker

Mithra Vankipuram

Kevin Smathers

Mark C Solomon

Ramin Samadani

Craig Peter Sayers

Rafael A Ballagas

Robert Paul Martin

Nathan Barr Nuber

Alan Andrew McReynolds

Geoff M Lyon

Kar Han Tan

Mitchell D Trott

Glenn A Wong

Susie J Wee

Cyril Brignone

Nelson L Chang

Alexander Thayer

Ji Won Jun

David A Fattal

Ning Ge

Marco Fiorentino

John George Apostolopoulos

Manjirnath A Chatterjee

Wei Hong

Henry Harlyn Baker

Mehrban Jam

Mark Taylor Smith

Irwin E Sobel

John Ludd Recker

Bowon Lee

Donald Ovila Tanguay, Jr

Geoffrey Martin Lyon

Jishang Wei

W Alex Vorbau

Gary David Sasaki

William Culbertson

Jason James Brown

Ron Y Zhang

Tom Malzbender

Kevin Kowalski

Frederick Lee Kitson

Tyler Close

Ashton Ondra

Derek Showers

Michael Sutherland

Junrui Yang

Alex Thayer

Siddharth Raja

Alexandra Ju

In example implementations, an apparatus is provided. The apparatus includes a display, an eye tracking sensor, and a processor. The eye tracking sensor is to capture eye movements of a user. The processor is in communication with the display and the eye tracking sensor. The processor is to identify a type of eye movement from the eye movements captured by the eye tracking sensor and activate a control that is shown in the display.

Eye movement controls in extended reality

Examples disclosed herein relate to digital mark-up in a three dimensional (3D) environment. An example device for digital mark-up in a 3D environment includes a processor, a display for showing a view of the 3D environment, and a memory including instructions on the processor. When the memory stored instructions are executed on the processor, they cause the processor to generate an anchor point in response to an author input, wherein the anchor point includes a virtual location. When the memory stored instructions are executed on the processor, they cause the processor to generate a mark-up object associated with the anchor point, wherein the mark-up object includes mark-up dimensions, a virtual authoring location, and a selectable association that, in response to being selected, instructs the processor to adjust the view shown in the display to be a view from the virtual authoring location at the time the mark-up object was authored.

Digital mark-up in a three dimensional environment

An example system includes an identification engine to determine production data associated with a three-dimensionally printed object. The system also includes an alignment engine to determine a placement of the three-dimensionally printed object relative to a display device. The system includes a rendering engine to generate an image including a visual representation of the production data. The rendering engine is to position the visual representation of the production data so that representations of data points in the production data will overlay corresponding portions of the three-dimensionally printed object upon displaying by the display device.

Overlaying production data on rendered 3D printed object

A mixed reality presentation system may include a headwear to present virtual images to a person wearing the headwear and a main unit. The main unit may include sensors to sense a surrounding physical environment and position and orientation of the headwear, a virtual image generator and a transmitter. The virtual image generator is to generate the virtual images based on the sensed surrounding physical environment and the sensed headwear position and orientation. The transmitter is to transmit the generated virtual images to the headwear for presentation.

Mixed reality presentation

A method, according to one example, includes receiving, by a system including a processor, a three-dimensional (3D) data array defined in a 3D rectangular coordinate space. The method includes transforming, by the system, the 3D data array into a radial array defined in a spherical coordinate space. The method includes generating, by the system, a 3D immersive visualization of the radial array in which a user appears to be immersed within the radial array. The method includes continually modifying the 3D immersive visualization based on movement of the user.

3D immersive visualization of a radial array

An apparatus comprises, a user interface surface, sensor circuitry, and logic circuitry. The sensor circuitry to detect a palm-based touch event caused by a user's hand relative to the user interface surface to indicate a degree of coarseness for a graphics change, and detect a digit-based touch event caused by a digit of the user's hand relative to the user interface surface. The logic circuitry to, in response to the touch events indicating the palm is in a fixed position and a position of the digit, provide data associated with the graphics change.

Palm-based graphics change

A stylus includes a housing, a tip portion at an end of the housing, and a control module within the housing, with the housing including a shape-changeable portion, and the control module to generate a first signal in response to the shape-changeable portion of the housing having a first effective cross-sectional area and generate a second signal in response to the shape-changeable portion of the housing having a second, different effective cross-sectional area.

Stylus

A system for providing input to a computer, the system including: a stylus with a first end, the first end to provide position information to the computer; and a plurality of divots, wherein when the first end of the stylus is in a divot, the system detects an orientation of the stylus.

Divots for enhanced interaction with styluses

Aspects of the disclosure are directed to methods and apparatuses involving 3D imaging. In accordance with certain aspects, a plurality of images of a 3D object are captured while movement of the 3D object is sensed by a sensor physically coupled thereto. The plurality of images include complementary portions and a feature of the 3D object. Pose data is generated for one of the plurality of images, based on data corresponding to the sensed movement and on the feature. The complementary portions are combined to generate a visual 3D image of the 3D object, based on the pose data.

3D imaging

In example implementations, a virtual reality (VR) system is provided. The VR system includes a head mounted display (HMD), a hand wearable interface, a wireless communication interface, and a processor. The HMD is to display a computer generated artificial world. The wireless communication interface is to establish a wireless communication path. The processor is communicatively coupled to the HMD, the hand wearable interface, and the wireless communication interface. The processor is to receive an indication that a touch screen device is located from a locator device in the HMD or the hand wearable device, to establish a wireless connection to the touch screen device via the wireless communication interface, and to receive an input via the touch screen device.

Inputs to virtual reality devices from touch surface devices

An example image processing system augments live images of a scene to reduce or eliminate occlusion of an object of interest. The image processing system can detect an occlusion of an object in a live image of the scene. The image processing system can further access a data store that stores a three-dimensional representation of the scene with the object being present. The image processing system augments the live image to depict the object without at least a portion of the occlusion, using data provided with the three-dimensional representation of the scene.

Augmenting live images of a scene for occlusion

A digital pen may include an orientation sensors and a three-dimensional (3D) coordinate plane selection module wherein, via input from the orientation sensors describing a position and orientation of the digital pen with respect to a two-dimensional (2D) display, the 3D coordinate plane selection module selects at least one coordinate plane in which an element of a 3D image is to be adjusted.

Digital pen to adjust a 3D object

An example virtual reality headset stand includes a base, a stem, and a docking station. The stem, which extends from the base, is angled toward the base. The docking station, which is attached to the stem, is angled away from the stem. The docking station is contoured to hold a virtual reality headset. The docking station includes a lip connected to the stem, a body portion connected to the lip, and a clip connected to the body portion.

Virtual reality headset stands

An input device for providing input to a computing device includes a hand-held controller movable across and above a work surface. The input device includes a mouse sensor positioned on or in the hand-held controller to sense two-dimensional (2D) translation data representing translational movement of the hand-held controller across the work surface, and a six degree of freedom (6DOF) sensor positioned on or in the hand-held controller to sense 6DOF data representing position and orientation of the hand-held controller above the work surface.

Sensing movement of a hand-held controller

An enhanced reality system, in an example, includes an input device, the input device including a first arm and a second arm configured to be held together by a user; a sensor to sense, at least, a relative position of at least a portion of the first and second arms; wherein sensing, at least, the relative position of the first and second arms comprises a haptic retargeting process that simulates a touching of ends of the first and second arms to the outer surface of a virtual object presented in the enhanced reality environment.

Enhanced reality system with haptic retargeting

Growing community of inventors

Pebble Beach, CA, United States of America

Ian N Robinson