Hewlett-packard Development Company, L.p.

Robert Paul Martin

Roland M Hochmuth

Nathan Barr Nuber

Ian N Robinson

Philip Michael Walker

Joseph Nouri

Kent E Biggs

Johnny Marks

Stuart Yoshida

Kevin Kowalski

Ashton Ondra

Derek Showers

Tom J Searby

Charles J Stancil

Hiroshi Horii

Thomas J Flynn

Jeffrey C Stevens

Kevin Smathers

Owen T Richard

Harold Merkel

Bruce E Blaho

Bryan G Prouty

Andrew D Thomas

John Marks

Andrew L Wiltzius

Mark Lessman

Ron Y Zhang

Gary Lee Thunquest

Eric Bokides

Gregory R Allen

Louis M Gaiot

Alassane Sene

Tsung-Nung Huang

Mary Laser

In an example implementation, a head-mounted display (HMD) device includes a display, a variable lens receptacle to receive an interchangeable lens, a sensor to retrieve lens information from the lens, and a controller to obtain images that are predistorted according to the lens information, wherein the controller is to display the predistorted images on the display.

Head-mounted displays

Structured light is projected onto an object, and an image of the object as illuminated by the projected structured light is captured. Reference object points are identified within the captured image, and the structured light projected onto the object is modified based on the identified reference object points. An additional image of the object as illuminated by the modified projected structured light is captured, and additional reference object points are identified within the captured additional image.

Modification of projected structured light based on identified points within captured image

In some examples, a facial gasket device includes a plurality of physiological sensors to detect physiological signals, and a signal processor to receive output signals based on measurements of the plurality of physiological sensors, the signal processor programmable to selectively combine a collection of the output signals to detect a target physiological activity of the user.

Signal combination of physiological sensor signals

A sleeve for receiving a computing device includes airflow channels. One example sleeve may include a discrete GPU to be connected to the computing device and output signals to a display device.

VR/AR sleeves

A method of deriving data of a user's body pose in an enhanced reality system includes, with at least one camera coupled to a body-mounted housing, capturing at least one image in three-dimensional (3D) space of at least one extremity of a body of a user on which the body-mounted housing is mounted, and with a processor executing a body pose module, deriving data of a user's body pose based on the at least one image captured by the camera.

Enhanced reality systems

An example system includes a camera to capture an image of at least one physical input device, a virtual reality (VR) environment display portion to generate a VR environment, a window forming portion to create a window in the VR environment, the position of the window in the VR environment corresponding to a physical location of an interaction area that includes the at least one physical input device, an input device display portion to form an image of the at least one physical input device from the camera, and a VR headset including a head-mounted display to display a composite image of the VR environment, the window and the image of the at least one physical input device. The composite image includes the image of the at least one physical input device within the window.

Physical input device in virtual reality

An enhanced reality system includes, in an example, a processor, an enhanced reality display to present, via execution of the processor, a view of an enhanced reality environment to a first user, a display device to present to at least a second user, via execution of the processor, a stabilized tracked view of the enhanced reality environment presented to the first user wherein the view of the enhanced environment provided by the display device is provided using a camera.

Stabilized and tracked enhanced reality images

An input system for a 3D display device includes a pen, and a tablet computing device to receive input via interaction with the pen. The tablet computing device including a display dock to dock the 3D display device and a pen dock to dock the pen, wherein docking of the 3D display device in the display dock facilitates a determination of a display position of a visual representation of the tablet computing device on the 3D display device.

Tablet computing device with display dock

An example display device includes an input module to receive a touch input that identifies a shape of an electronic device. The display device also includes a display panel. The display panel is to display first data from a computing device in a first region of the display panel. The display panel is also to, in response to a reception of the touch input, display the first data in a second region of the display panel and display second data from the electronic device in a virtual representation of the electronic device in a third region of the display panel. The third region corresponds to the shape of the electronic device. The second data is received via a connection to the computing device. The second region is smaller than the first region.

Display devices with virtual reprsentations of electronic devices

An example system includes a display; an optical pointer driver to receive an indication of an optical pointer location on the display; and a graphics driver to receive the indication of the optical pointer location and adjust an illumination of graphics in a vicinity of the indicated location.

Optical pointer illumination

Examples disclose providing a decryption, validation and encryption process. Specifically, disclosure includes decrypting a first encrypted application data to then validate its integrity. Disclosure also includes encrypting the decrypted application data using a technique different from that used to provide the first encrypted application data and then storing the encrypted application data.

Decryption and encryption of application data

A method equalizing video signals transmitted across a network is provided. The method can include introducing one or more captured video signals across a network via a plurality of conferencing devices. The conferencing devices can include a video display device adapted to display a received video signal, and a video capture device adapted to provide a captured video signal. One or more modules can be disposed in, on, or about the network, the video display device, the video capture device, or any combination thereof. One or more parameters of the video signals transmitted across the network can be modified via the one or more modules such that the one or more modified display parameters of all or a portion of the video signals transmitted across the network fall within a predetermined parameter range.

Equalization of video streams

A method and system of controlling computer system external effects. At least some of the illustrative embodiments may be a computer system comprising a processor (wherein a computer system user interacting with software executed on the processor triggers a software event), and an external effects controller coupled to the processor (wherein the external effects controller controls at least one device being a purely aesthetic device or a non-aesthetic device operated in a manner for aesthetic reasons). The computer system user selectively associates the at least one device to the software event such that, if associated, upon occurrence of the software event an operational state of the at least one device is changed by the external effects controller.

Method and system of controlling computer system external effects for a computer game, the external effects such as incandescent lights, fluorescent lights, vibration devices, LED/laser diodes, and/or fans

A method comprises storing pixel data in a frame buffer, retrieving the pixel data from the frame buffer and processing at least one pixel value of the pixel data to generate an output pixel bit stream. The method further comprises storing pixel values in a first update buffer. The pixel values are derived from the output pixel bit stream. The method also comprises providing the pixel values from the first update buffer across a network to a remote graphics system.

Providing pixels from an update buffer

The present invention comprises a method for automatically configuring network resources. The method includes receiving a request from a client for at least one of a plurality of network resources in a network and automatically configuring the at least one of the plurality of network resources and the network in response to the request. The method also includes automatically associating in a client cell the at least one of the plurality of network resources with the client, wherein the client can access the at least one of the plurality of network resources that have been associated with the client in the client cell. In a particular embodiment, the client cell may be a virtual local area network.

Growing community of inventors

Fort Collins, CO, United States of America

Robert Paul Martin