Apple Inc.

Other

Fletcher R Rothkopf

Stephen Brian Lynch

Colin M Ely

Scott A Myers

Julian Hoenig

Jonathan P Ive

Richard P Howarth

Christopher J Stringer

Rico L Zorkendorfer

Paul Stephen Drzaic

Duncan Robert Kerr

Daniele De Iuliis

Jody R Akana

Bartley K Andre

Eugene Antony Whang

Peter N Russell-Clarke

Martha Evans Hankey

Daniel J Coster

Matthew Dean Rohrbach

Jeremy D Bataillou

Stephen Paul Zadesky

Eric Steven Jol

Mikael M Silvanto

Shota Aoyagi

Benjamin Andrew Shaffer

Anthony Michael Ashcroft

Marc A Newson

Adam Duckworth Mittleman

Emery Artemus Sanford

Richard Hung Minh Dinh

Michael Benjamin Wittenberg

Jeffrey J Terlizzi

John Benjamin Filson

Cheng Kai Chen

Shin Nishibori

John Z Zhong

Shih Chang Chang

Robert W Schlub

Alan C Dye

Stephen Olivier Lemay

Julian Jaede

Christopher D Prest

Steve P Jobs

Mattia Pascolini

Steven Porter Hotelling

Anna-Katrina Shedletsky

John Patrick Ternus

Jeremy C Franklin

Erik G De Jong

Benjamin M Rappoport

Christopher Matthew Werner

Teodor Dabov

Phillip Michael Hobson

Samuel Bruce Weiss

Trevor J Ness

Jason C Sauers

Derek William Wright

Mathias W Schmidt

David I Nazzaro

Wendell B Sander

Albert John Golko

Jonathan Sarjeant Aase

Ian A Spraggs

Matthew D Hill

Jahan C Minoo

Ethan Larry Huwe

Avi Bar-Zeev

Kevin David Gibbs

Tyler S Bushnell

Camille Moussette

Yi Jiang

John B Morrell

Douglas Joseph Weber

Paolo Sacchetto

Anthony Sagala Montevirgen

Sunggu Kang

Rico Zörkendörfer

William A Sorrentino, Iii

Dale N Memering

Chun-Yao Huang

Qingxiang Li

Maegan K Spencer

Daniel William Jarvis

Keith J Hendren

Sean S Corbin

Michael Nathaniel Rosenblatt

Martin Paul Grunthaner

Benjamin B Lyon

Paul Xiaopeng Wang

Dinesh C Mathew

David A Pakula

Nicholas V King

Ruben Caballero

John Raff

Bradley Joseph Hamel

Alex Joseph Lehmann

Naoto Matsuyuki

Seung Wook Kim

Aidan N Zimmerman

Jayesh Nath

An electronic device may include a display system and control circuitry. The user's environment may be presented on the display system. The environment on the display system may be a captured image of the environment, may be the actual real world viewed through an optical combiner, or may be a completely virtual image representing the environment. The control circuitry may gather information about external electronic devices in the user's environment, including determining a type and location of each external electronic device and a status of wireless communications links between external electronic devices. The display system may overlay computer-generated display elements onto the user's environment to indicate the status of wireless communications links between the external electronic devices. In response to touch or gesture input, the control circuitry may send control signals to the external electronic devices to establish or break wireless communications links between external electronic devices.

Electronic device with intuitive control interface

A device including a mechanical input and a touch-sensitive surface for detecting one or more touch inputs and an input from the mechanical input. The touch-sensitive surface can include a first portion for detecting at least the touch inputs, and a second portion for detecting at least the mechanical input. The touch-sensitive surface can include a first portion for detecting at least the touch inputs and the mechanical input. The mechanical input can comprise an electrically conductive material, and the mechanical input can be detected based on capacitance measurements between the mechanical input and the touch-sensitive surface. The device can include a sensing element, the mechanical input can comprise an electrically insulating material, and the mechanical input can be detected based on capacitance measurements between the touch-sensitive surface and the sensing element. The device can include logic to differentiate between the touch inputs and the mechanical input.

Capacitive touch panel for sensing mechanical inputs to a device

Display for electronic device

Embodiments are directed to aspects of the extended reality environments that are selected or otherwise modified to account for distracting stimuli. Similarly, one or more metrics that reflect, or are otherwise indicative of, a user's ability to focus on a current or upcoming activity may be used to adjust a user's interaction with the extended reality environment. The extended reality environment can generated by an extended reality system that includes a head-mounted display, a set of sensors and a processor configured to enter a focus mode that reduces distraction in an extended reality environment. While in the focus mode, the process or can receive imaging data of a physical environment around a user using the set of sensors and generate the extended reality environment that includes a reproduction of the first region of the physical environment where an identified object is replaced with the additional content.

Operating modes for reducing distraction in extended reality environments

A wearable accessory device is disclosed. The wearable accessory device includes a flexible display coupled to a bi-stable spring. Coupling the display to the bi-stable spring allows the accessory device to be easily worn in a number of convenient locations.

Bi-stable spring with flexible display

Systems, methods, and devices are provided in which photodetectors disposed throughout a display are used to control the display brightness. The photodetectors are to be used for ambient light sensing, proximity sensing, or to compensate for aging OLEDs. In some embodiments, photodiodes are fabricated with OLEDs during the TFT fabrication process. In some embodiments, the photodetectors may be disposed throughout the display in zones containing OLEDs. The photodetectors are used to control the display brightness and color for the OLEDs in areas around each photodetector based on ambient light, aging, and/or nearby objects. A controller makes driving strength adjustments to the OLEDs in each zone independent of other zones. Photodetectors disposed throughout the display may improve proximity sensing and provide additional functionality to the device.

Organic light emitting diode display having photodiodes

A head-mountable display device includes a housing defining a front opening and a rear opening, a display screen disposed in the front opening, a display assembly disposed in the rear opening, a first securement strap coupled to the housing, the first securement strap including a first electronic component, a second securement strap coupled to the housing, the second securement strap including a second electronic component, and a securement band extending between and coupled to the first securement strap and the second securement strap.

Head mountable display

A display system includes a head-mounted display unit and a wake control system. The head-mounted display unit provides content to a user and is operable in a low-power state and a high-power state that consumes more power to provide the content to the user than the low-power state. The wake control system determines when to operate in the high-power state. The wake control system may assess a first wake criterion with low power, assess a second wake criterion with higher power than the first wake criterion upon satisfaction of the first wake criterion, and cause the head-mounted display unit to operate in the high-power state upon satisfaction of the second wake criterion.

Display system

An electronic device such as a head-mounted device may have displays. The display may have regions of lower and higher resolution to reduce data bandwidth and power consumption for the display while preserving satisfactory image quality. Data lines may be shared by lower and higher resolution portions of a display or different portions of a display with different resolutions may be supplied with different numbers of data lines. Data line length may be varied in transition regions between lower resolution and higher resolution portions of a display to reduce visible discontinuities between the lower and higher resolution portions. The lower and higher resolution portions of the display may be dynamically adjusted using dynamically adjustable gate driver circuitry and dynamically adjustable data line driver circuitry.

Foveated display

A head-mounted display configured to be worn by a user includes a housing and a headband configured to secure the housing to a head of the user. The headband includes a proximal end coupled to the housing and a distal end that is free from connection to the housing. The head-mounted display includes an adjustment mechanism configured to change a fit of the headband relative to the head of the user.

Head-mounted display with adjustment mechanism

A display system includes a controller and a head-mounted display. The head-mounted display includes a display, a head support coupled to the display for supporting the display on a head of a user to be viewed by the user, and sensors coupled to the head support for sensing an environment from the head-mounted display unit in low light. The sensors include one or more of an infrared sensor for sensing the environment with infrared electromagnetic radiation, or a depth sensor for sensing distances to objects of the environment, and also include an ultrasonic sensor for sensing the environment with ultrasonic sound waves. The controller determines graphical content according to the sensing of the environment with the one or more of the infrared sensor or the depth sensor and with the ultrasonic sensor, and operates the display to provide the graphical content concurrent with the sensing of the environment.

Head-mounted display with low light operation

Electronic devices may be provided having internal components mounted to a structural glass support member. The structural glass support member may have a planar front surface that forms a front surface of the device. The structural glass support member may have bent portions that form sidewall surfaces of the device. Portions of the structural glass support member may form a transparent display cover layer. A rigid or flexible display may be mounted to the structural glass support member. Additional internal device components may be mounted to the display. A thin enclosure for enclosing the internal components in the device may be mounted to the structural glass support member. The thin enclosure may be mounted to the structural glass support member using a peripheral member. The thin enclosure may be free from attachments to internal components or may be adhesively bonded to one or more internal components.

Electronic devices with structural glass members

A connectible component is connected to a housing. A sensor of the housing is utilized to detect an identity element of the at connectible component. The connectible component is identified utilizing the at least one sensor. In some implementations, identification of the connectible component may identify whether or not a connectible component is connected to the housing. In other implementations, identification of the connectible component may identify the type of connectible component that is connected. In such implementations, the housing may house an electronic device and the electronic device may be configured based on the type of connectible component that is connected.

Connectible component identification

Fiducial patterns that produce 2D Barker code-like diffraction patterns at a camera sensor are etched or otherwise provided on a cover glass in front of a camera. 2D Barker code kernels, when cross-correlated with the diffraction patterns captured in images by the camera, provide sharp cross-correlation peaks. Misalignment of the cover glass with respect to the camera can be derived by detecting shifts in the location of the detected peaks with respect to calibrated locations. Devices that include multiple cameras behind a cover glass with one or more fiducials on the cover glass in front of each camera are also described. The diffraction patterns caused by the fiducials at the various cameras may be analyzed to detect movement or distortion of the cover glass in multiple degrees of freedom.

Object localization system

Growing community of inventors

Los Altos, CA, United States of America

Fletcher R Rothkopf