Apple Inc.

Tsu-Hui Lin

Eugene Antony Whang

Benjamin Andrew Shaffer

Yun Yu Wang

Jared Mitchell Kole

Derek William Wright

Edward Siahaan

Esge Brandt Andersen

Tong Chen

Onur I Ilkorur

Daniel Ray Bloom

Lee M Panecki

Wenrui Cai

Mark T Winkler

Yuta Kuboyama

Edwin J Corona Aparicio

Xiao Xiang

Axit H Patel

Phillip Qian

Dustin A Hatfield

Sneha Kadetotad

Dong Zheng

Praveesh Chandran

Michael B Minerbi

Rajesh Anantharaman

Tian Shi Li

Fan Gui

Robert D Zupke

Stephen N Sweet

Christopher S Erickson

Xiaoyang Zhang

Ran Tu

Jacob E Mattingley

Audrey L Sheng

Ruonan Yang

Alex C Hellwig

Oliver M Hewitt

Mike B Minerbi

Jason J Leblanc

Sean J Docherty

Miikka O Tikander

In some embodiments, a display stack includes a set of light-emitting elements, and a display backplane that includes a set of conductors and is electrically coupled to the set of light-emitting elements. A conductor in the set of conductors has a length, and a curved edge extending along at least a portion of the length. In some embodiments, a display stack includes a set of light-emitting elements; a set of transistors, electrically coupled to the set of light-emitting elements; and a set of conductors, electrically coupled to the set of transistors. The set of transistors may be electrically coupled to the set of conductors at a set of conductive pads. A plurality of conductive pads in the set of conductive pads is coupled to a single conductor in the set of conductors. The single conductor approaches different conductive pads in the plurality of conductive pads at different angles.

Display stack topologies for under-display optical transceivers

Configurations for display stacks of an electronic device and methods for mitigating crosstalk are disclosed. The display stack may include a transceiver module, which may be located under or behind the display. The transceiver module may include a transmitter module, which may provide polarized light from the transmitter that may suppress module crosstalk. The transceiver module also may include a receiver module, which may include polarization control elements and an analyzer for differentiating between a target signal and a crosstalk signal. The polarization control on both the transmitter module and receiver module sides may suppress the crosstalk signals, which may be due to the reflections between and within the elements of the display stack and resulting from positioning the transceiver module behind the display.

Behind display polarized optical transceiver

This disclosure includes several different features suitable for use in circumaural and supra-aural headphones designs. Designs that enhance user comfort and improve user control of the headphones are discussed. Various sensor configurations and electronic component positions are also discussed. User convenience features that include detachable cushions and automatically detecting the donning and doffing of headphones are also discussed.

Headphones with on-head detection

An optical sensing system includes a transmitter side and a receiver side, and is configured to be positioned below a display of an electronic device. The transmitter side includes a light emitter, a temperature sensor, and a photodiode. The receiver side includes a photodiode and a temperature sensor. The optical sensing system includes an application-specific integrated circuit that leverages the temperature sensors, the photodiodes, and one or more signal filters such as a high-pass filter to perform multiple field calibrations of the optical sensing system, thereby improving accuracy and precision thereof.

Self-calibrating optical transceiver system with reduced crosstalk sensitivity for through-display proximity sensing

This disclosure includes several different features suitable for use in circumaural and supra-aural headphones designs. Designs that include earpad assemblies that improve acoustic isolation are discussed. User convenience features that include automatically detecting the orientation of the headphones on a user's head are also discussed. Various power-saving features, design features, sensor configurations and user comfort features are also discussed.

Headphones with magnetic sensor

An electronic device may include an optical proximity sensor system. The optical proximity sensor system may be a transreflective optical proximity sensor system having a light emitter that emits light into a light-emitting region and a light detector that detects light in a light-detecting region. Control circuitry in the device can use the transreflective optical proximity sensor system to detect objects in an object detection region formed where the light-emitting region and light-detecting region overlap. The electronic device may be a pair of headphones in which housing structures such as housing walls define ear cup cavities. Speakers may be provided in the ear cups of the headphones to provide sound to the ear cup cavities. The transreflective optical proximity sensor system can detect the presence of a user's ear in an ear cup cavity.

Electronic device having transreflective optical sensors

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Cupertino, CA, United States of America

Tsu-Hui Lin