Apple Inc.

J.s.t. Corporation

Makiko K Brzezinski

Eric Steven Jol

Christopher S Graham

Trevor J Ness

Michael Benjamin Wittenberg

David I Nazzaro

Jonathan P Ive

Duncan Robert Kerr

Bartley K Andre

Richard P Howarth

Eugene Antony Whang

Peter N Russell-Clarke

Christopher J Stringer

Daniele De Iuliis

Daniel J Coster

Jody R Akana

Matthew Dean Rohrbach

Jeremy D Bataillou

Julian Hoenig

Shota Aoyagi

Benjamin Andrew Shaffer

Anthony Michael Ashcroft

Mikael M Silvanto

Marc A Newson

Fletcher R Rothkopf

Stephen Paul Zadesky

Phillip Michael Hobson

Jason C Sauers

Brad G Boozer

Daniel C Wagman

Rico L Zorkendorfer

Martha Evans Hankey

Erik G De Jong

Tyler S Bushnell

Jayesh Nath

Paul J Thompson

Rex Tyler Ehman

Stephen E Yao

Colin M Ely

Anna-Katrina Shedletsky

Albert John Golko

Christopher Matthew Werner

Samuel Bruce Weiss

Benjamin J Kallman

David M Pelletier

Christopher J Walton

Adam Thomas Clavelle

Peter J Kardassakis

Stefan A Kowalski

Morgan T McClure

Mattia Pascolini

Yi Jiang

Siwen Yong

Carlo Di Nallo

Lijun Zhang

Mario Martinis

Xu Han

Eduardo Jorge Da Costa Bras Lima

James G Horiuchi

Jeffrey M Alves

Zheyu Wang

Todd K Moyer

Yehonatan Perez

Micah Lewis-Kraus

M Evans Hankey

Rico Zörkendörfer

Naoto Matsuyuki

Edward Siahaan

Sameer Pandya

Ryan C Perkins

Saining Ren

Christian M Sauer

Karl Ruben F Larsson

Albert Lin

Rohan Dayal

Jim C Hwang

Nagarajan Kalyanasundaram

Wesley William Zuber

Miranda L Daly

Siddharth Nangia

Charles Paul Depp

Riley E Brandt

Wegene H Tadele

Priyank D Patel

Miguel Alejandro Lara-Pena

John Jeffrey Puckett

Brennan K Vanden Hoek

Karl Ruben K Larsson

John S Mosy

A magnetic alignment assembly can be incorporated into an electronic device to facilitate alignment with another device. The magnetic alignment assembly can include a main magnet (e.g., a square or rectangular magnet) having a magnetic dipole in an axial direction and a ring magnet coaxial with the main magnet. The ring magnet can be smaller than the main magnet. The ring magnet can be positioned between the main magnet and an interface surface.

Magnetic alignment assembly for inductive charging systems

Housing for an electronic device

A blood pressure measurement device may include one or more piezoelectric sensors (e.g., differential piezoelectric sensors) for detecting blood flow through a limb of a user as part of determining blood pressure measurements. The piezoelectric sensor(s) may additionally or alternatively be used to determine one or more biological parameters of users (e.g., a ballistocardiogram, a heart rate, a heart rate variability, and a pulse wave velocity). The blood pressure measurement device may additionally or alternatively include a capacitive sensor for determining a pressure applied to the limb of the user by the blood pressure measurement device and/or operational states of the blood pressure measurement devices (off-arm, on-arm, inflating, deflating, tightness, and the like).

Blood pressure measurement using device with piezoelectric sensor

A case a portable listening device. The case includes a housing having an interior space to receive the portable listening device; a lid attached to the housing; a rechargeable battery and first and second wireless power receiving elements configured to receive electric charge from a wireless power transmitter during a charging event. The case further includes switching circuitry that is configured to disable one of the first or second wireless power receiving elements during a charging event when the disabled element is receiving power less efficiently than the other element.

Charging case for wireless earphones

This application relates to a wireless charger with increased efficiency during operation. The wireless charging assembly includes a wireless charger and an electronic device. A transmitter coil in the wireless charger can induct magnetic flux to a receiver coil in the electronic device via a magnetic flux pathway.

Wireless magnetic charger with solenoids

An electronic device such as a wristwatch may have a housing with metal portions such as metal sidewalls. The housing may form an antenna ground for an antenna. An antenna resonating element for the antenna may be formed from a stack of capacitively coupled component layers such as a display layer, touch sensor layer, and near-field communications antenna layer at a front face of the device. An additional antenna may be formed from a peripheral resonating element that runs along a peripheral edge of the device and the antenna ground. A rear face antenna may be formed using a wireless power receiving coil as a radio-frequency antenna resonating element or may be formed from metal antenna traces on a plastic support for light-based components.

Electronic device antennas

Inductively chargeable earbud case

Embodiments disclosed herein describe a wireless power receiving system for an electronic device includes: a first inductor coil configured to receive power primarily at a first frequency and from magnetic fields propagating in a first direction; and a second inductor coil configured to receive power primarily at a second frequency and from magnetic fields propagating in a second direction, wherein the first frequency is different than the second frequency.

Architecture of portable electronic devices with wireless charging receiver systems

An inductor coil includes a wire which is wound in alternating layers such that the surface area of the wire in each winding viewed from above or below the coil is substantially equal in each half of the coil defined by a line bisecting the center point in each layer. The layers are also wound in a serpentine fashion to balance the capacitance between layers. The substantially equal surface area of wire in each half of a coil layer and in adjacent coil layers results in a balanced capacitance of the coil which, in turn, results in reduced common mode noise.

Capacitively balanced inductive charging coil

Antenna integration for portable electronic devices having wireless charging receiver systems

In some embodiments, an electronic device includes an electronic component that is at least partially encapsulated by an adhesive doped with soft magnetic material that functions as an EMI shield for the electronic component. In various embodiments, an electronic device includes a first magnetic component separated from a second magnetic component by a gap within which is positioned an adhesive doped with soft magnetic material. The doped adhesive is positioned in a magnetic path between the first and second magnetic components and aids in magnetically coupling the first and second magnetic components and/or guides magnetic flux between the first and second magnetic components.

Magnetically doped adhesive for enhancing magnetic coupling

Electronic devices are disclosed that include a housing and a display coupled to the housing by an adhesive. The display includes an antenna component. The device includes a casing coupled to the display, a circuit board positioned within the housing, a wireless communication component coupled to the circuit board. The device includes a receptacle connector coupled to the housing and an electrical contact electrically coupled to the wireless communication component. The device further includes a plug connector that electrically connects the antenna component to the wireless communication component. The plug connector includes a first portion electrically coupled to the antenna component, positioned within the casing and translatable within the casing along a first axis orthogonal to a longitudinal axis of the first portion. The plug connector includes a second portion electrically coupled to the first portion, extending into the receptacle connector and contacting the electrical contact of the receptacle connector.

Reduced net force electrical connectors

Growing community of inventors

Santa Clara, CA, United States of America

Makiko K Brzezinski