Apple Inc.

Flir Systems, Incorporated

David M Pelletier

Tyler S Bushnell

Brad G Boozer

Benjamin J Kallman

Colin M Ely

Samuel Bruce Weiss

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

Eric Steven Jol

Michael Benjamin Wittenberg

Anna-Katrina Shedletsky

Phillip Michael Hobson

Christopher Matthew Werner

David I Nazzaro

Trevor J Ness

Jason C Sauers

Makiko K Brzezinski

Michael J Fox

Giovanni Lepore

Mao Zhenmei

Samuel M Ruback

Rico L Zorkendorfer

Martha Evans Hankey

William C Lukens

Nikolas T Vitt

Christopher R Wilk

Rex Tyler Ehman

Eugene H Fox

M Evans Hankey

Erik G De Jong

Rico Zörkendörfer

Henry Hung Yang

Steven P Cardinali

Ryan C Perkins

Jiahui Liang

Jesse A Lippert

Andrew L Doyle

Mark A Murphy

Miodrag Pejin

Christopher S Hyde

Housing for an electronic device

An electronic device can include a housing that defines an internal volume, an aperture defined by the housing, an electronic component disposed within the internal volume and occluding the aperture, and a mesh component disposed against the electronic component. One example of an electronic device can include a housing that defines an internal volume, a port defined by the housing, a speaker module disposed within the internal volume and oriented to move air through the port, and an acoustically transparent mesh covering the port. The mesh can include a raised portion extending at least partially through the port and a flange extending from the raised portion, the flange secured against an internal surface of the housing.

Acoustic mesh for electronic devices

An electronic device is configured to provide haptic feedback to a user based on an input action associated with an input device. The electronic device includes a haptic engine operably connected to a processing device. The haptic engine includes an electromagnetic actuator that detects an input action associated with the input device. The electromagnetic actuator also produces a haptic output in response to the detection of the input action.

Electronic device with an input device having a haptic engine

An audio speaker having a magnet assembly for directing a magnetic field through a magnetic circuit, and an electrical circuit for carrying an electrical audio signal current through at least part of the magnet assembly, are disclosed. More particularly, a voicecoil in the electrical circuit may be in electrical contact with a magnetic plate of the magnet assembly. The voicecoil may be electrically connected with a speaker driver circuit at least partly through the magnetic plate. Other embodiments are also described and claimed.

Audio speaker having an electrical path through a magnet assembly

An electronic device includes a housing having an opening comprising an audio port and a speaker assembly carried by the device housing. The speaker assembly includes a water ejection system having a diaphragm coupled to a magnetic driver and a mesh that covers the audio port where the diaphragm and the mesh together define an acoustic volume. When a water ejection signal is received at the magnetic driver, the magnetic driver is caused to move the diaphragm in a manner that ejects water contained within the acoustic volume out of the acoustic volume and through the mesh.

Speaker module architecture

An electronic device having a pressure sensor configured to determine pressure is disclosed. The electronic device includes an enclosure defining an internal volume. The enclosure may include a sidewall with an external opening that provides a vent for the internal components. To reduce the response of the pressure sensor (that is, the time required to detect a pressure change), the pressure sensor may secure with an internal wall of the enclosure. Further, the internal wall includes an opening defining an air pocket significantly smaller than the internal volume. When the pressure sensor is mounted to receive air via the air pocket, the pressure sensor may respond faster to pressure changes, as compared to receiving air circulating throughout the internal volume. This is due in part to an amount of airflow passing through the air pocket causing a greater pressure change throughout the air pocket as compared to the internal volume.

Barometric sensor integration in a water resistant electronic device

Fasteners and fastener systems that can act as air vents for enclosures are described. The fasteners can be configured to secure a component to a wall of an enclosure, while at the same time providing a passageway for air to pass between an internal cavity of the enclosure and an outer environment. The venting feature of the fastener can serve to equalize pressures between the internal cavity and outer environment so as to prevent pressure build up or condensation within the internal cavity. The dual functionality of the fasteners is suitable for use in portable electronic devices where compactness and space saving measures can be of importance.

Vent for portable electronics combined with enclosure mounting fastener

An electronic device having an interior volume, the electronic device including a sealing mechanism to prevent ingress of water into the interior cavity. The sealing mechanism having a channel having a first opening at an external environment and a second opening that leads to the interior volume, a membrane that covers the second opening, the membrane being air permeable and water resistant such that the membrane allows air to pass and prevents passage of water up to an upper pressure threshold, a stopper mechanism, and a diaphragm comprising a surface arranged to receive an external water pressure and that is air and water impermeable, the diaphragm being coupled to the stopper mechanism that deflects in response to the water pressure such that the diaphragm actuates the stopper mechanism and seals off the channel from at the first opening preventing water pressure at the membrane from exceeding the upper pressure threshold.

Self-energizing sealing mechanisms

An electronic device having a pressure detection system is disclosed. The electronic device may include one or more elements designed to detect pressure exerted on the electronic device. In some embodiments, the electronic device includes a membrane and a detection mechanism, both of which bend in response to a pressure change at the membrane. The membrane may be electrically coupled with a circuit that detects the bending of the membrane and correlates the bending with a pressure change at the membrane. A can may be hermetically sealed with the membrane and surround the circuit to shield the circuit from liquid ingress. In some embodiments, a light transmitter and light receiver are used to detect the bending of the membrane. The light may reflect from the membrane at different angles, based upon a shape of the membrane, and contact the receiving element at different locations, corresponding to pressure change.

Waterproof barometric sensor in an electronic device

A sealed button assembly including a button cap, a push rod, a button retainer, and a bracket is described. The bracket can couple to the button retainer which itself can interlock with the button cap and push rod through a counterbore, the counterbore being defined in a sidewall of the housing of an electronic device.

Thin profile sealed button assembly

Growing community of inventors

Cupertino, CA, United States of America

David M Pelletier