Apple Inc.

Other

Richard Hung Dinh

Tang Yew Tan

Scott A Myers

David A Pakula

Matthew Theobald

Adam Thomas Stagnaro

Richard Walter Heley

Michael Benjamin Wittenberg

Daniel William Jarvis

Robert W Schlub

Mattia Pascolini

Christopher D Prest

Benjamin J Pope

Jean-Pierre Simon Guillou

Robert J Hill

Shayan Malek

Marwan Rammah

Tyler Robin Kakuda

Rasamy Phouthavong

Adam Duckworth Mittleman

Erik L Wang

Phillip Michael Hobson

Jared Mitchell Kole

Nanbo Jin

Kenneth Arthur Jenks

Michael J Brown

Yaocheng Zhang

Jonathan P Ive

Duncan Robert Kerr

Bartley K Andre

Richard P Howarth

Eugene Antony Whang

Christopher J Stringer

Rico L Zorkendorfer

Daniele De Iuliis

Daniel J Coster

Matthew Dean Rohrbach

Shin Nishibori

Steve P Jobs

Douglas B Satzger

Calvin Q Seid

Fletcher R Rothkopf

Steven Porter Hotelling

Stephen Paul Zadesky

Ruben Caballero

Matthew D Hill

Teodor Dabov

Ashutosh Yugesh Shukla

Hao Xu

Jayesh Nath

Ethan Larry Huwe

Lee E Hooton

Jennifer M Edwards

Trent Weber

John J Baker

Kelvin Kwong

Tyler B Cater

Miguel C Christophy

Yi Qiao

James A Yurko

Christopher T Cheng

Abhijeet Misra

Douglas G Fournier

Kevin M Froese

Erica J Tong

Han Wang

Paul C Kelley

Ying-Chih Wang

Peter I Bevelacqua

Anand Lakshmanan

Hoishun Li

Brian M Gable

Josh Nickel

Hao Dong

Eric W Hamann

Christopher J Durning

Robert Steinfeld

Dave Pakula

Xu Gao

Ramachandran Chundru

Kodiak D Burke

Anthony D Prescenzi

Ava Iranmanesh

Jennifer D Schuler

A component for an electronic device can include a pre-formed substrate comprising a first metal and an additively manufactured portion bonded to the pre-formed substrate. The additively manufactured portion can include a first portion comprising a second metal and defining a volume, the first portion having a first value of a material property, and a second portion disposed in the volume, the second portion having a second value of the material property that is different from the first value.

Additively manufactured device enclosures

A portable electronic device may include an enclosure defining an interior cavity and having a front cover, and a haptic engine positioned in the interior cavity. The haptic engine may include a first body component defining a first side of the haptic engine and including a first spring flexure and a first end element molded over a portion of the first spring flexure, a second body component defining a second side of the haptic engine opposite the first side and including a second spring flexure and a second end element molded over a portion of the second spring flexure, a movable mass component coupled to the first spring flexure and the second spring flexure, and a coil configured to induce a linear movement of the movable mass component in response to the actuation signal thereby producing a haptic output.

Handheld electronic device

This is directed to providing a cosmetic finish on a component constructed by connecting several elements. A single manufacturing process, such as machining or grinding, can be applied to the connected elements to remove material from some or all of the elements and to form a smooth and continuous surface across interfaces between the individual elements of the component. In some cases, settings of the material removal process can be adjusted based on the material of the component elements. For example, the settings can be adjusted based on the manufacturing or mechanical properties of each element material.

Cosmetic co-removal of material for electronic device surfaces

An electronic device may have a display overlapped by a cover layer. Portions of the surface of the display and cover layer may have curved profiles. The display may include a flexible substrate and may have bent edge portions protruding from a central region. Gaps may be formed between regions of pixels on a common substrate or between separate display panels. Gap-overlapping structures may overlap the gaps to hide internal components from view or to blend the appearance of gaps with the appearance of adjoining portions of a display layer. The gap-overlapping structures may include light sources such as crystalline semiconductor light-emitting diodes. The diodes may emit light through light diffusing structures. Protruding display layer fingers and other structures may be used to accommodate display cover layer surfaces with curved profiles such as corner surfaces of compound curvature.

Electronic devices having displays with curved surfaces

An electronic device may have pixels. The pixels may form one or more displays. The displays may be flexible organic light-emitting diode displays or other displays. The electronic device may have first and second display layers that face away from each other and display images in different directions. Image transport layers may overlap the display layers and may have curved edges that overlap a sidewall portion of the electronic device. Image transport layers receive images at input surfaces and transport the received images to corresponding output surfaces. Image transport layers may be provided with hemispherical shapes and other shapes having output surfaces of compound curvature. A folding device may have first and second displays that are overlapped by respective first and second image transport layers that join over a hinge to block the hinge from view. A wristwatch device may have links or other structures with an image transport layer.

Electronic devices having housings with image transport layers

An electronic device including a housing defining an aperture, a display component positioned in the aperture, and a filler material at least partially surrounding a periphery of the display component. The filler material can contact the display component and a portion of the housing defining the aperture.

Mobile display encapsulation to improve robustness and water resistance

An electronic device may have a display overlapped by a cover layer. Portions of the surface of the display and cover layer may have curved profiles. The display may include a flexible substrate and may have bent edge portions protruding from a central region. Gaps may be formed between regions of pixels on a common substrate or between separate display panels. An image transport layer formed from a coherent fiber bundle or a layer of Anderson localization material configured to exhibit two-dimensional transverse Anderson localization of light may have an input surface that receives an image from adjacent display pixels and an output surface on which the image is displayed. The output surface may have a curved profile and may exhibit compound curvature. The input surface may have a profile with curved portions or other shapes. Image transport layers can be used to cover gaps between sets of pixels.

Electronic devices having displays with curved surfaces and image transport layers

This is directed to systems and methods for cover assembly retention of a portable electronic device. In some embodiments, a cover assembly and/or housing of an electronic device can include one or more retention features such as detents, hooks, tabs, extensions, screw plates, screw holes, shuttles, latches, or any combination of the above, for retaining the cover assembly to the housing. In some embodiments, one or more retention features can be included on an internal platform of the electronic device to retain the cover assembly. In some embodiments, a hidden screw feature can be included in a SIM tray slot of the electronic device. Once a SIM tray has been inserted into the SIM tray slot, the screw feature can be hidden from sight and may become unapparent to an end user of the electronic device.

Systems and methods for cover assembly retention of a portable electronic device

An electronic device may have an electrical component with a moving portion. The moving portion of the electrical component may include a moving mass and may include coils or other circuitry coupled to the moving mass. The moving mass may be supported within a support structure such as a housing structure. Springs may be coupled between walls in the housing structure and end portions of the moving mass. The coils or other circuitry on the moving mass may be coupled to flexible printed circuit cables. The flexible printed circuit cables may be coupled to the coils at the ends of the moving mass adjacent to the springs. The flexible printed circuit cables may have localized stiffeners that help prevent damage to metal traces in the cables during cable bending. The cables may have U-shapes or other suitable shapes.

Electrical component with moving mass and flexible cables

A handheld electronic device may be provided that contains a conductive housing and other conductive elements. The conductive elements may form an antenna ground plane. One or more antennas for the handheld electronic device may be formed from the ground plane and one or more associated antenna resonating elements. Transceiver circuitry may be connected to the resonating elements by transmission lines such as coaxial cables. Ferrules may be crimped to the coaxial cables. A bracket with extending members may be crimped over the ferrules to ground the coaxial cables to the housing and other conductive elements in the ground plane. The ground plane may contain an antenna slot. A dock connector and flex circuit may overlap the slot in a way that does not affect the resonant frequency of the slot. Electrical components may be isolated from the antenna using isolation elements such as inductors and resistors.

Handheld electronic device with cable grounding

Electronic device housing structures and other structures may be formed from molded plastic. Plastic structures such as injection molding housing structures and other structures may be provided with openings. An opening may have sidewall surfaces. Machining operations and other techniques may be used in forming the openings. Openings may be processed to enhance resistance to stress-induced cracking of the plastic structures along the sidewall surfaces. Cracking resistance may be obtained by activating the surface using heat or laser treatment and by electroplating the activated surface to form a metal liner structure. Surface treatments using applied liquid chemicals or heat may form a treated layer on the surface of an opening with enhanced cracking resistance. A plastic sleeve or other insert may form a liner structure in an opening that resists cracking. Liner structures may also be formed by applying heat or light to a coating in an opening.

Crack resistant plastic enclosure structures

An electronic device may be provided with wireless circuitry. The wireless circuitry may include one or more antennas. The antennas may include cellular telephone antennas, wireless local area network antennas, antenna structures for receiving satellite navigation system signals, and other antennas. An antenna may have an antenna resonating element such as an inverted-F antenna resonating element. The inverted-F antenna resonating element may have an inverted-F antenna resonating element arm formed from metal traces on a flexible printed circuit. The flexible printed circuit may be soldered to an antenna grounding clip. A screw may attach the clip, a speaker tab, a connector bracket, and other metal structures to a metal device housing that serves as ground for the antenna. The screw may be isolated from the antenna grounding clip and the other metal structures by an insulating structure such as an insulating gasket.

Electronic device antenna with suppressed parasitic resonance

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San Jose, CA, United States of America

Richard Hung Dinh