Apple Inc.

International Business Machines Corporation

Tesla, Inc.

Carl R Peterson

John Raff

Stephen Robert McClure

Derek William Wright

Jeremy C Franklin

John Patrick Ternus

Benjamin M Rappoport

Sean S Corbin

Christopher J Stringer

Daniel J Coster

Jeremy D Bataillou

Jonathan P Ive

Duncan Robert Kerr

Bartley K Andre

Richard P Howarth

Eugene Antony Whang

Peter N Russell-Clarke

Martha Evans Hankey

Rico L Zorkendorfer

Daniele De Iuliis

Jody R Akana

Matthew Dean Rohrbach

Julian Hoenig

Shin Nishibori

Dinesh C Mathew

David Clifford Long

Victor H Yin

Jun Qi

Keith J Hendren

Adam T Garelli

Bryan W Posner

David L Edwards

Qingxiang Li

Kevin David Gibbs

Justin Richard Wodrich

Elvis Mwenda Kibiti

Erik Andrew Uttermann

Jules B Henry

Samuel Gilkison Smith

Ming Yu

Amy Qian

Conor P Lenahan

Alex C Yeung

Thomas W Wilson, Jr

Peteris K Augenbergs

George V Anastas

Joshua R Funamura

Kristina A Babiarz

Alex Chun Lap Yeung

Robert Scritzky

Soyoung Kim

Max A Maloney

Jason Scott Miller

Ronald L Hering

Piotr S Trzaskos

Julio C Quintero

David Kim

John Liu

Erik D Gillow

Erik A Utterman

Milan Padilla

Joseph F Alverson

Stephen R Mcclure

Henry Jules

Brianna C Wilson

Chuan You Su

Iii Donald Q Ross

Gomez Rodney A Angulo

A portable computing device is disclosed. The portable computing device can take many forms such as a laptop computer, a tablet computer, and so on. The portable computing device can include at least a single piece housing. The single piece housing can be machined from a single billet of material, such as a billet of aluminum. The single piece housing can include ledges with a surface receiving a trim bead and a cover. Corner brackets can be attached to the single piece housing to improve the damage resistance of the housing.

Handheld portable device

One embodiment can provide a photovoltaic roof tile. The photovoltaic roof tile can include a transparent front cover, a back cover, a plurality of photovoltaic structures positioned between the front cover and the back cover, and a front-cover-colorant layer positioned on an interior surface of the transparent front cover that faces a top surface of the photovoltaic structures. A color of the front-cover-colorant layer can substantially match a color of the top surface of the photovoltaic structures, and the front-cover-colorant layer can be configured to cover regions of the interior surface that are not directly above the top surface of the photovoltaic structures, thereby enabling a substantially uniform appearance of the photovoltaic roof tile.

Solar roof tile with a uniform appearance

Systems and methods for providing localized tactile output and systems and methods for obtaining localized physical characteristic information are disclosed. An electronic device can include a friction transducer configured to augment and/or detect friction between a surface of an electronic device and an object in contact with that electronic device. The electronic device may also include a force transducer configured to detect the force with which an object contacts a display. The force transducer may also provide mechanical output. The electronic device can also include a thermal transducer to augment and/or detect the temperature of various locations on a display.

Multi-transducer tactile user interface for electronic devices

An electronic device comprises a housing, a motion sensor configured to sense motion of the housing, and a processor configured to determine an impact geometry based on the motion. A countermeasure system comprises an actuator coupled to an actuated member. The actuated member is operable by the actuator to modify the impact geometry, so that impact energy is redirected away from an impact sensitive component of the electronic device to an energy absorbing component of the electronic device.

Drop countermeasures for electronic device

Component for a portable display device

Electronic devices may include displays. A display may include backlight structures that generate light and display layers that generate images using the generated light. An electronic device may include an opaque flexible printed circuit that is wrapped around one or more edges of the backlight structures. The opaque flexible printed circuit may prevent light from the backlight structures from reaching other electronic components or escaping from the device. The opaque flexible printed circuit may include signal lines that communicate signals between a printed circuit board and the display. The opaque flexible printed circuit may be a layer of the printed circuit board that extends from an edge of the printed circuit board. The printed circuit board may include an additional flexible extended printed circuit layer that wraps around a surface of the printed circuit board and forms a portion of a conductive shield over that surface.

Electronic devices with flexible circuit light shields

Method of forming a housing for an electronic device

An electronic device contains electrical circuits. The circuits may include circuitry on printed circuit boards and components such as a touch screen display and buttons. Signal paths for routing signals between the electrical circuits may be formed from metal traces on flexible printed circuit cables. The flexible printed circuit cables may be bent around one or more bend axes. A flexible printed circuit cable may be formed from a flexible polymer substrate having one or more layers of polymer. Upper and lower ground layers may be supported by the flexible polymer substrate. The metal traces for the signal paths may lie between the upper and lower ground layers. Longitudinal slits within the flexible printed circuit may be formed that pass through the ground layers and the polymer layers. Vias may be formed that couple the ground layers together. The vias may run along the edges of the slits.

Flexible printed circuit cables with slits

Pressure indicator pressure sensitive adhesive may contain microspheres that burst and release indicator when subjected to pressure and thereby produce a detectable indication of how much pressure has been applied when forming an adhesive joint between opposing structures. Electronic device structures can be assembled using the pressure indicator pressure sensitive adhesive. A camera or other sensor may monitor joint formation. The camera can gather infrared image data, visible light image data, or ultraviolet light image data. Sensor data such as magnetic or ultrasonic sensor data can also be collected on an adhesive joint. Joint inspection can be performed on test structures and production structures and corresponding adjustments made to the joint formation process. Positioners and other equipment that compresses the pressure indicator pressure sensitive adhesive can be adjusted in real time or calibrated using information about the condition of the pressure indicator pressure sensitive adhesive.

Methods for assembling devices using pressure indicator adhesives

An electronic device may have a conductive housing. A dielectric structure may be mounted in the conductive housing to form an antenna window. An electrical component such as a camera, light sensor, or other device may press against a conductive foam structure. A printed circuit may have conductive traces that form an antenna ground and antenna resonating element. The printed circuit may be wrapped around a support structure. The electrical component, the conductive foam structure, and the printed circuit wrapped around the support structure may be compressed between a display cover layer and the antenna window. A camera window may be attached to a camera window trim using multiple adhesives. The trim may have a curved exterior surface that matches a curved housing surface. A flexible printed circuit cable may have a folded portion. A band structure may surround the folded portion to form a service loop.

Electronic device assemblies

An apparatus for ejecting a flat object from a casing of a mobile device is disclosed. The apparatus is arranged to receive an ejection tool along a first axis and to eject the flat object along a second axis, wherein the first and second axes are not parallel. In one embodiment, the first axis is parallel to a top surface of the mobile device and the second axis is perpendicular to a curved edge surface of the mobile device.

Flat object ejector assembly

Growing community of inventors

Santa Clara, CA, United States of America

Carl R Peterson