Apple Inc.

Pivotal Systems Corporation

Travis N Owens

Nahid Harjee

Brian R Twehues

Teera Songatikamas

Aonan Li

Kyle J Campiotti

Wei Lin

Nathan K Gupta

Shubhaditya Majumdar

Ying-Da Wang

Daniel J Bechstein

Andrew Deng

Timothy D Koch

Benjamin A Cousins

Lee M Panecki

Joseph R Monkowski

Karan S Jain

James W Franklin

Supratik Datta

Yi-Heng Sen

Tao Ding

Mei Zhang

Julia C Canning

Jiuyi Cheng

Andrey Shmakov

Daniell Dokko

Jeremy A Bagnol

Electronic devices can include a textured exterior surface that is used for controlling functions associated with the electronic device or another electronic device when an object moves along the textured exterior surface. In some examples, the textured exterior surface can be a multi-directional textured surface to enable multi-directional touch functionality. In some examples, sensors of the electronic device can detect signal inputs generated by vibrations caused by the object moving along the textured exterior surface. The signal inputs can be processed to determine the directionality and/or speed of the movement input.

Multi-directional texture based input device

An earphone comprising: a device housing that defines an interior cavity within the device housing; an acoustic port formed through a wall of the device housing; an audio driver disposed within the device housing and aligned to emit sound through the acoustic port; a user input region disposed along an exterior surface of the device housing; a flex circuit disposed within the interior cavity, the flex circuit including a first portion bonded at a first location to an inner surface of the device housing directly beneath the user-input region, a second portion bonded at a second location to an inner surface of the device housing spaced apart from the first location, and a third portion extending between the first and second portions; a force pixel disposed within the interior cavity and mounted to the first portion of the flex circuit below the user input region; a plurality of touch pixels disposed within the interior cavity between the force pixel and the user input region; sensor control circuitry disposed within the interior cavity and mounted to the second portion of the flex circuit; and a wireless antenna disposed within the interior cavity defined by the device housing.

Portable wireless listening device

An earphone includes a speaker housing; a speaker positioned in the speaker housing; a stem extending from the speaker housing, the stem defining an input surface; a conductive object disposed within the stem; a flexible circuit positioned between the stem and the conductive object; a member positioned between the flexible circuit and the conductive object operable to allow the flexible circuit to move with respect to the stem; a force sensor electrode disposed within the flexible circuit; and a controller operable to determine an input to the earphone using a change in capacitance detected using the force sensor electrode, the change in capacitance corresponding to a non-binary amount of a force applied to the input surface. In some examples, the earphone further includes a touch sensor electrode disposed within the flexible circuit.

Force-activated earphone

A capacitive gap force sensor includes a first electrode, a second electrode spaced apart from the first electrode, a first layer of dielectric material positioned between the first electrode and the second electrode, and a second layer of conductive material positioned between the first layer and the second electrode. The first layer has a first compression resistance less than a second compression resistance of the second layer. An effective capacitive sensing gap is defined between the first electrode and the second layer. The first layer is configured to compress or deform and alter the effective capacitive sensing gap when a force is received at the first electrode or the second electrode.

Capacitive gap force sensor with multi-layer fill

A force input sensor includes a load cell to adapt a compressive force applied to the force input sensor into a strain experienced by a strain sensor in the load cell. In particular, the load cell includes two compression plates separated from one another by a gap so as to define a volume between them. A flexible substrate (a 'diaphragm')&#x2014;includes a strain sensor and is disposed and supported within the volume. One of the two compression plates includes a feature (a 'loading feature') that extends toward a central region of the flexible substrate. As a result of this construction, when the compression plates receive a compressive force, the loading feature induces a bending moment in the flexible substrate, thereby straining the strain sensor.

Load cell array for detection of force input to an electronic device enclosure

An electronic device that is operable to provide electrical haptic output includes a touch surface and multiple haptic cells disposed on the touch surface. The multiple haptic cells include capacitors that are operable to store charges independently of each other and independently provide haptic output when touched by a body by discharging the stored charge to create a current. In this way, a wide variety of dynamically configurable haptic outputs can be provided without moving parts and without consuming the space and/or power used for haptic actuators that vibrate and/or otherwise move a mass.

Electrical haptic output array

An apparatus for controlling the flow of a gas, containing a controllable valve, wherein the position of the valve and the gas pressure upstream of the valve are measured and used in conjunction with a first lookup table to determine the flow rate of the gas through the valve; and a flow restrictor upstream of the controllable valve, wherein the temperature of the flow restrictor and the gas pressure upstream and downstream of the flow restrictor are measured and used in conjunction with a second lookup table to determine the flow rate of the gas through the flow restrictor.

Method and apparatus for gas flow control

Growing community of inventors

Fremont, CA, United States of America

Travis N Owens