Cirque Corporation

Intel Corporation

Xircom, Inc.

Other

Angia Communications, Inc.

Paul H Glad

Douglas Steck

Jon Bertrand

Richard D Woolley

Steve R McDaniels

Jared Bytheway

Jon R Hinton

David Nagle

David Goetz

Brian Monson

David Roth

David Taylor

Keith Lynn Paulsen

Daniel Joseph Lee

Brian Taylor

Joakim Ahlstrom

Nate Coy

James L O'Callaghan

Michael Harney

Benjamin Gyori

Joakim Ahlstr&ouml;m

Thomas E Donohue

Jon R Hinto

David Naegle

Joakim Ahlström

A capacitance module may include a capacitance electrode on a first substrate, shielding material disposed on a second substrate where the second substrate is aligned with the first substrate, an antenna where the shielding material is between the antenna and the capacitance electrode, and a continuous opening defined in the shielding material. The continuous opening may include a branching shape, the branching shape having a stem and multiple branches extending from the stem; and the continuous opening may overlap with the antenna.

Continuous opening in a shield layer

A capacitance module may include at least one touch electrode on a first surface of the capacitance module; a first portion of an inductance coil deposited on a second surface of the capacitance module; a second portion of the inductance coil deposited on a third surface of the capacitance module; a first coil shield deposited on the second surface of the capacitance module; and a second coil shield deposited on the third surface of the capacitance module; where the first portion of the inductance coil and the second portion of the inductance coil are electrically connected; where the inductance coil is positioned to interact with a magnet adjacent to the inductance coil; and where the first coil shield and the second coil shield are positioned to reduce electromagnetic interference between the inductance coil and other electronic components of the capacitance module.

Coil shield of a capacitance module

A capacitance module may include at least one touch electrode on a first surface of the capacitance module; a first portion of an inductance coil deposited on a second surface of the capacitance module; and a second portion of the inductance coil deposited on a third surface of the capacitance module where the first portion of the inductance coil and the second portion of the inductance coil may be electrically connected and where the inductance coil may be positioned to interact with a magnet adjacent to the inductance coil.

Inductance coil of a capacitance module

An apparatus may include a touch sensor where the touch sensor has a first set of electrodes and a second set of electrodes that are electrically isolated from the first set of electrodes, a shield layer positioned adjacent to the touch sensor where the shield layer has a first section and a second section where the first section of the shield layer has a different electrical characteristic than the second section of the shield layer, and a ground feature incorporated into the touch sensor.

Ground feature in a capacitive touch system

An apparatus may include a stack of layers, the stack including a sensor layer containing a set of electrodes and a suction opening defined through the sensor layer, and a capacitance reference surface adjacent to the sensor layer.

Suction opening in a capacitance module

A system for detecting a change in a battery cell may include instructions executable by a processor to determine a baseline profile of a battery cell with a capacitance sensor, detect a changed profile from the baseline profile with the capacitance sensor, match the changed profile with a stored profile where the stored profile is associated with a condition, and classify the battery cell as having the condition associated with the stored profile.

Battery swell detection

A touch sensor may include a substrate, a drive electrode on the substrate, a sense electrode on the substrate, and a deformable snap member disposed over the drive electrode and the sense electrode. The deformable snap member may include a deflectable metal material. When the metal material flexes from a resting position, a change in capacitance between the drive electrode and the sense electrode may be detectable.

Pressure sensing on a touch sensor using capacitance

An apparatus may include a touch sensor where the touch sensor has a first set of electrodes and a second set of electrodes that are electrically isolated from the first set of electrodes, a shield layer positioned adjacent to the touch sensor, and the shield layer having a plurality of thermal expansion grooves.

Thermal expansion groove of a capacitive touch system

A system that provides mechanical movement of a surface of a touch sensor when force is applied, may include a substrate; a touch sensor formed on a substrate; a flex arm coupled to the substrate forming a flexible joint between the substrate and the flex arm; a housing for the touch sensor, the housing supporting the touch sensor at a distal end of the flex arm; and a force sensor integrated into the flex arm.

Movement capability for buttonless touchpads and forcepads

A touch sensor may include a substrate material, a continuous electrode arranged along a dimension of the substrate material, a segmented electrode transversely arranged with respect to the continuous electrode and wherein the segmented electrode is divided into multiple segments that are spaced apart at a distance from each other, and at least one trace that electrically connects the multiple segments.

Capacitive sensor for a three dimensional object

A system and method for enabling an entire touchpad surface to mechanically move if sufficient force is used to press on the touchpad to perform a mouse click function, such as a right click or a left click, when the touchpad is mechanically buttonless, such as a forcepad, in order to provide haptic feedback on a touchpad that otherwise has none.

A system and method for manufacturing a planar capacitive touch sensor that can be folded over a three-dimensional object that does not require substantial modification to function, wherein columns and rows of capacitive measurement nodes follow substantially linear designs, and wherein the algorithms used for detection and tracking objects are substantially the same as for a planar touch sensor design.

Growing community of inventors

Taylorsville, UT, United States of America

Paul H Glad