Bridgestone Firestone North American Tire, LLC

Bridgestone Americas Tire Operations, LLC

Bridgestone/firestone, Inc.

Bridgestone/firestone Research, Inc.

Bridgestone Corporation

Weatherford/lamb, Inc.

Paul B. Wilson

John D. Rensel

Robert J. Trew

Paul B Wilson

Russell W Koch

John D Rensel

Terence Eugene Wei

Gordon E Hardman

Guy J Walenga

Robert J Trew

John W Pyne

Brett W Floyd

David Coombs

Corey Eugene Hoffman

Philip B Loudin

Kevin Leon Gray

Gary Duron Ingram

Varadaraju Gandikota

Francis L Merat

John Douglas Roberts

David Michael Haugen

Kevin E Scheifele

Amy M Randall

Frederick Thomas Tilton

David Graham Hosie

Sheel Agarwal

Walter Tomaszewski

David A Weitzenhof

Douglas B Costlow

Craig R Balnis

Georg G A Böhm

Hans R Dorfi

Adam Karl Nesbitt

Andrew T Miklic

Ross W Widenor

Molly A Hardman

David A Przygocki

Ronald C Grush

Jack Dutcher

Deborah Lynn Banta

Minh-Tuan Nguyen

Chris Johnson

Stone Fagley

David M Coombs

Francis Merat

Jacob Bramwell

Michelle R Stalnaker

Stanley J Olesky

Robert L Malloy

Yoshinobu Shoyama

Vladimir Roth

Michael Nero

Jason Ellis

William J Corsaut

Ronald B Collins

Ronald E Bothner

Scott J Coe

David Nuth

Tom Standley

Jack A Dutcher

David C Coombs

John David

Frank L Merat

Stephen Senn

Jacob Bramell

Terrence E Wei

Brett A Floyd

David Weitzenhof

Guy Walenga

A tire and membrane system includes a tire, an electronics package, and a membrane body attached to the electronics package. A width of the membrane body is less than 120% of a width of a tread of the tire. A length of the membrane body is less than 50% of a circumference of the tire. A bottom surface of the membrane body is configured to lie flat against an inner surface of the tire. The membrane body is not attached to the tire.

Tire electronics securing structures

A tire and securing element assembly includes a tire inflated at a first pressure and a securing element. The securing element is an inflatable hoop inflated at a second pressure at least 10% greater than the first pressure. The securing element abuts an inner surface of the tire across 30-90% of a tread width. The securing element has a cross sectional area between about 0.4 and 47.0 cm.

A radar-based-sensing system for a tire includes a plurality of sensors disposed circumferentially around a tire annulus. Each sensor in the plurality of sensors is permanently disposed within the tire annulus. Each sensor in the plurality of sensors is further disposed radially above any metal structures within the tire annulus, and each sensor in the plurality of sensors emits waves and senses reflected waves when rotating.

Radar wear sensing for tire applications

A radar-based-sensing system for a tire includes a plurality of sensors disposed circumferentially around a tire annulus. Each sensor in the plurality of sensors is permanently disposed within the tire annulus. Each sensor in the plurality of sensors is further disposed radially above any metal structures within the tire annulus. Each sensor in the plurality of sensors emits waves and senses reflected waves when rotating.

The embodiments described herein generally relate to an electronic communication module suitable for incorporating into a tire or tire retread, where the electronic communication module comprises a radio device having at least a portion of its outer surface surrounded by a rubber composition. Certain embodiments also relate to tires or tire retreads containing the electronic communication module. In addition, certain embodiments relate to methods for improving the readability of a radio device incorporated into a tire or tire retread.

Rubber compositions for radio devices in tires

A tire includes a circumferential tread and a radio-frequency identification (RFID) chip disposed below the circumferential tread. The RFID chip includes a chip casing and a local antenna. The tire further includes an RFID antenna disposed radially between the RFID chip and a radially outer surface of the circumferential tread. The RFID antenna is operably connected to the local antenna.

RFID wear sensing for tire applications

Disclosed herein is a rubber coating for an electronic communication module, the coating comprising 100 phr of at least one diene-based elastomer, and at least one nano-sized inorganic material having a dielectric constant of at least 9 and a loss tangent of less than 0.1, wherein the coating when cured has a dielectric constant of at least 4.5 and a loss tangent of less than 0.01. Also disclosed are an electronic communication module comprising a radio device having at least a portion of its outer surface surrounded by the rubber coating (i.e., a rubber composition of specified composition), tires or tire retreads incorporating the electronic communication module, and methods for increasing the dielectric constant of a rubber coating without increasing its loss tangent.

Rubber coating for electronic communication module, electronic module containing same, and related methods

A tire includes a plurality of tire components defining a plurality of layers. A radio frequency identification (RFID) tag is disposed between at least two of the plurality of layers. The RFID tag is in contact with each of the at least two layers and is configured to transmit a response signal in response to receiving a request signal. When no air is in a region surrounding the RFID tag, a first response signal is emitted from the tire at a first frequency and first power. However, when air is in the region surrounding the RFID tag, a second response signal is emitted from the tire at the first frequency and a second power different from the first power.

Tire having radio frequency identification device for monitoring structural health

An apparatus for mounting an object within a tire includes a ply having a first side for mounting against an innerliner of the tire and a pedestal extending upwards from a second side of the ply. The pedestal has a recessed planar top surface, with an elongated front cavity, an elongated rear cavity, and a substantially cylindrical central cavity disposed therein. The substantially cylindrical cavity is defined by an internal sidewall. The internal sidewall includes mating structure selected from the group consisting of threads and a plurality of downwardly extending slots.

Attachment patch for mounting devices

An inflatable electronics band for use in a tire features an annular, flexible, inflatable, tubular body configured to contact an inner portion of a tire opposite the tread surface, such as an innerliner. The inflatable electronics band further features an inflation valve, disposed on the tubular body. The tubular body is configured to inflate to a pressure at least 10% greater than the recommended tire inflation pressure.

A tire or tire tread features a helical, metallic RFID tag antenna, configured to provide an operable frequency response between 900 and 930 MHz upon receiving 100 electromagnetic waves having a power between 12 and 24 dBm. The helical, metallic RFID tag antenna is disposed within the at least one tread feature and has a wear rate commensurate with a wear rate of the at least one tread feature. The response(s) from the helical, metallic RFID tag antenna are used to track tread wear.

A method of mounting an object on a tire includes providing a tire having a sidewall, wherein the sidewall includes a mounting portion configured to receive an object. The method further includes mounting the object on the mounting portion of the sidewall, such that the object is visible without extending outwardly beyond the mounting portion.

Tire structure for externally mounted device

A tire monitor assembly includes a rubber ply having a first side affixable to an interior surface of a tire. A pedestal extends from a second side of the rubber ply, wherein the pedestal has a top surface and at least one sidewall. The pedestal has a groove disposed in the at least one sidewall that extends along a perimeter of the pedestal, wherein the pedestal has a cavity disposed in the top surface, extending towards the rubber ply. The assembly further includes a tire monitoring device and a fastener connected to the tire monitoring device and further connected to the pedestal such that the fastener is disposed in at least one of the cavity and the groove.

Attachment patch for mounting various devices

A sensor system for obtaining data from an air spring having elastomeric body with a plurality of wireless sensors embedded therein. The sensor length-scales range from nano- to micro-scale devices that are small enough to avoid becoming occlusions within the elastomeric body. The air spring may include a spring wall having an internally reinforced elastomeric body portion with the sensors embedded within. The air spring may include a spring wall having an unreinforced elastomeric body portion with the sensors embedded within. The sensors may be configured to provide data related to one or more of temperature, pressure, sidewall flex, stress, strain and other parameters. The sensors may be LCD sensors, and/or conductive polymer sensors, and/or bio-polymer sensors and/or polymer diodes suitable for sensing data during the operation of the air spring.

Air spring having wireless micro and nano sensors

A battery operated device includes a receiver for receiving a transmission that includes a postamble. A sensor, in a tire, measures a parameter of the tire and outputs data indicative of the parameter. A microprocessor is coupled to the receiver and the sensor. The microprocessor is configured to periodically partially awaken to determine whether the transmission is likely a forward link packet (FLP) by examining the postamble, and to transmit the data in a reverse link packet (RLP) in response to confirming that the transmission is a FLP.

System for conserving battery life in a battery operated device

Growing community of inventors

Tallmadge, OH, United States of America

Paul B Wilson