Cooper-standard Automotive, Inc.

Hanon Systems

Ford Global Technolgoies, LLC

Visteon Global Technolgoies, Inc.

Brian James Cardwell

Kastriot Shaska

Orest Alexandru Dziubinschi

Kenneth J Gocha

Angela Greiner

Gary O Klinger

Harold Lawrence Castle

Christian A Veraza

David M Dokas

Tisiphone A Titus

Arthur Janik

Steve Frederiksen

Steven C White

Todd Evans

Scott Constine

Norma Medina

Thomas B Stimson

Robert Dennany

Vasudevan Sooriyamurthy

An assembly of a thermal probe and a probe fitting arranged to measure the temperature of a fluid medium flowing in a passage of the probe fitting. The assembly comprises a temperature sensing assembly that produces a resistance which varies with the temperature. A connector assembly that is connected to the temperature sensing assembly that transmits the resistance to external circuitry. A non-metallic housing includes a sensor portion incasing the temperature sensing assembly and a connector portion housing the connector assembly. A probe receptacle attached to the probe fitting is arranged to receive the sensor portion of the thermal probe, positioning the temperature sensing assembly in the passage to sense the temperature of the fluid medium flowing in the passage.

Thermal probe assembly

A quick connector is adapted to display a code that verifies that a latch member is engaged to retain an installed pipe to the quick connector. The quick connector comprises a connector body having a receiving portion surrounding an internal passage, the internal passage arranged to receive the pipe therein. A latch member retained on the receiving portion is arranged to be movable between a pipe insertion position and a latched position. In the pipe insertion position, the latch member allows the pipe to be inserted into the internal passage. A code readable by a scanning device becomes readable when the latch member is moved to the latched position verifying that the pipe is installed and latched in the connector body.

Quick connector latch verification utilizing a scannable code

A system for sensing a physical property of a fluid flowing inside a composite hose includes a radio frequency identification (RFID) reader arranged to transmit radio frequency signals. An RFID tag receives the radio frequency signals and exchanges the received radio frequency to electrical energy powering the RFID tag. An included sensor electrically connected to the RFID tag receives the electrical energy from the RFID tag and powers the sensor to obtain measurement data of at least one physical property of the fluid and transmit the measurement data to the RFID tag. The RFID tag transmits the measurement data to the RFID reader using the radio frequency.

Composite hose with radio frequency identification (RFID) enabled sensor

A quick connector is disclosed comprising a receptacle having first and second channels formed on opposite sides of the exterior of the receptacle. A flange includes a retainer mounting part fixed on a first end of the flange. A first pair of clamping jaws extends from a second end of the flange with each clamping jaw of the first pair of clamping jaws accepted into a respective receptacle first and second channel, clasping the receptacle to the flange. The clamped bracket retainer and receptacle are then guided to have a tube inserted into an interior passage of the receptacle and the bracket retainer is attached to a rigid structure using a fastening arrangement that retains the quick connector receptacle and endform in a connected state.

Quick connector with bracket retainer

An assembly, connector and method is disclosed for making a fluid connection between a vessel wall and a fluid tube. The assembly includes a male connector having a cylindrical body and an internal fluid passage through the male connector between a head portion located at an upper end of the male connector and a base portion on a lower end of the male connector. An aperture is formed on the vessel wall and at least first and second recesses are formed along an edge of the aperture. The base portion has at least first and second locking members located in a spaced relation to the other on opposite sides of the base portion and a sealing flange extends circumferentially about the base portion. The base portion is arranged to be installed in the aperture with each locking member accepted within a respective recess. Rotation of the male connector causes the locking members to rotate within the aperture and seal the sealing flange against the wall. A female connector connected to the fluid tube is installed on the male connector head portion.

Connector assembly for coupling a vessel to a fluid tube

An assembly, connector and process for a quick connector includes a receptacle having first and second interior passages including a chamber in fluid communication between the first and second passages. A flow control insert is installed in the chamber to regulate fluid flow between the first and the second passage.

Quick connector with modular flow control insert

This disclosure relates to a quick connector adapted to display a code that verifies that a latch member is engaged to retain an installed pipe to the quick connector. The quick connector comprises a connector body having a receiving portion surrounding an internal passage, the internal passage arranged to receive the pipe therein. A latch member retained on the receiving portion is arranged to be movable between a pipe insertion position and a latched position. In the pipe insertion position, the latch member allows the pipe to be inserted into the internal passage. A code readable by a scanning device becomes readable when the latch member is moved to the latched position verifying that the pipe is installed and latched in the connector body.

A system for sensing a physical property of a medium inside a conduit includes a radio frequency identification (RFID) reader arranged to transmit electromagnetic signals in at least one radio frequency. An RFID tag receives the least one radio frequency and exchanges the received radio frequency to electrical energy powering the RFID tag. An included sensor electrically connected to the RFID tag receives the electrical energy from the RFID tag and powers the sensor to obtain measurement data of at least one physical property of the medium and transmit the measurement data to the RFID tag. The RFID tag transmits the measurement data to the RFID reader using the at least one radio frequency.

Conduit with radio frequency identification (RFID) enabled sensor

This disclosure relates to fluid conduit that incorporates sensors printed on an exterior wall of the fluid conduit configured to sense an operating parameter of the fluid conduit. A wireless communication device communicatively connected to the printed electronic material is configured to wirelessly transmit the operating parameter to a mobile device.

Fluid conduit with two-way communication

A hose connector for joining flexible hoses is comprised of a tubular pipe body with at least one insertion portions made of a shape memory alloy (SMA) or other shape memory material that has a memorized shape. The insertion portion is located on at least on one end of the tubular pipe body and has an outer diameter smaller than an interior diameter of the flexible hose in a martensite state. The insertion portion is inserted into the interior diameter of the flexible hose and the memorized shape is recovered with the application of heat, wherein the outer diameter of the insertion portion becomes larger than the outer diameter of the flexible hose sealing the outer diameter of the insertion portion against the interior diameter of the flexible hose.

Shape memory hose connector

This disclosure relates to a fluid conduit that incorporates electronic sensors printed on a flexible substrate that is attached to an exterior wall of the fluid conduit. The sensors are configured to sense an operating parameter of the fluid conduit and to provide output signals representing the sensed operating parameter. An electrical conductor is deposited on the exterior wall of the fluid conduit for communicating the output signals.

Electronic sensors supported on a fluid conduit

This disclosure relates to fluid conduit that incorporates sensors printed on an exterior wall of the fluid conduit configured to sense an operating parameter of the fluid conduit. A two-way communication device communicatively connected to the printed electronic material is configured to wirelessly transmit the operating parameter to a mobile device.

This disclosure relates to a fluid conduit that incorporates electronic sensors printed on a flexible substrate and attached to an exterior wall of the fluid conduit. The sensors are configured to sense an operating parameter of the fluid conduit. A protective layer is arranged to be deposited over the substrate and over at least selected portions of the electronic material.

This disclosure relates to a fluid conduit that incorporates sensors printed on an exterior wall of the fluid conduit. The sensors configured to sense an operating parameter of the fluid conduit. A protective layer is arranged to be deposited over at least selected portions of the printed electronic material.

Fluid conduit with printed sensors

A method of passively suppressing noise within a heat exchanger comprises the steps of preselecting a plurality of sound wave travel distances formed between a plurality of surfaces within the heat exchanger to cause destructive interference of a preselected set of sound waves as the sound waves travel the preselected sound wave travel distances and assembling the heat exchanger to have the preselected plurality of sound wave travel distances formed between the plurality of surfaces formed within the heat exchanger.

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Ypsilanti, MI, United States of America

Brian James Cardwell