Ford Global Technolgoies, LLC

Tye Arthur Winkel

Thomas Joseph Hermann

Mark Wisnewski

John Frederick Locke

Lawrence Banasky

Stuart C Salter

Paul Kenneth Dellock

Hua Zeng

David Brian Glickman

Cornel Lewis Gardner

Katherine Howard-Cone

Jeffrey Scott Mayville

Paul Anthon Mueller

Gregory William Farrey

Thomas Eric Svenson

John Dolinsky, Jr

Steven C Pintar

A composite antenna mount includes a polymer matrix, a plurality of particles dispersed through the polymer matrix, at least some of the particles including a ferromagnetic coating, and a plurality of electrically conductive filaments electrically connecting the ferromagnetic coatings of the particles. The ferromagnetic coating each coated particle is configured to absorb electromagnetic radiation in a specified frequency range.

Composite antenna mount

Example embodiments described in this disclosure are generally directed to a plastic enclosure that provides EMI shielding and heat sinking to an electronic assembly. In one embodiment, the enclosure includes a housing portion formed of a base material that includes a polymer containing graphene nanostructures and carbon nanostructures. The graphene nanostructures provide a thermal conductivity characteristic to the base material. A set of standoff elements made of the base material is provided inside the housing for mounting the electronic assembly. Heat generated by the electronic assembly is conducted out of the enclosure by the standoff elements due to the graphene nanostructures. The carbon nanostructures provide an electrical conductivity characteristic to the base material. A lid formed of the base material may be attached to the housing portion. The carbon nanostructures in the housing portion and the lid provide EMI shielding to the electronic assembly inside the enclosure.

Systems and methods for an enclosure that provides EMI shielding and heat sinking to an electronic assembly of a vehicle

This disclosure relates to a motor vehicle including a heater for an exterior interface. An example assembly includes a human-machine interface adjacent an exterior of the motor vehicle, and a heater configured to selectively thermally condition the human-machine interface. The heater includes a conductive polymer. A method is also disclosed.

Motor vehicle including heater for exterior interface

Various embodiments of the present disclosure provide a system and method for characterizing the radio frequency (RF) functionality of a vehicle remote keyless system (RKS) by separating and precisely characterizing the individual bits of the overall RKS system in an enclosed controlled environment. More specifically, this RKS characterization system includes an enclosed testing chamber for isolating the key fob from the vehicle, and a simulation control system that manipulates RF signals between the key fob and the vehicle for controlled RF signal analysis between the components. In certain embodiments, the RKS characterization system includes an automated process for actuating the key fob. Through this process, the RKS characterization system is able to separately identify the Key Fob Factor, the Vehicle Factor, and the Person Factor, of the vehicle RKS system.

System and method for remote keyless system characterization

A fob includes a case, an antenna, at least one input device, and a positioning element. The case has an interface portion and a handle portion. The antenna is disposed at the interface portion of the case. The input device is disposed on the interface portion of the case. The finger positioner orients a user's hand on the handle portion of the case away from the antenna.

Fob case for reduced transmission interference

A method for adjusting a power setting of a key fob includes receiving an input signal from a sensor by a processor. The processor determines, based at least in part on the input from the sensor, that a person is holding the key fob. Based on the determination that the person is holding the key fob, the processor adjusts an initial power setting of the key fob by a predetermined amount.

Key fob transmission compensation

A key fob includes a power amplifier including an output having an output impedance. A radio frequency antenna connected to the power amplifier output represents a first load impedance to the power amplifier output in a space substantially free of interference for radio frequency transmissions, and a second load impedance to the power amplifier output when a hand of a user is capacitively coupled to the antenna. The difference between the second load impedance and the output impedance of the power amplifier is less than the difference between the first load impedance and the output impedance.

Fob with increased power level from hand-antenna coupling

A method comprising for adjusting a power level in a key fob includes transmitting a first output signal at a first power setting. A feedback signal is received via a feedback mechanism that indicates a first power level of the first output signal. The first output level is compared to a threshold level. A second output signal at a second power setting greater than the first power setting is transmitted if the first output power level is below the threshold.

A vehicle includes a detection module including a directional antenna and signal processing logic. The detection module is located within the vehicle, arranged with respect to a driver region, and configured to detect a condition wherein a wireless phone is operated within the driver region. The detection module generates an output indicative of the detected condition. The vehicle further includes a controller configured to receive the output, and control the vehicle in response to the detected condition.

Growing community of inventors

Canton, MI, United States of America

Tye Arthur Winkel