Bendix Commercial Vehicle Systems LLC

Other

Bendix Commerical Vehicle Systems LLC

Alliedsignal Truck Brake System, Co.

William P Amato

Charles E Eberling

Robert J Custer

Kenneth A Grolle

Srikiran Kosanam

Charles E Ross

Timothy J Frashure

Thomas J Thomas

Fred W Hoffman

Hans M Molin

Phillip J Kasper

Michael D Tober

David W Howell

Andrew Marsh

Andrew J Pilkington

Shawn D Lammers

Richard Beyer

Nicholas A Broyles

Timothy Carritte, Jr

T Stephen Miller, Jr

Kirit A Thakkar

Hermann J Goebels

Sharon A Seitz

Ron R Stahl

Ananda Pandy

Christopher Knaack

Scott Szymczak

Aaron M Galbraith

Roger L Sweet

Roman Marchak

Cheryl Greenly

Vehicle brake performance monitoring is provided. The braking capabilities are dynamically learned or otherwise calculated or determined in each vehicle and shared between the vehicles of the platoon. The platoon may be reorganized based on differences between the learned or otherwise calculated or determined relative braking capabilities. Desired gaps between the platooning vehicles may be modified in accordance with the learned or otherwise calculated or determined relative braking capabilities as necessary or desired. During every vehicle stop, the vehicle and axle loads together with information on the time from brake apply to when the vehicle decelerates is monitored and entered as a data point defining the vehicle response delay. The axle loads and the ABS Activation of a wheel end for a given pressure is further selectively used to create another data point. The data points are selectively used to develop overall performance (e.g., quality score) of the brake system.

Brake performance monitoring for vehicle platooning operation

Various embodiments of an apparatus and method for determining the operation of a vehicle safety system are disclosed. In one embodiment, the controller for a safety system comprises a sensor input for receiving a signal from a safety system sensor; a camera input for receiving a signal from a camera; and a processor having control logic. The control logic is capable of receiving the sensor signal indicating an absence of detected objects in a field of view of the safety system sensor; receiving the camera signal indicating at least one non-vehicle object identified in the field of view of the camera; and maintaining the active vehicle safety system as active in response to the sensor signal indicating the absence of detected objects and the camera signal indicating the identification of at least one visual non-vehicle object.

Method and apparatus for determining the operation of a vehicle safety system

A vision system comprises at least one camera fixedly mounted to a structure and providing a view of an area surrounding a loading dock. The at least one camera communicates with at least one transmitter capable of transmitting a video signal from the at least one camera. A receiver is located in a vehicle such that the receiver receives the transmission of the video signal from the at least one camera in response to a docking event.

Vision system for vehicle docking

Methods and apparatus are provided for updating at least one software component of a motor vehicle in coordination with predetermined safe operational modes of the vehicle permitting the updating without danger to a driver operating the motor vehicle. The method operates such that a receiver circuit of a hub controller of the motor vehicle receives and stores a software update module in a memory of the hub controller. A processor of the hub controller determines an operational condition of the motor vehicle and selectively updates at least one software component of the motor vehicle with the software update module responsive to the operational condition of the motor vehicle being in a predetermined safe operational mode permitting the updating without danger to a driver operating the motor vehicle. Preferably, the updating of the at least one software component with the software update module takes place only during DPF regeneration.

Methods and apparatus for updating software components in coordination with operational modes of a motor vehicle

A vehicle control system includes a forward vehicle sensor transmitting a forward vehicle message based on a distance to a forward vehicle. An adaptive cruise controller receives the forward vehicle message and receives at least one additional message indicating a respective status of the vehicle, the adaptive cruise controller sets a braking pressure for an adaptive cruise controller braking event above a default braking pressure if the adaptive cruise controller determines, based on the at least one of the additional messages, that the vehicle will maintain stability during the adaptive cruise controller braking event.

System and method for adjusting braking pressure

An electronic device includes an antenna that receives RF signals from a sensor associated with a respective tire of the vehicle. The RF signals represent a condition of the respective tire. A processor receives the RF signals from the antenna. The processor converts the RF signals to a proprietary serial bus formatted message. The processor transmits the proprietary serial bus formatted message to an electronic control unit via a vehicle communication bus.

System and method for monitoring tire condition

When employing an a cruise control system in a commercial or heavy-duty vehicle, an adaptive cruise control (ACC) system () is activated upon activation of a vehicle or set-speed cruise control (SSCC) system (). The ACC () remains on, even after SSCC shutoff, to maintain a minimum following distance for a primary vehicle in which the ACC () is employed and a forward vehicle. The ACC () is deactivated after detection of an ACC shutoff trigger event, which may be driver application of the brakes of the primary vehicle, driver-initiated acceleration for a predefined time period, expiration of a predetermined time period, manual shutoff (e.g., via a switch or button), etc.

ACC extended mode operation

An anti-tailgating vehicle system includes a communication bus on a host vehicle, a forward vehicle sensor that senses a forward vehicle in front of the host vehicle, and an electronic control unit. The forward vehicle sensor transmits a forward vehicle message to the communication bus based on a distance to the forward vehicle. The electronic control unit receives the forward vehicle message from the communication bus and determines a relative speed between the host and forward vehicles based on the forward vehicle message. If the forward vehicle message indicates the host vehicle is not within a safe zone range relative to the forward vehicle while a host vehicle cruise control system is not engaged, the electronic control unit transmits a host vehicle control message to the communication bus for limiting a torque of the host vehicle.

Anti-tailgating system and method

A method and system for assessing and preventing overturn of a vehicle, the method and system being particularly suitable for use with commercial vehicles with brake systems typically used in North America, wherein a vehicle equipped with single brake pressure modulator is controlled to increase or decrease brake pressure, depending on braking state, to test vehicle wheel speed by response. If the vehicle wheel speed response indicates the inside wheels of the vehicle are off the ground or only lightly loaded, it may be assumed that the vehicle is approaching overturning. A braking intervention may be then executed by the single brake pressure modulator to prevent the incipient overturn event.

Single channel roll stability system

A brake disabling device for a vehicle includes an electronic control unit (ECU) for receiving a signal indicative of a direction of the vehicle. A control device communicates with the ECU for disabling brakes associated with a steer axle of the vehicle as a function of the direction of the vehicle.

Brake control system

A system and method are provided for improving the operational performance of a moving cement mixer vehicle with a rotatable mixing drum by automatically stopping the rotation of the mixing drum at select moments. The system may include a sensor adapted to deliver a signal indicative of an operational parameter, such as steering angle of the vehicle, and a processing unit adapted to receive the signal from the sensor and deliver a control signal based on the signal for stopping rotation of the mixing drum.

Arrangement for improving the operational performance of cement mixing truck

Controlling one or more component of a vehicle air supply system, such as an air compressor or an air dryer, based on an engine control signal. Examples of engine control signals include emission control signals, turbocharger status signals, coolant temperature signals, and ambient temperature signals.

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Avon, OH, United States of America

William P Amato