Bendix Commercial Vehicle Systems LLC

Michael K Lesher

T Stephen Miller, Jr

Martin P Franz

Joseph M Macnamara

Andrew J Pilkington

Andrew L Kennedy

Mathew J John

Liju V Alex

Scott Szymczak

Adedapo A Alabi

Anna A Crowder

Jr T Stephen Miller

The present disclosure provides systems and methods for an adaptive cruise control that controls a speed of a host vehicle as a passing vehicle quickly passes through a trajectory of the host vehicle. In one form, a system includes at least one processor that is configured to determine that a passing vehicle is entering a trajectory in which the host vehicle is travelling based on a longitudinal speed, a longitudinal acceleration, a lateral speed, and a lateral acceleration of the passing vehicle; determine to maintain a follow distance of an adaptive cruise control system of the host vehicle to at least one target vehicle in the trajectory in which the host vehicle is traveling prior to the passing vehicle entering the trajectory; and to maintain the follow distance to the at least one target vehicle while the passing vehicle passes through the trajectory in which the host vehicle is traveling.

Adaptive cruise control system and method

Platoon management control systems and methods arrange two or more vehicles cooperatively travelling seriatim as a platoon along an associated roadway into a platoon arrangement in accordance with their relative braking capabilities and other brake-related performance characteristics such as braking efficiency. Braking efficiency can change over time and is in general affected by many factors such as brake temperature, brake type, burnishing, vehicle weight, number of tires, tire wear, vehicle loading, road surface type and weather conditions. The relative braking capabilities are 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 increased or decreased in accordance with the learned or otherwise calculated or determined relative braking capabilities as necessary or desired.

Determining and using braking capabilities of vehicles for platooning deceleration operations

A system and method system for determining when an object detected by a collision avoidance sensor on one member of an articulated vehicle comprises another member of the vehicle are provided. The system includes a collision avoidance sensor disposed on a first member of the vehicle and configured to detect an object within a field of view of the sensor on a side of the first member of the vehicle. The system further includes a controller configured to determine an articulation angle between the first member of the vehicle and a second member of the vehicle and to determine in response to the articulation angle, whether the second member of the vehicle is the object within the field of view of the collision avoidance sensor on the first member of the vehicle.

System and method for determining when an object detected by a collision avoidance sensor on one member of an articulated vehicle comprises another member of the vehicle

Highway vehicle platoon management is provided. Driver quality parameters are used together with vehicle physical characteristic and performance information to select an ordering of the vehicles within the platoon. The vehicles within the platoon mutually self-order to select the ordering of the vehicles within the platoon for enhanced safety and efficiency. The driver quality parameters together with the vehicle physical characteristic and performance information is also used to reward best drivers with preferred locations within the platoon. The vehicles within the platoon mutually self-order to reward best drivers with preferred locations within the platoon. An existing vehicle platoon is selectively split into two or more smaller platoons for improving overall safety and efficiency. Two or more smaller vehicle platoons are selectively aggregated into a larger single platoon for improving overall safety and efficiency.

Self-ordering of fleet vehicles in a platoon

Systems and methods are provided for platoon initialization, redundant lane departure control, and redundant communication operation. A platooning initiation strategy requires continuous communication between vehicles for a more than a pre-defined duration, a demonstration of an operable brake light on the leading vehicle, and command control profile compatibility between the vehicles before allowing the vehicles to mutually platoon or to join an existing platoon. A set of computer readable labels visible to a Lane Departure System placed on a lead vehicle are used by a following vehicle when lane markings become invisible to sensors. A redundant brake lamp operable in a non-visible spectrum is provided for platooning. A specific brake lamp for use exclusively for platooning purposes may be provided.

Initialization and safety maintenance strategy for platooning vehicles

A controller for an adaptive braking system on a host vehicle identifies a first target in a lane of travel of the host vehicle; monitors for an active braking intervention request; monitors for other targets in adjacent lanes of travel to the host vehicle; and transmits a first braking signal at the output to control a braking action at a first braking level in response to receiving the active braking intervention request and identifying no other targets in adjacent lanes of travel to the host vehicle. If the controller identifies a second target in an adjacent lane of travel, then receives a travel signal indicative of change in the direction of travel of the host vehicle toward the second target; it will transmit a second braking signal to control the braking action at a second braking level. The second level of braking is different than the first level of braking.

Adaptive braking for a vehicle control system

A system and method system for determining the positions of one or more collision avoidance sensors on a vehicle is provided. The system includes one or more sensors disposed on the vehicle and configured to generate electromagnetic waves within corresponding fields of view on a side of the vehicle and to receive reflections of the waves from objects passing through the field of view of each sensor. A controller receives signals generated by the sensors responsive to the reflections and determines, responsive to the signals, relative speeds and relative directions of movement of the objects relative to the vehicle. The controller further determines the position of the sensors on the vehicle responsive to the relative speeds and relative directions of movement. In particular, the controller determines the location of sensors relative to the vehicle centerline and the relative positions and distances between sensors in the direction of vehicle travel.

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North Ridgeville, OH, United States of America

Michael K Lesher