Continental Automotive Systems Corporation

Gm Global Technolgoy Operations, Inc.

Delphi Technologies, Inc.

Continental Automotive Gmbh

Continental Automotive France

Vitesco Technologies Usa, LLC

Temic Automotive of North America, Inc.

Ningsheng Qiao

Pascal Barbier

Malcolm James Grieve

Marvin L Lynch

Jeremy McClain

Richard A Weaver

Edward George Himes

Alan J Chewter

Matthew R Kirsch

Geoff Bauer

Donald Peter Kultgen

Jeremy W Tuggle

Francois Fabre

Russell A Patenaude

Fred W Huntzicker

Dominik Froehlich

Christopher A Kinser

Brandon Herzog

Robert M Andres

Kevin J Bush

David Frankowski

Umer Khalid

Michael Cottrell

Richard John Gilbert

Mark Gazda

Berenice Sanvicente Herrera

Rodrigo Gomez-Mendoza

Vipul A Modi

Ali Houry

Roland Lang

Karen Skalny

Diego German Canedo Texon

Dean Beckman

Michael J Zaitz

Christian Iernea

Daniel A Ruen

Dalia I Karana

Stanley J Modjeski

Louis Liu

Jack Szpytman

Jeff Naber

Matthew Joseph Dissette

Michael Kalich

Chandrasekar Krishnamuthy

Nicholas Moore

Manjunath P Venkataramana

Jeremy J McClain

Alberto Ramirez-Mendez

Francois Farbe

Marvin Lester Lynch

A method for aerial-based event notification includes detecting a trigger event with one or more electronic units of a system. The system includes a telematics unit, a drone having one or more notification actuators, and a tether that connects the drone to the system. The method further includes launching the drone with the telematics unit in response to the trigger event, waiting a predetermined time after the trigger event, retracting the drone in response to a subsequent event being undetected within the predetermined time after the trigger event, detecting the subsequent event with the one or more electronic units, placing the drone in an alert configuration in response to detecting the subsequent event within the predetermined time after the trigger event, and generating one or more alert notifications from the one or more notification actuators while the drone is in the alert configuration.

Aerial-based event notification

In various embodiments, methods, systems, and vehicles are provided controlling a vehicle. In an exemplary embodiment, a method includes: monitoring an eye gaze of a driver of the vehicle; monitoring current traffic conditions surrounding the vehicle; predicting an intention of the driver to perform a lane change maneuver based on the eye gaze, a history of the eye gaze of the driver, and the current traffic conditions; and controlling, by the processor, the vehicle based on the predicted intention of the driver to perform a lane change maneuver.

Lane change maneuver intention detection systems and methods

One general aspect includes a system to establish a deployment force for an airbag of a vehicle, the system includes: a memory configured to include one or more executable instructions and a processor configured to execute the executable instructions, where the executable instructions enable the processor to carry out the following steps: monitoring a head position of a vehicle occupant; based on the monitored head position, calculating a distance of a body part of a vehicle operator relative to a portion of an interior cabin of the vehicle; and based on the distance of the body part, establishing the deployment force for the airbag.

System and method to establish a deployment force for an airbag

A rear automatic braking system is automatically overridden and released if the accelerator pedal is depressed with the rate of change which is greater than empirically determined threshold beyond a predetermined percentage of its travel for at least a predetermined length of time and if the vehicle's brake pedal is not depressed.

Method of determining a driver's override intention in a rear automatic braking system

A driver identification seatbelt system including a seatbelt system having at least one first belt with a first coupling member, and a second coupling member. The driver identification seatbelt system further including a fingerprint recognition member.

Vehicle theft deterrent utilizing driver identification seatbelt system

An autonomous vehicle, system and method of operating an autonomous vehicle. The system includes a processor for operating an external condition awareness module, a driver driving behavior awareness module and an escalator module: The external condition awareness module is configured to determine an intelligent escalation factor based on an external condition of an environment and driving traffic conditions of the autonomous vehicle. The driver driving behavior awareness module is configured to generate a behavior disciplining factor based on a behavior history of a driver of the autonomous vehicle. The escalation module is configured to generate an escalation signal to alert the driver based on the intelligent escalation factor and the behavior disciplining factor, a driver attention level and a speed of the vehicle.

Intelligent escalation strategy for autonomous vehicle

A trigger event is detected based on a vehicle malfunction that limits maneuverability of a vehicle. An alert message is generated based on the detected trigger event, and the alert message is broadcast via a Vehicle-to-Everything (V2X) communication. Based on the detected trigger event, a receive channel mask and a transmit channel mask are generated, and a channel mask flag is set. When the channel mask flag is set, one or more incoming message channels are selected based on the incoming channel mask and the channel mask flag, and incoming V2X messages are received and processed only on the selected one or more incoming message channels. When the channel mask flag is cleared, incoming V2X messages are received and processed on the selected one or more incoming message channels and at least one additional incoming message channel.

Intelligent method of selecting incoming message channels in a V2X communication

A control unit, controller and non-transitory machine-readable medium for detecting a closing time of an injector valve are disclosed. The control unit is configured to receive a valve current profile of the injector valve, process the valve current profile using at least a slope discriminator, and determine a stuck status and a closing time (if applicable) of the injector valve based on an output of the slope discriminator.

Method, system and apparatus for detecting injector closing time

A failure detection and correction function which is able to detect a failure of an automatic braking system, and provide a corrected action. The failure detection and correction function is independent of the automatic braking function. The failure detection and correction function uses object coordinates and the speed of the vehicle to determine the collision risk, and then calculates a desired deceleration if there is imminent collision. The function uses desired deceleration to compare to a deceleration request from automatic braking function to determine if there is a failure. The failure detection and correction function takes corrected action to avoid the collision if the automatic braking function has failed.

Method of detecting and correcting the failure of automatic braking system

Driver misuse of an automatic braking system is determined by comparing the amount of time that a vehicle moves rearwardly until it is stopped, to the amount of time after the last actuation of a brake pedal and when the vehicle is stopped. If the ratio of no brake applied time to the total reverse time is greater than a predetermined value, the automatic braking system is considered to have been misused. Each misuse occurrence increments a counter that is stored in a non-transitory memory device.

Method of determining and preventing a driver misuse in a rear automatic braking system

A method for detecting a closing time of an injector valve includes receiving a valve current profile of the injector valve, processing the valve current profile using at least a slope discriminator, determining a stuck status and a closing time (if applicable) of the injector valve based on an output of the slope discriminator. An engine control unit configured to detect a closing time of an injector valve is also provided. The engine control unit has a first control logic configured to receive a valve current profile of the injector valve, a second control logic configured to process the current profile using at least a slope discriminator, and a third control logic configured to determine a stuck status and a closing time of the injector valve based on an output of the slope discriminator. Further, a vehicle system including a controller configured to detecting a valve closing time is provided.

A system and method for detecting air-fuel ratio rich-lean imbalance in an automotive engine cylinder is provided. The system and the method are configured to receive an oxygen sensor voltage of an oxygen sensor. They also include filtering the oxygen sensor voltage to create a filtered oxygen sensor voltage. An engine speed and load are determined, and an air-fuel ratio imbalance detection threshold is determined based on the engine speed and the engine load. A rich-lean imbalance status is determined, the rich-lean imbalance status being non-normal if any portion of the filtered oxygen sensor voltage exceeds the air-fuel ratio imbalance detection threshold, and the rich-lean imbalance status being normal if none of the filtered oxygen sensor voltage exceeds the air-fuel ratio imbalance detection threshold. An engine control unit having several control logics to execute similar steps is also provided.

Detection of air-fuel ratio rich-lean imbalance using an oxygen sensor

A direct injection, solenoid fuel injector includes at least one current sensing function capable of detecting a current draw of the solenoid and a controller function. The controller is capable of determining a fully open time of the direct fuel injector solenoid based on the application of a slope inflection filter and a slope discrimination filter to a derivative of the current draw.

Direct injection solenoid injector opening time detection

A method for determining if an injector () is in a blocked state, the injector including a coil of resistance R and of inductance L, passed through by a power supply current of maximum intensity (I), and powered by a voltage E, the method includes:

Method for determining if an injector is in a blocked state

A power supply diagnostic circuit includes a switching power supply that generates a voltage for powering a fuel injector. An injector control module selectively applies the voltage to the fuel injector and monitors a resultant electrical current flow through the fuel injector. The switching power supply includes a dual path circuit comprising two inductors, two MOSFETs, and two diodes. The injector control module determines whether one path of the dual path circuit is defective based on the electrical current flow.

Method to detect partial failure of direct-injection boost voltage

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Troy, MI, United States of America

Ningsheng Qiao