Delphi Technologies, Inc.

Aptiv Technologies Limited

Aptiv Technologies Ag

Samsung Electronics Co., Ltd.

Todd P Oman

Michel Farid Sultan

Dale Lee Partin

Craig Arnold Tieman

Kevin J Hawes

Bruce Alan Myers

Kris R Stark

Michael L Meno

Robert W Schumacher

Scott David Brandenburg

Thomas Alan Degenkolb

David W Ihms

Gary Eugene Oberlin

John V Caputo

Richard P Sickon

Clayton L Nicholas

Micheal E Miller

Paul J Ainslie

Christopher D Ruppel

A gesture recognition system for hands-free access to a vehicle includes a set of vehicle ultra-wideband (UWB) transceivers comprising at least three UWB transceivers and a controller configured to detect a presence of a vehicle-authorized mobile device in possession of an authorized user, determine a set of defined zones proximate to the vehicle and associated with hands-free vehicle access, communicate between the set of vehicle UWB transceivers and a device UWB transceiver of the mobile device to monitor a location of the mobile device, monitor a movement routine of the mobile device relative to the set of defined zones over a period, and in response to determining a match with one of a set of predefined movement routines associated with hands-free vehicle access, command one of a set of access actuators of the vehicle to grant hands-free vehicle access corresponding to the matched predefined movement routine.

Gesture recognition system for hands-free vehicle access using ultra-wideband communication

Vehicle advanced driver-assistance system (ADAS) techniques include, during an ADAS event where a controller at least partially takes control of the vehicle from a driver, detecting, using at least a driver monitoring system, a driver attentiveness level and a control urgency level indicative of how important it is for the driver to potentially retake control of the vehicle, determining, based on the detected driver attentiveness level and the detected control urgency level, a desired driver alert level for attempting to regain the driver's attention for the driver to potentially retake control of the vehicle from a plurality of predetermined driver alert levels each including at least one of an audio/visual/haptic (AVH) alert and a degree of a braking event, and commanding, according to the desired driver alert level, at least one of an AVH alert system and an anti-lock braking system (ABS).

Driver alert system through algorithmic braking events for advanced driver-assistance system

Computer-implemented methods include detecting a device ultra-wideband (UWB) transceiver of a mobile device and a set of vehicle UWB transceivers of a vehicle, determining a defined driver zone within the vehicle, the defined driver zone indicating a set of relative positions within the vehicle, communicating between the device UWB transceiver and the set of vehicle UWB transceivers to determine a position of the mobile device within the vehicle, and automatically enabling a driver mode of the mobile device whereby operation of the mobile device is limited when the determined position of the mobile device is within the defined driver zone and the vehicle is moving.

Automatic control of smartphone driver mode using ultra-wideband communication

A detection device includes at least one detection module communicatively coupled with a communication device. The detection module includes a controller circuit communicatively coupled with a first antenna. The first antenna receives first electromagnetic signals from a first plurality of antennae located within an interior of a first vehicle. The first antenna receives second electromagnetic signals from a second plurality of antennae located and within an interior of a second vehicle. The controller circuit determines a position of the communication device within the interior of the first vehicle relative to locations of the first plurality of antennae based on the first electromagnetic signals received by the first antenna. The controller circuit determines a position of the communication device within the interior of the second vehicle relative to locations of the second plurality of antennae based on the second electromagnetic signals received by the first antenna.

Detection device

A system for positioning a vehicle over a wireless charging station. The system includes a plurality of ultra wideband transceivers (UWBX) installed on the vehicle and the wireless charging station, and a controller configured to determine various distances between the various UWBXs.

Vehicle positioning system for wireless charging stations

A sensor system and seat assembly includes a sensor assembly configured to detect a seating force exerted on a portion of a seat cushion of a seat. The sensor assembly includes a base, a force transducer configured to output a signal indicative of the seating force, and a lever pivotably coupled to the base. The lever defines a sensing end configured to be disposed proximate to the portion of the seat cushion such that the seating force operates on the sensing end. The lever also defines an actuating end configured to apply an actuation force to the force transducer. The sensor assembly may comprise a plurality of levers. Each sensing end of each lever may be disposed in a separate location within the portion of the seat cushion. The sensor assembly may be configured to detect a child exerting a seating force on a portion of the seat cushion.

Occupant detection sensor assembly

A passive entry passive start (PEPS) vehicle security system configured to activate a vehicle function when an activation signal is received. The system includes a nomadic device configured to detect a change of a magnetic field relative to the nomadic device, and emit an activation signal only if the change corresponds to walking by an operator carrying the nomadic device.

Passive entry and passive start system with operator walking detection

A passive entry passive start (PEPS) vehicle security system configured to thwart a relay attack on the system. The system includes one or more ultra wideband transceivers (UWBX) installed on a vehicle and configured to transmit a request pulse at a request time. A mobile UWBX, possibly installed in a nomadic device such as a smart phone, is configured to transmit a reply pulse in response to the request pulse. A controller is configured to determine a distance between each UWBX and the mobile UWBX based on a time interval between the request time and a time that corresponds to when the reply pulse is received by the each UWBX. The controller may also be configured to unlock doors of the vehicle only if the distance is less than an unlock threshold.

Relay attack prevention for passive entry passive start (PEPS) vehicle security systems

A thermal-protection apparatus disposed in a vehicle cabin or storage compartment includes a housing enveloping a chamber in which a thermally-sensitive consumer electronic device is received, a thermoelectric module mounted in a wall of the housing, and a remote electronic controller and power source coupled to the housing via an electrical cable for activating the thermoelectric module, and optionally the consumer electronic device, in a manner to prevent the temperature in the chamber from exceeding a prescribed maximum operating temperature of the consumer electronic device or falling below a prescribed minimum operating temperature of the consumer electronic device.

Thermally-protected chamber for a temperature-sensitive consumer electronic device

Long-range remote communication and control of a vehicle is achieved with primary and secondary cellular devices provided by the vehicle user. The primary cellular device is retained by the user, while the secondary cellular device is dedicated to the vehicle and placed in a docking station provided in a vehicle instrument panel or console. The vehicle docking station is equipped with typical cell phone electrical interfaces to supply battery charging current and to establish a bi-directional data communication link between the secondary cellular device and an on-board vehicle computer. The secondary cellular device remains activated, and provides a low-cost remotely accessible communication link between the on-board vehicle computer and the primary cellular device or any other phone, provided that specified security conditions are satisfied.

Method and apparatus for remote vehicle communications and control

A communications system utilizing a portable communications device for controlling functions in a vehicle includes a first display for controlling vehicle operating functions and a first transceiver connected to the first display device. A multifunctional control switch is connected to the first display device, while a second transceiver is used for communicating with either the first transceiver or a remote keyless entry (RKE) receiver depending upon whether the second transceiver is located inside or outside the vehicle. The second transceiver operates to configure operational parameters of the display device when those controls have not been readily integrated into the vehicle center stack.

Dual purpose wireless device, wherein vehicle controls depend on device location

Long-range remote communication and control of a vehicle is achieved with primary and secondary cellular devices provided by the vehicle user. The primary cellular device is retained by the user, while the secondary cellular device is dedicated to the vehicle and placed in a docking station provided in the vehicle passenger compartment. The vehicle docking station is equipped with typical cell phone electrical interfaces to supply power and to establish a bi-directional data communication link between the secondary cellular device and an on-board vehicle computer. The secondary cellular device remains activated, and provides a low-cost remotely accessible communication link between the on-board vehicle computer and the primary cellular device or any other phone, provided that specified security conditions are satisfied.

Medium-range remote communication and control for a vehicle is achieved with a wireless vehicle telematics unit, a medium-range wireless portable fob, and an unmodified wireless personal communication device. The portable fob includes a medium-range RF transceiver for bi-directional communication with the telematics unit and a short-range wireless transceiver for bi-directional communication with the personal communication device. The fob communicates with the vehicle telematics unit in a conventional manner, and also relays information between the telematics unit and the personal communication device. Communication can be initiated by the telematics unit or by the operator via the fob or personal communication device. Once communication is initiated, the fob relays: (1) menu options and status information from the telematics unit to the personal communication device; and (2) menu selections from the personal communication device to the telematics unit. No cellular network service or special programming is required for the personal communications device.

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Greentown, IN, United States of America

Todd P Oman