Lear Corporation

Arjun Yetukuri

Mladen Humer

David Anthony Hein

Gerald Steven Locke

Eric C Veine

David Gallagher

Karl Henn

Sai Prasad Jammalamadaka

Jasmine Pizana

Francesco Migneco

Mark A Farquhar

Peter Festag

Alex Van Duyne

Scott Andrew Willard

Michael Przybylski

Gerald Patrick

Samuel R Hanlon

Ted Smith

Marie-Eve Cote

Keith E Mattson

Ashford Allen Galbreath

Paul S Severinski

David J Abdella

Joshua Hallock

Michelle A Pereny

Louella Ann Patterson

Mark R Keyser

Marc Poulin

Bradley C Duncan

Lisa Townley

Curtis Hudson

Michael R Powell

Sajad Arabnejad

Vyachislav Ivanov

Paul Castellani

Mark Weaver

Michael P Modreski

Pat Carlsen

Won-Tai Kim

Raymond E Scott

David Kazyak

James Brackenbury

Kim Krulek

Alex Taylor

Marc Stauske

Stefan Willems

Dean Rinke

Mark Sparschu

Jianmin Zhang

Ray Scott

Kailas Bade

Steven T Stavropoulos

Manish Garge

Constantin Florea

Kimberly Dawn Krulek

Abhay Prakash

Joseph Douglas Rusin

Paul Olivier

Colin Andrew Paton-Phillips

Brandon Landry

A seat assembly with an adjustable head restraint assembly capable of being adjusted based on an approximate stature or spatial location of an occupant in the seat assembly. A seat assembly may include a sensor in the seat to detect if an occupant is present. The sensor may include a plurality of bladders and pressure sensors, a radar system, or a neuro-monitoring sensor. The sensor may send a signal to a controller indicating the presence of an occupant. The controller may approximate the size and/or spatial location of the occupant and send an adjustment signal to the head restraint adjustment mechanism to adjust the head restraint assembly to an in-use position. The controller may determine that an occupant is not present and send an adjustment signal to the head restraint adjustment mechanism to adjust the head restraint assembly to a non-use position.

Seat assembly having an adjustable head restraint

In at least one embodiment, a system for performing biometric evoked response monitoring and feedback for a vehicle is provided. The system includes a plurality of sensors and at least one controller. The plurality of sensors may be positioned about a main cabin of the vehicle and each sensor is configured to provide a first signal indicative of a measured electromagnetic characteristic of an anatomical feature of a driver for the vehicle in response to an alert being issued to the driver. The at least one controller is configured to receive the first signal and to determine a stimulus response and an attentiveness response of the driver based on the measured electromagnetic characteristic of the anatomical feature of the driver.

System and method for biometric evoked response monitoring and feedback

A modular seat assembly includes a seat frame, a modular seat component for engaging the seat frame including a mounting bracket, a cable routed towards the frame and engaged with the mounting bracket, and a cable tensioning system. The cable tensioning system is configured to tighten the cable into a tensioned state and release the cable into a slacked state. In the tensioned state, the modular seat component is secured to the seat frame via engagement of the cable with the mounting bracket, and in the slacked state, the modular seat component is releasable from the cable via disengagement of the cable from the respective mounting bracket.

Modular seat with cable tensioning system

A seating system include a seat assembly including a first seat, a track assembly, and/or an electronic control unit (ECU) configured to control movement of the first seat along the track assembly. The first seat may be configured to move along the track assembly in at least one direction. The ECU may be configured to communicate with an external network. The ECU may be configured to move the first seat proximate a door of a vehicle in response to information received from the external network. The first seat may include an actuator. The ECU may be configured to control movement of the first seat via the actuator, such as in response to the information received from the external network. The ECU may include a first seat profile including information corresponding to the first seat. The ECU may communicate with the external network regarding the first seat profile.

Seating system

A sound system includes a seat including a seatback having a first dipole subwoofer, a second dipole subwoofer, a first speaker, and a second speaker; and a seat bottom having a third speaker. The first dipole subwoofer, the second dipole subwoofer, the first speaker, the second speaker, and/or the third speaker may be configured to receive audio signals from a receiver and provide sound corresponding to the audio signals toward an occupant position of the seat. The third speaker may be directed toward the seat back. The first dipole subwoofer, the second dipole subwoofer, the first speaker, the second speaker, and/or the third speaker may be configured to provide a sound zone for said occupant that facilitates (i) hearing of the sound by said occupant, and/or (ii) limiting transmission of the sound beyond the seat.

Sound system

A seat assembly having an occupant protection system. The occupant protection system may have a deployable shield. The deployable shield may extend around multiple sides of the seat assembly, may extend at least partially around a front of a seat occupant when deployed, may be deployable along a dynamic deployment path based on a detected position of a seat occupant, or combinations thereof.

Occupant protection system for a vehicle seat

A seat includes a seat bottom having an occupant support surface, a seatback connected to the seat bottom, the seatback having an occupant support side cooperating with the occupant support surface, and a rear side, and an energy absorbing feature including a rigid member connected to the rear side of the seatback. The rigid member is movable between a storage position adjacent the seatback, and a deployed position extending into a cargo space of a vehicle upon detection or occurrence of an impact event. In the deployed position, the rigid member is capable of interfacing with cargo, a cargo floor, or both, to reduce force imparted on and deflection of the seatback and deflect cargo from impacting the seatback.

Energy absorbing feature for seatback

A seat assembly includes a seat, one or more sensor assemblies, and/or an electronic control unit that may be connected to the one or more sensor assemblies. The one or more sensor assemblies may provide information about a first position of the seat to the electronic control unit. The electronic control unit may be configured to receive a second position of the seat, and/or the electronic control unit may be configured to automatically move the seat to the second position without contacting other objects. The electronic control unit may include a second seat, and/or the electronic control unit may be configured to automatically move the second seat from a first second seat position to a second second seat position. The electronic control unit may be configured to determine a movement path of the seat according to information from the one or more sensor assemblies.

Seat assembly

A vehicle seat controller is provided to control a front seat assembly and a rear seat assembly positioned directly behind of the front seat assembly. The vehicle seat controller programmed to receive a first input indicating whether the rear seat assembly is occupied and receive a second input indicating a position of the front seat assembly. The vehicle seat controller is programmed to provide a signal to an actuator to move the front seat assembly forward if the first input indicates the rear seat is occupied and the second input indicates the position exceeds a rearward travel threshold.

Seat adjustment limiter and method of control

A method and system involve a controller receiving from a phone an orientation signal indicative of an orientation of the phone and adjusting an object according to the orientation of the phone. The controller is configured to select one of the parts of the object according to an initial orientation of the phone and adjust the selected part of the object in correspondence with the orientation of the phone as the orientation of the phone changes. The controller is configured to receive from the phone a control signal indicative of a user input to the phone and to adjust the object according to the user input. The object may be a vehicle seat having a first part in the form of a seat bottom and a second part in the form of a seat back. The object may be a vehicle sunroof.

Methods and systems employing orientation of phone to adjust physical objects

A vehicle seat includes an illuminated graphic feature. The vehicle seat includes an occupant support. The vehicle seat also includes a light source supported on the occupant support. The light source emits light in an illumination direction when activated. The seat also includes a graphic image that the light that travels in the illumination direction. A cover layer is located in the illumination direction from the graphic image. An illuminated graphic feature is visible through the cover layer when the light source is activated.

Vehicle seat including illuminated feature

A vehicle seat assembly is provided with a seat bottom that is adapted to be mounted to a vehicle floor. A seatback is adapted to be pivotally mounted adjacent to the seat bottom. An actuator is in cooperation with the seat bottom or the seatback. A controller is in electrical communication with the actuator and programmed to receive input indicative of a potential vehicle impact. In response to receiving the input indicative of the potential vehicle impact, the controller outputs a signal to the actuator to tilt the seatback, or to tilt the seat bottom.

Seat assembly actuatable for potential vehicle impact

A neural network is used in a vehicle component to determine the stress level or arousal level of a vehicle occupant. Sensors in the vehicle cabin, e.g., the seat, sense biological characteristics of the occupant, e.g., neuro-electrical signals, cardiac characteristics, body temperature and the like. The neural network can compute and classify the emotional state of the occupant in real-time. The vehicle can trigger warnings, indicators and stress counter-measures when the occupant exceeds a threshold. The counter-measures can include visual and audio feedback within the vehicle cabin. The neural network can provide historical occupant emotional states that can be used by the navigation system to avoid travel segments that may trigger undesired emotional states in the occupant.

Biometric sensor fusion to classify vehicle passenger state

An electrical assembly includes a seat, an electronic control unit, a seat sensor assembly, and a microphone. The electronic control unit may be configured to control movement of the seat. The microphone may be connected to the electronic control unit. The electronic control unit may be configured to determine, via the seat sensor assembly, a position of an occupant of the seat and/or a distance between the occupant and the microphone. The electronic control unit may be configured to modify at least one of a gain and/or a sensitivity associated with the microphone according to the position and/or the distance. The distance may be the distance between a head of said occupant and the microphone. The seat may include a seat base, a seat back, and/or a head restraint. The seat sensor assembly may be configured to provide information about a position of the seat.

Electrical assembly

A distraction detection system includes using a first signal, e.g., EDP signals or vehicle speed, and an additional signal to determine whether a person is distracted. The distraction system can be part of a vehicle seating system, A vehicle seating system is described and includes a seat configured to support an occupant and to be mounted in a vehicle and occupant sensing system at least partially integrated into the seat to sense an occupant. The sensing system senses a first criterion with respect to the occupant. A controller is configured to receive the first criterion signal from the sensing system and a second criterion to determine a distraction state of the driver. The controller can also determine a false distraction state using the distraction state and other criterion in a vehicle. The controller outputs a control signal when the distraction state exceeds a distraction threshold and when distraction is confirmed.

Distractedness sensing system

Growing community of inventors

Rochester Hills, MI, United States of America

Arjun Yetukuri