Abstract: A vehicle includes a chassis, a driveline coupled to the chassis, and a control system. The control system is configured to monitor a condition of at least one of the vehicle, an area around the vehicle, or an operator of the vehicle; and control operation of the driveline based on the condition. Controlling the operation of the driveline includes at least one of limiting a speed at which the driveline drives the vehicle or shutting down the driveline and isolating a component of the driveline.

Abstract: A vehicle includes a vehicle body defining a moonroof opening and a moonroof. The moonroof is moveably supported by the body and is moveable relative to the moonroof opening between an open position and a closed position. An airbag is mounted to the vehicle body. An inflator is in fluid communication with the airbag. A pyrotechnic device is operatively connected to the airbag to pull the airbag across the moonroof opening.

Abstract: A roof airbag for a vehicle includes: an airbag cushion located at a roof panel of the vehicle and configured to be unfolded from a first side portion to a second side portion of the roof panel during an operation of the airbag cushion; a first seam portion extended in a direction intersected with an unfolded direction of the airbag cushion and allowing upper and lower surfaces of the airbag cushion to be in contact with each other; and an inflator coupled to the first side portion of the roof panel, and connected to the airbag cushion and configured to inject gas into the airbag cushion so as to allow the airbag cushion to be unfolded from the first side portion to the second side portion of the roof panel.

Abstract: A guide assembly for a roof airbag arrangement of a vehicle includes a guide member, at least a first sliding member and a locking member. The first sliding member is carried by the guide member and translatable relative to the guide member along a translation axis. The locking member is carried by the guide member and is operable in a first position to permit the first sliding member to translate past the locking member in a first direction and operable in a second position to prevent translation of the first sliding member past the locking member in a second direction. The second direction being opposite to the first direction.

Abstract: A vehicle remote keyless entry system for an electrically actuatable vehicle lock includes a fob comprising a transmitter that is actuatable to transmit an RKE message. A vehicle-based receiver receives the RKE message. A vehicle-based controller operatively connected to the vehicle-based receiver is configured to supply electrical power from a vehicle battery to the vehicle lock to unlock the vehicle lock in response to receiving the RKE message from the vehicle-based receiver. An energy storage device, separate from the vehicle battery, supplies electrical power to actuate the vehicle lock to unlock the vehicle lock when predetermined conditions are met.

Abstract: A lock apparatus includes a bracket, an engagement module, and an actuation module. The engagement module is supported in the bracket and has an engagement member configured to move to a first position or a second position in a first axial direction along the first axial direction. The actuation module is connected to the bracket and includes a pushing member. The actuation module drives the pushing member to move to a first position or a second position in the second axial direction along the second axial direction. When the pushing member is at the first position in the second axial direction, the engagement member is at the first position in the first axial direction. When the pushing member is at the second position in the second axial direction, the engagement member is at the second position in the first axial direction.

Abstract: The present disclosure provides A vehicle hazard management system mounted to a vehicle having a high voltage system, comprising: a sensor configured to provide an activation signal in response to at least one of a collision involving the vehicle, a fault of the high voltage system, and at least partial submersion of the vehicle; a controller in communication with the sensor, the controller being configured to receive the activation signal and respond by generating an emergency message including information describing at least one of the make, model and year of the vehicle; and a transmitter coupled to the controller and configured to transmit the emergency message to an emergency communication device.

Abstract: A locking device is provided for a motor vehicle door. The locking device includes a body having a base, a stake, a lever, a gusset and a rotational axis. A method of locking a motor vehicle door closed in response to a side impact is also provided.

Abstract: A transmission subsystem has an automatic transfer switch (100) which includes at least a pair of movable contact members (28, 30). The pair of movable contact members includes a first movable contact member (28) at a first location and a second movable contact member (30) at a second location. The automatic transfer switch further includes a fixed member (29), a controller (68) configured to select one of the first and second movable contact members, and a permanent magnetic actuator (65). The permanent magnetic actuator includes an actuator body, a first driving rod (60), and a second driving rod (62). The permanent magnet actuator is configured to move the first driving rod in a first direction independently of movement of the second driving rod. The first driving rod is configured to move the first movable contact member, and the second driving rod is configured to move the second movable contact member.

Abstract: An arrangement for a vehicle roof may have a roof element coupleable to a roof body of a motor vehicle and permits a view through the vehicle roof, and a safety device which is assigned to the roof element and which has a safety element and a drive means which is configured to move the safety element relative to the roof body and to transfer same from a first, retracted state, in which the safety element is stowed in a predetermined manner, into a second, extended state, in which the safety element covers a surface portion on a lower side of the roof element in a predetermined manner and opposes penetration of a body through the roof element. The safety device is designed as a darkening device and the safety element is designed as a darkening element, to selectively darken a vehicle interior of the motor vehicle.

Abstract: A remote locking system for an autonomous vehicle is disclosed. The locking system has a locking mechanism operably connected to an axle of the vehicle. The locking mechanism is selectively actuatable to prevent a power system from rotating the axle. The locking system also has a control station connected to the locking mechanism through a wireless network. The control station is configured to remotely actuate the locking mechanism. The power system is autonomously controlled by an electronic control system and the locking mechanism is independent from the electronic control system.

Abstract: One general aspect includes a deployable containment system for a vehicle roof panel, the system including: a pair of guide channels proximate to an opening through the vehicle roof panel, each guide channel of the pair having a first end and a second end; a housing mounted to the first end of the pair of guide channels. The deployable containment system also includes a shield configured to deploy from the housing and travel along the pair of guide channels so as to cover at least a portion of the opening. The deployable containment system also includes an actuator disposed proximate to the pair of guide channels, the actuator configured to deploy the shield from the housing after a deployment event.

Abstract: An apparatus for automatic shifting of a vehicle may include a rotation shaft connected to an output shaft to rotate together; first connecting members each having a first end portion to which a first link disposed on the rotation shaft is hinged and a second end portion to which a centrifugal weight is disposed, to pivot about the first end portions by centrifugal force; second connecting members each having a first end portion hinged to the middle portion of the first connecting member and a second end portion hinged to a second link disposed on the rotation shaft; a slider disposed on the rotation shaft to be coupled to any one of the first link and the second link and sliding in an axial direction of the rotation shaft; and a shift fork connected to the slider to engage a synchronizer with a shift stage gear.

Abstract: A roof airbag apparatus may include: a gas injector configured to inject gas; a tether guide disposed along the longitudinal direction of a roof; a chamber part connected to the tether guide, and deployed by gas received from the gas injector; and a chamber moving part installed in the chamber part, and moving the chamber part while being pressed by the gas transferred to the chamber part.

Abstract: Method of collision avoidance which includes: sensing parameters by a first vehicle with respect to its movement in a first direction; sensing a second vehicle having a movement in the first direction and separated from the first vehicle by a spaced distance; sensing parameters with respect to the movement of the second vehicle; responsive to sensing by the first vehicle of an imminent need to stop the first vehicle to avoid a collision with the second vehicle, calculating a braking distance between the first vehicle and the second vehicle; determining that the braking distance is greater than the spaced distance; communicating by the first vehicle with the second vehicle; querying the second vehicle as to if the second vehicle can take a corrective action to avoid a collision with the first vehicle; and braking the first vehicle independent of any corrective action taken by the second vehicle.

Abstract: When a following vehicle approaches a host vehicle, a following vehicle warning unit that issues a warning to the following vehicle on the basis of the likelihood of a front end collision, calculated by a front end collision likelihood calculation unit and the likelihood of a rear end collision, calculated by a rear end collision likelihood calculation unit, issues a warning to the following vehicle before activating a brake apparatus of the host vehicle at a brake force determined by a braking processing determination unit that determines a brake force required to prevent a collision between the host vehicle and a frontward obstruction on the basis of the likelihood of a front end collision.

Abstract: Disclosed are an apparatus and a method of requesting an emergency call (E-Call) for a vehicle accident, which request an E-Call for a vehicle accident by using driving information obtained during travelling of a vehicle. An apparatus for requesting an E-Call for a vehicle accident according to the present invention includes: a travelling information detecting unit configured to detect travelling information about a vehicle for each predetermined time; a vehicle accident determining unit configured to determine whether an accident occurs in the vehicle based on the travelling information; and an E-Call signal transmitting unit configured to transmit an E-Call signal for the vehicle accident with a current location of the vehicle when it is determined that the accident occurs in the vehicle.

Abstract: A method and system that monitors the behavior of surrounding vehicles in order to predict and react to an upcoming hazard in the road, even in situations where the hazard has not been directly sensed. In an exemplary embodiment, the method monitors an area around the host vehicle and looks for the presence of one or more target vehicles. If target vehicles are detected, then the method evaluates their behavior, classifies their behavior into one of several categories, and assuming that their behavior suggests some type of upcoming hazard, develops an appropriate preemptive response for controlling the host vehicle. The preemptive response may include mimicking, copying and/or integrating with the behavior of the surrounding target vehicles according to so-called “flocking” techniques in order to avoid the otherwise unseen hazard.

Abstract: A system can automatically open at least one window of a vehicle when the vehicle is being submerged in water. The system can include a water collector and a water sensor, and when the water sensor detects water in the water collector, at least one window of the vehicle opens.

Abstract: A frameless-door window operating system is provided for a vehicle door. The system includes a door actuator, a door latch controller, a window controller and a door window displaceable between a closed position and an indexed position providing clearance to open the door.

Abstract: An emergency device for a household appliance of the type comprising a door that has a prong is described. The emergency device has an emergency member, movable between a rest position and an operating position, in which the emergency member engages with the prong of the door when the door is in a closed position, and control means, capable to hold the emergency member in the rest position. The control means has a security element, electrically connected to a control logic of the household appliance, such that when the safety element is crossed by a suitable current intensity and/or when a temperature surrounding the safety element exceeds a preset threshold, the security element melts releasing the emergency member, the emergency member passing irreversibly from the rest position to the operating position, engaging with the prong of the door when the door is closed.

Abstract: Vehicles, vehicle doors, and door handle systems are provided. In one embodiment, a vehicle includes a vehicle door, a fixed door handle, and at least one pressure switch. The vehicle door has an outer door panel with an outer side facing an outside of the vehicle door and an interior side facing an interior of the vehicle door. The fixed door handle is at least partially disposed to the outside of the vehicle door. The at least one pressure switch is disposed in the interior of the vehicle door and is coupled with the fixed door handle such that an actuation force on the fixed door handle is at least partially transmitted to an actuation pressure on the at least one pressure switch. The at least one pressure switch indicates the actuation pressure for generating a vehicle command.

Abstract: A filter element for a pneumatic adjusting arrangement, e.g., a vehicle seat, includes a filter chamber that is fillable with pressure media and includes first and second flexible films connected together along a connecting seam to define the filter chamber. A filter medium for removing particles entrained in the pressure medium is arranged in the filter chamber and separates the filter chamber into first and second chamber regions. The pressure medium may flow into the first chamber region via a pressure medium inlet line, flow into the second chamber region via the filter medium, and flow out of the second chamber region via at least one pressure medium outlet line. By realizing the filter element or the filter chamber thereof from flexible films, the filter element can be installed in a space-saving manner and with a form that can be adapted to the situation.

Abstract: The present invention relates to an electronic mechanical protector system for vehicle door latches during crash conditions, vehicle door equipped with such a system, and methods for operating the system.

Abstract: An apparatus may include a latch mechanism, an actuator, and an actuation link. The latch mechanism may be movable to allow and restrict movement of a vehicle door relative to a vehicle frame. The actuator may be configured to be movable by a user to cause corresponding movement of the latch mechanism. The actuation link may interconnect the latch mechanism and the actuator. The actuation link may include a portion that is laterally compliant to absorb a lateral force and axially rigid to transmit motion of the actuator to the latch mechanism.

Abstract: A motor car (10) has windows (28, 49) which can have a first H1 fully closed position and a lower H2 position in which water tightness is still provided but opening of a frameless window assembly/door assembly can be achieved more quickly from the point in time in which the door handle 44, 46) is operated. The Hi position may be selected as the vehicle accelerates above a given speed and the H2 position may be selected when the vehicle door is closed, and the window may also have a short-drop H3 lower re-spool H4 position or in the case of a rear window a three quarter lowered H5 position.

Abstract: A system and method is provided to index the door window glass of a vehicle to disengage the glass from the window sealing interface prior to opening the door. A door latch including an unlatching lever selectively connectable to the inside and outside door handles is configured such that moving either handle to actuate the latch causes an initial change in the position of the unlatching lever prior to latch release. A sensor in the latch detects the initial change in position of the unlatching lever and signals an indexing mechanism to move the glass to the indexed position prior to latch release, such that the glass does not substantially interfere with the sealing interface when the door is moved from a closed position. The system may be configured such that the door lock mechanism must be unlocked prior to the indexing mechanism moving the window to an indexed position.

Abstract: An apparatus may include a latch mechanism, an actuator, and an actuation link. The latch mechanism may be movable to allow and restrict movement of a vehicle door relative to a vehicle frame. The actuator may be configured to be movable by a user to cause corresponding movement of the latch mechanism. The actuation link may interconnect the latch mechanism and the actuator. The actuation link may include a portion that is laterally compliant to absorb a lateral force and axially rigid to transmit motion of the actuator to the latch mechanism.

Abstract: A brake system for a vehicle includes brake cylinders operated by pressurized fluid for actuation of brakes by means of pressurized fluid on at least one first axle of the vehicle. The brakes on at least one other, second, axle can be actuated exclusively electromechanically in response to an electrical braking request signal. The pressure of the pressurized fluid can be modulated indirectly or directly and the electrical braking request signal can be generated indirectly or directly in response to actuation of a brake pedal of a brake pedal device. A service brake function is provided by means of hybrid use of the brakes on the first axle(s) together with the brakes on the second axle(s). The brake cylinders operated by pressurized fluid are pneumatically operated brake cylinders. The pressure modulated by the brake pedal device is a pneumatic pressure, and the pressurized fluid is compressed air.

Abstract: An apparatus may include a latch mechanism, an actuator, and an actuation link. The latch mechanism may be movable to allow and restrict movement of a vehicle door relative to a vehicle frame. The actuator may be configured to be movable by a user to cause corresponding movement of the latch mechanism. The actuation link may interconnect the latch mechanism and the actuator. The actuation link may include a portion that is laterally compliant to absorb a lateral force and axially rigid to transmit motion of the actuator to the latch mechanism.

Abstract: An activation device is configured to activate a protection apparatus for protecting an occupant. The activation device includes a front collision detection unit and a rear collision detection unit. The front collision detection unit outputs a front-collision-state activation signal to a front-collision protection apparatus so as to activate the front-collision protection apparatus when detecting front collision of the vehicle. The rear collision detection unit outputs a rear-collision-state activation signal to a rear-collision protection apparatus so as to activate the rear-collision protection apparatus when detecting rear collision of the vehicle. The rear collision detection unit prohibits output of the rear-collision-state activation signal to the rear-collision protection apparatus for a first period when the front collision detection unit detects front collision of the vehicle.

Abstract: Embodiments of the present invention relate to pedestrian head impact protection. In operation, during a pedestrian impact event with a vehicle, a pedestrian protection deployable hood apparatus configured in accordance with an embodiment of the present invention causes displacement of the hood at its hinge-carrying portion for enhancing clearance an underside of the hood and a topmost surface of under-hood components. Such embodiments of the present invention contribute to providing for pedestrian head impact protection in a manner that can be implemented with a variety of hood mounting arrangements, that is effective in its results, and that is simple to package in an under-hood environment.

Abstract: A vehicle structural reinforcement system includes: a first pillar; a second pillar; a vehicle door between the first and second pillars; a first crossbeam attached to the door; and a first locking hinge attached to the second pillar. The first crossbeam comprises a first hooked end configured to engage the first locking hinge. The second pillar includes a reinforcement ring and wherein the first locking hinge is attached to the reinforcement ring.

Abstract: A motor car (10) has windows (28, 49) which can have a first H1 fully closed position and a lower H2 position in which water tightness is still provided but opening of a frameless window assembly/door assembly can be achieved more quickly from the point in time in which the door handle 44, 46) is operated. The Hi position may be selected as the vehicle accelerates above a given speed and the H2 position may be selected when the vehicle door is closed, and the window may also have a short-drop H3 lower re-spool H4 position or in the case of a rear window a three quarter lowered H5 position.

Abstract: A component, especially a part of an intake system or an air filter, for installation under the hood of a motor vehicle has a housing with a first housing part and a second housing part that are connected to one another. The first housing part is of a two-part configuration and has a support frame and a receiving part. The support frame is supported on the second housing part. The receiving part and the support frame are secured relative to one another by a releasable connection. The releasable connection is designed such that, when an external force acts on the receiving part, the releasable connection is released and the receiving part and the support frame slide telescopingly into one another.

Abstract: In a closure panel control apparatus, an ECU controls a rotational speed of an electric motor, which provides a drive force to drive a closure panel in an opening movement and a closing movement thereof. The ECU obtains a vehicle speed measured with a vehicle speed sensor and receives a command signal from a switch, which is operable by an occupant of a vehicle to command the opening movement or the closing movement of the closure panel. The ECU controls the rotational speed of the electric motor based on the measured vehicle speed that is obtained at the time of receiving the command signal from the switch.

Abstract: The invention relates to a safety device for controlling the opening of an automobile door (100). According to the invention, the device (130) includes means (131, 132, 133) for blocking said control in the event of a side impact. The invention can be used for automobile safety with respect to side impacts.

Abstract: An undercarriage for a hospital bed including at least three wheels (1) while at least two wheels (1) are equipped with a brake (2) with a common control (9) of all the brakes (2). The undercarriage further includes a bed movement sensor (31) that is connected to the central processor unit (32), which is interconnected with an actuating device (33) for control of all the brakes (2). The central processor unit (32) is further equipped with a block (35) for generation of a timeout between stopping of turning of the wheel (1) and automatic applying of the brakes (2).

Abstract: Multiple protecting devices, such as an air bag and an air bag jacket, are controlled and operated in accordance with the shape and size of an impact. A normal collision determining section causes the air bag and/or the air bag jacket to operate in accordance with the magnitude and direction of a collision based on outputs of G sensors. When a collision predicting section predicts a collision on the basis of other vehicle information obtained by a vehicle-to-vehicle communication device and own-vehicle information, it causes a stand-by collision determining section to start instead of the normal collision determining section. The stand-by collision determining section determines a collision mode in advance and sets a threshold value for determining the outputs of the G sensors to a value different from a value used in the determination of the normal collision determining section so as to permit quick determination of a collision.

Abstract: A method for activating a restraint system in a vehicle, in which the restraint system is activated as a function of a speed, an activation characteristic, and at least one quantity derived from an acceleration signal, and in which the at least one quantity exceeds a threshold function that is set as a function of the impact speed and a required activation time. The activation characteristic of a particular accident type runs linearly to a first impact speed value. The activation characteristic runs with a second slope between the first impact speed and a second impact speed value, the first and the second impact speed value depending on the particular vehicle type.

Abstract: An emergency window opening system includes a vehicle, a vehicle door attached to the vehicle and a window mounted in the vehicle door. A primary window motor is mechanically coupled to a lift gear mechanically coupled to the window to allow selective raising or lowering of the window. A housing is mounted within the vehicle door. A secondary motor is mounted within the housing. A drive shaft of the secondary motor is mechanically coupled to the lift gear. The secondary motor lowers the window when turned on. An actuator is mounted on the vehicle door and is electrically coupled by a wire to the secondary motor. The secondary motor is turned on when the actuator is actuated. A power supply line extends between and directly electrically couples a battery to the secondary motor. The power supply line extends into the housing.

Abstract: A vehicle occupant protection device comprising a headrest configured to be movable forward with respect to a vehicle, and an actuator configured to implement the forward movement is disclosed. The device is configured to protect a vehicle occupant by operating the actuator to move the headrest forward in a pre-crash stage in the course of an object crashing into the vehicle from backside of the vehicle. The headrest is provided with an electrical capacitance sensor. The device is configured to control an amount of the forward movement of the headrest according to a variation manner of electrical capacitance, which electrical capacitance is detected by the electrical capacitance sensor when the headrest moves forward.

Abstract: Apparatus and associated methods for safely capturing a moving vehicle are disclosed. The method includes biasing a portion of a loop of cable against the rear portion of one or more tires of a target vehicle, such that the cable is carried over the tire and engages the rear axle, or another portion, of the target vehicle. The loop of cable can be connected to a stationary or mobile structure that can then provide a force to the cable to safely slow down and stop the target vehicle.

Abstract: A vehicle hood apparatus includes a hood member, an actuating mechanism, a vehicle collision detecting sensor, vehicle speed sensor, and a control unit. The actuating mechanism couples said hood member to the vehicle and is operable to position said hood member between a first position where said hood member is not shielding at least a portion of a windshield of the vehicle, and a second position where said hood member is shielding at least a portion of the windshield of the vehicle. The vehicle collision detecting sensor is operable to output a collision signal corresponding to a detected collision with the vehicle. The vehicle spend sensor is operable to output a speed signal corresponding to the speed at which the vehicle is moving.

Abstract: When a vehicle stops, a brake control unit maintains a braking force applied on a wheel by a braking-force application unit for maintaining a halted state. In this state, if a driver depresses the accelerator pedal to execute starting of the vehicle, the braking force is gradually decreased, and the vehicle starts at a speed that accords with a degree of accelerator opening and a gradient of a road on which the vehicle is stopped. When a movement direction at this time is the same as a movement direction intended by the driver, the braking force is decreased to zero for smooth starting. When the movement direction is opposite to the intended movement direction, the braking force is increased to control the movement in the opposite direction, such that the movement changes from the opposite direction to the same direction, and finally, smooth starting in the desired direction is executed.

Abstract: A vehicle emergency egress in which one or more components are provided with a luminescent coating, such as a phosphorescent coating. Exemplary vehicle emergency egress structures include a kick-out window, an emergency escape hatch, and a vehicle door, of which at least part of the emergency release structure, such as levers and handles, would be coated with a luminescent coating. Additionally, the perimeter of the emergency egress portal could be coated, to highlight the location of the emergency exit as well as its size.

Abstract: A holding fixture for a camera and a method for monitoring the surrounding area of a vehicle, using at least one camera, which is used to draw a holding fixture out of the body shell of a vehicle, as needed. The holding fixture is extended as a function of a speed signal or a transmission-setting signal, and, in addition to a camera, the holding fixture has a further device, in particular a washer device or a trunk handle. Furthermore, the holding fixture can be drawn out as a function of a signal from a control element. Holding fixtures having cameras can be attached at various positions of the vehicle.

Abstract: A safety logic for vehicle rollover detection systems comprising a main rollover detection logic and at least one protection device for the occupant or occupants of the vehicle, including a vehicle lateral acceleration sensor (11), which generates an output signal indicating a near rollover event, when a lateral acceleration of a vehicle exceeds the first predefined threshold value (15) or, when a lateral acceleration of vehicle exceeds the second predefined threshold value (16) that is lower than the first predefined threshold value (15) and simultaneously at least one additional safety logic activation signal is present (1, 1?, 1?, 1??).

Abstract: A vehicle-pedal backward-displacement preventing device including: (a) a pedal bracket supporting an operating pedal having a depressible portion; (b) upper and lower attachments fixed to the pedal bracket, such that the pedal bracket is attached to a dash panel through the attachments; and (c) a guide member fixed to the pedal bracket or a vehicle body member and is operable to restrain, in event of backward movement of the pedal bracket together with the dash panel toward a driver's seat, the depressible portion of the operating pedal from being backwardly displaced toward the driver's seat, by causing a distal end portion of the pedal bracket to be downwardly displaced.

Abstract: A vehicle safety system, vehicle (10) air bladders (12) hydraulic jacks (14) solution spray nozzles (16) front, rear absorber eject out bumpers (18) cluster sensing unit (20) dual door brace to interlock with eject out absorbers to body frame (22) single door brace to interlock with eject out absorbers to body frame (24) stand alone eject out door brace without interlock to body frame (26) interlock with eject out absorbers to body frame to dual door brace (28) interlock with eject out absorbers to body frame to single door brace (30) air bags (32).