Abstract: An electronically-controlled fluid coupling device having a front mounted fan and electrical actuation without a tethered harness. The fluid coupling device combines an inverted viscous clutch, drive pulley and a split electromagnetic actuator package. In this arrangement, the electrical portion of the split electromagnetic actuator is not physically attached to the fan drive, but is instead mounted to a stationary member. The remaining actuator components are integral to the fan drive and are composed of only mechanical parts. The inverted clutch arrangement having remote electronic control allows three output modes: engaged, partially engaged, or disengaged.

Abstract: A control system 20 for an automotive vehicle 22, such as an adaptive cruise control system, is provided including a navigation system 34. The navigation system 34 includes a global positioning system 38. The navigation system 34 detects a ramp and generates a navigation signal including navigation data and map data. A controller 24 is electrically coupled to the navigation system 34. The controller 24 in response to the navigation signal adjusts the speed of the vehicle 22.

Abstract: A bumper system for an automotive vehicle includes a unitary bumper beam substrate which defines upper and lower channel sections which are capped for part of their length by stiffening elements which provide localized increased strength and resistance to elastic buckling and collapsing of the bumper beam.

Abstract: A hydraulically controlled fan drive system (12) having a method of engagement includes a housing assembly (20) containing a hydraulic fluid (48) and an engaging circuit (36). The engaging circuit (36) includes a pitot tube (152) coupled within the housing assembly (20) that receives at least a portion of the hydraulic fluid (48). An engaging circuit (36) engages the housing assembly (20) to a fan shaft (44) in response to supply of the hydraulic fluid (48) from the pitot tube (152). An electrical control circuit (40) having a relief valve assembly (225) coupled to a main controller (176) is used to control the fluid pressure within the pitot tube (152) that controls the engagement of the housing assembly (20).

Abstract: A vehicle mirror assembly having a housing or base member, a mirror lens and a gasket. The mirror lens is provided in the shape of a portion of an end of an ellipsoid. The lens has a varying radius of curvature. The center portion of the lens has a smaller radius of curvature than the outer portions along the major axis of the lens creating an improved field of view of the reflected image.

Abstract: A seating system for an automotive vehicle includes a side airbag mounted to an outboard portion of a seatback, with the side airbag having an occupant reaction surface which is combined with deployable upper and lower reaction members attached to the airbag to define an augmented occupant reaction surface available upon inflation of the airbag.

Abstract: An internal combustion engine cylinder head unit includes a number of gas flow ports extending upwardly from a fire deck. A common coolant passage extends between adjacent ones of the gas flow ports. A first coolant flow director includes a flow splitter extending downwardly into the common coolant passage so as to cause a coolant flow within the common coolant passage to remain attached upon an upper surface of the fire deck between adjacent ports. A second coolant passage runs about a radially outboard portion of the cylinder head unit, and flow in this passage is directed by a truncated bulk flow displacer extending from a rear wall of the second coolant flow passage. The second flow director causes the impingement of coolant upon both an upper surface of the fire deck and upon an outboard portion of at least one of the cylinder ports.

Abstract: A side impact object sensing system for a vehicle includes a single radar sensor mounted on each side of the vehicle, each sensor generating a range and range-rate value for a detected target object, and a controller coupled to each radar sensor. The controller calculates an estimated target object speed, an angle of the target object line of travel with respect to the respective sensor line of sight, and a shortest distance value from the respective sensor to the target object line of travel, and compares the shortest distance value and a change in the angle value to respective threshold values for potential collision threat assessment.

Abstract: An automotive interior trim panel includes a contoured panel having an interior surface forming a portion of a passenger compartment of a vehicle, and an exterior surface cooperating with an exterior body panel to define a first volume. A speaker port is formed in the contoured panel for locating a speaker within the first volume. A shell including an integral acoustic volume and a pelvic bolster circumscribes a portion of the exterior surface of the contoured panel, including a speaker port. The shell is mounted to the exterior surface of the contoured panel so as to define both an acoustic chamber and a pelvic bolster supported by the contoured panel and extending within the first volume.

Abstract: An underbody crash device for a vehicle. The underbody crash device comprises a pillar member attached to the vehicle. The vehicle has a primary load path for absorbing crash energy in a collision. The pillar member is movable to a deployed position for supporting the vehicle directly on the ground and positioning the primary load path to increase crash energy absorbed therein.

Abstract: A vehicle control system includes a housed sensor cluster generating a plurality of signals. An integrated controller includes a sensor signal compensation unit and a kinematics unit, wherein the sensor signal compensation unit receives at least one of the plurality of signals and compensates for an offset within the signal and generates a compensated signal as a function thereof. The integrated controller further generates a kinematics signal including a sensor frame with respect to an intermediate axis system as a function of the compensated signal and generates a vehicle frame signal as a function of the kinematics signal. A dynamic system controller receives the vehicle frame signal and generates a dynamic control signal in response thereto. A safety device controller receives the dynamic control signal and further generates a safety device signal in response thereto.

Abstract: A clutch assembly (20) for a fan drive system (12) of an engine (14) includes a translatable clutch housing (30) that is coupled to a fan (16). A rotating shaft (27) has a non-grooved thermal energy transfer portion (28) that is coupled to a drive pulley (32) of the engine (14). A liner (34) resides between and is engageable with the rotating shaft (27) and the translatable clutch housing (30). The engagement thereof generates thermal energy. The non-grooved thermal energy transfer portion (28) has a cross-sectional thickness (T1) of approximately less than 11 mm and transfers a significant portion of the thermal energy to the drive pulley (32).

Abstract: A vehicle crash safety system includes a pre-crash sensing system generating an object threat assessment and vehicle dynamics data, an occupant sensing system generating occupant characteristic data, and an Occupant Safety Reference Model (OSRM) controller for generating a reference safety restraint deployment profile as a function of the object threat assessment, vehicle dynamics data and occupant characteristic data. An active restraint adaptation (ARA) controller in operative communication with the OSRM controller and a decentralized restraint controller. The ARA controller sends restraint deployment targets, and the safety restraint deployment profile to the decentralized restraint controller. The ARA controller may modify input signals to the decentralized controller based on the real-time occupant position trajectory. The decentralized restraint controller is adapted to operate the restraint system as a function of signals from the ARA controller and real-time occupant-restraint system interactions.

Abstract: A head restraint system for an automotive vehicle seat includes a headrest carried upon eccentric mounting posts which may be extended telescopically from a seatback and rotated about their base axes so as to reposition the headrest not only vertically, but also horizontally. A sensor mounted in the headrest feeds back the location of an occupant's head to a system controller.

Abstract: An adjustable camshaft system for an automotive engine includes a camshaft having machined and fabricated axially-directed control passages combined with an oil-activated camshaft phaser. The fabricated oil control passages are formed within a portion of the camshaft having an outside diameter which is substantially equal to the outside diameter of other portions of the camshaft fitted within bearings carried within the engine's cylinder head.

Abstract: A system and method of controlling an automotive vehicle includes determining a steering wheel angle, determining a steering wheel direction, determining a steering wheel angular rate and applying brake-steer as a function of steering wheel angle, steering wheel angular rate and steering wheel direction.

Abstract: A lacrosse head with improved weight and handling characteristics includes a frame element having a base portion, a scoop portion, and a pair of opposing sidewall portions extending between the base portion and the scoop portion. The frame element includes one or more cavities integrally formed within one or more of the sidewall portions, the base portion, and the scoop portion. In addition, the lacrosse head includes a no-skid surface integrated with a portion of the frame element. This surface is intended to create friction between the no-skid surface and a lacrosse ball, as well as to absorb kinetic energy of the lacrosse ball preventing the ball from inadvertently bouncing out of the lacrosse head or rattling therein.

Abstract: The control of the coolant flow is accomplished through valving or by adjusting the pumping speed of a water pump and a water motor, or a combination of all three elements. During normal operation, where engine cooling is not required, the speed control coupling maintains a slow and constant water pump speed at all engine-operating speeds. The valve is maintained to stop coolant flow from entering the radiator while allowing coolant to flow through a heater. If engine cooling is required, the valve is actuated such that coolant is circulated to the engine and through the radiator. If air conditioning is required, the speed control coupling simply increases the water pump speed and the fan speed while the valve is set to bypass coolant flow to the engine. If air conditioning and engine cooling are required, the valve is actuated to allow coolant flow to the engine.