Abstract: An HVAC system for a vehicle includes infrared skin temperature sensors for measuring actual skin temperatures of the driver and a cabin temperature sensor for measuring an actual cabin temperature of ambient air within the passenger cabin. A controller module stores a target cabin temperature. The controller module controls the HVAC system according to a first error between the target cabin temperature and the actual cabin temperature. A personalization module stores a target skin temperature, and the personalization module determines an offset to be applied to the target cabin temperature according to a second error between the target skin temperature and the actual skin temperature. Infrared temperature measurements are collected for the left and right sides of a person's face, and the actual skin temperature is selected as the one that deviates most from the actual cabin temperature.

Abstract: An HVAC system for a vehicle includes infrared skin temperature sensors for measuring actual skin temperatures of the driver and a cabin temperature sensor for measuring an actual cabin temperature of ambient air within the passenger cabin. A controller module stores a target cabin temperature. The controller module controls the HVAC system according to a first error between the target cabin temperature and the actual cabin temperature. A personalization module stores a target skin temperature, and the personalization module determines an offset to be applied to the target cabin temperature according to a second error between the target skin temperature and the actual skin temperature. Infrared temperature measurements are collected for the left and right sides of a person's face, and the actual skin temperature is selected as the one that deviates most from the actual cabin temperature.

Abstract: An HVAC system for a vehicle includes a skin temperature sensor for measuring an actual skin temperature of the driver and a cabin temperature sensor for measuring an actual cabin temperature of ambient air within the passenger cabin. A controller module stores a target cabin temperature. The controller module controls the HVAC system according to a first error between the target cabin temperature and the actual cabin temperature. The actual cabin temperature is filtered according to a first time constant. A personalization module stores a target skin temperature, and the personalization module determines an offset to be applied to the target cabin temperature according to a second error between the target skin temperature and the actual skin temperature. The actual skin temperature is filtered according to a second time constant longer than the first time constant.

Abstract: An HVAC system for a vehicle includes a skin temperature sensor for measuring an actual skin temperature of the driver and a cabin temperature sensor for measuring an actual cabin temperature of ambient air within the passenger cabin. A controller module stores a target cabin temperature, wherein the controller module controls the HVAC system according to a first error between the target cabin temperature and the actual cabin temperature. The actual cabin temperature is filtered according to a first time constant. A personalization module stores a target skin temperature, wherein the personalization module determines an offset to be applied to the target cabin temperature according to a second error between the target skin temperature and the actual skin temperature. The actual skin temperature is filtered according to a second time constant longer than the first time constant.

Abstract: A side-impact control system (10) for a vehicle (12) includes an adaptive restraint (15). A side sensor (30) is configured to detect an object, in a restraint dependent detection zone (60) along a side (13) of the vehicle (12), and generates an object detection signal. A controller (16) determines an activation time for and a deployment status of the adaptive restraint (15), and activates the adaptive restraint (15) before or after contact between the object and the side (13).

Abstract: A safety system (10) for a vehicle (12) includes multiple collision detection sensors (14), such as discretized patch sensors. The collision detection sensors (14) are coupled to a peripheral area (18) of the vehicle (12) and generate a collision detection signal (17). A controller (16) is coupled to the sensors (14) and determines collision type in response to the collision detection signal (17). The controller (16) performs a countermeasure in response to the collision type. The controller (16) may include a collision location estimator (22) for determining collision severity and collision contact location on the vehicle (12) and a coordinated device activation system (24) for performing the countermeasure.

Abstract: A safety system (10) for a host vehicle (12) includes a voice sensor (38) that detects voice signals from a vehicle occupant. An occupant classifier (30) determines a state of mind of the vehicle occupant. A controller (13) performs a safety countermeasure in response to the state of mind of the occupant including the transmission of the state of mind to a target vehicle. A vehicle voice control system (24) includes the voice sensor (38), which detects voice signals from the vehicle occupant. A speech classifier (32) monitors a speech characteristic, including a vehicle occupant identifiable and associated speech characteristic, in response to the voice signals and associates the voice signals with a vehicle related task in response thereto. A controller (13) performs the vehicle related task in response to the voice signals and the association.

Abstract: A host vehicle system includes a blind-spot warning system providing an indication to the host vehicle a target vehicle entering a blind-spot. The system includes a vehicle bus receiving various vehicle control signals, magneto-resistive sensors receiving proximity information as a function of magnetic field variations, a smart algorithm controller analyzing bus signals and sensor signals, and various vehicle collision systems such as passive restraints, optical light guides, and audible warnings operating in response to a threat from a target vehicle.

Abstract: A host vehicle system includes a lane change system providing an indication to the host vehicle a target vehicle entering a destination lane. The system includes arrays of magneto-resistive sensors on both sides of the vehicle receiving proximity information as a function of magnetic field variations, a vehicle bus receiving various vehicle control signals, a smart algorithm controller analyzing bus signals and sensor signals, and various vehicle collision systems such as passive restraints, optical light guides, and audible warnings operating in response to a threat from a target vehicle.

Abstract: An adaptive collision load path modification system (10) for a vehicle (12) includes multiple object detection sensors (14) that generate object detection signals. The system (10) may include a structural stiffness-adjusting device (46), which is coupled within a frame rail (58, 62) of the vehicle (12), and in addition or alternatively a tire deflation apparatus (48). A controller (18) is coupled to the object detection sensors (14) and through use of the structural stiffness-adjusting device (46) or the tire deflation apparatus (48) adjusts collision load paths of the vehicle (12) in response to the object detection signals. In so doing, the controller (18) may activate the structural stiffness-adjusting device (46) and deflate a tire (76) of the vehicle (12).

Abstract: A system and method of analyzing paint spray particle trajectory on a vehicle with a computer aided design (CAD) model representative of the vehicle. The method includes the steps of preparing a CAD model of a desired portion of the vehicle and placing a paint spray gun at a desired location with respect to the desired portion of the vehicle. The method also includes the steps of specifying a set of particle information describing particles to be sprayed from the paint spray gun and computing a trajectory for a particle stream emanating from the paint spray gun. The method further includes the steps of displaying the trajectory relative to the desired portion of the vehicle on a display to permit visual observation thereof and relocating the paint spray gun if necessary to achieve a desired trajectory.

Abstract: A computerized method of virtual flowbench simulation of fluid flow interaction with an object described in at least one design file includes receiving user-defined input via a user interface, the user-defined input including a specification of the at least one design file, accessing the at least one design file, and accessing a generic template describing basic geometries of the object, and modifying the basic geometries of the object with the at least one design file. Automatically, surface and volume mesh are generated in the object, and fluid flow interaction with the object is simulated. Predetermined data parameters are measured and stored during simulation. The method automatically checks the predetermined data parameter measurements to determine whether steady state has been reached and whether a predetermined maximum number of time steps has been reached.

Abstract: A host vehicle system includes a lane change system providing an indication to the host vehicle a target vehicle entering a destination lane. The system includes arrays of magneto-resistive sensors on both sides of the vehicle receiving proximity information as a function of magnetic field variations, a vehicle bus receiving various vehicle control signals, a smart algorithm controller analyzing bus signals and sensor signals, and various vehicle collision systems such as passive restraints, optical light guides, and audible warnings operating in response to a threat from a target vehicle.

Abstract: A host vehicle system includes a blind-spot warning system providing an indication to the host vehicle a target vehicle entering a blind-spot. The system includes a vehicle bus receiving various vehicle control signals, magneto-resistive sensors receiving proximity information as a function of magnetic field variations, a smart algorithm controller analyzing bus signals and sensor signals, and various vehicle collision systems such as passive restraints, optical light guides, and audible warnings operating in response to a threat from a target vehicle.

Abstract: An adaptive collision load path modification system (10) for a vehicle (12) includes multiple object detection sensors (14) that generate object detection signals. The system (10) may include a structural stiffness-adjusting device (46), which is coupled within a frame rail (58, 62) of the vehicle (12), and in addition or alternatively a tire deflation apparatus (48). A controller (18) is coupled to the object detection sensors (14) and through use of the structural stiffness-adjusting device (46) or the tire deflation apparatus (48) adjusts collision load paths of the vehicle (12) in response to the object detection signals. In so doing, the controller (18) may activate the structural stiffness-adjusting device (46) and deflate a tire (76) of the vehicle (12).

Abstract: A safety system (10) for a vehicle (12) includes multiple collision detection sensors (14), such as discretized patch sensors. The collision detection sensors (14) are coupled to a peripheral area (18) of the vehicle (12) and generate a collision detection signal (17). A controller (16) is coupled to the sensors (14) and determines collision type in response to the collision detection signal (17). The controller (16) performs a countermeasure in response to the collision type. The controller (16) may include a collision location estimator (22) for determining collision severity and collision contact location on the vehicle (12) and a coordinated device activation system (24) for performing the countermeasure.

Abstract: A system and method of analyzing paint spray particle trajectory on a vehicle with a computer aided design (CAD) model representative of the vehicle. The method includes the steps of preparing a CAD model of a desired portion of the vehicle and placing a paint spray gun at a desired location with respect to the desired portion of the vehicle. The method also includes the steps of specifying a set of particle information describing particles to be sprayed from the paint spray gun and computing a trajectory for a particle stream emanating from the paint spray gun. The method further includes the steps of displaying the trajectory relative to the desired portion of the vehicle on a display to permit visual observation thereof and relocating the paint spray gun if necessary to achieve a desired trajectory.

Abstract: A vehicle image acquisition and display assembly 10 which is deployed within conventional vehicle rear-view mirror housing or shroud members 20, 22 and which selectively provides images of areas/regions and/or objects residing within the front and/or along the side of a vehicle 12

Abstract: A paint spray system for directing paint to a part has a paint atomizer head having a bell housing and a bell-atomizer. An electrically conductive tape is applied to a surface of the paint atomizer. The tape may be applied to the bell housing or the front surface or side surfaces of the support housing. Tape is electrically connected to a power source to generate an electrical field and thereby an electrical force on charged paint particles produced at bell-atomizer. The electrical field repels the paint particles from the paint atomizer head to reduce the maintenance of the paint spray system.

Abstract: A vehicle image acquisition and display assembly 10 which is deployed within conventional vehicle rear-view mirror housing or shroud members 20, 22 and which selectively provides images of areas/regions and/or objects residing within the front and/or along the side of a vehicle 12.