Abstract: Method for interacting with a vehicle includes controlling interaction with the vehicle based on receipt of a signal by a component on the vehicle, and generating the signal based on biometric data entered via a portable communications device proximate the vehicle. The entered biometric data may be verified as biometric data of a driver of the vehicle prior to generating the signal. The biometric data may be a fingerprint, a palm print, a hand print, a facial image, and/or a voiceprint, all of which may be obtained using the communications device, e.g., a smartphone. The controlled interaction with the vehicle may be maintaining a brake lockout mechanism coupled to at least one brake of the vehicle in a locked state until the signal is received and/or maintaining at least one door of the vehicle in a locked state until the signal is received.

Abstract: Method for conveying driving conditions includes determining when a vehicle is within a set distance from an activatable sensor using a proximity sensor coupled thereto. Only when the proximity sensor determines that the vehicle is within the set distance from the activatable sensor, the activatable sensor is activated (from a deactivated state) to measure or detect a property or condition of the travel surface or the environment around the travel surface that affects interaction between tires of the vehicle and the travel surface using a measuring or detecting component, and communicate the sensor-generated information directly from the activatable sensor to the vehicle or occupant thereof. Energy is provided to the activatable sensor from an energy harvesting system associated with the activatable sensor to enable it to measure or detect the property or condition of the travel surface or the environment around the travel surface.

Abstract: Vehicular arrangement for obtaining information about objects exterior to the vehicle includes distance measuring systems fixed to the vehicle along the windshield, an edge or side of the vehicle, each including a camera that obtains images of objects exterior of the vehicle and a processor that determines a distance between the vehicle and objects included in images obtained by the camera and a speed of the objects based on the successive distance determinations. A reactive system is arranged on the vehicle and coupled to the distance measuring systems, and considers distance between the objects and the vehicle and the speed of the objects and reacts accordingly. A position of the distance measuring systems is selected to encompass an area in front of the vehicle, an area behind the vehicle and an area on each side of the vehicle in the fixed fields of view of the distance measuring systems.

Abstract: System and method for tolling includes a location determining system arranged in a vehicle to determine its location during vehicular travel, a memory device that stores data about predetermined locations, and a processor coupled to the location determining system and that compares the location of the location determining system to data in the memory device to determine whether a transmission of the location is necessary and if so, directs the transmission to a remote site via the Internet. The memory device and/or processor may also be arranged on the vehicle, i.e., to provide a completely vehicle-resident system that may be installed on the vehicle during manufacture or retrofit to the vehicle.

Abstract: Heads-up display system-equipped vehicle includes a steering wheel, a positioning system that determines its position that is considered a position of the vehicle, a map database containing data about roads on which the vehicle can travel, and a heads-up display system that projects content into a field of view of an occupant of the vehicle. A command input system, e.g., based on touch by the occupant, is coupled to the heads-up display system and receives commands for controlling the heads-up display system. The command input system is arranged on the steering wheel. The content includes a road on which the vehicle is traveling obtained from the map database based on the position of the vehicle as determined by the positioning system and a surrounding area.

Abstract: Aspirator for an airbag deploying into a vehicle passenger compartment in order to protect a driver of the vehicle during an accident, includes a housing having an innermost and an outermost wall and defining an outlet at a distal end leading to an airbag and coaxial flow passages between the innermost and outermost walls into which air from a passenger compartment flows to inflate the airbag. An aspiration system is coupled to the housing and configured to direct gas into the flow passages to mix with the air from the passenger compartment in the flow passages. The aspiration system includes openings on an inner side of the outermost wall and on an outer side of the innermost wall. These openings are configured such that the gas is directed therefrom into the flow passages in a direction substantially parallel to a flow direction of air into the flow passages.

Abstract: System and method for monitoring emissions from a cell phone in a vehicle having a driver side and a passenger side, using several antennas at different locations. A receiver is associated with each antenna and includes at least one amplifier and a rectifier module that converting radio frequency signals to direct current signals. A microprocessor processes the direct current signals received and determines based thereon a phase shift or difference between signals received by two or more of the antennas, which can be correlated to a most likely location of a cell phone being used by an occupant in the vehicle.

Abstract: Airbag inflator system includes an inflatable airbag, e.g., a side curtain airbag, a housing, a gas generating system arranged apart from the housing for generating gas, and a conduit leading from the gas generating system to the housing to provide gas to the housing, e.g., to a lateral end of the housing. A filter may be arranged between the gas generating system and the housing, possibly in the conduit. A nozzle may be arranged between the gas generating system and an interior of the airbag, which nozzle is varied as a function of temperature. The housing may be movably arranged relative to a fixed base and mounted to vary its relation to the base as a function of temperature, e.g., via elastic or deformable supports which support the housing on the base.

Abstract: A monitoring arrangement including vehicles, a locating system in each vehicle that provides location data about the vehicle, a sensor system in each vehicle that detects presence of at least one chemical in the air at a location at which the vehicle is situated when the sensor system is analyzing air, and a monitoring facility. Each vehicle also includes a communication system that generates a signal based on data provided by the sensor system about the detected presence of at least one chemical in the air and a signal based on the location data and directs the signals to the monitoring facility. Data provided by the sensor systems and sent via the communication systems is analyzed at the monitoring facility in association with location data about the vehicles determined by the locating systems.

Abstract: Arrangement and method for monitoring a structure at a fixed location, e.g., a house, parked boat or parked airplane, includes a monitoring or sensor system arranged to obtain information about the structure, an exterior of the structure and/or an interior of the structure different than the location of the structure, and a communication system coupled to the sensor system and being provided with a location of the structure. The communication system transmits the information about the structure obtained by the sensor system and the location of the structure to a remote facility. The remote facility can therefore monitor the structure, and take steps to ensure the integrity of the reservoir and the fluid therein. To enable wireless and powerless monitoring, a power source independent of a power grid extending outside of the trailer may be provided to supply power to the sensor system and the communications unit.

Abstract: Method for monitoring a cargo container in which a transmitter is arranged on the container and periodically transmits messages to a remote site or location according to a schedule of messages. When a message is not received according to the schedule, which may be the result of tampering with the transmitter or another nefarious action involving the container, it may be considered that the container has been stolen. A rate of transmission of the messages may be modified based on a condition of the vehicle, such as the presence of a driver inside the vehicle, a distance between a driver inside the vehicle and the vehicle, the vehicle being at rest after motion of the vehicle stops, a location of the vehicle, biometric identification of a driver of the vehicle and deviation of the vehicle from an expected route, and/or based on current time and weather around the vehicle.

Abstract: Vehicle-mounted device includes an inertial measurement unit (IMU) having at least one accelerometer or gyroscope, a GPS receiver, a camera positioned to obtain unobstructed images of an area exterior of the vehicle and a control system coupled to these components. The control system re-calibrates each accelerometer or gyroscope using signals obtained by the GPS receiver, and derives information about objects in the images obtained by the camera and location of the objects based on data from the IMU and GPS receiver. A communication system communicates the information derived by the control system to a location separate and apart from the vehicle. The control system includes a processor that provides a location of the camera and a direction in which the camera is imaging based on data from the IMU corrected based on data from the GPS receiver, for use in creating the map database.

Abstract: Driving condition monitoring system and method includes animal detecting components that detect presence of an animal, each located in a stationary mounting structure in a vicinity of the travel surface and apart from the travel surface, and a vehicle detecting sensor coupled to each animal detecting component and that is activated to detect the presence of a vehicle within a set distance therefrom only when the animal detecting component coupled to the vehicle detecting sensor detects the presence of an animal in the vicinity of the animal detecting component. A communication system is coupled to each animal detecting component and communicates directly to the vehicle or occupant thereof, the detected presence of an animal in the vicinity of the animal detecting component when the vehicle detecting sensor coupled to the animal detecting component detects the presence of a vehicle within the set distance from the vehicle detecting sensor.

Abstract: Airbag inflator system includes an inflatable airbag, e.g., a side curtain airbag, a housing, a gas generating system arranged apart from the housing for generating gas, and a conduit leading from the gas generating system to the housing to provide gas to the housing, e.g., to a lateral end of the housing. A filter may be arranged between the gas generating system and the housing, possibly in the conduit. A nozzle may be arranged between the gas generating system and an interior of the airbag, which nozzle is varied as a function of temperature. The housing may be movably arranged relative to a fixed base and mounted to vary its relation to the base as a function of temperature, e.g., via elastic or deformable supports which support the housing on the base.

Abstract: Method for monitoring assets that include a sensor system that obtains data about contents thereof, a processor that derives information about the contents from the sensor data, and a communication system that, when linked to a communications network, wirelessly transmits the information derived by the processor via the Internet. The information is received at a data processing and storage facility, associated with a unique identification code for each asset, and stored in association with the identification code. Access to the stored information is effected via the Internet.

Abstract: Wireless sensing and communication system including sensors located on the vehicle, in the roadway or in the vicinity of the vehicle or roadway and which provide information which is transmitted to one or more interrogators in the vehicle by a wireless radio frequency mechanism. Power to operate a particular sensor is supplied by the interrogator or the sensor is independently connected to either a battery, generator, vehicle power source or some source of power external to the vehicle. The sensors can provide information about the vehicle and its interior or exterior environment, about individual components, systems, vehicle occupants, subsystems, or about the roadway, ambient atmosphere, travel conditions and external objects. The sensors arranged on the roadway or ancillary structures would include pressure sensors, temperature sensors, moisture content or humidity sensors, and friction sensors.

Abstract: System and method for preventing collisions between a vehicle and objects in a path of the vehicle includes a laser system arranged to direct at least one laser beam outward therefrom and which is in an eye-safe portion of the electromagnetic spectrum, an imaging receiver for receiving at least one laser beam reflected from objects in the path of the laser beam, a processor coupled to the receiver and arranged to receive signals derived from the received laser beam and process the signals to determine a distance between the laser system and the objects from which the laser beam has been reflected, and one or more reactive systems coupled to the processor. The processor controls the reactive system to indicate the presence of objects at specific distances from the vehicle. This indication may be used to take preventive action to avoid the collision, either manually or automatically.

Abstract: Control system for controlling at least one part of a vehicle includes a plurality of sensor systems mounted at different locations on the vehicle, each sensor system providing a measurement related to a state thereof system or a measurement related to a state of the mounting location. A processor is coupled to the sensor systems and diagnoses the state of the vehicle itself and optionally its dynamic motion based on the measurements of the sensor systems. The processor controls each part based at least in part on the diagnosed state of the vehicle.

Abstract: Arrangement and method for monitoring a material storage container which includes a housing defining an interior receivable of removable material. An interior sensor system is arranged on the housing to obtain information about any material in the interior of the housing different than the location of the container. A location determining system is arranged on the housing to monitor the location of the container, and a communication system is coupled to the interior sensor system and the location determining system and transmits information about the material in the housing and the location of the container to one or more remote facilities. The communication system may be arranged on the housing itself, which is especially applicable when the housing is movable, for example, such as the housing of a Frac tank. The location and condition of the material in the container can thus be known at all times.

Abstract: Driving condition monitoring system for a vehicle on a travel surface includes stationary mounting structures arranged proximate the travel surface, and sensors located in the mounting structures in a vicinity of the travel surface and apart from the travel surface. The sensors generate information about the travel surface or an environment around the travel surface. An arrangement on the vehicle or associated with the sensors initiates a transmission of the information generated by each sensor to the vehicle when the vehicle is proximate the sensor.