Abstract:
A control device for controlling a passenger protection device for a vehicle includes an input unit configured to receive a first acceleration signal in a first axial direction and a second acceleration signal in a second axial direction which are generated by an acceleration sensor disposed in a side door of a vehicle, a determination unit configured to determine whether a collision has occurred in the side door of the vehicle using at least one of the first acceleration signal and the second acceleration signal, and a control unit configured to control a passenger protection device disposed adjacent to the side door of the vehicle based on a result of determining whether the collision has occurred.
Abstract:
An apparatus, method, computer program product, and/or system are described that determine an event, actuate a cushioning element in response to the determining the event, the cushioning element including one or more tension-bearing members, and dissipate at least some of an energy associated with a collision based on deforming at least one of the tension-bearing members during the collision, the deforming including substantially inelastically stretching the at least one of the tension-bearing members. Other example embodiments are also provided relating to actuatable cushioning elements.
Abstract:
A collision is detected using an accelerometer attached to a vehicle. Acceleration data is received (100) from the accelerometer at discrete intervals. The acceleration data is summed (106) over a time period to produce an accumulated acceleration. Whether a collision has occurred is determined based at least in part on a comparison (108) of at least one of the accumulated acceleration and a function of the accumulated acceleration to a threshold.
Abstract:
An apparatus, method, computer program product, and/or system are described that determine an event, actuate a cushioning element in response to the determining the event, the cushioning element including one or more tension-bearing members, and dissipate at least some of an energy associated with a collision based on deforming at least one of the tension-bearing members during the collision, the deforming including substantially inelastically stretching the at least one of the tension-bearing members. Other example embodiments are also provided relating to actuatable cushioning elements.
Abstract:
An occupant protection system is used to protect an occupant from vertical acceleration of a vehicle. The system includes a sensor that detects when a vehicle is subjected to vertical acceleration and a lowering means for a vehicle seat. The seat lowering means actively lowers, or forces the seat in a generally downward direction based on a signal from the sensor. Also, a seat for a vehicle includes a support that may withstand a vertical acceleration of the vehicle, a sensor that may detect the vertical acceleration, and a seat lowering means. The seat is connected to the support, and the seat may slide in a downward direction relative to the support. The seat is lowered by the seat lowering means at least partly in response to a signal from the sensor.
Abstract:
A vehicle safety arrangement having a sensor unit (7) comprising at least one sensor (8, 9) responsive to acceleration; an actuator (13) for activating a safety device, the actuator being located remotely from the sensor unit; and a control unit (2) located remotely from the sensor unit and from the actuator, the control unit having no sensors responsive to acceleration and being operable to receive information from the sensor unit and to transmit an actuating command to the actuator to activate the safety device.
Abstract:
Control system for controlling at least one occupant protection system of a vehicle includes a plurality of preferably electronic 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 based on the measurements of the sensor systems. The processor controls each occupant protection system based at least in part on the diagnosed state of the vehicle. The occupant protection system may be a deployable airbag whose deployment is controlled by the processor based on the diagnosed state of the vehicle. The diagnosis of the state of the vehicle may be a diagnosis of the overall condition of the vehicle with respect to its stability or a diagnosis of the vehicle itself.
Abstract:
Method for predicting failures in vehicular components includes mounting sensors on the vehicle which provide data affected by the operation of the components, obtaining data from the sensors, detecting patterns in the obtained data on the vehicle, analyzing the detected patterns to predict failure of any component, and informing the user, owner, dealer and/or manufacturer of the vehicle about the predicted failure to enable preventative and corrective action to be taken. A vehicle with remote telematics capability includes sensors arranged to provide data about conditions of the vehicle or components, a processor for receiving data provided by the sensors and converting the data into an output constituting a signal about a diagnostic condition of the vehicle or component(s), and a communications unit arranged to transmit the signal. The communications unit can establish a communications channel with a dealer or manufacturer of the vehicle at a location remote from the vehicle.
Abstract:
A normally seated adult occupant of a vehicle seat is distinguished from a cinched car seat occupant based on the static seat force and first and second sets of identified dynamic characteristics that are respectively correlative of a normally seated adult and a cinched car seat. Confidence levels are assigned to the static seat force and each of the identified dynamic characteristics, and overall confidence levels for the two classifications are determined based on the assigned confidence levels. The overall confidence level for the adult occupant classification is compared with the overall confidence level for the cinched car seat classification, and the occupant is classified based on the highest overall confidence level.
Abstract:
A rollover sensing device includes a detecting unit that includes at least a pair of acceleration sensors which detect an acceleration in an vertical direction, the pair of acceleration sensors being disposed closer to each other on a same board in a lateral direction of a vehicle, an arithmetic processing unit that calculates an angular acceleration and an angular velocity of the vehicle on a basis of an output signal from the detecting unit, and a rollover determining unit that determines whether or not a rollover of the vehicle occurs on a basis of an arithmetic result obtained by the arithmetic processing unit.