Abstract: In one embodiment, a system of detecting seat belt operation in a vehicle includes at least one light source configured to emit a predetermined wavelength of light onto structures within the vehicle, wherein at least one of the structures is a passenger seat belt assembly having a pattern that reflects the predetermined wavelength at a preferred luminance. At least one 3-D time of flight camera is positioned in the vehicle to receive reflected light from the structures in the vehicle and provide images of the structures that distinguish the preferred luminance of the pattern from other structures in the vehicle. A computer processor connected to computer memory and the camera includes computer readable instructions causing the processor to reconstruct 3-D information in regard to respective images of the structures and calculate a depth measurement of the distance of the reflective pattern on the passenger seat belt assembly from the camera.

Abstract: A system for automated speech recognition utilizes computer memory, a processor executing imaging software and audio processing software, and a camera transmitting images of a physical source of speech input. Audio processing software includes an audio data stream of audio samples derived from at least one speech input. At least one timer is configured to transmit elapsed time values as measured in response to respective triggers received by the timer. The audio processing software is configured to assert and de-assert the timer triggers to measure respective audio sample times and interim period times between the audio samples. The audio processing software is further configured to compare the interim period times with a command spacing time value corresponding to an expected interim time value between commands, thereby determining if the speech input is command data or non-command data.

Abstract: The system and method provide for identification of dynamic objects in an enclosed space and the presence of a component in a primary location. The system uses an active electro-optical 3D sensor, such as a three-dimensional time of flight camera, to identify the presence or absence of a reflected pulse, to determine, for example, proper placement of a seat belt, or a change in characteristics of a reflected pulse to determine a change in location, and thus possible movement, of a living creature in a vehicle, for example.

Abstract: In one embodiment, a system of detecting seat belt operation in a vehicle includes at least one light source configured to emit a predetermined wavelength of light onto structures within the vehicle, wherein at least one of the structures is a passenger seat belt assembly having a pattern that reflects the predetermined wavelength at a preferred luminance. At least one 3-D time of flight camera is positioned in the vehicle to receive reflected light from the structures in the vehicle and provide images of the structures that distinguish the preferred luminance of the pattern from other structures in the vehicle. A computer processor connected to computer memory and the camera includes computer readable instructions causing the processor to reconstruct 3-D information in regard to respective images of the structures and calculate a depth measurement of the distance of the reflective pattern on the passenger seat belt assembly from the camera.

Abstract: A system for detecting the presence of an occupant in a child seat is provided. The system includes at least two sensor modules positioned to detect acceleration of the child seat. The sensor modules provide signals representative of the acceleration detected at the first and send sensor modules to a controller. The controller includes signal processing circuitry for processing the signal to determine whether the signals received from the sensor modules are representative of the physiological motion of the occupant. The controller processes the signals received from the sensor modules to isolate acceleration of the child seat from the motion of the vehicle.

Abstract: An electric field personal seat communication protocol within an inductive charging supporting near field communication (NFC) chipset is positioned in respective portions of a vehicle and a personal communications device. Such a chipset can then be utilized to support safety and security applications including the reduction of driver distraction due to cellular phone use at inappropriate times, improved security of vehicle based wireless network based on occupancy detection (E-field sensor 20) and secondary BAN between the seat sensor and NFC enabled devices held/possessed by the occupant. Alternatively, the E-field sensor function could be integrated directly into an NFC chipset that supports the PSC E-field communication protocol.

Abstract: The present invention is directed to apparatus for detecting a child left unattended in a car seat as well as the status of the connection between the car seat and the vehicle. The apparatus includes a sensor module and a processor. The sensor module including a sensor for measuring force data associated with the coupling between car seat and a vehicle. The processor receives and analyzes the sensor data to determine the status of the child/child seat, and then communicates status data to a caretaker. Counter-measure instructions can also be provided to the vehicle for altering the vehicle state/environment.

Abstract: The present invention is directed to apparatus for detecting a child left unattended in a car seat as well as the status of the connection between the car seat and the vehicle. The apparatus includes a sensor module and a processor. The sensor module including a sensor for measuring force data associated with the coupling between car seat and a vehicle. The processor receives and analyzes the sensor data to determine the status of the child/child seat, and then communicates status data to a caretaker. Counter-measure instructions can also be provided to the vehicle for altering the vehicle state/environment.

Abstract: In one embodiment, a system of detecting seat belt operation in a vehicle includes at least one light source configured to emit a predetermined wavelength of light onto structures within the vehicle, wherein at least one of the structures is a passenger seat belt assembly having a pattern that reflects the predetermined wavelength at a preferred luminance. At least one 3-D time of flight camera is positioned in the vehicle to receive reflected light from the structures in the vehicle and provide images of the structures that distinguish the preferred luminance of the pattern from other structures in the vehicle. A computer processor connected to computer memory and the camera includes computer readable instructions causing the processor to reconstruct 3-D information in regard to respective images of the structures and calculate a depth measurement of the distance of the reflective pattern on the passenger seat belt assembly from the camera.

Abstract: A system for automated speech recognition utilizes computer memory, a processor executing imaging software and audio processing software, and a camera transmitting images of a physical source of speech input. Audio processing software includes an audio data stream of audio samples derived from at least one speech input. At least one timer is configured to transmit elapsed time values as measured in response to respective triggers received by the timer. The audio processing software is configured to assert and de-assert the timer triggers to measure respective audio sample times and interim period times between the audio samples. The audio processing software is further configured to compare the interim period times with a command spacing time value corresponding to an expected interim time value between commands, thereby determining if the speech input is command data or non-command data.

Abstract: The system and method provide for identification of dynamic objects in an enclosed space and the presence of a component in a primary location. The system uses an active electro-optical 3D sensor, such as a three-dimensional time of flight camera, to identify the presence or absence of a reflected pulse, to determine, for example, proper placement of a seat belt, or a change in characteristics of a reflected pulse to determine a change in location, and thus possible movement, of a living creature in a vehicle, for example.

Abstract: A proximity detection system for detecting motion and proximity of an occupant seated in a vehicle. The system includes a sensing electrode located proximate to the occupant and configured to transmit a signal representative of a current in the sensing electrode. The system includes a receiver including a controller and coupled to an antenna. The receiver is configured to detect a change in the transmitted signal received by the antenna based on the proximity of the occupant. The receiver is configured to determine the presence of the occupant based on the amplitude of the signal received by the antenna and the rate change of the amplitude of the signal received by the antenna. The receiver is configured to generate a control signal to change a state of a vehicle component when at least one of the amplitude and the rate of change of the amplitude exceed a predetermined threshold.

Abstract: A system for classifying an occupant located on a seating surface of a vehicle seat. The system includes a movable element and an electrode located in the vehicle seat. A sensing circuit is provided to supply a signal to the conductor. The sensing circuit also includes measurement electronics configured to measure the signal to the conductor and the vibration of the moveable element. A controller is configured to discriminate between different types of objects located on the seating surface based on changes in the signal being supplied to the conductor and the vibration of the moveable element.

Abstract: A system for detecting the presence of an occupant in a child seat is provided. The system includes at least two sensor modules positioned to detect acceleration of the child seat. The sensor modules provide signals representative of the acceleration detected at the first and send sensor modules to a controller. The controller includes signal processing circuitry for processing the signal to determine whether the signals received from the sensor modules are representative of the physiological motion of the occupant. The controller processes the signals received from the sensor modules to isolate acceleration of the child seat from the motion of the vehicle.

Abstract: A steering wheel system for a vehicle includes a display and a controller. The controller receives vehicle parameters from one or more vehicle sensors as well as geometric or navigability characteristics of the road. The controller generates a prediction of an effect of the vehicle parameters on the vehicle with respect to the geometric or navigability characteristics of the road. The controller sends a signal to the display based on the prediction. The display is configured to display a representation of the prediction based on the signal received from the controller.

Abstract: A steering wheel system for a vehicle includes a first microphone mounted in a steering wheel and a second microphone mounted in the vehicle. The first and second microphones are each configured to receive an audible input. The audible input includes an oral command component and a noise component. The steering wheel system also includes a controller configured to identify the noise component by determining that the noise component received at the first microphone is out of phase with the noise component received at the second microphone. The controller is configured to cancel the noise component from the audible input.

Abstract: A transceiver system to detect and transfer information from a capacitive based communication system to a personal electronic device having near field communication capabilities includes a transceiver. The transceiver includes a first near field communication device and a signal detection and decoding circuit coupled to the first near field communication device. The signal detection and decoding circuit is tuned to detect a capacitive signal.

Abstract: A steering wheel system for a vehicle includes a steering wheel and an airbag module located within the hub portion of the steering wheel. The airbag module includes an airbag and a cover for the airbag. The steering wheel system also includes at least one microphone configured to receive audio input from a vehicle driver in which the at least one microphone is located on the cover of the airbag module.

Abstract: A vehicle communication system and communication steering wheel is provided. The communication steering wheel includes a display, a wireless transceiver configured to operably connect to a wireless device, a sensor, configured to obtain directional steering information and a controller, configured to receive input from the wireless transceiver and the sensor and output a signal to the display based on the received input.

Abstract: A steering wheel system for a vehicle. The steering wheel system includes a steering wheel and an airbag module located within the hub portion of the steering wheel. The airbag module includes an airbag and a cover for the airbag. The steering wheel system also includes a microphone configured to receive audio input from a vehicle driver, the at least one microphone being located on the cover of the airbag module.