Abstract:
A mobile hearable device for communicating with a vehicle control system is described. The mobile hearable device includes a microphone, and a wireless transceiver configured as one of a near field magnetic induction (NFMI) transceiver and a near field electromagnetic induction (NFEMI) transceiver. The mobile hearable device includes a processor coupled to the transceiver and the microphone. The processor receives a location identifier via the transceiver from a location identification transmitter located in a vehicle, the location identification transmitter is configured as one of a NFMI transmitter and a NFEMI transmitter. If the processor receives a speech signal from a user of the mobile hearable device, it determines whether the speech signal includes an actuator control command and generates a control instruction comprising the actuator control command and the location identifier. The control instruction is transmitted to a vehicle control system and used to control an actuator in a vehicle dependent on the location of the person using the mobile hearable device.
Abstract:
An audio controller for generating a signal for alleviating motion sickness is described. The audio controller comprises a sensor input module, a user control input and a processor comprising a machine learning model corresponding to a desired audio stimulation profile. The machine learning model is coupled to the sensor input module and the user control input. The machine learning model is configured to receive a sensor signal comprising at least one user attribute and at least one context attribute from the sensor input module. The audio controller includes a stimulus generator coupled to the machine learning model. The machine learning model controls the stimulus generator to generate a reference signal for alleviating motion sickness and adapts the reference signal dependent on at least one of the user control input and the sensor signal.
Abstract:
Embodiments of a method and system are disclosed. One embodiment of an integrated circuit device is disclosed. The integrated circuit device includes first and second processor cores configured to perform a respective first and second set of functional processing. The integrated circuit device also includes a core-specific process state monitor associated with the first processor core, a core-specific process state monitor associated with the second processor core, a core-specific aging monitor associated with the first processor core, a core-specific aging monitor associated with the second processor core, a power management unit, a clock generation unit, and a control system configured to individually control operating points of the first and second processor cores and workload in response to feedback from the core-specific process state monitors and from the core-specific aging monitors.
Abstract:
This invention provides a clock control circuit, which can be added to any pipeline-processor to solve timing problems arising from variations due to process outcome and environmental conditions. Critical instructions are detected (instructions that exercise critical paths) in conjunction with environmental sensing (such as process, temperature and voltage). This information is used to control cycle stealing.
Abstract:
Embodiments of a method and system are disclosed. One embodiment of an integrated circuit device is disclosed. The integrated circuit device includes first and second processor cores configured to perform a respective first and second set of functional processing. The integrated circuit device also includes a core-specific process state monitor associated with the first processor core, a core-specific process state monitor associated with the second processor core, a core-specific aging monitor associated with the first processor core, a core-specific aging monitor associated with the second processor core, a power management unit, a clock generation unit, and a control system configured to individually control operating points of the first and second processor cores and workload in response to feedback from the core-specific process state monitors and from the core-specific aging monitors.
Abstract:
An integrated circuit comprises: a first processing stage comprising processing logic for performing a processing operation on an input signal to generate an output signal wherein the input signal corresponds to an output signal of a previous processing stage; a first sampling element adapted to sample a first value of said output signal synchronously with a clock signal; a second sampling element adapted to sample a second value of said output signal synchronously with a first delayed clock signal; and a first delayed clock signal generator, adapted to selectively generate said first delayed clock signal in response to a control signal generated in said previous processing stage.
Abstract:
Embodiments of a clock distribution device and a method of clock distribution are described. In one embodiment, a clock distribution device includes a stacked clock driver circuit configured to perform clock signal charge recycling on input clock signals that swing between different voltage ranges and a load circuit. The stacked clock driver circuit includes stacked driver circuits configured to generate output clock signals that swing between the different voltage ranges. The load circuit includes load networks of different semiconductor types. Each of the load networks are configured to be driven by one of the output clock signals. Other embodiments are also described.
Abstract:
A wearable safety apparatus including a body area network (BAN) transceiver for communicating with a user-controlled apparatus is described. The BAN transceiver includes a processor coupled to a BAN antenna. The processor is configured to receive an identification data request from a user-controlled apparatus in response to an action request of a user of the wearable safety apparatus; and to transmit identification data to the user-controlled apparatus in response to the identification data request. The identification data validates the user action by the user-controlled apparatus. The identification data request is only received when the wearable safety apparatus and the user-controlled apparatus are in contact with the user.
Abstract:
An electrochemical sensor measurement unit is described including a sensor degradation signature unit and a processing unit coupled to the sensor degradation signature unit. The processing unit includes a processor first input configured to be coupled to a sensor output of an electrochemical sensor and a processor first output configured to be coupled to a sensor input of an electrochemical sensor. The processing unit is configured to apply a stimulus signal to the sensor input; receive an electrochemical sensor signal via the sensor output. The processing unit may then determine at least one sensor parameter at one or more time values from the received sensor signal. The processing unit determines a predicted lifetime value corresponding to an expected remaining lifetime of the electrochemical sensor dependent on the sensor degradation signature and the at least one sensor parameter.
Abstract:
A method and apparatus for audio stream sharing via a wireless link between an audio source device having an RF transceiver and audio sink devices each having an RF transceiver and a body area network (BAN) transceiver is described. Audio data is wirelessly streamed between an audio source device and an audio sink device via the respective RF transceiver. A user contact is detected on one of the audio sink device and a further audio sink device resulting in a BAN connection between the respective BAN transceivers of the audio sink device and the further audio sink device. In response to determining the user contact, a wireless link is setup between the audio source device and the further audio sink device. Audio data is then wirelessly streamed between the audio source and the further audio sink device via the respective RF transceivers.