64 results about "Sensor hub" patented technology

Embodiments include a system providing sensor feedback for property condition monitoring, including: a plurality of sensors disposed in a roof structure of a property; the plurality of sensors providing output indicative of ice formation associated with the roof structure; a hub device that receives output from the plurality of sensors, the hub device detecting at least one sensor output indicative of ice formation and providing a notification regarding the ice formation; a computing device of an insurance carrier that receives the notification, the computing device updating a status of the property in an insurance carrier database in response to the notification; and a communication link between the plurality of sensors, the hub device and the computing device of an insurance carrier. Other aspects are described and claimed.

An introducer is provided for introducing a sensor into the body of a patient. The introducer connects to a sensor hub. When the sensor hub and introducer are connected, the introducer needle is exposed. When the sensor hub and introducer are disconnected, a needle cover and the needle move with respect to each other so that the needle cover substantially covers the needle, protecting a user from being injured by the needle.

There is disclosed an electronic device comprising a receiver, a display, an application processor and a sensor hub. The receiver is configured to receive notifications from a remote device. The display is configured to provide information including notifications. The application processor and the sensor hub are in communication with the display. The application processor is configured to provide instructions for displaying full screen information at the display during a non-sleep mode of the electronic device. The full screen information includes a first notification associated with information received by the electronic device during the non-sleep mode. The sensor hub is configured to provide instructions for displaying partial screen information at the display during a sleep mode of the electronic device. The partial screen information includes a second notification associated with information received by the electronic device during the sleep mode.

A portable device and a method for providing a voice recognition service are disclosed. The portable device includes a mechanical vibration sensor configured to sense vibrations having a magnitude equal to or larger than a threshold and generate an electrical signal, a motion sensor configured to sense a motion of the portable device, an audio sensor configured to receive a voice command, a sensor hub configured to control a plurality of sensors including the motion sensor and the audio sensor, and a main processor configured to execute an application and control the portable device. When the portable device is placed in standby mode, upon receipt of the electrical signal from the mechanical vibration sensor, the sensor hub is configured to switch from inactive state to active state and activate the motion sensor.

An introducer is provided for introducing a sensor into the body of a patient. The introducer connects to a sensor hub. When the sensor hub and introducer are connected, the introducer needle is exposed. When the sensor hub and introducer are disconnected, a needle cover and the needle move with respect to each other so that the needle cover substantially covers the needle, protecting a user from being injured by the needle.

There is disclosed an electronic device comprising a receiver, a display, an application processor and a sensor hub. The receiver is configured to receive notifications from a remote device. The display is configured to provide information including notifications. The application processor and the sensor hub are in communication with the display. The application processor is configured to provide instructions for displaying full screen information at the display during a non-sleep mode of the electronic device. The full screen information includes a first notification associated with information received by the electronic device during the non-sleep mode. The sensor hub is configured to provide instructions for displaying partial screen information at the display during a sleep mode of the electronic device. The partial screen information includes a second notification associated with information received by the electronic device during the sleep mode.

There is disclosed an electronic device comprising a receiver, a display, an application processor and a sensor hub. The receiver is configured to receive notifications from a remote device. The display is configured to provide information including notifications. The application processor and the sensor hub are in communication with the display. The application processor is configured to provide instructions for displaying full screen information at the display during a non-sleep mode of the electronic device. The full screen information includes a first notification associated with information received by the electronic device during the non-sleep mode. The sensor hub is configured to provide instructions for displaying partial screen information at the display during a sleep mode of the electronic device. The partial screen information includes a second notification associated with information received by the electronic device during the sleep mode.

Systems and methods for a sensor hub system that accurately and efficiently performs sensory analysis across a broad range of users and sensors and is capable of recognizing a broad set of sensor-based events of interest using flexible and modifiable neural networks are disclosed. The disclosed solution consumes orders of magnitude less power than typical application processors. In one embodiment, a scalable sensor hub system for detecting sensory events of interest comprises a neural network and one or more sensors. The neural network comprises one or more dedicated low-power processors and memory storing one or more neural network programs for execution by the one or more processors. The output of the one or more sensors is converted into a spike signal, and the neural network takes the spike signal as input and determines whether a sensory event of interest has occurred.

The embodiment of the invention discloses a sensor control method comprising controlling a sensor on a circuit via each sensor on a traversal sensor concentrator, acquiring an equipment sign of a traversal sensor and state information of the equipment sign, and caching the same, intercepting a sensor dormancy order, acquiring a target equipment sign corresponding to the intercepted sensor dormancy order, seeking state information corresponding to the target equipment sign in the cache memory and setting the sought state information to dormancy, acquiring a sensor corresponding to the target equipment sign, and closing the sensor corresponding to the target equipment sign via a preset interface function. The invention further discloses a sensor control device. By the use of the sensor control device, terminal power consumption during dormancy of the sensor can be reduced and user experience can be improved.

The automatic home alarm system and method invention comprises one or more sensors, at least one sensor hub that identifies and transmits a state change signal upon the occurrence of an alarm trigger to a system unit, and said system unit communicates such information to an alarm call center or alarm authority using one or more telecom paths (e.g., dial-up telephone, mobile phone).

There is disclosed an electronic device comprising a receiver, a display, an application processor and a sensor hub. The receiver is configured to receive notifications from a remote device. The display is configured to provide information including notifications. The application processor and the sensor hub are in communication with the display. The application processor is configured to provide instructions for displaying full screen information at the display during a non-sleep mode of the electronic device. The full screen information includes a first notification associated with information received by the electronic device during the non-sleep mode. The sensor hub is configured to provide instructions for displaying partial screen information at the display during a sleep mode of the electronic device. The partial screen information includes a second notification associated with information received by the electronic device during the sleep mode.

There is described a portable electronic device capable of detecting false wake conditions, and a method thereof. The portable electronic device comprises a sensor circuit and a display. The sensor circuit detects double tap data associated with user input and motion data subsequent to the double tap data within a predetermined time period. The sensor circuit also determines whether the motion data corresponds to at least one criterion associated with non-user input. The display wakes from a sleep state in response to the sensor circuit determining that the motion data corresponds to the at least one criterion. For some embodiments, the sensor circuit includes a motion sensor to detect the motion data and a sensor hub to determine whether the motion data corresponds to the at least one criterion.

The invention discloses a device and a method for seeking help through a mobile terminal. The device comprises a seeking help mode setting module, a Sensor hub module, a seeking help mode starting module and a seeking help module, wherein the seeking help mode setting module is used for setting a seeking help mode; the Sensor hub module is used for maintaining a sensor at an open state in a screen sleep mode; the seeking help mode starting module is used for receiving a seeking help instruction through a first sensor and starting a corresponding seeking help mode according to the seeking help instruction; and the seeking help module is used for obtaining current geographic position information through a second sensor after entering the seeking help mode and sending seeking help information and the geographic position information to a corresponding linkman. Therefore, the sensor is maintained at the open state in the screen sleep mode through the Sensor hub technology, as a result, a user can carry out a one-step shortcut operation on the mobile terminal in the screen sleep mode, thereby improving the convenience and invisibility of seeking help and improving the success rate of seeking help.

A mobile device comprises a CPU operating a display and other user interface circuitry. Further, it comprises a gas sensor as well as a sensor hub connecting the gas sensor and other sensors to the CPU. In order to save power, the device can be brought into a low-power operating mode, where the CPU is idling or switched-off and the gas sensor itself has a low-power and a high-power operating mode. However, even in this low-power operating mode, the sensor hub still monitors for changes of the signal from the gas sensor and wakes the device up if such a change is detected.

An electronic device according to one embodiment of the present disclosure may include a plurality of antennas for transmitting and receiving radio waves, at least one sensor for sensing a physical quantity or physical changes, a sensor hub for outputting a control signal in response to an output from the at least one sensor, and a communication module for controlling wireless communication using the plurality of antennas in response to the control signal. Various other exemplary embodiments are possible.

A mobile device with a sensor hub and sensors and a method for controlling the mobile device are provided. The method includes receiving state information regarding the mobile device, setting a sensor sampling period based on the received state information, and receiving measured values from one or more sensors according to the set, sensor sampling period. The sensor hub receives the state information regarding the mobile device, sets a sensor sampling period based on the received state information, and receives measured values from one or more sensors according to the set sensor sampling periods. The mobile device controls the sensors via the sensor hub irrespective of the operations of the main processor. The sensor hub sets a sensor sampling period based on the received state values of a mobile device.

The present invention belongs to the communication terminal field and relates to a terminal and a power saving method thereof, in particular, a smart watch and a display screen highlighting method thereof. The smart watch includes a sensor hub, a screen and a gyroscope; the gyroscope is used for acquiring the spatial position value of the smart watch; the sensor hub is used for determining whether the spatial position value conforms to a preset threshold value; and the sensor hub highlights the screen when the spatial position value conforms to the preset threshold value. The smart watch is convenient to use and is more energy efficient.

An integrated data concentrator, so-called “sensor hub”, for a multi-sensor MEMS system, implements: a first interface module, for interfacing, in a normal operating mode, with a microprocessor through a first communication bus; and a second interface module, for interfacing, in the normal operating mode, with a plurality of sensors through a second communication bus; the sensor hub further implements a pass-through operating mode, distinct from the normal operating mode, in which it sets the microprocessor in direct communication with the sensors, through the first communication bus and the second communication bus. In particular, the sensor hub implements the direct pass-through operating mode in a totally digital manner.

An integrated adhesive sensor array includes an adhesive a patch, a sensor hub, and a detachable sensor pod packaged as a unit. The patch may include a docking area for the detachable sensor pod. The detachable sensor pod may include at least one sensor and may be configured to be detached from the patch and applied to various locations on a body. The detachable sensor pod may send sensor data to the sensor hub via a wired link when on the patch and via a wireless link when detached from the patch. The sensor hub receives sensor data from the detachable sensor pod and relays the data to a receiver. The sensor hub and detachable sensor pod may include indicators for communicating information. The sensor hub may include a power source for powering the sensor hub and a detachable sensor pod attached to the main sensor unit or patch.

A portable device and a method for controlling the device are disclosed. The portable device includes sensors configured to sense user inputs; a sensor hub configured to activate a main processor and control the sensors including a touch sensor, the touch sensor sensing touch inputs while the portable device is in a standby mode; and the main processor configured to execute an application and control the portable device, wherein, when the portable device is in the standby mode, the touch sensor is in an active state and at least one of the sensors except the touch sensor is in an inactive state, and when the touch sensor detects a first touch input which corresponds to a pre-stored pattern, the sensor hub activates the main processor and switches the portable device from the standby mode to an active mode.

A system for telepresencing is provided with a user station at a remote user's location and a telepresence device at a local subject's location. Distance of objects around the local subject is sensed such that a selected distance between the telepresence device and the local subject is maintained. Eye features and gazes of the local subject and the remote user are sensed. The height of the telepresence device's display is adjusted automatically such that the eye level of the local subject matches with the eye level of the user's image in the display. When an intended eye contact is sensed, positions of the telepresence device, its display and a sensor hub that houses cameras and other sensors are adjusted, and a face image may be recreated at a different viewing angle to resemble an eye contact between the local subject and the remote user while preserving all other facial expressions.

End user presence and absence states are determined at an information handling system by analyzing infrared time of flight sensor presence detection information detected at plural peripherals each having an infrared time of flight sensor. In one example embodiment, a peripheral includes processing capabilities to analyze the infrared time of flight sensor presence detection information to determine the end user presence and absence state for communication to an embedded controller. In an alternative embodiment, infrared time of flight presence detection information includes sensed distances provided to a central processing unit integrated sensor hub either directly or with a subscription by the integrated sensor hub to the embedded controller.

An integrated adhesive sensor array includes an adhesive a patch, a sensor hub, and a detachable sensor pod packaged as a unit. The patch may include a docking area for the detachable sensor pod. The detachable sensor pod may include at least one sensor and may be configured to be detached from the patch and applied to various locations on a body. The detachable sensor pod may send sensor data to the sensor hub via a wired link when on the patch and via a wireless link when detached from the patch. The sensor hub receives sensor data from the detachable sensor pod and relays the data to a receiver. The sensor hub and detachable sensor pod may include indicators for communicating information. The sensor hub may include a power source for powering the sensor hub and a detachable sensor pod attached to the main sensor unit or patch.

The invention discloses an electric bicycle sine wave control method based on a non-sensor hub type motor. Firstly, a counter potential zero crossing point of the motor is obtained by the adoption of a terminal voltage detection method, the rotor position of the motor is obtained after position estimation, then a drive signal of a three-phase inverter is obtained through a space vector modulation strategy through the rotor position and the output mu of a controller, and the motor is driven to operate. Compared with a traditional control scheme, a control scheme of a non-position-sensor permanent magnet motor is higher in efficiency, the energy of a battery of an electric bicycle is saved, and the driving mileage is increased; compared with other control schemes without position sensors, the control scheme of the non-sensor permanent magnet motor is simple in design principle, low in requirement for microprocessors, good in adaptability and easy to popularize.

A mobile device comprises a CPU operating a display and other user interface circuitry. Further, it comprises a gas sensor as well as a sensor hub connecting the gas sensor and other sensors to the CPU. In order to save power, the device can be brought into a low-power operating mode, where the CPU is idling or switched-off and the gas sensor itself has a low-power and a high-power operating mode. However, even in this low-power operating mode, the sensor hub still monitors for changes of the signal from the gas sensor and wakes the device up if such a change is detected.

A mobile device with a sensor hub and sensors and a method for controlling the mobile device are provided. The method includes receiving state information regarding the mobile device, setting a sensor sampling period based on the received state information, and receiving measured values from one or more sensors according to the set, sensor sampling period. The sensor hub receives the state information regarding the mobile device, sets a sensor sampling period based on the received state information, and receives measured values from one or more sensors according to the set sensor sampling periods. The mobile device controls the sensors via the sensor hub irrespective of the operations of the main processor. The sensor hub sets a sensor sampling period based on the received state values of a mobile device.

A computing device, system, apparatus, and at least one machine readable medium for dynamically calibrating a magnetic sensor are described herein. The computing device includes a sensor hub and a magnetic sensor communicably coupled to the sensor hub. The magnetic sensor is configured to collect sensor data corresponding to the computing device. The computing device also includes a processor that is configured to execute stored instructions and a storage device that stores instructions. The storage device includes processor executable code that, when executed by the processor, is configured to determine a system state of the computing device and send the determined system state of the computing device to the sensor hub. The sensor hub is configured to dynamically calibrate the magnetic sensor based on the sensor data collected via the magnetic sensor and the determined system state of the computing device.

There is described a portable electronic device capable of detecting false wake conditions, and a method thereof. The portable electronic device comprises a sensor circuit and a display. The sensor circuit detects double tap data associated with user input and motion data subsequent to the double tap data within a predetermined time period. The sensor circuit also determines whether the motion data corresponds to at least one criterion associated with non-user input. The display wakes from a sleep state in response to the sensor circuit determining that the motion data corresponds to the at least one criterion. For some embodiments, the sensor circuit includes a motion sensor to detect the motion data and a sensor hub to determine whether the motion data corresponds to the at least one criterion.