Abstract: A method for depth of field tracking and controlling of a pet companion robot device to interact with a pet includes the steps of: locating a target pet within a field of view of the camera; drawing a minimum target rectangle around the target pet, with sides of the minimum target rectangle parallel with the corresponding sides of the field of view of the camera; locating a center point P of the minimum target rectangle. When P is located in quadrangles I and II, adjusting the pet companion robot device to the right to make P overlap with the vertical center line of the field of view of the camera; and when P is located in quadrangles III and IV, adjusting the pet companion robot device to the left to make P overlap with the vertical center line of the field of view of the camera.

Abstract: A refrigerator appliance includes a cabinet defining a food storage chamber with a door movably coupled to the cabinet whereby the door is movable between a closed position and an open position. A method of operating the refrigerator appliance may include, or the refrigerator appliance may be operable for, receiving an intentional door open input and disabling a door alarm of the refrigerator appliance in response to the intentional door open input. Such methods or operations may further include automatically re-enabling the door alarm after disabling the door alarm.

Abstract: According to one embodiment, there is provided a computing device and method for evaluating driving risk. The computing device includes an input circuit and a processor. The input circuit is configured to receive data from a vehicle. The data includes at least one of GPS data, acceleration data or image data of views external of the vehicle or inside the cabin. Thereafter, the processor is configured to identify a plurality of risks based on the data received from the vehicle, determine a plurality of weightages which are assigned to the plurality of risks, and generate a score based on the plurality of weightages for the plurality of risks.

Abstract: A worksite safety tracking system includes at least one network comprising a plurality of communicatively coupled electronic devices and at least one mobile tracking device communicatively coupled to the network. Alerts are generated by the network based on locations of the tracking device within the worksite.

Abstract: A device detection method and system are provided. The method includes: acquiring first spectral intensity graphs for predetermined regions in the cavity of the target device; acquiring second spectral intensity graphs for the predetermined regions when the target device has finished N processing tasks, where N is a natural number; and detecting the cleanliness in the cavity of the target device according to the first spectral intensity graphs and the second spectral intensity graphs.

Abstract: A collectable absorber canister has a predetermined outer configuration selected from the group consisting of an organic shape, an inorganic shape, and a composite shape. A collecting device stores the collectable absorber canister.

Abstract: This disclosure relates to the analysis of data generated by one or more connected systems and devices. Operational data obtained by one or more connected devices and/or systems, such as a connected thermostat and/or wind turbine system, may be used to detect and/or predict impending failures and/or suboptimal performance. By detecting and/or predicting anomalous system and device performance, various actions may be taken to improve system and device performance and mitigate failure conditions.

Abstract: Motion-based management of a logistics container uses elements of a wireless node network including a container node associated with the logistics container and equipped with a motion sensor. The motion sensor detects a motion status (e.g., moving, stationary, accelerating, decelerating) for the logistics container. The container node compares the motion status to a prior motion status, and then identifies a changed motion condition for the logistics container based upon the comparison. In response to the changed motion condition, the container node alters a broadcast profile used by the container node in communicating with other nodes in the wireless node network. The container node may be deployed as an apparatus within a logistics container, be considered together with the logistics container as a motion sensing container node apparatus, and be considered with multiple package ID nodes as a motion-based management system for the logistics container.

Abstract: A wireless communication safety break device is disclosed which has an upper safety break portion having a fuel inlet, an upper portion check valve, an upper portion communications device, an upper portion contact point or switch, and a lower safety break portion having a fuel outlet, a lower portion check valve, a lower portion contact point or switch, and a locator device.

Abstract: Motion-based management of a logistics container uses elements of a wireless node network including a container node associated with the logistics container and equipped with a motion sensor. The motion sensor detects a motion status (e.g., moving, stationary, accelerating, decelerating) for the logistics container. The container node compares the motion status to a prior motion status, and then identifies a changed motion condition for the logistics container based upon the comparison. In response to the changed motion condition, the container node alters a broadcast profile used by the container node in communicating with other nodes in the wireless node network. The container node may be deployed as an apparatus within a logistics container, be considered together with the logistics container as a motion sensing container node apparatus, and be considered with multiple package ID nodes as a motion-based management system for the logistics container.

Abstract: A robotic system is disclosed that includes an articulated arm with an end effector. The robotic system is for use in a robotic environment requiring interaction with persons in the robotic environment, and includes a plurality of lights that are illuminated responsive to known near-future movements of the articulated arm to convey the known near-future movements of the articulated arm to the persons in the robot environment.

Abstract: A method for measuring an inter-vehicle distance using a processor is provided. The method includes acquiring a driving image photographed by a photographing device of a first vehicle; detecting a second vehicle from the driving image and calculating a ratio between an image width of the detected second vehicle and an image width of a lane in which the second vehicle is located; determining a size class of the second vehicle among a plurality of size classes based on the calculated ratio; determining a width of the second vehicle based on the determined size class of the second vehicle; and calculating a distance from the photographing device to the second vehicle based on the determined width of the second vehicle, a focal length of the photographing device, and the image width of the second vehicle.

Abstract: A method for measuring an inter-vehicle distance using a processor is provided. The method includes acquiring a driving image photographed by a photographing device of a first vehicle; detecting a second vehicle from the driving image and calculating a ratio between an image width of the detected second vehicle and an image width of a lane in which the second vehicle is located; determining a size class of the second vehicle among a plurality of size classes based on the calculated ratio; determining a width of the second vehicle based on the determined size class of the second vehicle; and calculating a distance from the photographing device to the second vehicle based on the determined width of the second vehicle, a focal length of the photographing device, and the image width of the second vehicle.

Abstract: A system for providing pilot or controller support in a reduced crew transport environment may include a set of sensors configured to collect a set of measurements of a set of physiological signals of a user. The system may further include an emotional analyzer model usable to generate at least one emotional parameter value corresponding to the set of measurements. The system may also include a natural language processing model usable to generate a natural language statement corresponding to the at least one emotional parameter value for output to the pilot.

Abstract: Systems and methods for operating a tag. The methods comprise: actuating a telescoping actuator of the tag to transition a pin from an unengaged position in which the pin is retracted into a first portion of the tag's housing to an engaged position in which the pin extends through an insert space and into a second portion of the tag's housing; and mechanically securing the pin in the engaged position using a securement mechanism disposed in the second portion of the tag's housing. The pin is securely coupled to a movable component of the telescoping actuator so as to be integrated into the tag's body, and the first and second portions of the tag's housing are coupled to each other so as to form a unitary piece.

Abstract: A metering system including a utility meter having a processing circuit and a communication module interface. The metering system also includes a communication module electronically coupled to the utility meter via the communication module interface. The communication module interface is configured to transmit information to, and receive information from, the utility meter. The processing circuit of the utility meter includes one or more electronic processors that are configured to receive a first message from the communication, read a header frame of the first message, and determine a message type of the first message based on the header frame. The electronic processors are also configured to verify the first message based on the determined message type, and process the first message based on the determined message type.

Abstract: A cabinet with AED light signal display is disclosed. A cabinet body receives an AED having an indicator. A light signal indication device is disposed on the outside of the cabinet body. A status sensor is disposed on the outside of the indicator of the AED and is electrically connected to the circuit board through a transmission cable, detecting a display status of the indicator of the AED to generate a detection result. A circuit board is electrically connected to the status sensor and a light signal indication device. The circuit board generates a control signal according to the detection result, controlling the light signal indication device to show a light signal corresponding to the indicator.

Abstract: A security device is provided that includes an electronic article surveillance tag that may be configured to resonate to provide a wireless response signal to a deactivator to trigger generation of a deactivation field. Further, the security device may include tamper detection circuitry which may include a tamper sensor configured to generate a tamper signal in response to detecting a tamper event, a deactivation sensor configured to generate a deactivation signal in response to detecting the deactivation field, and a sounder. In this regard, the tamper detection circuitry may be configured to deactivate the tamper detection circuitry in response to receiving the deactivation signal from the deactivation sensor such that receipt of the tamper signal after deactivation of the tamper detection circuitry does not trigger the sounder to emit the alarm.

Abstract: A Radio Frequency Identification (RFID) tag is disclosed. The RFID tag includes an antenna to receive a high frequency signal, a capacitor bank coupled with the antenna, a charge pump coupled with the antenna configured to convert the high frequency signal to a direct current (DC) signal, an envelope detector to measure peak voltage of the high frequency signal and a detector to compare an output of the charge pump and an output of the envelope detector. The RFID tag also includes an impedance tuning circuit coupled with the charge pump and the envelope detector configured change a capacitance of the capacitor bank based on an output of the detector and the envelope detector.

Abstract: A server associated with a building automation emergency response system, receives indications of a detected emergency from sensors distributed among zones in the building, comprising a sensor reading level and a sensor identity. The server determines a zone danger level, based on the sensor identity and on the sensor reading levels. The server calculates an evacuation route commencing from user interfaces distributed among the zones. The user interfaces include a display device. The evacuation route is calculated to traverse the zones with a lower route danger level. The evacuation route is directed toward a safe exit, based on a floor plan. The server then transmits a depiction of the evacuation route to the user interfaces for display. The server continues receiving updated indications from the sensors, determines updated route danger levels, calculates an updated evacuation route, and transmits an updated depiction of the evacuation route to the user interfaces for display.