Abstract: Techniques for dynamically generating user interface (UI) components based on hierarchical component factories are disclosed. In one example, a component factory corresponding to each of a plurality of UI components may be defined. The plurality of UI components associated with an application may be registered with a common registry using associated metadata and configuration information. Each UI component may be mapped to a component factory of an associated parent UI component based on the associated metadata. A request to render at least a portion of the application on a UI may be received. At least one UI component corresponding to the request at each level in a hierarchy may be generated, at runtime, using the component factory associated with the at least one UI component and the common registry. The at least one generated UI component may be rendered on the UI.

Abstract: A method for invoking a user-intended Internet of Things (IoT) device amongst a number of IoT devices is disclosed. The method includes extracting by the number of IoT devices, a number of voice parameters from a voice wakeup command for waking up the device. The method includes sharing by the number of IoT devices, the number of voice parameters amongst the number of IoT devices. The method includes comparing the number of voice parameters with a number of pre-stored voice parameters in the number of IoT devices. The method includes determining, a user-intended IoT device amongst the number of IoT devices based on the voice wakeup command and at least one of a similarity between the plurality of pre-stored voice parameters and the plurality of voice parameters and a previously invoked IoT device associated with a previous voice wakeup command. The method includes invoking the user-intended IoT device selected amongst the number of IoT devices.

Abstract: To assist with using a network based application program, a context-aware help interface is provided. The help interface may be dynamically updated and contemporaneously displayed along with a user interface. User interface accesses, such as from client use of the application program, may be tracked and used to identify contexts for the client. A context includes identifying a current application program feature or functionality accessed by the client. A hierarchical context identifier may be determined by tracking multiple user interface accesses. The hierarchical context identifier may be used to search for help content to display in the help interface. Search results may be optimized for content and presentation. Artificial intelligence may be employed to identify, based at least in part on accesses represented by one or more hierarchical context identifier, a client's experience level or needs so that help content may be tailored appropriately.

Abstract: Systems and methods for data reporting using a data aggregator and a data retrieval tool such as a file intelligence service. The data aggregator stores two sets of data reporting tables and designates a first one of the sets of tables as an active set and the second one of the sets as a non-active set. The active set of tables stores data corresponding to a most recently successfully completed search. The non-active set stores data retrieved by the data retrieval tool from disparate data sources according to current search. The data in the active set of tables is immediately available for use in requested reports. When the data aggregator completes the current search, it designates the non-active set of tables as the active set so that the data therein becomes available for use in requested reports.

Abstract: Aspects relate to an image signal processor that processes frames from different image sensors. An example device includes a memory and an image signal processor coupled to the memory. The image signal processor is configured to provide a first trigger to a first image sensor (the first image sensor being coupled to the image signal processor), receive a first frame from the first image sensor at a first time in response to the first trigger being received by the first image sensor, process the first frame, provide a second trigger to the second image sensor (the second image sensor being coupled to the image signal processor), receive a second frame from the second image sensor at a second time in response to the second trigger being received by the second image sensor (with the second time subsequent to the first time), and process the second frame.

Abstract: The various embodiments of the present invention disclose a stand-alone, scalable cardiac health monitoring device for 1-6-12 lead ECG data acquisition and a method of working thereof. The method of monitoring cardiac health condition of a patient comprises of receiving, by a cardiac monitoring device, an electrocardiograph (ECG) input data signals from at least two electrodes attached to the patient, performing, a quality check on acquiring the ECG input data signals, processing the acquired ECG input data signals, encrypting the processed ECG input data signals and transmitting the encrypted ECG signals to one or more external user devices over a wireless communication interface. The acquiring the ECG input data signals comprises of integrating a closed loop Right Leg Drive (RLD) as a shield drive and a cable/electrode shield to reduce noise coupling to the ECG input data signals.

Abstract: A drive unit is provided for a moving contact of a vacuum tube. The drive unit has a tube pin which is conductively connected to the moving contact, a drive which is connected to the tube pin, and a conductor bridge. The drive moves the tube pin. The conductor bridge is directly conductively connected to the tube pin and a stationary conductor and bridges a travel of the tube pin between a conductive switching state of the vacuum tube and a non-conductive switching state. A magnet drive is provided, which contains a first magnet element, which is connected to the tube pin, and a second magnet element. The two magnet elements are configured to build up a magnetic force between them when current is flowing through the vacuum tube and in this way generates a contact-pressure force of the moving contact onto a fixed contact of the vacuum tube.

Abstract: A pole assembly of a switching device is provided. The pole assembly includes a first interrupter unit operably connected to a pole plate of the pole assembly via first post insulators. The first interrupter provides a path for current flow through the first interrupter in a closed state and interrupts the current flow in an open state. A second interrupter unit is operably connected to the first interrupter unit and to the pole plate via second post insulators. The second interrupter allows the current flow through the first interrupter unit in an open state and grounds the switching device in a closed state. The pole assembly includes a dielectric shield physically disposable between and operably connected to the first post insulators and the second post insulators for uniformly distributing an electric field generated during operation of the pole assembly.

Abstract: An electrical device includes an integrated circuit having device circuitry, a passive breakdown protection circuit, and a resistor coupled to or included with the device circuitry. The resistor includes: a polysilicon layer coupled between a first terminal and a second terminal; an epitaxial layer terminal; and a buried layer terminal. The passive breakdown protection circuit is coupled between the second terminal and the epitaxial layer terminal. The passive breakdown protection circuit is also coupled between the epitaxial layer terminal and the buried layer terminal.

Abstract: A driver includes an open drain output transistor, a capacitor, a first current source, and first and second transistors. Upon assertion of a transmit signal to turn on the first transistor, a controller asserts a second control signal to turn on the second transistor responsive to a voltage of the capacitor being less than a threshold voltage of the open drain output transistor to thereby increase the control terminal voltage for the open drain output transistor at a first time rate. The controller deasserts the second control signal to turn off the second transistor responsive to the capacitor voltage exceeding the threshold voltage. Responsive to the capacitor's voltage exceeding the threshold, the first current source charges the capacitor to further increase the control terminal voltage at a second time rate that is smaller than the first time rate.

Abstract: Systems and methods for presenting content are disclosed. One method can comprise presenting an interface such as a content guide comprising a field relating to content. A selection of one or more of a plurality of filters can be received. A first indicator representing first information can be presented if a first one of the filters is selected, wherein the first information relates to the field. A second indicator representing second information can be presented if a second one of the filters selected, wherein the second information relates to the field.

Abstract: Systems and methods for presenting content are disclosed. One method can comprise presenting an interface such as a content guide comprising a field relating to content. A selection of one or more of a plurality of filters can be received. A first indicator representing first information can be presented if a first one of the filters is selected, wherein the first information relates to the field. A second indicator representing second information can be presented if a second one of the filters selected, wherein the second information relates to the field.

Abstract: Two CAN bus transceivers utilized in a single integrated circuit package with the CAN bus connections between the two transceivers being inverted. Thus, one transceiver is connected to the CAN bus high and low lines while the other transceiver is connected to the CAN bus low and high lines. Both transceivers power up in a standby condition and each transceiver is monitoring for wake up signals on the CAN bus. The transceiver that is correctly connected to the CAN bus detects wake up signals. When the wake up signals are detected at that transceiver, that transceiver is brought to full operating state and the other transceiver is placed in a full standby condition. Additional input resistance is provided with each transceiver to maintain the proper input resistance for the integrated circuit.

Abstract: An electrical device includes an integrated circuit having device circuitry, a passive breakdown protection circuit, and a resistor coupled to or included with the device circuitry. The resistor includes: a polysilicon layer coupled between a first terminal and a second terminal; an epitaxial layer terminal; and a buried layer terminal. The passive breakdown protection circuit is coupled between the second terminal and the epitaxial layer terminal. The passive breakdown protection circuit is also coupled between the epitaxial layer terminal and the buried layer terminal.

Abstract: A positive overshoot detection circuit comprises a transistor coupled to a current mirror, a reference current source coupled to the current mirror, and a comparator coupled to the reference current source and the current mirror. The comparator output indicates whether the current mirror's current is greater than the reference current source's current. A control input and a current terminal of the transistor are coupled to a clamping circuit. A negative overshoot detection circuit comprises a biasing sub-circuit coupled to a transistor, a resistor coupled to the transistor, and a comparator coupled to the transistor and the resistor. The comparator output indicates whether the transistor is in an on or off state. The biasing sub-circuit is coupled to a clamping circuit. In some implementations, the comparator outputs from the positive and negative overshoot detection circuits are provided to a driver circuit, which modifies its operation.

Abstract: A driver includes an open drain output transistor, a capacitor, a first current source, and first and second transistors. Upon assertion of a transmit signal to turn on the first transistor, a controller asserts a second control signal to turn on the second transistor responsive to a voltage of the capacitor being less than a threshold voltage of the open drain output transistor to thereby increase the control terminal voltage for the open drain output transistor at a first time rate. The controller deasserts the second control signal to turn off the second transistor responsive to the capacitor voltage exceeding the threshold voltage. Responsive to the capacitor's voltage exceeding the threshold, the first current source charges the capacitor to further increase the control terminal voltage at a second time rate that is smaller than the first time rate.

Abstract: A system includes a controller area network (CAN) transceiver. The CAN transceiver includes a wake-up circuit having an attenuator circuit coupled to a CAN bus. The wake-up circuit also includes a common-gate amplifier circuit coupled to the attenuator circuit. The wake-up circuit also includes an offset generation circuit coupled to the common-gate amplifier circuit.

Abstract: A system includes a controller area network (CAN) transceiver. The CAN transceiver includes a wake-up circuit having an attenuator circuit coupled to a CAN bus. The wake-up circuit also includes a common-gate amplifier circuit coupled to the attenuator circuit. The wake-up circuit also includes an offset generation circuit coupled to the common-gate amplifier circuit.

Abstract: A bus transceiver circuit including a current source device, a current mirror coupled to the current source device, and a first transistor having a first control input and first and second current terminals. The bus transceiver circuit also includes a second transistor having a second control input and third and fourth current terminals. The third current terminal is coupled to the first control input at a first node. The fourth current terminal is coupled to the current mirror. A resistor is coupled between the first current terminal and the first node.

Abstract: A driver includes an open drain output transistor, a capacitor, a first current source, and first and second transistors. Upon assertion of a transmit signal to turn on the first transistor, a controller asserts a second control signal to turn on the second transistor responsive to a voltage of the capacitor being less than a threshold voltage of the open drain output transistor to thereby increase the gate voltage for the open drain output transistor at a first time rate. The controller deasserts the second control signal to turn off the second transistor responsive to the capacitor voltage exceeding the threshold voltage. Responsive to the capacitor's voltage exceeding the threshold, the first current source charges the capacitor to further increase the gate voltage at a second time rate that is smaller than the first time rate.