Abstract: A computer-implemented method for operating a computing device including: receiving telematics data from one or more sensors of an electronic device of a user; assessing driving behavior of the user based on the telematics data; generating a personalized digital training program for the user based at least on the driving behavior of the user; generating one or more driving scores for the user based on performance of the user on the personalized digital training program; and outputting a driving credential for the user based on the one or more driving scores. Other embodiments are described.

Abstract: The disclosed technology relates generally to switching devices and more particularly to switching devices employing micro-electromechanical system (MEMS) switches. The switching devices can serve as circuit breakers for protecting electrical systems against certain electrical events. The switching devices can be configured to monitor and control one or both the MEMS switches and the electrical systems being protected. The disclosed technology additionally relates to systems including the switching devices and methods of using the switching devices.

Abstract: The disclosed technology relates generally to switching devices and more particularly to switching devices employing micro-electromechanical system (MEMS) switches. The switching devices can serve as circuit breakers for protecting electrical systems against certain electrical events. The switching devices can be configured to monitor and control one or both the MEMS switches and the electrical systems being protected. The disclosed technology additionally relates to systems including the switching devices and methods of using the switching devices.

Abstract: The disclosed technology relates generally to switching devices and more particularly to switching devices employing micro-electromechanical system (MEMS) switches. The switching devices can serve as circuit breakers for protecting electrical systems against certain electrical events. The switching devices can be configured to monitor and control one or both the MEMS switches and the electrical systems being protected. The disclosed technology additionally relates to systems including the switching devices and methods of using the switching devices.

Abstract: The disclosed technology relates generally to switching devices and more particularly to switching devices employing micro-electromechanical system (MEMS) switches. The switching devices can serve as circuit breakers for protecting electrical systems against certain electrical events. The switching devices can be configured to monitor and control one or both the MEMS switches and the electrical systems being protected. The disclosed technology additionally relates to systems including the switching devices and methods of using the switching devices.

Abstract: The disclosed technology relates generally to switching devices and more particularly to switching devices employing micro-electromechanical system (MEMS) switches. The switching devices can serve as circuit breakers for protecting electrical systems against certain electrical events. The switching devices can be configured to monitor and control one or both the MEMS switches and the electrical systems being protected. The disclosed technology additionally relates to systems including the switching devices and methods of using the switching devices.

Abstract: The disclosed technology relates generally to switching devices and more particularly to switching devices employing micro-electromechanical system (MEMS) switches. The switching devices can serve as circuit breakers for protecting electrical systems against certain electrical events. The switching devices can be configured to monitor and control one or both the MEMS switches and the electrical systems being protected. The disclosed technology additionally relates to systems including the switching devices and methods of using the switching devices.

Abstract: Circuit breakers based on micro-electromechanical systems (MEMS) switches are described. A high voltage MEMS teeter-totter switch can include a beam coupled to an anchor on a substrate and two control electrodes, disposed on a surface of the substrate. A control voltage applied on one of the control electrodes with respect to a first reference voltage puts one of the two ends of the beam in electric contact with one of two contact electrodes of the MEMS teeter-totter switch to electrical connected two terminals of a circuit breaker. The input voltage is applied on the beam with respect to a second reference voltage different from the first reference voltage. A MEMS teeter-totter switch network comprises a plurality of MEMS teeter-totter switches configured to switch high voltage and high current between the two terminals of the circuit breaker.

Abstract: Circuit breakers comprising high voltage micro-electromechanical systems (MEMS) switches are described. A MEMS teeter-totter switch connected between two terminals of the circuit breaker can include a beam coupled to an anchor on a substrate and two control electrodes disposed on a surface of the substrate. The circuit breaker includes one or more sensors that generate sensor signals indicative of operational conditions of the MEMS teeter-totter switch. A microcontroller generates control signals to change the state of the switch based at least in part on one of the sensor signals.

Abstract: High voltage microelectromechanical systems (MEMS) switches are described. The MEMS switches can be actively opened and closed. The switch can include a beam coupled to an anchor on a substrate by one or more hinges. The switch can include control electrodes, disposed on a surface of the substrate, for electrically controlling the beam. The anchor is asymmetrically positioned with respect to the two ends of the beam and is electrically connected to a middle electrode. A stopper serves as a pivot point during actuation of the switch to reduce the mechanical stress on the hinges.

Abstract: High voltage micro-electromechanical systems (MEMS) switches are described. A MEMS teeter-totter switch can include a beam coupled to an anchor on a substrate and two control electrodes, disposed on a surface of the substrate. A control circuit may include an isolator that provides an isolated activation voltage to a voltage supply and control circuit. The voltage supply and control circuit uses the isolated activation voltage to supply a control voltage to one of the control electrodes with respect to a first reference voltage, causing the beam to provide an input voltage received from an input terminal to a contact electrode of the MEMS teeter-totter switch electrically connected to an output terminal. The input voltage is applied on the beam with respect to a second reference voltage different from the first reference voltage.

Abstract: High voltage micro-electromechanical systems (MEMS) switches are described. A MEMS teeter-totter switch connected between two terminals of a circuit breaker can include a beam coupled to an anchor on a substrate and two control electrodes, disposed on a surface of the substrate. A protective switch connected between the two terminals in parallel with the MEMS teeter-totter switch may turn on during transition of the MEMS teeter-totter switch between ON and OFF states to protect the MEMS teeter-totter switch from large currents and voltages that may flow or develop across the MEMS teeter-totter switch when the voltage between two terminals is large.

Abstract: High voltage micro-electromechanical systems (MEMS) switches are described. A MEMS teeter-totter switch connected between two terminals of a circuit breaker can include a beam coupled to an anchor on a substrate and two control electrodes, disposed on a surface of the substrate. An electrical overstress device connected between the two terminals in parallel with the MEMS teeter-totter switch may protect the MEMS teeter-totter switch when a high voltage transient signal is applied across the teeter-totter switch.

Abstract: High voltage micro-electromechanical systems (MEMS) switches are described. A MEMS teeter-totter switch can include a beam coupled to an anchor on a substrate and two control electrodes, disposed on a surface of the substrate. A control circuit may include an optical isolator that provides an isolated activation voltage to a voltage supply and control circuit. The voltage supply and control circuit uses the isolated activation voltage to supply a control voltage to one of the control electrodes with respect to a first reference voltage, causing the beam to provide an input voltage received from an input terminal to a contact electrode of the MEMS teeter-totter switch electrically connected to an output terminal. The input voltage is applied on the beam with respect to a second reference voltage different from the first reference voltage.

Abstract: The apparatus and method for hemostasis that informs the provider as to whether the appropriate magnitude of pressure is being applied to a puncture site on a patient. A visual pulse indicator can visually convey whether or not there is proper blood flow at the puncture site based on the pulsing motion encountered by the visual pulse indicator on the puncture site. The visual pulse indicator can potentially factor in a variety of different input parameters in displaying information that is useful to providers.

Abstract: The apparatus and method for hemostasis that informs the provider as to whether the appropriate magnitude of pressure is being applied to a puncture site on a patient. A visual pulse indicator can visually convey whether or not there is proper blood flow at the puncture site based on the pulsing motion encountered by the visual pulse indicator on the puncture site. The visual pulse indicator can potentially factor in a variety of different input parameters in displaying information that is useful to providers.

Abstract: The apparatus and method for hemostasis that informs the provider as to whether the appropriate magnitude of pressure is being applied to a puncture site on a patient. A visual pulse indicator can visually convey whether or not there is proper blood flow at the puncture site based on the pulsing motion encountered by the visual pulse indicator on the puncture site. The visual pulse indicator can potentially factor in a variety of different input parameters in displaying information that is useful to providers.

Abstract: A profiling engine is disclosed. The profiling engine collects information from a variety of sources in real time and stores the information in a profile. The profile may have a number of layers, each layer having a number of categories. The profile is made available for use by applications and services.

Abstract: An apparatus and method for capturing sensor readings relating to one or more blood flow attributes of a patient at or around a puncture site when the patient is being subjected to hemostasis process by a health care provider. A wide range of different sensor technologies and component configurations can be utilized. The apparatus can operate as a fully stand-alone device, a fully integrated component of a hemostasis treatment tool, or any configuration between the two polar extremes of integration/stand-alone.

Abstract: The invention discloses systems and methods for integrating Mobile Commerce applications with dynamically generated user profiles. A profiling engine collects and stores information regarding a mobile subscriber's usage of Mobile Banking, Mobile Payment, and Mobile Brokerage, and stores the information in a profile. A Dynamic Event Server Subsystem comprising a Mobile Broker analyzes patterns in the subscriber's usage of these applications. The mobile broker can thus provide intelligent feedback regarding purchases and financial transactions back to the applications and to the subscriber. This feedback is provided in real time.