Abstract: Example implementations include a system with a first communication channel operatively coupled with a cranial sensor system and operable to transmit a cranial sensor output obtained from the cranial sensor system to one or more remote devices, and a second communication channel operatively coupled with the cranial sensor system and operable to transmit a diagnostic output associated with the cranial sensor output to the remote device(s).

Abstract: A periodontal disease detection system includes a periodontal disease determination device and a measurement device. The periodontal disease determination device has a position adjustment unit which acquires an image of the measurement device from an imaging unit, and displays the image on a display unit to allow the user to adjust the position of the measurement device. Further, the periodontal disease determination device includes a light emission control unit which transmits to the measurement device a light emission control instruction for irradiating light from a light source provided in the measurement device. Further, the periodontal disease determination device includes a measurement data acquisition unit that acquires information on an intensity of reflected light acquired by the measurement device as measurement data.

Abstract: A method and system for monitoring ultrasound tests and notifying users about test results, are described. The method includes receiving ultrasound test data representing blood flow in a blood vessel, and receiving a notification condition having a flow parameter threshold for the blood flow. The method includes determining whether the ultrasound test data meets the notification condition, and transmitting, in response to the ultrasound test data meeting the notification condition, a notification. The notification is sent in real-time, concurrently with the ultrasound test, and includes a selectable reference to cause the display of the test results on a user device. Other embodiments are also described and claimed.

Abstract: A method and system for monitoring ultrasound tests and notifying users about test results, are described. The method includes receiving ultrasound test data representing blood flow in a blood vessel, and receiving a notification condition having a flow parameter threshold for the blood flow. The method includes determining whether the ultrasound test data meets the notification condition, and transmitting, in response to the ultrasound test data meeting the notification condition, a notification. The notification is sent in real-time, concurrently with the ultrasound test, and includes a selectable reference to cause the display of the test results on a user device. Other embodiments are also described and claimed.

Abstract: A method and system for monitoring ultrasound tests and notifying users about test results, are described. The method includes receiving ultrasound test data representing blood flow in a blood vessel, and receiving a notification condition having a flow parameter threshold for the blood flow. The method includes determining whether the ultrasound test data meets the notification condition, and transmitting, in response to the ultrasound test data meeting the notification condition, a notification. The notification is sent in real-time, concurrently with the ultrasound test, and includes a selectable reference to cause the display of the test results on a user device. Other embodiments are also described and claimed.

Abstract: Example implementations include a system with a first communication channel operatively coupled with a cranial sensor system and operable to transmit a cranial sensor output obtained from the cranial sensor system to one or more remote devices, and a second communication channel operatively coupled with the cranial sensor system and operable to transmit a diagnostic output associated with the cranial sensor output to the remote device(s).

Abstract: The present invention provides a method of determining an electrical operating time of a circuit breaker (140) in a multiphase electrical system having a subsystem (160) at an electric potential resulting from electrical characteristics of electrical components within the subsystem. The method comprises monitoring (145) the voltage of the subsystem in the first phase, determining a first rate of change from the monitored voltage in the first phase, detecting at least one instance of switching based on the first rate of change, determining an electrical operating time of the circuit breaker based on the detected at least one instance of switching and an instance at which a command for switching was provided to the circuit breaker.

Abstract: A method for synchronizing and connecting a first sub power system with a second sub power system with an intelligent electronic device (IED) by use of at least one switching device between the first sub power system and the second sub power system in an electrical power system is provided. The IED monitors power supply parameters such as voltage magnitude, phase and other derived parameters such as voltage and phase differences in the first sub power system and the second sub power system to identify at least one instance for fast bus transfer where the two sub systems have acceptable differences in magnitude and phase. The IED performs phase shifting and voltage magnitude correction in anticipation for synchronizing power supplies on connection at the identified instance.

Abstract: Methods, systems, and devices are disclosed for implementing a semiconductor device having a transistor and a diode that are monolithically integrated. In one aspect, a semiconductor device is provided to include a substrate including semiconductor materials; a drift region formed over the substrate; doping region formed on a surface of the drift region and including a first impurity region and a second impurity region formed over the first impurity region; a body contact formed adjacent to the second impurity region; a Schottky region formed adjacent to the body contact such that the second impurity region and the Schottky contact are located on opposite sides of the body contact, the Schottky region contacting the drift region; and a gate region formed over the doping region.

Abstract: An exemplary doping profile for an epitaxial layer reduces the on-state resistance (RON) and off-state capacitance (CD). A reduction in on-state resistance improves the forward voltage drop (VF). Compared to constant epitaxial doping, non-uniform doping of the epitaxial layer can optimize trade-offs between on-state resistance (RON) and off-state capacitance (CD), and off-state blocking of power devices. In some embodiments, the doping profile for the epitaxial layer may be graded or gradual. In some embodiments, the doping profile for the epitaxial layer may be a stepped or a stepwise function.

Abstract: The present invention provides a method of determining an electrical operating time of a circuit breaker (140) in a multiphase electrical system having a subsystem (160) at an electric potential resulting from electrical characteristics of electrical components within the subsystem. The method comprises monitoring (145) the voltage of the subsystem in the first phase, determining a first rate of change from the monitored voltage in the first phase, detecting at least one instance of switching based on the first rate of change, determining an electrical operating time of the circuit breaker based on the detected at least one instance of switching and an instance at which a command for switching was provided to the circuit breaker.

Abstract: A semiconductor power device includes a junction termination extension (JTE) region that is defined by a gradually reducing width extending towards a periphery of the semiconductor device. In one advantageous aspect, the JTE design achieves a flat electric field profile across the JTE region. In another advantageous aspect, area efficiency of implementations can be increased, thereby reducing cost and complexity of fabrication.

Abstract: A method for synchronizing and connecting a first sub power system with a second sub power system with an intelligent electronic device (IED) by use of at least one switching device between the first sub power system and the second sub power system in an electrical power system is provided. The TED monitors power supply parameters such as voltage magnitude, phase and other derived parameters such as voltage and phase differences in the first sub power system and the second sub power system to identify at least one instance for fast bus transfer where the two sub systems have acceptable differences in magnitude and phase. The TED performs phase shifting and voltage magnitude correction in anticipation for synchronizing power supplies on connection at the identified instance.