Abstract: A computer system controls access to network devices. One or more user interface elements associated with one or more network devices that are within a view of a user are displayed to the user via an augmented reality display. Input from the user is received comprising instructions to execute a command at a network device of the one or more network devices. The user is determined, according to a security policy, to be authorized to execute the command at the network device. In response to determining that the user is authorized to execute the command, the command is executed at the network device. Embodiments of the present invention further include a method and program product for controlling access to network devices in substantially the same manner described above.

Abstract: A circulatory system monitor may include a sensor array having a plurality of sensor assemblies and a controller in communication with the sensor array. The sensor array may be configured to be pressed against a patient's body and the controller may identify a sensor assembly of the plurality of sensor assemblies from which a signal is to be used to determine a circulatory system parameter of the patient's body. The controller may use a signal from the identified sensor assembly to determine the circulatory system parameter. The circulatory system monitor may include an inflatable member and a pump. The configuration of the sensor array and the inflatable member may facilitate ensuring alignment of at last one sensor assembly of the sensor array with a target artery to be monitored.

Abstract: A method for correcting a position of an excavation vehicle, the excavation vehicle comprising a cab, a boom, a stick, and a bucket, is provided. The method detects vehicle tilt angle data; calculates tilt-compensated position output for the boom, based on a current boom angle and the detected vehicle tilt angle data; and adjusts the position, based on the tilt-compensated position output.

Abstract: A method for correcting a position of an excavation vehicle, the excavation vehicle comprising a cab, a boom, a stick, and a bucket, is provided. The method detects vehicle tilt angle data; calculates tilt-compensated position output for the boom, based on a current boom angle and the detected vehicle tilt angle data; and adjusts the position, based on the tilt-compensated position output.

Abstract: This disclosure describes techniques for sensing an angular position of a rotating object over an angular position range that includes up to 360 degrees using an arc position encoder comprising a substantially 180-degree angular position sensing range. The encoder may include a base comprising an arc length defined by a first and a second end, one or more magnetic field sensors disposed within the base between the first and second ends, and one or more polarity transition sensors also disposed within the base between the first and second ends. The encoder may further include a magnetic target that includes first and second magnetic poles disposed on opposite ends so as to generate a uniform magnetic field, wherein the magnetic target is coupled to the rotating object so as to rotate about an axis of rotation located substantially in a center of a circle defined by the base.

Abstract: This disclosure describes techniques for sensing an angular position of a rotating object over an angular position range that includes up to 360 degrees using an arc position encoder comprising a substantially 180-degree angular position sensing range. The encoder may include a base comprising an arc length defined by a first and a second end, one or more magnetic field sensors disposed within the base between the first and second ends, and one or more polarity transition sensors also disposed within the base between the first and second ends. The encoder may further include a magnetic target that includes first and second magnetic poles disposed on opposite ends so as to generate a uniform magnetic field, wherein the magnetic target is coupled to the rotating object so as to rotate about an axis of rotation located substantially in a center of a circle defined by the base.

Abstract: Disclosed are techniques for sensing an angular position of a rotating object over a 360-degree angular position range using an arc position encoder comprising a 180-degree angular position sensing range. The encoder may include a base defined by first and second ends, one or more magnetic field sensors disposed within the base between the first and second ends, one or more of first and second base extensions disposed on the first and second ends, and one or more polarity transition sensors disposed within the one or more of the first and second base extensions. The encoder may further include a magnetic target having first and second magnetic poles disposed on opposite ends so as to generate a uniform magnetic field, wherein the magnetic target is coupled to the rotating object so as to rotate about an axis of rotation located in a center of a circle defined by the base.

Abstract: This disclosure is directed to techniques for protecting a sensor from a short to a power supply. According to one example consistent with these techniques, a circuit or device may include a sensor unit and a short protection unit. The sensor unit may generate at least one signal indicative of at least one measured property. The sensor unit may be configured to communicate the at least one generated signal via an output node coupled to the sensor unit. The short protection unit may determine whether the output node is electrically coupled to a power supply input. The short protection unit may, if the output node is electrically coupled to the power supply input, provide at least one auxiliary load between the sensor unit and the output node, and thereby protect the sensor unit to prevent the sensor unit from operating undesirably and/or to prevent the sensor unit from damage.

Abstract: A circuit breaker includes a breaker housing, a stationary contact, a movable contact, an operating shaft, and a linear position sensor. The stationary contact is non-movably mounted within the breaker housing, and the movable contact is movably mounted within the breaker housing. The movable contact is coupled to receive an input force and is configured, upon receipt of the input force, to move between a closed position, in which the movable contact is electrically coupled to the stationary contact, and an open position, in which the movable contact is electrically isolated from the stationary contact. The operating shaft is coupled to the movable contact to supply the input force thereto. The linear position sensor is connected to the operating shaft and is configured, upon movement of the operating shaft, to supply a position signal representative of movable contact position.

Abstract: This disclosure is directed to techniques for protecting a sensor from a short to a power supply. According to one example consistent with these techniques, a circuit or device may include a sensor unit and a short protection unit. The sensor unit may generate at least one signal indicative of at least one measured property. The sensor unit may be configured to communicate the at least one generated signal via an output node coupled to the sensor unit. The short protection unit may determine whether the output node is electrically coupled to a power supply input. The short protection unit may, if the output node is electrically coupled to the power supply input, provide at least one auxiliary load between the sensor unit and the output node, and thereby protect the sensor unit to prevent the sensor unit from operating undesirably and/or to prevent the sensor unit from damage.