Abstract: A cable jacket removal device is used to selectively remove a sheath from a length of a sheathed cable. The cable jacket removal device includes a support frame, a drive shaft, and a motor. The support frame removably couples the removal device to the cable to be stripped. The drive shaft is coupled to the support frame. The motor is coupled to the drive shaft to selectively rotate the drive shaft to cause the removal device to travel along the cable to automatically remove a cable jacket from a predefined distance of the cable.

Abstract: A cable jacket removal device is used to selectively remove a sheath from a length of a sheathed cable. The cable jacket removal device includes a support frame, a drive shaft, and a motor. The support frame removably couples the removal device to the cable to be stripped. The drive shaft is coupled to the support frame. The motor is coupled to the drive shaft to selectively rotate the drive shaft to cause the removal device to travel along the cable to automatically remove a cable jacket from a predefined distance of the cable.

Abstract: A cable jacket removal device is used to selectively remove a sheath from a length of a sheathed cable. The cable jacket removal device includes a support frame, a drive shaft, and a motor. The support frame removably couples the removal device to the cable to be stripped. The drive shaft is coupled to the support frame. The motor is coupled to the drive shaft to selectively rotate the drive shaft to cause the removal device to travel along the cable to automatically remove a cable jacket from a predefined distance of the cable.

Abstract: A cable jacket removal device is used to selectively remove a sheath from a length of a sheathed cable. The cable jacket removal device includes a support frame, a drive shaft, and a motor. The support frame removably couples the removal device to the cable to be stripped. The drive shaft is coupled to the support frame. The motor is coupled to the drive shaft to selectively rotate the drive shaft to cause the removal device to travel along the cable to automatically remove a cable jacket from a predefined distance of the cable.

Abstract: A cable jacket removal device is used to selectively remove a sheath from a length of a sheathed cable. The cable jacket removal device includes a support frame, a drive shaft, and a motor. The support frame removably couples the removal device to the cable to be stripped. The drive shaft is coupled to the support frame. The motor is coupled to the drive shaft to selectively rotate the drive shaft to cause the removal device to travel along the cable to automatically remove a cable jacket from a predefined distance of the cable.

Abstract: Techniques for improving reliability of III-N devices include holding the III-N devices at a first temperature less than or equal to 30° for a first period of time while applying a first gate-source voltage lower than a threshold voltage of the III-N devices and a first drain-source voltage greater than 0.2 times a break down voltage of the III-N devices; and holding the III-N devices at a second temperature greater than the first temperature for a second period of time while applying a second gate-source voltage lower than a threshold voltage of the III-N devices and a second drain-source voltage greater than 0.2 times a breakdown voltage of the III-N devices. After holding the III-N devices at the first and second temperatures, screening the III-N devices based on electrical performance of one or more parameters of the III-N devices.

Abstract: Techniques for improving reliability of III-N devices include holding the III-N devices at a first temperature less than or equal to 30° for a first period of time while applying a first gate-source voltage lower than a threshold voltage of the III-N devices and a first drain-source voltage greater than 0.2 times a break down voltage of the III-N devices; and holding the III-N devices at a second temperature greater than the first temperature for a second period of time while applying a second gate-source voltage lower than a threshold voltage of the III-N devices and a second drain-source voltage greater than 0.2 times a breakdown voltage of the III-N devices. After holding the III-N devices at the first and second temperatures, screening the III-N devices based on electrical performance of one or more parameters of the III-N devices.

Abstract: A cable jacket removal device is used to selectively remove a sheath from a length of a sheathed cable. The cable jacket removal device includes a support frame, a drive shaft, and a motor. The support frame removably couples the removal device to the cable to be stripped. The drive shaft is coupled to the support frame. The motor is coupled to the drive shaft to selectively rotate the drive shaft to cause the removal device to travel along the cable to automatically remove a cable jacket from a predefined distance of the cable.

Abstract: An artificial fishing lure utilizes gyratory motion of a rotating auger of the lure to provide novel water dynamics while the lure is being pulled through the water in order to entice a fish to strike at the lure. The lure includes a shaft, a head on one end of the shaft, a tail on another end of the shaft, and the auger situated freely on the shaft between the head and the tail for rotation on and about the longitudinal axis of the shaft. The auger has one or more configured external blades along its length. The blade(s) provide a means that rotates the auger through water resistance as the lure is pulled through the water to thereby create novel and enhanced water dynamics.

Abstract: A computer readable medium for use on a computer system configured to generate a model of a component system includes computer executable instructions for receiving an input corresponding to at least one desired function of the component system. The computer readable medium may also include computer executable instructions for identifying at least one software model including software code adapted to execute a sequence of instructions corresponding to the at least one desired function. The computer readable medium may further include computer executable instructions for retrieving the at least one software model. The computer readable medium may also include computer executable instructions for arranging the at least one software model in the model of the component system.

Abstract: A method for starting a work machine includes receiving information corresponding to a current configuration of at least one component of the work machine. The method also includes comparing the received information to information corresponding to a previous configuration of the at least one component. The method further includes providing a data request signal if the received information corresponding to the current configuration of the at least one component is not substantially similar to the information corresponding to the previous configuration of the at least one component. The method also includes providing a start-up signal if the received information is substantially similar to the information corresponding to the previous configuration of the at least one component.

Abstract: A status monitoring system for a work machine includes at least a first monitoring device coupled to a first component of the work machine and at least a second monitoring device coupled to a second component of the work machine. The status monitoring system also includes at least a first data collection node communicatively coupled to the first monitoring device and at least a second data collection node communicatively coupled to the second monitoring device. A status monitoring system further includes a status collection node in communication with each of the first and second data collection nodes, the status collection node configured to receive information corresponding to an operational status of the first and second components from the first and second data collection nodes and provide information corresponding to an operational status of the first and second components to an external user interface.

Abstract: A software system development apparatus is provided. The software system development apparatus may include a processor and a computer-readable medium operatively coupled to the processor. The apparatus may also include a system design tool program stored on the computer-readable medium that, when executed by the processor, is operable to generate a real-time embedded control software system by selecting from a collection of reusable software components stored in a catalog. The system design tool may also be configured to establish compatibility information about the compatibility of the software system with other real-time embedded control system components and package the compatibility information together with the software system onto a computer-readable medium as an installation package.

Abstract: A system design environment includes a Reusable Asset Specification (“RAS”) based database including information related to hardware components. The design environment may also include a controller. The controller may be configured to accept a user input including at least one desired system parameter. The controller may also be configured to identify from the RAS based database at least one hardware component that contributes to satisfaction of the desired system parameter. The controller may be further configured to output a specification for a system including the at least one hardware component.

Abstract: A software system development apparatus is provided. The software system development apparatus may include a processor and a computer-readable medium operatively coupled to the processor. The apparatus may also include a system design tool program stored on the computer-readable medium that, when executed by the processor, is operable to regulate user access to at least one aspect of the system design tool according to one or more authorization categories of users of the system design tool. The system design tool may also be operable to generate a real-time embedded control software system by selecting from a collection of reusable software components stored and described in a catalog in accordance with the Reusable Asset Specification (RAS).

Abstract: A vibration management system for a work machine may include at least one machine component configured to respond to input commands from an operator of the machine. One or more vibration sensors may be configured to output a signal indicative of a vibration level experienced by the operator. A controller may be configured to monitor the output signal from the one or more vibration sensors and determine an average vibration level experienced by the operator. The controller may also be configured to monitor the input commands from the operator and calculate a predicted response of the at least one machine component to at least one of the input commands. The controller may also be configured to determine a predicted vibration effect on the operator based on the predicted response and adjust an actual response of the at least one machine component to the at least one operator input command based on the predicted vibration effect and the average vibration level.

Abstract: The present disclosure is associated with a user requesting access to the software option associated with a machine, a remote facility receiving the request, authorizing access to the software option, and sending an enabling signal to enable the software. The enabling signal (e.g., a software key) may then be used to access and use the software option. An intermediary may be used to authenticate the enabling signal.

Abstract: A laminate comprising an insulation layer sandwiched between a pair of electrically conductive layers is prepared for electrical insulation testing by using a laser to remove a strip from at least one of the conductive layers proximate the edge of the laminate to electrically isolate a central, bulk portion of the conductive layer from the edges of the laminate. Conductive material that may be smeared across an edge of the laminate will not therefore provide an electrical short between the portion of the conductive layer surrounded by the slot and the second conductive layer on the opposite side of the insulation layer.

Abstract: A laminate comprising an insulation layer sandwiched between a pair of electrically conductive layers is prepared for electrical insulation testing by using a laser to remove a strip from at least one of the conductive layers proximate the edge of the laminate to electrically isolate a central, bulk portion of the conductive layer from the edges of the laminate. Conductive material that may be smeared across an edge of the laminate will not therefore provide an electrical short between the portion of the conductive layer surrounded by the slot and the second conductive layer on the opposite side of the insulation layer.

Abstract: A novel process for fabricating metal clad laminates used in the manufacture of printed wiring boards. The process which eliminates multiple use separator plates within laminate books during buildup and pressing, utilizes a sacrificial separator sheet between copper sheets and wherein the separator sheet remains intact throughout the pressing and cutting steps and is finally removed after the laminates have been sized to the desired dimensions. This process provides time and cost savings, as well as a significant increase in quality and quantity of the laminates produced.