Abstract: A method of performing automated discovery and mapping of the topology of a network is provided, wherein the networked modules include discovery and mapping-enabled modules and standard modules that are not discovery and mapping-enabled and wherein the network connections include both data connections and power connections. The method comprises the following steps: a) powering up all discovery and mapping-enabled modules on the network with current trips set to maximum level; b) powering up all standard modules; c) determining what modules are on the network; d) determine the topology of the network, including where the modules are connected within the network; e) using the determined topology to determine power requirements for the modules on the network; and f) adjusting the power distribution on the network to accommodate the identified power needs of the network.

Abstract: A Virtual Electrical and Electronic Device Interface and Management System (VEEDIMS) support architecture is provided. In one example, the VEEDIMS support architecture includes a vehicle layer and a shop layer. The vehicle layer has a module and a controller positioned in a vehicle. The module is configured to couple to a device via an input/output (I/O) interface compatible with the device and configured to couple to the controller via a cable adapted to simultaneously carry bi-directional data and uni-directional power to the module. The shop layer is separate from the vehicle layer and has a browser configured to communicate with an HTTP server in the module and an analysis tool configured to receive and analyze event driven and time series data from the controller.

Abstract: A method for remote control and monitoring of a valve from a remote control/monitoring station comprises the following steps: providing a valve assembly including a valve body and a movable valve member, a mechanical position sensor, a drive motor, and an analog control module controlling the drive motor in response to incoming analog control signals and producing analog output control signals corresponding to the position of the valve member; removing the mechanical position sensor; removing the analog control module; operatively connecting an optical position sensor to the valve member; operatively connecting a digital control module to the drive motor and the optical position sensor controlling the drive motor in response to incoming digital control signals and producing digital output control signals corresponding to the valve member position; and communicating the digital input and output signals between the valve controller and a remote control/monitoring station over an electronic network.

Abstract: A Virtual Electrical and Electronic Device Interface and Management System (VEEDIMS) support architecture is provided. In one example, the VEEDIMS support architecture includes a vehicle layer and a shop layer. The vehicle layer has a module and a controller positioned in a vehicle. The module is configured to couple to a device via an input/output (I/O) interface compatible with the device and configured to couple to the controller via a cable adapted to simultaneously carry bi-directional data and uni-directional power to the module. The shop layer is separate from the vehicle layer and has a browser configured to communicate with an HTTP server in the module and an analysis tool configured to receive and analyze event driven and time series data from the controller.

Abstract: Hybrid cables for conveying data and conducting operating power to electrically powered devices and a vehicle utilizing such cables are disclosed.

Abstract: A Virtual Electrical and Electronic Device Interface and Management System (VEEDIMS) support architecture is provided. In one example, the VEEDIMS support architecture includes a vehicle layer and a shop layer. The vehicle layer has a module and a controller positioned in a vehicle. The module is configured to couple to a device via an input/output (I/O) interface compatible with the device and configured to couple to the controller via a cable adapted to simultaneously carry bi-directional data and uni-directional power to the module. The shop layer is separate from the vehicle layer and has a browser configured to communicate with an HTTP server in the module and an analysis tool configured to receive and analyze event driven and time series data from the controller.

Abstract: A Virtual Electrical and Electronic Device Interface and Management System (VEEDIMS) is provided. In one example, the VEEDIMS includes a backbone network formed by cables that are configured to simultaneously carry digital data and power. A controller is coupled to the backbone network and configured to execute control instructions. A plurality of modules are coupled to the controller via the backbone network and receive data and power via the backbone network. The modules receive control signals from the controller based on the control instructions. At least one device is coupled to one of the modules via a direct input/output (I/O) interface positioned in the module. A device specific driver contained in the module provides a communications interface between the device and a generic VEEDIMS controller driver in the controller.

Abstract: Hybrid cables for conveying data and conducting operating power to electrically powered devices and a vehicle utilizing such cables are disclosed.

Abstract: Hybrid cables for conveying data and conducting operating power to electrically powered devices and a vehicle utilizing such cables are disclosed.

Abstract: An LED socket string with multiple LED sockets and corresponding LED lamps that are spaced on the string unevenly or according to a user specification. Each of the LED sockets includes a socket base with grooves for coupling wires, and a socket cover for mating with the socket base. A lamp holder is integrally mounted onto the socket base for detachably retaining the LED lamp. A lamp spacer can be added to the lamp holder to accommodate the LED lamp.

Abstract: An LED socket string with multiple LED sockets and corresponding LED lamps that are spaced on the string unevenly or according to a user specification. Each of the LED sockets includes a socket base with grooves for coupling wires, and a socket cover for mating with the socket base. A lamp holder is integrally mounted onto the socket base for detachably retaining the LED lamp. A lamp spacer can be added to the lamp holder to accommodate the LED lamp.

Abstract: A Virtual Electrical and Electronic Device Interface and Management System (VEEDIMS) is provided. In one example, the VEEDIMS includes a backbone network formed by cables that are configured to simultaneously carry digital data and power. A controller is coupled to the backbone network and configured to execute control instructions. A plurality of modules are coupled to the controller via the backbone network and receive data and power via the backbone network. The modules receive control signals from the controller based on the control instructions. At least one device is coupled to one of the modules via a direct input/output (I/O) interface positioned in the module. A device specific driver contained in the module provides a communications interface between the device and a generic VEEDIMS controller driver in the controller.

Abstract: Hybrid cables for conveying data and conducting operating power to electrically powered devices and a vehicle utilizing such cables are disclosed.

Abstract: The present invention is a thin film deposition tool with arc detection capabilities. An arc detector is provided in the power supply line between the power supply and the sputter deposition tool. Arcs are detected by the arc detector and counted using a logic circuit. Arc data is collected and analyzed and real-time data is provided which can be used to stop further processing until a repair is made.