Abstract: A fiber channel verification system provides a fiber optic network design platform that allows a user to create a graphical mock-up of a fiber optic network design, and performs fault analytics on the proposed design to identify potential faults or problems with the design. The verification system can guide the user through the process of specifying network components such as trunk cables, patch cables, fiber optic cassettes, connectors, or other such components suitable for a given networking application. The verification also allows the user to define connections between the selected components. During development or after the design is complete, the verification system can analyze each channel of network design and identify improper fiber connections, network component incompatibilities, incorrect polarities, excessive insertion or return losses, or other such problems. The verification system can also provide recommendations for eliminating discovered problems where appropriate.

Abstract: A device topology definition system works in conjunction with a location indicia detector, such as a topology key or detector, to simplify entry of device location information in a device monitoring system. To mitigate the tedium of entering location information for each device being monitored, the topology key or detector can be inserted into a data port or aperture of a device, or otherwise detect location indicia located on or proximate to a device, and a topology definition system of the device monitoring application will read topology information from the key or detector and logically associate the topology information with the device's identifier. This association is recorded as part of a global topology data set for the monitored devices maintained by the device monitoring application.

Abstract: A fiber channel verification system provides a fiber optic network design platform that allows a user to create a graphical mock-up of a fiber optic network design, and performs fault analytics on the proposed design to identify potential faults or problems with the design. The verification system can guide the user through the process of specifying network components such as trunk cables, patch cables, fiber optic cassettes, connectors, or other such components suitable for a given networking application. The verification also allows the user to define connections between the selected components. During development or after the design is complete, the verification system can analyze each channel of network design and identify improper fiber connections, network component incompatibilities, incorrect polarities, excessive insertion or return losses, or other such problems. The verification system can also provide recommendations for eliminating discovered problems where appropriate.

Abstract: A device topology definition system works in conjunction with a location indicia detector, such as a topology key or detector, to simplify entry of device location information in a device monitoring system. To mitigate the tedium of entering location information for each device being monitored, the topology key or detector can be inserted into a data port or aperture of a device, or otherwise detect location indicia located on or proximate to a device, and a topology definition system of the device monitoring application will read topology information from the key or detector and logically associate the topology information with the device's identifier. This association is recorded as part of a global topology data set for the monitored devices maintained by the device monitoring application.

Abstract: A universal serial bus (USB) sensor bar and a device manager are configured to intelligently monitor one or more patch panels. The USB sensor bar comprises an array of sensors configured to read identification data from memory devices affixed to respective cables plugged into ports of a patch panel. The USB sensor bar converts the identification data to a USB protocol and sends the data to a device manager over a USB bus. The device manager uses the received information to document a network architecture, generate web-based interfaces that render configuration and status information for the network, and generate alarms or notifications in response to detection of defined network conditions.

Abstract: A universal serial bus (USB) sensor bar and a device manager are configured to intelligently monitor one or more patch panels. The USB sensor bar comprises an array of sensors configured to read identification data from memory devices affixed to respective cables plugged into ports of a patch panel. The USB sensor bar converts the identification data to a USB protocol and sends the data to a device manager over a USB bus. The device manager uses the received information to document a network architecture, generate web-based interfaces that render configuration and status information for the network, and generate alarms or notifications in response to detection of defined network conditions.

Abstract: A system and method for managing output such as printing, faxing, and e-mail over various types of computer networks. In one aspect, the method provides for printing via a wireless device. The system provides renderable data to the wireless device by which a user-interface (UI) may be rendered. The UI enables users to select source data and an output device on which the source data are to be printed. The source data are then retrieved from a local or remote store and forwarded to a print service, which renders output image data corresponding to the source data and the output device that was selected. The output image data are then submitted to the output device to be physically rendered. The user-interfaces enable wired and wireless devices to access the system. The system enables documents to be printed by reference, and enables access to resources behind firewalls.

Abstract: A system and method for managing output such as printing, faxing, and e-mail over various types of computer networks. In one aspect, the method provides for printing via a wireless device. The system provides renderable data to the wireless device by which a user-interface (UI) may be rendered. The UI enables users to select source data and an output device on which the source data are to be printed. The source data are then retrieved from a local or remote store and forwarded to a print service, which renders output image data corresponding to the source data and the output device that was selected. The output image data are then submitted to the output device to be physically rendered. The user-interfaces enable wired and wireless devices to access the system. The system enables documents to be printed by reference, and enables access to resources behind firewalls.

Abstract: A system and method for managing output such as printing, faxing, and e-mail over various types of computer networks. In one aspect, the system and method provides for accessing print and/or document resources located on private networks behind firewalls. A pass-through communication link is established between system components located on opposing sides of a firewall. A system-served user-interface enables users to select source data and an output device on which the source data are to be printed, either or both of which may reside behind the firewall. The source data are then retrieved and forwarded to a print service, which renders output image data corresponding to the source data and the selected output device. The output image data are then submitted to the output device to be physically rendered. Access to private resources is provided by the pass-through communication link. The system also enables documents to be printed by reference.