Abstract: A technique for automatically identifying and assigning devices to device proxies in a policy based network management system is described. Each device proxy registers a filter with the device discovery. The filter may identify one or more characteristics of devices and may also include a communications protocol to be used by the device discovery to communicate with devices. The device discovery, preferably using the specified protocol, obtains device specific information and then identifies devices in the network that match the filters. The device discovery notifies each device proxy of which devices match the proxy's filter. Each device proxy updates its list of devices that it can policy manage based on the notification from the device discovery. Control policies are distributed from a policy server to each of the device proxies. Each device proxy then sends a policy to one or more devices to be policy managed.

Abstract: An infill layer for use in an artificial turf system is provided. The artificial turf system may include a pile fabric having a turf backing and a plurality of turf fibers extending upwardly from the turf backing. The infill layer may include particulate material disposed upon an upper surface of the turf backing and between the turf fibers. The infill layer may advantageously comprise ceramic support material in one or more courses. The ceramic support material may also be combined with other hard particles and/or with resilient particles in the infill layer. Alternatively, recycled support material or support material having a substantially consistent size and shape may be used instead of ceramic support material.

Abstract: A technique for sending a legacy message over a channel architecture network to a remote legacy device is provided. A host node identifies address information for a legacy object that is located on or within a subnetwork that is beyond the channel architecture network. The address information may include a subnetwork ID to identify the subnetwork and a MAC address of the object within the subnetwork, for example. The host node segments a legacy message (such as management message or SNMP message) into one or more message segments. Each segment is encapsulated in a cell including the address information for the legacy object. A channel adapter in the host node transmits each cell to a channel adapter at a remote I/O node. The I/O node includes a proxy agent that reassembles the legacy message and the sends the reassembled message to the legacy object over a legacy transport (e.g., using protocols and cell formats native to or compatible with the second network).

Abstract: A distributed computer system includes a host CPU, a network/host bridge, a network/I/O bridge and one or more I/O devices. The host CPU can generate a locked host transaction, which is wrapped in a packet and transmitted over a network to the remote I/O device for replay. The remote I/O devices can generate interrupts. The interrupt is wrapped in a packet and transmitted to the host computer for replay as an interrupt. The host CPU then executes the appropriate interrupt service routine to process the interrupt routine. The remote location of the I/O device with respect to the host CPU is transparent to the CPU and I/O devices. The bridges perform wrapping and unwrapping of host and I/O transactions for transmission across a network.

Abstract: A computer system includes a host processor coupled to a host bus. A bridge controller is coupled to the host bus and to a plurality of first buses. The computer system also includes one or more bus bridges, each coupled to the bridge controller via one or more of said first buses. Each bus bridge is connected to one or more second buses. Either the first buses or the second buses are each configurable in either an independent mode in which the bus operates independently, or a combined mode in which two or more of said first buses or said second buses are combined to create a single bus.