The present invention provides an optoelectronic switch for transferring an optical signal from an input device to an output device, the optoelectronic switch including an array of interconnected switch modules, which are interconnected by an interconnecting fabric. The switch modules are arranged in an N-dimensional array, the ith dimension having a size Ri (i=1, 2, . . . , N), each switch module having an associated set of coordinates giving its location with respect to each of the N dimensions. Each switch module is a member of N such sub-arrays Si, each sub-array Si comprising Ri switch modules whose coordinates differ only in respect of their location in the ith dimension, and each of the N sub-arrays being associated with a different dimension.

A Fiber Channel (FC) switch system includes a server IHS and a storage IHS that each communicate using an FC protocol. A switch IHS couples the server IHS to the storage IHS. A first converter in the switch IHS receives first FC data traffic from the server IHS and converts it to first FC over Ethernet (FCoE) data traffic. A protocol processing engine in the switch IHS is coupled to the first converter and receives the first FCoE data traffic from the first converter and processes it to provide second FCoE data traffic for delivery to the storage IHS. A second converter in the switch IHS is coupled to the protocol processing engine and the storage IHS and receives the second FCoE data traffic from the protocol processing engine, converts it to second FC data traffic, and sends the second FC data traffic to the storage IHS.

A method includes receiving a FLOGI message sent by a device seeking to log on to a network, wherein the device is in a same zone as reachable devices already logged into the network; in response to the FLOGI message, sending to the device a FC_ID, receiving from the device a query, including the FC_ID, for a list of devices with which the device can communicate, in response to the query, sending to the device an empty list of reachable devices with which the device can communicate within the same zone; after sending the empty list, programming, at least, an access control list (ACL) including information about the device; and after the ACL is programmed, triggering a RSCN message to be sent to the device to cause the device to, for the first time, obtain information about the reachable devices.

Disclosed are a RSCN method and system, a related device and a computer storage medium. The RSCN method applied to an Ethernet Node (ENode) device includes that: an RSCN message is received; and when it is determined that destination Media Access Control (MAC) contained in the RSCN message is ENode MAC, the RSCN message is distributed to a corresponding Virtual Node Port (VN_Port). The RSCN method applied to a Fibre Channel Over Ethernet (FCoE) Forwarder (FCF) includes that: network detection is performed; and when it is detected that a state to which attention is paid in a network changes, a first RSCN message is sent to an ENode device which pays attention to such a state change and succeeds in centralized notification capability negotiation with the FCF, destination MAC contained in the first RSCN message being ENode MAC. Disclosed are an ENode device, an FCF and an RSCN system.

A method, apparatus, and system for implementing node port virtualization on a fiber channel in the field of communication technologies are provided. Multiple different virtual Node Port (N_port) identifications (IDs) are allocated to each of multiple N_ports, of an N_port virtualization (NPV) switch, corresponding to an N_port ID of a remote node. Because a virtual N_port ID is allocated, to each remote node, for more than one N_port of the NPV switch, regardless of which N_port of these N_ports a node connected to the NPV switch is registered for, the node can obtain the virtual N_port ID that is of each remote node and that is corresponding to the N_port. Therefore, any node connected to the NPV switch can communicate with any remote node, thereby improving communication efficiency.

Provided are a computer program product, system, and method for processing requests for multiple services in a service request. A receiving controller, comprising one of a controlling forwarder or a data forwarder, receives a service request for a service from an originating device node. The receiving controller forwards an internal service request to a processing controller providing response information for the service request. The processing controller comprises a data forwarder when the receiving controller comprises the controlling forwarder or comprises the controlling forwarder when the receiving controller comprises one of the at least one data forwarder. The processing controller processes the internal service request to generate response information requested by the service request and forwards a reply including the response information to the receiving controller, which forwards the response information in a reply to the service request to the originating device node.

A method is provided in one example embodiment and includes connecting one or more storage arrays to a switch; connecting one or more servers to the switch; creating a virtual storage area network between the one or more storage arrays and the switch; creating a service profile for a zoning configuration; and associating at least one of the one or more servers to a storage policy, wherein storage target ports can be added and removed from the storage policy, wherein a change of one of the storage target ports in the storage policy causes a change of the zoning configuration, wherein the storage policy includes an identifier of a fiber channel adaptor. In more specific examples, the method can include configuring virtual host bus adapters for the service profile; configuring parameters for each of the virtual host bus adapters; and associating a target port on one of the one or more storage arrays with a specific one of the virtual host bus adapters.

Methods and systems for network communication are provided. A method includes maintaining a first segment of a routing data structure at a first switching module of a network adapter for routing a frame between virtual machines executed by a computing device operationally coupled to the network adapter; maintaining a second segment of the routing data structure at a second switching module for routing a frame received at a port of the network adapter to an external destination; receiving a frame from the computing device and using the first segment by the first switching module to route the frame to a destination virtual machine; and receiving a frame at a port of the network adapter and using the second segment of the routing structure by the second switching module to the route the frame to its destination without providing the frame to the computing device.

Provided are methods and devices for acquiring a Media Access Control (MAC) address. According to a method for acquiring an MAC address, an MAC address request message is received, wherein the MAC address request message carries a Fibre Channel Identifier (FCID); whether the FCID is matched with an FCID of a receiver receiving the MAC address request message or not is judged; and when it is judged that the FCID is matched with the FCID of the receiver receiving the MAC address request message, the receiver sends a response message, wherein the response message carries an MAC address of the receiver. The technical solution solves the problem in a related technology that communication cannot be directly performed through the link layer, and has the effect of directly acquiring an MAC address corresponding to an FCID of an opposite end so as to perform communication by fast switching at the link layer.

A methodology is provided. The methodology includes: creating a virtual storage area network between one or more storage arrays and a switch; creating a service profile for a zoning configuration, wherein the service profile is associated with at least one or more servers to create the zoning configuration; updating the zoning configuration with a worldwide port name identity for each of the one or more servers; configuring virtual host bus adapters for the service profile; associating a storage target port on one of the one or more storage arrays with a specific one of the virtual host bus adapters; and associating at least one of the one or more servers to a storage policy, wherein storage target ports can be added and removed from the storage policy, wherein a change of one of the storage target ports in the storage policy causes a change of the zoning configuration.