Abstract: Disclosed are a method and apparatus for assisting in the physical wiring or debugging of connections between devices, which may include one or more network visibility appliances. In at least one embodiment, the computer system receives first user input that specifies a first port of a plurality of selectable physical ports or a connection between the first port and a second port of the plurality of selectable physical ports. At least one of the first port or the second port is on a device that is external to the computer system. In response to the first user input, the computer system sends a first signal to the device to trigger the device to output a first visual indication in proximity to the first port, the first visual indication identifying the first port and a status of at least one of the first port or the connection.

Abstract: Disclosed are a method and apparatus for assisting in the physical wiring or debugging of connections between devices, which may include one or more network visibility appliances. In at least one embodiment, the computer system receives first user input that specifies a first port of a plurality of selectable physical ports or a connection between the first port and a second port of the plurality of selectable physical ports. At least one of the first port or the second port is on a device that is external to the computer system. In response to the first user input, the computer system sends a first signal to the device to trigger the device to output a first visual indication in proximity to the first port, the first visual indication identifying the first port and a status of at least one of the first port or the connection.

Abstract: A system for atomic file transfer operations over connectionless network protocols includes a processor and a memory coupled to the processor. The memory contains program instructions executable by the processor to implement an operating system including a system call interface for sending one or more data files to another system over a network via a connectionless network protocol. In response to an invocation of the system call by an application, the operating system is configured to send the one or more data files to the other system over the network without the application copying contents of the data files into application address space.

Abstract: A system for atomic file transfer operations over connectionless network protocols includes a processor and a memory coupled to the processor. The memory contains program instructions executable by the processor to implement an operating system including a system call interface for sending one or more data files to another system over a network via a connectionless network protocol. In response to an invocation of the system call by an application, the operating system is configured to send the one or more data files to the other system over the network without the application copying contents of the data files into application address space.

Abstract: A system for atomic file transfer operations over connectionless network protocols includes a processor and a memory coupled to the processor. The memory contains program instructions executable by the processor to implement an operating system including a system call interface for sending one or more data files to another system over a network via a connectionless network protocol. In response to an invocation of the system call by an application, the operating system is configured to send the one or more data files to the other system over the network without the application copying contents of the data files into application address space.

Abstract: A method for sending packets. The method includes determining with which of a plurality of virtual serialization queues (VSQs) a first packet is associated, wherein a first application is attempting to issue the first packet, if a first VSQ of the plurality of VSQs has not exceeded a first bandwidth allocation, wherein the first VSQ is associated with the first packet and is associated with the first bandwidth allocation, then sending the first packet to the first VSQ, processing the first packet by a first virtual network stack (VNS) to obtain a first processed packet, wherein the first VSQ is associated with the first VNS, and sending the first processed packet to a physical network interface card (NIC) operatively connected to the first VNS. Alternatively, if the first VSQ has exceeded the first bandwidth allocation, then blocking the first application from issuing the first packet.

Abstract: A method for processing packets. The method includes receiving a first packet, wherein the first packet is associated with a first protocol, classifying the first packet using a protocol associated with the first packet, sending the first packet to a first receive ring based on the classification, sending the first packet from the first receive ring to a first virtual network interface card (VNIC) based on an operating mode, sending the first packet from the first VNIC to a first protocol specific virtual network stack (VNS), wherein the first protocol specific VNS is configured to only process packets associated with the first protocol, and processing the first packet by the first protocol specific VNS to obtain a first processed packet.

Abstract: A method for data transfer using a TCP loopback connection, involving establishing a TCP connection between a first endpoint and a second endpoint, determining whether fusing of the first endpoint with the second endpoint is permitted, if fusing of the first endpoint with the second endpoint is permitted assigning the first endpoint to a serialization queue, allocating the serialization queue for the second endpoint, fusing the first endpoint with the second endpoint, and transferring data from the first endpoint to the second endpoint.

Abstract: A system for socket-level packet scheduling over connectionless network protocols includes a processor and a memory coupled to the processor. The memory contains program instructions executable by the processor to implement an operating system including a packet scheduler for scheduling data transmissions via a connectionless network protocol. In response to a request from an application specifying one or more desired performance metrics for a data transfer via the connectionless network protocol, the packet scheduler is configured to schedule the data transfer in accordance with the one or more desired performance metrics.

Abstract: Virtual network interfaces receive data from distinct subsets of receive rings of a network interface card. In other words, each virtual network interface “owns” its own subset of receive rings of the network interface card. The assignment of virtual network interfaces to particular receive rings of the network interface cards may be determined, for example, dynamically, based on priorities associated with particular virtual network interfaces, based on function type, and/or based on service need.

Abstract: A method for offloading a secure protocol connection, involving establishing the secure protocol connection between a host system and a remote peer, offloading the secure protocol connection to a network interface card (NIC) to obtain an offloaded secure protocol connection, determining whether a packet is associated with the offloaded secure protocol connection, and if the packet is associated with the offloaded secure protocol connection, identifying the offloaded secure protocol connection, performing cryptographic operations on the packet using at least one secret key to obtain a processed packet, and returning a status of the processed packet to the host system.

Abstract: A method for processing packets. The method includes receiving a first packet, wherein the first packet is associated with a first protocol, classifying the first packet using a protocol associated with the first packet, sending the first packet to a first receive ring based on the classification, sending the first packet from the first receive ring to a first virtual network interface card (VNIC) based on an operating mode, sending the first packet from the first VNIC to a first protocol specific virtual network stack (VNS), wherein the first protocol specific VNS is configured to only process packets associated with the first protocol, and processing the first packet by the first protocol specific VNS to obtain a first processed packet.

Abstract: A method for processing packets. The method includes receiving a first packet, wherein the first packet is associated with a first protocol, classifying the first packet using a protocol associated with the first packet, sending the first packet to a first receive ring based on the classification, sending the first packet from the first receive ring to a first virtual network interface card (VNIC) based on an operating mode, sending the first packet from the first VNIC to a first protocol specific virtual network stack (VNS), wherein the first protocol specific VNS is configured to only process packets associated with the first protocol, and processing the first packet by the first protocol specific VNS to obtain a first processed packet.

Abstract: The invention relates to a method for controlling bandwidth. The method includes receiving a plurality of packets from a network, analyzing each of the plurality of packets by a classifier to determine to which of a plurality of temporary data structures each of the plurality of packet is forwarded, forwarding each of the plurality of packets to one of the plurality of temporary data structures as determined by the classifier, if a virtual serialization queue is operating in polling mode: requesting a number of packets from the one of the plurality of temporary data structures by the virtual serialization queue, wherein the virtual serialization queue is associated with one of the plurality of temporary data structures, and forwarding the number of packets to the virtual serialization queue.

Abstract: This invention provides the capability to plan, monitor and control post-failure switching of user mail access hosted on Microsoft Exchange servers at the granularity of individual user mailboxes. It offers a convenient point-and-click mechanism for achieving a very complex task, and allows replication of e-mail data from a Primary Exchange Server to a Standby Exchange Server at a level of data granularity and flexibility not previously available. No limitations are placed on which Exchange servers belonging to the user of this solution are to be in a primary or standby role, and it is possible to have two Exchange servers, each acting as an active primary for mailboxes which it is hosting AND acting as a standby for mailboxes hosted on the other server. In addition, it also provides a uniquely powerful capability for migration of mailboxes between Exchange servers.

Abstract: A method for sending packets. The method includes determining with which of a plurality of virtual serialization queues (VSQs) a first packet is associated, wherein a first application is attempting to issue the first packet, if a first VSQ of the plurality of VSQs has not exceeded a first bandwidth allocation, wherein the first VSQ is associated with the first packet and is associated with the first bandwidth allocation, then sending the first packet to the first VSQ, processing the first packet by a first virtual network stack (VNS) to obtain a first processed packet, wherein the first VSQ is associated with the first VNS, and sending the first processed packet to a physical network interface card (NIC) operatively connected to the first VNS. Alternatively, if the first VSQ has exceeded the first bandwidth allocation, then blocking the first application from issuing the first packet.

Abstract: A method for processing packets. The method includes receiving a first packet, wherein the first packet is associated with a first protocol, classifying the first packet using a protocol associated with the first packet, sending the first packet to a first receive ring based on the classification, sending the first packet from the first receive ring to a first virtual network interface card (VNIC) based on an operating mode, sending the first packet from the first VNIC to a first protocol specific virtual network stack (VNS), wherein the first protocol specific VNS is configured to only process packets associated with the first protocol, and processing the first packet by the first protocol specific VNS to obtain a first processed packet.

Abstract: This invention provides the capability to plan, monitor and control post-failure switching of user mail access hosted on Microsoft Exchange servers at the granularity of individual user mailboxes. It offers a convenient point-and-click mechanism for achieving a very complex task, and allows replication of e-mail data from a Primary Exchange Server to a Standby Exchange Server at a level of data granularity and flexibility not previously available. No limitations are placed on which Exchange servers belonging to the user of this solution are to be in a primary or standby role, and it is possible to have two Exchange servers, each acting as an active primary for mailboxes which it is hosting AND acting as a standby for mailboxes hosted on the other server. In addition, it also provides a uniquely powerful capability for migration of mailboxes between Exchange servers.