A system and method for discovering interfaces in a network is provided wherein a remote system is configured to discover by connecting to plurality of servers, and intelligently stitching together interfaces that exist between different applications. The remote system is configured to identify these interfaces through message queue servers in the network and their queue managers. Further, stitching together the interfaces is done based upon the hops that a message performs from one system to its target application using message queues. Interface name is created by reading message header, applications involved and queue properties. The system capabilities also include tracking the usage of interfaces based on the traffic that is flowing through them. The system provides a repeatable process to obtain accurate repository of interfaces.

A system and method for discovering interfaces in a network is provided wherein a remote system is configured to discover by connecting to plurality of servers, and intelligently stitching together interfaces that exist between different applications. The remote system is configured to identify these interfaces through message queue servers in the network and their queue managers. Further, stitching together the interfaces is done based upon the hops that a message performs from one system to its target application using message queues. Interface name is created by reading message header, applications involved and queue properties. The system capabilities also include tracking the usage of interfaces based on the traffic that is flowing through them. The system provides a repeatable process to obtain accurate repository of interfaces.

In general, embodiments of the invention relate to routing packets between hosts or virtual machines in different layer 2 domains. More specifically, embodiments of the invention relate to using overlay routing mechanisms in an Internet Protocol (IP) fabric to enable communication between hosts or virtual machines in different layer 2 domains to communication. The overlay routing mechanisms may include direct routing, indirect routing, naked routing, or a combination thereof (e.g., hybrid routing).

In general, embodiments of the invention relate to routing packets between hosts or virtual machines in different layer 2 domains. More specifically, embodiments of the invention relate to using overlay routing mechanisms in an Internet Protocol (IP) fabric to enable communication between hosts or virtual machines in different layer 2 domains to communication. The overlay routing mechanisms may include direct routing, indirect routing, naked routing, or a combination thereof (e.g., hybrid routing).

Various embodiments are directed to techniques for coordinating at least partially parallel performance and cancellation of data access commands between nodes of a storage cluster system. An apparatus may include a processor component of a first node coupled to a first storage device storing client device data; an access component to perform replica data access commands of replica command sets on the client device data, each replica command set assigned a set ID; a communications component to analyze a set ID included in a network packet to determine whether a portion of a replica command set in the network packet is redundant, and to reassemble the replica command set from the portion based if the portion is not redundant; and an ordering component to provide the communications component with set IDs of replica command sets of which the access component has fully performed the set of replica data access commands.

Various embodiments are directed to techniques for coordinating at least partially parallel performance and cancellation of data access commands between nodes of a storage cluster system. An apparatus may include a processor component of a first node coupled to a first storage device storing client device data; an access component to perform replica data access commands of replica command sets on the client device data, each replica command set assigned a set ID; a communications component to analyze a set ID included in a network packet to determine whether a portion of a replica command set in the network packet is redundant, and to reassemble the replica command set from the portion based if the portion is not redundant; and an ordering component to provide the communications component with set IDs of replica command sets of which the access component has fully performed the set of replica data access commands.

A method and system of daily or other periodic creation of a user-sponsored cookie-like packet of encoded and encrypted information containing personal identity details and information use rules which, when the packet is attached to a delivery mechanism such as a browser header record, it is delivered to network-based resource provider platforms. Upon receipt and recognition of the modified header record by a subscribing provider, the cookie-like information packet is decrypted and decoded by application programs revealing personal identity details as well as associated data rules. Data capture rules define how participating resource providers can utilize, share, or sell provided data including rules related to whether captured or acquired data can supplement provided data. Supplemental data may include, but is not limited to, additional personal identity details, online habits, preferences, and other personal information or behaviors which may be analyzed or utilized for commercial and/or non-commercial purposes.

A method and system of daily or other periodic creation of a user-sponsored cookie-like packet of encoded and encrypted information containing personal identity details and information use rules which, when the packet is attached to a delivery mechanism such as a browser header record, it is delivered to network-based resource provider platforms. Upon receipt and recognition of the modified header record by a subscribing provider, the cookie-like information packet is decrypted and decoded by application programs revealing personal identity details as well as associated data rules. Data capture rules define how participating resource providers can utilize, share, or sell provided data including rules related to whether captured or acquired data can supplement provided data. Supplemental data may include, but is not limited to, additional personal identity details, online habits, preferences, and other personal information or behaviors which may be analyzed or utilized for commercial and/or non-commercial purposes.

Wireless communications systems and methods related to decoupling uplink latency using common uplink (UL) burst in Time Division Duplex (TDD) sub-frame structure are disclosed. User equipment (UE) can transmit to a base station a common UL burst in each sub-frame communicated between UE and the base station, wherein the common UL burst comprises at least one of: a physical layer (PHY) acknowledgement (ACK), a scheduling request (SR), a buffer status report (BSR), or a sounding reference signal (SRS). UE can be further configured to transmit scheduled UL payload data in at least one common UL burst of at least one sub-frame communicated between the UE and the base station.

Wireless communications systems and methods related to decoupling uplink latency using common uplink (UL) burst in Time Division Duplex (TDD) sub-frame structure are disclosed. User equipment (UE) can transmit to a base station a common UL burst in each sub-frame communicated between UE and the base station, wherein the common UL burst comprises at least one of: a physical layer (PHY) acknowledgement (ACK), a scheduling request (SR), a buffer status report (BSR), or a sounding reference signal (SRS). UE can be further configured to transmit scheduled UL payload data in at least one common UL burst of at least one sub-frame communicated between the UE and the base station.