Abstract: Techniques are disclosed for providing a native general-purpose controller for reconciling desired states for resources across a plurality of Kubemetes clusters in a cloud computing environment. An indication is received of one or more custom resources of the cloud computing environment. An API is instantiated at each of the Kubemetes clusters that are to be accessed. In response to receiving an indication that a desired state of one of the objects does not match a current state of the one object, a message is sent that indicates an action to reconcile the desired state with the current state. A message is received that indicates that the action to reconcile the desired state with the current state has been completed.

Abstract: Systems and methods for sinking port mirrored data to any node in a network are provided. Moreover, the network is configured to convey the mirrored data to the sink, without the need for any facilities expressly dedicated for this purpose. The present invention removes the requirement to collocate the sink port within the same logical node. The present invention uses a mirrored flow configured as a provisioned layer two point-to-point connection, such as a Switched Permanent Virtual Circuit (SPVC), Pseudo-Wire (PWE3), a Virtual Local Area Network (VLAN) cross-connect, Provider Backbone Bridging-Traffic Engineering (PBB-TE), or the like. The provisioned point-to-point connection is configured between the mirrored port to a sink port. The node with the mirrored port is configured to create copies of the appropriate set of packets (i.e. ingress or egress packets or both based on provisioning), and to forward the packets to the sink port.

Abstract: Systems and methods for sinking port mirrored from one or more identified flows of data to any node in a network are provided. Moreover, the network is configured to convey the mirrored data to the sink, without the need for any facilities expressly dedicated for this purpose. The present invention removes the requirement to co-locate the sink port within the same logical node. The present invention uses a mirrored flow configured as a provisioned layer two point-to-point connection, such as a Switched Permanent Virtual Circuit (SPVC), Pseudo-Wire (PWE3), a Virtual Local Area Network (VLAN) cross-connect, Provider Backbone Bridging-Traffic Engineering (PBB-TE), and the like. The node with the mirrored port is configured to create copies of the appropriate set of packets (i.e., ingress, egress packets, or both based on provisioning and based on the identified flow), and to forward the packets to the sink port through the provisioned point-to-point connection.

Abstract: The present invention provides methods and systems for the management of sequence-sensitive, connection-oriented traffic on a multi-link aggregated port. The methods include: at a first end of a multi-link aggregated port, selectively enabling a first constituent link of a plurality of constituent links to transmit data traffic in a first direction via a transmit state block associated with the first constituent link; and, at the first end of the multi-link aggregated port, selectively enabling the plurality of constituent links to receive data traffic from a second direction via a plurality of receive state blocks associated with the plurality of constituent links.

Abstract: Systems and methods for sinking port mirrored data to any node in a network are provided. Moreover, the network is configured to convey the mirrored data to the sink, without the need for any facilities expressly dedicated for this purpose. The present invention removes the requirement to collocate the sink port within the same logical node. The present invention uses a mirrored flow configured as a provisioned layer two point-to-point connection, such as a Switched Permanent Virtual Circuit (SPVC), Pseudo-Wire (PWE3), a Virtual Local Area Network (VLAN) cross-connect, Provider Backbone Bridging-Traffic Engineering (PBB-TE), or the like. The provisioned point-to-point connection is configured between the mirrored port to a sink port. The node with the mirrored port is configured to create copies of the appropriate set of packets (i.e. ingress or egress packets or both based on provisioning), and to forward the packets to the sink port.

Abstract: Systems and methods for sinking port mirrored from one or more identified flows of data to any node in a network are provided. Moreover, the network is configured to convey the mirrored data to the sink, without the need for any facilities expressly dedicated for this purpose. The present invention removes the requirement to co-locate the sink port within the same logical node. The present invention uses a mirrored flow configured as a provisioned layer two point-to-point connection, such as a Switched Permanent Virtual Circuit (SPVC), Pseudo-Wire (PWE3), a Virtual Local Area Network (VLAN) cross-connect, Provider Backbone Bridging—Traffic Engineering (PBB-TE), and the like. The node with the mirrored port is configured to create copies of the appropriate set of packets (i.e., ingress, egress packets, or both based on provisioning and based on the identified flow), and to forward the packets to the sink port through the provisioned point-to-point connection.

Abstract: Multi-service telecommunication switches which include enhanced component redundancy and which also allow multiple chassis connections to a switching fabric enhance the likelihood that packets transmitted to and from the switch will not be lost due do a particular component failure and also enable chassis stacking in a rack system. Such a multi-service telecommunication switch includes redundant physical layer adapter cards, redundant service cards, redundant timing modules, and redundant switching fabrics. Further, the multi-service telecommunication switch, includes an enhanced data flow distribution (load-balancing) architecture which enables multiple chassis connections to the switching fabrics.

Abstract: Multi-service telecommunication switches which include enhanced component redundancy and which also allow multiple chassis connections to a switching fabric enhance the likelihood that packets transmitted to and from the switch will not be lost due do a particular component failure and also enable chassis stacking in a rack system. Such a multi-service telecommunication switch includes redundant physical layer adapter cards, redundant service cards, redundant timing modules, and redundant switching fabrics. Further, the multi-service telecommunication switch, includes an enhanced data flow distribution (load-balancing) architecture which enables multiple chassis connections to the switching fabrics.