Abstract: Systems and methods for determining and assigning identities to workloads in a cloud-based system. Various embodiments include monitoring traffic in a cloud-based system; extracting identification information from one or more payloads originating from one or more workloads operating in the cloud-based system; assigning an identity to each of the one or more workloads based on the identification information; and enforcing policies on the one or more workloads and traffic associated therewith based on the assigned identity.

Abstract: Systems and methods for generating sub-identities for workloads in a cloud-based system. Various embodiments include receiving a key from an external system; generating one or more sub-identities from the key; assigning the one or more sub-identities to one or more workloads; and enforcing policies on the one or more workloads and traffic associated therewith based on the one or more sub-identities.

Abstract: Activities within a network environment are monitored (e.g., using agents). At least a portion of the monitored activities are used to generate a logical graph model. The generated logical graph model is used to determine an anomaly. The detected anomaly is recorded and can be used to generate an alert.

Abstract: An illustrative method includes generating, based on log data associated with at least one user session in a network environment associated with a user, a logical graph, wherein the logical graph comprises: (1) a first node corresponding to the user, (2) a plurality of additional nodes, and (3) a set of edges connecting the first node to one or more of the additional nodes, wherein each edge in the set of edges represents a change in behavior of the user; using the logical graph to detect an anomaly, wherein detecting the anomaly includes determining that a change has been made to at least one edge included in the set of edges; and generating, in response to detecting the anomaly, an alert.

Abstract: An illustrative method includes determining that a first user login session and a second user login session have a parent-child relationship that indicates that a particular user is associated with both the first and second user login sessions and linking first user login activity performed during the first user login session and second user login activity performed during the second user login session to the user.

Abstract: An illustrative method includes generating a logical graph by performing a clustering operation with respect to log data associated with one or more machines, the clustering operation performed using a first clustering criteria and causing the logical graph to initially include a first set of nodes generated in accordance with relationship requirements of an underlying model and a first set of edges representing communication between nodes included in the first set of nodes; and reclustering, using a second clustering criteria, the logical graph to include, in place of the first set of nodes, a second set of nodes generated while maintaining the relationship requirements of the underlying model and a second set of edges representing communication between nodes included in the second set of nodes.

Abstract: A logical graph is generated using at least a portion of log data received from a set of agents executing on one or more nodes in one or more data centers. The logical graph is augmented using data obtained from one or more agents executing in containerized environments, including by representing communications between pods within the logical graph. The augmented logical graph is used to detect an anomaly.

Abstract: An illustrative method includes generating, based on log data associated with at least one user session in a network environment associated with a user, a logical graph, wherein the logical graph comprises: (1) a first node corresponding to the user, (2) a plurality of additional nodes, and (3) a set of edges connecting the first node to one or more of the additional nodes, wherein each edge in the set of edges represents a change in behavior of the user; using the logical graph to detect an anomaly, wherein detecting the anomaly includes determining that a change has been made to at least one edge included in the set of edges; and generating, in response to detecting the anomaly, an alert.

Abstract: Log data associated with at least one user session in a network environment associated with an original user is received. A logical graph is generated using at least a portion of the received log data. One example of such a logical graph is a privilege change graph that models privilege changes between processes. Another example of such a logical graph is a user login graph that models machines with which the original user interacts. Another example of such a logical graph is a machine-server graph that clusters machines into nodes based on resources executing on the machine. The generated logical graph is used to detect an anomaly.

Abstract: Activities within a network environment are monitored (e.g., using agents). At least a portion of the monitored activities are used to generate a logical graph model. The generated logical graph model is used to determine an anomaly. The detected anomaly is recorded and can be used to generate an alert.

Abstract: A logical graph is generated using at least a portion of log data received from a set of agents executing on one or more nodes in one or more data centers. The logical graph is generated at least in part by clustering a first set of nodes using a first clustering criteria. The logical graph is augmented at least in part by performing a reclustering operation using a second clustering criteria.

Abstract: A logical graph is generated using at least a portion of log data received from a set of agents executing on one or more nodes in one or more data centers. The logical graph is augmented using data obtained from one or more agents executing in containerized environments, including by representing communications between pods within the logical graph. The augmented logical graph is used to detect an anomaly.

Abstract: Activities within a network environment are monitored (e.g., using agents). At least a portion of the monitored activities are used to generate a logical graph model. The generated logical graph model is used to determine an anomaly. The detected anomaly is recorded and can be used to generate an alert.

Abstract: First information associated with a first user login activity is received, as is second information associated with a second user login activity. A determination is made, using the received first and second information, that the first user login activity and second user login activity have a parent-child relationship. The first user login activity and the second user login activity are linked to at least one user and a process.

Abstract: Log data associated with at least one user session in a network environment associated with an original user is received. A logical graph is generated using at least a portion of the received log data. One example of such a logical graph is a privilege change graph that models privilege changes between processes. Another example of such a logical graph is a user login graph that models machines with which the original user interacts. Another example of such a logical graph is a machine-server graph that clusters machines into nodes based on resources executing on the machine. The generated logical graph is used to detect an anomaly.

Abstract: Activities within a network environment are monitored (e.g., using agents). At least a portion of the monitored activities are used to generate a logical graph model. The generated logical graph model is used to determine an anomaly. The detected anomaly is recorded and can be used to generate an alert.

Abstract: Network activity data is received, for example, from a set of agents reporting collectively information about a set of hosts. The received network activity data is used to identify a user login activity. A logical graph that links the user login activity to at least one user and at least one process is generated.

Abstract: Log data associated with at least one user session associated with an original user is received. A logical graph is generated using at least a portion of the received log data. One example of such a logical graph is a privilege change graph that models privilege changes between processes. Another example of such a logical graph is a user login graph that models machines with which the original user interacts. Another example of such a logical graph is a machine-server graph that clusters machines into nodes based on resources executing on the machine. The generated logical graph is used to detect an anomaly. The detected anomaly is recorded.

Abstract: A system and method are provided for performing Local Center Authorization Service (LCAS) in a network system, the system having a data aligner configured to align bytes of input data according to groups of members. The system also including an LCAS control manager configured to generate desequencing control commands in response to data input from the data aligner. The system further including a de-sequencer configured to de-sequence the input data input from the data aligner according to desequencing control commands received from the LCAS control manager.

Abstract: A system and method are provided for performing Local Centre Authorization Service (LCAS) in a network system, the system having a data aligner configured to align bytes of input data according to groups of members. The system also including an LCAS control manager configured to generate desequencing control commands in response to data input from the data aligner. The system further including a de-sequencer configured to de-sequence the input data input from the data aligner according to desequencing control commands received from the LCAS control manager.