Abstract: An incident is created in response to a cyber event. One or more authorities are identified. At least some of the one or more authorities are associated with respective authority conditions and at least some of the respective authority conditions are associated with respective attributes. Satisfaction of the respective authority conditions of an authority identifies the authority. At least some of respective attributes are associated with the incident as incident attributes. Incident attribute values are received from a user for at least some of the incident attributes. Tasks are identified responsive to at least one of the incident attribute values satisfying respective task conditions of the identified tasks. The tasks are then associated with the incident.

Abstract: Responding to incidents includes creating a playbook of tasks based on a first document constituting an authority, such that at least some of the tasks are completed in response to incidents. A new version of the playbook is created based on differences between the first document and a second document constituting a revision of the authority. Responsive to a first incident, the new version of the playbook is used to respond to the first incident. Creating the new version of the playbook includes at least one of excluding a first task of the playbook from the new version, adding an updated task of a second task of the playbook to the new version, or adding a third task to the new version.

Abstract: Systems and methods for security incident response management are disclosed. A method includes receiving a cyber event; identifying a playbook of tasks, where the playbook constitutes a response to the cyber event, and where a task of the tasks is assignable to a user group; receiving, from a user of the user group, a completion of the task; receiving a proof of completion of the task; and generating an compliance report including the task and the proof of completion.

Abstract: Systems and methods for security incident response management are disclosed. A method includes receiving a cyber event; identifying a playbook of tasks, where the playbook constitutes a response to the cyber event, and where a task of the tasks is assignable to a user group; receiving, from a user of the user group, a completion of the task; receiving a proof of completion of the task; and generating an compliance report including the task and the proof of completion.

Abstract: Multi channel distributed behavioral analysis architecture provides a software solution to the major operational challenges faced with providing an early warning system for impending cyber security events. Most cyber security events are premeditated. However, many current cyber security defense technologies only address the real-time detection of a software vulnerability, the presence of malware (known or unknown “zero day”), anomalies from pre-established data points, or the signature of an active security event. The system and method of the multi channel distributed behavioral analysis architecture introduces a technique which provides the data collection, assessment, and alerting ability prior to the occurrence of an event based on threat actor behavior.

Abstract: Multi channel distributed behavioral analysis architecture provides a software solution to the major operational challenges faced with providing an early warning system for impending cyber security events. Most cyber security events are premeditated. However, many current cyber security defense technologies only address the real-time detection of a software vulnerability, the presence of malware (known or unknown “zero day”), anomalies from pre-established data points, or the signature of an active security event. The system and method of the multi channel distributed behavioral analysis architecture introduces a technique which provides the data collection, assessment, and alerting ability prior to the occurrence of an event based on threat actor behavior.

Abstract: An N session distributed architecture provides a software solution to the major computational challenges faced with providing secure communication. A registration entity is identified as the session arbitrator through which N devices on a network dynamically participate in establishing, maintaining and destroying cryptographic sessions. Session keys are generated by one or more devices registered with the registration server. Multiparty key agreement and device (or another form of) authentication is used to pass session keys and security policies to all parties involved in the encrypted session. Network discovery techniques are used to discover parties that will participate in the secure communications. All sessions appear to be local to the arbitration server, however individual sessions are maintained by several devices operating as a collective.

Abstract: An N session distributed architecture provides a software solution to the major computational challenges faced with providing secure communication. A registration entity is identified as the session arbitrator through which N devices on a network dynamically participate in establishing, maintaining and destroying cryptographic sessions. Session keys are generated by one or more devices registered with the registration server. Multiparty key agreement and device (or another form of) authentication is used to pass session keys and security policies to all parties involved in the encrypted session. Network discovery techniques are used to discover parties that will participate in the secure communications. All sessions appear to be local to the arbitration server, however individual sessions are maintained by several devices operating as a collective.

Abstract: An N session distributed architecture provides a software solution to the major computational challenges faced with providing secure communication. A registration entity is identified as the session arbitrator through which N devices on a network dynamically participate in establishing, maintaining and destroying cryptographic sessions. Session keys are generated by one or more devices registered with the registration server. Multiparty key agreement is used to pass session keys to all parties involved in the encrypted session. All sessions appear to be local to the arbitration server, however individual session are maintained by several devices operating as a collective. Encrypted stream partitioning and computational resource allocation to decrypt the individual partitions in such way as to ensure system stability with increasing session demands is introduced in the architecture.