Abstract:
This disclosure describes techniques and mechanisms for defining dynamic security compliance in networks to proactively prevent security policy violations from being added and/or made, retroactively and continuously identify security policy violations based on data from the changing threat landscape, and provide auto-remediation of non-compliant security policies. The techniques enable automated security policies and provide improved network security against a dynamic threat landscape.
Abstract:
A management entity communicates over a network with devices on which security rules are configured to control network access. Data that indicates a hit count for each security rule across the devices is repeatedly collected from the devices. The indicated hit counts for each security rule are aggregated over different repeating time intervals to produce repeatedly aggregated hit counts for respective ones of the different repeating time intervals. The security rules are generated for display on a user interface screen as selectable options. Responsive to a selection of one of the security rules, a selected security rule and most recently aggregated hit counts for the different repeating time intervals for the selected security rule are generated for concurrent display on the user interface screen. The display of the most recently aggregated hit counts for the selected security rule is updated as time progresses.
Abstract:
A method is performed at a management device to manage multiple network security devices over a network. The security devices are configured to control access to network accessible resources. A query is received. In response to the received query, a respective native security rule that references the specific resource is collected from each security device, where each native security rule is based on a respective native rule model associated with the security device from which the native security rule is collected. Each native security rule is translated into a respective normalized rule that is based on a generic rule model. The respective normalized rules are compared to each other to generate compare results. Based on the compare results, an indication of whether each security device allows or blocks access to the specific resource is generated.
Abstract:
Presented herein are techniques for remotely releasing bootstrap credentials to a cloud management proxy device. In particular, a cloud management proxy device that is associated with a cloud system commences a boot operation. The cloud management proxy device then initiates a remote credential release process to obtain the bootstrap credentials, which are useable by the cloud management proxy device to complete the boot operation. Upon completion of the remote credential release process, the bootstrap credentials are received from a remote credential manager system.
Abstract:
A management entity communicates over a network with devices on which security rules are configured to control network access. Data that indicates a hit count for each security rule across the devices is repeatedly collected from the devices. The indicated hit counts for each security rule are aggregated over different repeating time intervals to produce repeatedly aggregated hit counts for respective ones of the different repeating time intervals. The security rules are generated for display on a user interface screen as selectable options. Responsive to a selection of one of the security rules, a selected security rule and most recently aggregated hit counts for the different repeating time intervals for the selected security rule are generated for concurrent display on the user interface screen. The display of the most recently aggregated hit counts for the selected security rule is updated as time progresses.
Abstract:
A method is performed at a management device to manage multiple network security devices over a network. The security devices are configured to control access to network accessible resources. A query is received. In response to the received query, a respective native security rule that references the specific resource is collected from each security device, where each native security rule is based on a respective native rule model associated with the security device from which the native security rule is collected. Each native security rule is translated into a respective normalized rule that is based on a generic rule model. The respective normalized rules are compared to each other to generate compare results. Based on the compare results, an indication of whether each security device allows or blocks access to the specific resource is generated.