Abstract: Inconsistencies between internal logical names assigned to hardware devices and physical labeling of the hardware device connectors are overcome by reassigning internal logical names in a network appliance hosting the hardware devices. The initial logical names that refer to the hardware devices are read from an operating system, along with hardware addresses for the hardware devices. The relationship between the initial logical names and the hardware device addresses is compared against a desired relationship, as may be provided in a configuration file. Undesired relationships between logical names and hardware devices are reassigned so that the logical names are consistent with the physical labeling for the hardware devices. The reassigned logical names can be committed to system resources to make the reassignment persistent.

Abstract: Systems and methods of providing high availability of telecommunications systems and devices in a telecommunications network. A telecommunications device is deployed in a high availability configuration that includes two or more peer device platforms, in which each peer device platform can operate in either an active mode or a standby mode. Each peer device platform includes a device health monitoring component and a rules engine. By detecting one or more failures and/or faults associated with the peer device platforms using the respective device health monitoring components, and generating, using the rules engine, a health count for each peer device platform based on the detected failures/faults and one or more predetermined rules, failover decisions can be made based on a comparison of the health counts for the respective peer device platforms, while reducing the impact on the telecommunications network and providing an increased level of user control over the failover decisions.

Abstract: Systems and methods of providing high availability of telecommunications systems and devices in a telecommunications network. A telecommunications device is deployed in a high availability configuration that includes two or more peer device platforms, in which each peer device platform can operate in either an active mode or a standby mode. Each peer device platform includes a device health monitoring component and a rules engine. By detecting one or more failures and/or faults associated with the peer device platforms using the respective device health monitoring components, and generating, using the rules engine, a health count for each peer device platform based on the detected failures/faults and one or more predetermined rules, failover decisions can be made based on a comparison of the health counts for the respective peer device platforms, while reducing the impact on the telecommunications network and providing an increased level of user control over the failover decisions.

Abstract: Inconsistencies between internal logical names assigned to hardware devices and physical labeling of the hardware device connectors are overcome by reassigning internal logical names in a network appliance hosting the hardware devices. The initial logical names that refer to the hardware devices are read from an operating system, along with hardware addresses for the hardware devices. The relationship between the initial logical names and the hardware device addresses is compared against a desired relationship, as may be provided in a configuration file. Undesired relationships between logical names and hardware devices are reassigned so that the logical names are consistent with the physical labeling for the hardware devices. The reassigned logical names can be committed to system resources to make the reassignment persistent.