Abstract: Closed-loop control is applied to the field of automated on-line business bandwidth planning tools by comparing measured business bandwidth with a baseline for providing a difference indication, changing the baseline according to the difference, and reporting the change as an event relating to a service level agreement.

Abstract: Closed-loop control is applied to the field of automated on-line business bandwidth planning tools by comparing measured business bandwidth with a baseline for providing a difference indication, changing the baseline according to the difference, and reporting the change as an event relating to a service level agreement.

Abstract: Closed-loop control is applied to the field of automated on-line business bandwidth planning tools by comparing measured business bandwidth with a baseline for providing a difference indication, changing the baseline according to the difference, and reporting the change as an event relating to a service level agreement.

Abstract: Closed-loop control is applied to the field of automated on-line business bandwidth planning tools by comparing measured business bandwidth with a baseline for providing a difference indication, changing the baseline according to the difference, and reporting the change as an event relating to a service level agreement.

Abstract: Closed-loop control is applied to the field of automated on-line business bandwidth planning tools by comparing measured business bandwidth with a baseline for providing a difference indication, changing the baseline according to the difference, and reporting the change as an event relating to a service level agreement.

Abstract: Closed-loop control is applied to the field of automated on-line business bandwidth planning tools by comparing measured business bandwidth with a baseline for providing a difference indication, changing the baseline according to the difference, and reporting the change as an event relating to a service level agreement.

Abstract: An automatic baselining process for business bandwidth measures business bandwidth as monitored by a plurality of bandwidth monitoring devices positioned throughout a networked environment. The process includes autodiscovery of the business bandwidth sources and sinks (destinations), autolearning application bandwidth and utilization therefrom, and autobaselining end-to-end bandwidth. Autopartitioning of the observed data and end-to-end top level service level agreements into specific component metrics is also possible.

Abstract: A method is described for measuring system latency and latency jitter on a near real-time basis regarding packets of information moving from sources to destination. The method for measuring system latency and latency jitter includes time-stamping packets of information as they pass through a plurality of locations between the source and destination of these packets, with the time-stamping being performed by real-time clocks set to a universal standard. The time-stamped packets are analyzed to determine latency and latency jitter. The measurements of system latency and latency jitter can be performed based upon packet types so as to obtain accurate information concerning different types of business bandwidths associated with an observed network.

Abstract: In response to an automatic baseline input, a default control template for a site in a telecommunications network is translated into monitoring and simulation templates. Current end-to-end application and component information are translated into operational modes for monitoring and simulation modules according to the monitoring and simulation templates. Operational controls are established for controlling the monitoring and simulation modules for controlling, in real time, the transmission of network management and simulation traffic.

Abstract: A method is described for measuring system latency and latency jitter on a near real-time basis regarding packets of information moving from sources to destination. The method for measuring system latency and latency jitter includes time-stamping packets of information as they pass through a plurality of locations between the source and destination of these packets, with the time-stamping being performed by real-time clocks set to a universal standard. The time-stamped packets are analyzed to determine latency and latency jitter. The measurements of system latency and latency jitter can be performed based upon packet types so as to obtain accurate information concerning different types of business bandwidths associated with an observed network.

Abstract: In response to an automatic baseline input, a default control template for a site in a telecommunications network is translated into monitoring and simulation templates. Current end-to-end application and component information are translated into operational modes for monitoring and simulation modules according to the monitoring and simulation templates. Operational controls are established for controlling the monitoring and simulation modules for controlling, in real time, the transmission of network management and simulation traffic.

Abstract: A method of automatically identifying and setting the level of management access privilege that is given to any one network management system in a multiple management system environment, where network bandwidth and service types are provided by one or more service level agreements (SLAs) by monitoring multiple components of the network so as to identify the current status of multiple service level agreements; by determining the current scale and scope of the network; and by automatically adjusting a service level agreement based on the current scale and scope of the network in view of the status of the multiple service level agreements.

Abstract: A method is described for measuring system latency and latency jitter on a near real-time basis regarding packets of information moving from sources to destination. The method for measuring system latency and latency jitter includes time-stamping packets of information as they pass through a plurality of locations between the source and destination of these packets, with the time-stamping being performed by real-time clocks set to a universal standard. The time-stamped packets are analyzed to determine latency and latency jitter. The measurements of system latency and latency jitter can be performed based upon packet types so as to obtain accurate information concerning different types of business bandwidths associated with an observed network.

Abstract: In response to an automatic baseline input, a default control template for a site in a telecommunications network is translated into monitoring and simulation templates. Current end-to-end application and component information are translated into operational modes for monitoring and simulation modules according to the monitoring and simulation templates. Operational controls are established for controlling the monitoring and simulation modules for controlling, in real time, the transmission of network management and simulation traffic.

Abstract: An automatic baselining process for business bandwidth measures business bandwidth as monitored by a plurality of bandwidth monitoring devices positioned throughout a networked environment. The process includes autodiscovery of the business bandwidth sources and sinks (destinations), autolearning application bandwidth and utilization therefrom, and autobaselining end-to-end bandwidth. Autopartitioning of the observed data and end-to-end top level service level agreements into specific component metrics is also possible.

Abstract: Closed-loop control is applied to the field of automated on-line business bandwidth planning tools by comparing measured business bandwidth with a baseline for providing a difference indication, changing the baseline according to the difference, and reporting the change as an event relating to a service level agreement.

Abstract: A method of automatically identifying and setting the level of management access privilege that is given to any one network management system in a multiple management system environment, where network bandwidth and service types are provided by one or more service level agreements (SLAs) by monitoring multiple components of the network so as to identify the current status of multiple service level agreements; by determining the current scale and scope of the network; and by automatically adjusting a service level agreement based on the current scale and scope of the network in view of the status of the multiple service level agreements.