Abstract: A test webpage triggers a remote computer to obtain a token for the performance test from a test data collection server. The test webpage triggers the remote computer to transmit the token to a reflector server to initiate the performance test. The reflector server initiates the performance test upon validating the token. The reflector server performs bidirectional communication of test data over a Web Real-Time Communication (WebRTC) data channel using a loss tolerant protocol with the remote computer. The remote computer is able to determine computer-endpoint test results from the bidirectional communication of test data. The reflector server determines server-endpoint test results from the bidirectional communication of test data. The reflector server transmits the server-endpoint test results to the remote computer. The test webpage triggers the remote computer to transmit the computer-endpoint and the server-endpoint test results to the test data collection server.

Abstract: A data processing device, such as a monitoring agent, runs process code to process input data captured from a data source of a production environment, such as managed network devices. The process code can be created on or modified at a terminal of a development environment remote from the data processing device. The input data can be routed to the development environment to test the process code with actual data. The development environment can also provide test data to the process code to test edge cases and other situations. The output of the process code running in the development environment can be routed to the data processing device for output to downstream systems as if generated by the data processing device. Once the process code is operating satisfactorily at the development environment, the process code can be transmitted to the data processing device for execution in the production environment.

Abstract: A test webpage triggers a remote computer to obtain a token for the performance test from a test data collection server. The test webpage triggers the remote computer to transmit the token to a reflector server to initiate the performance test. The reflector server initiates the performance test upon validating the token. The reflector server performs bidirectional communication of test data over a Web Real-Time Communication (WebRTC) data channel using a loss tolerant protocol with the remote computer. The remote computer is able to determine computer-endpoint test results from the bidirectional communication of test data. The reflector server determines server-endpoint test results from the bidirectional communication of test data. The reflector server transmits the server-endpoint test results to the remote computer. The test webpage triggers the remote computer to transmit the computer-endpoint and the server-endpoint test results to the test data collection server.

Abstract: Network devices are monitored and alarms are received from the network devices. An indication of a selected alarm may be received through a user interface. A total distance between the selected alarm and a target alarm of the received alarms is computed. The total distance is computed based on alarm dimensions between the selected alarm and the target alarm. An indication of the target alarm with an indication of the total distance is generated and may out outputted.

Abstract: A data processing device, such as a monitoring agent, runs process code to process input data captured from a data source of a production environment, such as managed network devices. The process code can be created on or modified at a terminal of a development environment remote from the data processing device. The input data can be routed to the development environment to test the process code with actual data. The development environment can also provide test data to the process code to test edge cases and other situations. The output of the process code running in the development environment can be routed to the data processing device for output to downstream systems as if generated by the data processing device. Once the process code is operating satisfactorily at the development environment, the process code can be transmitted to the data processing device for execution in the production environment.

Abstract: A system and method automates and simplifies tasks associated with setting up a user self-activating network-based service. A configurable input engine is configured to define the service. The service may, for example, use a plurality of networking devices and/or computing devices. After the service is defined, an offer of the service is published to a user. The offer includes values of commercial terms and/or values of configuration parameters associated with the offer. Upon receiving an acceptance of the offer from the user, the configurable input engine automatically generates activations for the devices to be used by the service. The activations are sent to policy distribution points (PDPs) where the activations are translated into device-specific instructions. The device-specific instructions are in turn sent to the devices (networking devices and/or computing devices) to be configured. The device-specific instructions configure the devices, thereby automatically setting up the service for the user.

Abstract: A “policy distribution point” (PDP) allows service drivers to be installed remotely and automatically without rebooting the PDP or otherwise interrupting existing network-based services. The exposure of sensitive configuration data to non-secure networks is minimized by placing PDPs close to the devices to be configured. Service drivers on the PDP can be reused to configure multiple devices of the same type. The PDP receives an “activation” and uses a service driver on the PDP to translate the activation into “device-specific instructions.” The device-specific instructions are sent to a device and configure the device to set up the network-based service. One or more PDPs can be used to configure both computing device and networking devices to provide a single service.

Abstract: A system allows subscribers quickly to self-activate network-based services by automatically configuring network elements. A service provider preconfigures a state machine on a core server. At the time of self-activation, activations are sent to policy distribution points (PDPs) that translate the activations into device-specific instructions, which in turn configure network elements to provide services. The speed of self-activation is increased by generating activations faster in the core server, by translating activations into device-specific instructions faster in the PDPs, and by separating the configuration of the network elements from complex registration steps. Initiation steps that configure network elements are performed faster by an initiation module that reads from, but does not write to, databases. Subscribers perform dynamic service selection using the initiation module.

Abstract: A system allows subscribers quickly to self-activate network-based services by automatically configuring network elements. A service provider preconfigures a state machine on a core server. At the time of self-activation, activations are sent to policy distribution points (PDPs) that translate the activations into device-specific instructions, which in turn configure network elements to provide services. The speed of self-activation is increased by generating activations faster in the core server, by translating activations into device-specific instructions faster in the PDPs, and by separating the configuration of the network elements from complex registration steps. Initiation steps that configure network elements are performed faster by an initiation module that reads from, but does not write to, databases. Subscribers perform dynamic service selection using the initiation module.

Abstract: A “policy distribution point” (PDP) allows service drivers to be installed remotely and automatically without rebooting the PDP or otherwise interrupting existing network-based services. The exposure of sensitive configuration data to non-secure networks is minimized by placing PDPs close to the devices to be configured. Service drivers on the PDP can be reused to configure multiple devices of the same type. The PDP receives an “activation” and uses a service driver on the PDP to translate the activation into “device-specific instructions.” The device-specific instructions are sent to a device and configure the device to set up the network-based service. One or more PDPs can be used to configure both computing device and networking devices to provide a single service.

Abstract: A “policy distribution point” (PDP) allows service drivers to be installed remotely and automatically without rebooting the PDP or otherwise interrupting existing network-based services. The exposure of sensitive configuration data to non-secure networks is minimized by placing PDPs close to the devices to be configured. Service drivers on the PDP can be reused to configure multiple devices of the same type. The PDP receives an “activation” and uses a service driver on the PDP to translate the activation into “device-specific instructions.” The device-specific instructions are sent to a device and configure the device to set up the network-based service. One or more PDPs can be used to configure both computing device and networking devices to provide a single service.

Abstract: A system and method automates and simplifies tasks associated with setting up a user self-activating network-based service. A configurable input engine is configured to define the service. The service may, for example, use a plurality of networking devices and/or computing devices. After the service is defined, an offer of the service is published to a user. The offer includes values of commercial terms and/or values of configuration parameters associated with the offer. Upon receiving an acceptance of the offer from the user, the configurable input engine automatically generates activations for the devices to be used by the service. The activations are sent to policy distribution points (PDPs) where the activations are translated into device-specific instructions. The device-specific instructions are in turn sent to the devices (networking devices and/or computing devices) to be configured. The device-specific instructions configure the devices, thereby automatically setting up the service for the user.

Abstract: A system and method automates and simplifies tasks associated with setting up a user self-activating network-based service. A configurable input engine is configured to define the service. The service may, for example, use a plurality of networking devices and/or computing devices. After the service is defined, an offer of the service is published to a user. The offer includes values of commercial terms and/or values of configuration parameters associated with the offer. Upon receiving an acceptance of the offer from the user, the configurable input engine automatically generates activations for the devices to be used by the service. The activations are sent to policy distribution points (PDPs) where the activations are translated into device-specific instructions. The device-specific instructions are in turn sent to the devices (networking devices and/or computing devices) to be configured. The device-specific instructions configure the devices, thereby automatically setting up the service for the user.

Abstract: A system allows subscribers quickly to self-activate network-based services by automatically configuring network elements. A service provider preconfigures a state machine on a core server. At the time of self-activation, activations are sent to policy distribution points (PDPs) that translate the activations into device-specific instructions, which in turn configure network elements to provide services. The speed of self-activation is increased by generating activations faster in the core server, by translating activations into device-specific instructions faster in the PDPs, and by separating the configuration of the network elements from complex registration steps. Initiation steps that configure network elements are performed faster by an initiation module that reads from, but does not write to, databases. Subscribers perform dynamic service selection using the initiation module.

Abstract: A network-based service creation platform automates and simplifies many tasks associated with defining new network service offerings to network users, publishing the new service offerings to the users, handling the subscription and registration of subscribers to the new service, billing for the service, and otherwise managing the service. In one embodiment, once a user is authenticated a first time, the user is then automatically authenticated for multiple network-based services without having to perform separate manual logins for each service. Moreover, the user is authenticated for a plurality of networking devices and/or computing devices used to provide the services.

Abstract: A system and method automates and simplifies tasks associated with setting up a user self-activating network-based service. A configurable input engine is configured to define the service. The service may, for example, use a plurality of networking devices and/or computing devices. After the service is defined, an offer of the service is published to a user. The offer includes values of commercial terms and/or values of configuration parameters associated with the offer. Upon receiving an acceptance of the offer from the user, the configurable input engine automatically generates activations for the devices to be used by the service. The activations are sent to policy distribution points (PDPs) where the activations are translated into device-specific instructions. The device-specific instructions are in turn sent to the devices (networking devices and/or computing devices) to be configured. The device-specific instructions configure the devices, thereby automatically setting up the service for the user.

Abstract: A “policy distribution point” (PDP) allows service drivers to be installed remotely and automatically without rebooting the PDP or otherwise interrupting existing network-based services. The exposure of sensitive configuration data to non-secure networks is minimized by placing PDPs close to the devices to be configured. Service drivers on the PDP can be reused to configure multiple devices of the same type. The PDP receives an “activation” and uses a service driver on the PDP to translate the activation into “device-specific instructions.” The device-specific instructions are sent to a device and configure the device to set up the network-based service. One or more PDPs can be used to configure both computing device and networking devices to provide a single service.