The present invention relates to computer software and communication networks, and in particular, to a system and method for providing software distribution capacity planning and hardware sizing in a distribution network.
Computer networks can correspond to a number of computing devices connected via various communication links. In a typical larger scale network environment, a network may include a plurality of server and client computing devices at several geographic locations. As computer networks grow in size and complexity, there is a need for administrative tools that facilitate software distribution, asset management and/or software patch deployment. One such administrative tool is Microsoft Corporation's Systems Management Server (“SMS”).
In administrative tools, such as SMS, computers (e.g., servers) are located throughout a computer network and are configured to have a specific software distribution/management role. Often times, the specific configuration of a server will depend on the network topology and/or the anticipated software distribution load of the network. For example, in SMS, a server can have one of many possible management/distribution roles, such as a central server, distribution point, secondary site, management point, reporting point, and the like. Configuring a server device incorrectly, such as by selecting an incorrect role can result in an inefficient utilization of the server computer within the SMS system or the creation of distribution bottlenecks depending on the error. Similarly, selecting inappropriate hardware resources for a configured server (such as the number of processors, speed of processors, memory, etc.) can also result in an inefficient utilization of computer resources or the creation of distribution bottlenecks. Accordingly, capacity planning and hardware sizing functionality can become necessary for proper implementation of administrative tools.
Traditional capacity planning/hardware sizing functionality relies on static models for a network topology and server computer configuration. For example, in tools where network topology models are pre-determined, the tool does not provide adequate planning flexibility for customized network topologies. Thus, network administrators may not be able to properly model the actual configuration of the network. Additionally, the fixed static model approach does not provide adequate flexibility in facilitating various “what if” scenarios to determine the impact of different configuration settings for the server computing components in the SMS system. Accordingly, system administrators cannot typical test the impact of different server role configurations and/or hardware settings to a network model.
Thus, there is a need for a system and method for managing a distribution network that provides dynamic capacity planning and hardware sizing capabilities.
A system and method for managing a distribution network is provided. A management system obtains a network topology of physical locations and usage data for each identified location. The management system displays a set of possible distribution configurations for each location. The management system generates configuration recommendations based upon the specified distribution configuration.
In accordance with an aspect of the present invention, a method for managing a distribution network is provided. A management system obtains network environment data corresponding to a distribution network having at least one location. The management system obtains usage data corresponding to the network environment data. The management system then generates distribution configurations for locations in the distribution network corresponding to the network environment and usage data. The management system displays distribution configurations for the locations.
In accordance with another aspect of the present invention, a method for managing a distribution network. A management system obtains network environment data corresponding to a distribution network having at least one location. The management system obtains usage data corresponding to the network environment data. The management system generates at least one distribution configuration for the at least one location in the distribution network corresponding to the network environment and usage data. The management system then displays the at least one distribution configuration.
In accordance with a further aspect of the present invention, a method for distribution network planning is provided. A management system obtains a site topology for a distribution network having a set of identifiable locations. The management system displays a set of distribution scenarios for each identified location in the distribution network. The management system then obtains a selection of a distribution scenario for an identified location in the distribution network. The management system generates a configuration recommendation for the selected distribution scenario for the identified location. BRIEF DESCRIPTION OF THE DRAWINGS
The foregoing aspects and many of the attendant advantages of this invention will become more readily appreciated as the same become better understood by reference to the following detailed description, when taken in conjunction with the accompanying drawings, wherein:
Generally described, the present invention relates to a system and method for managing a distribution network including a number of distribution locations. More specifically, the present invention relates to a system and method for providing capacity planning and hardware sizing functionality for managing a distribution network. Although the present invention will be described with regard to an illustrative distribution network topology, illustrative distribution network configuration information and illustrative screen displays, the disclosed embodiments should not be construed as limiting.
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At block 306, the management system obtains the number of client computing devices that will be in communication with each identified location. At block 308, the management system obtains a distribution network tier designation for each identified location. Finally, at block 310, the management system obtains location administrative information for each identified location. For example, the management system can obtain information whether a location system administrator will be present at the location. At block 312, the sub-routine 300 returns.
In an illustrative embodiment of the present invention, sub-routine 300 may be embodied as a recursive process for facilitating the manual entry of the network topology. For example, the management system may generate a screen display that prompts a system administrator to complete the necessary information for each location. As additional children locations are identified, the management system would collect information about each child location via additional screen displays. Additionally, in an illustrative embodiment of the present invention, the management system may pre-populate one or more fields of screen display based upon a designation of a distribution tier. The resulting network topology configuration can be exported as a spreadsheet that can manually reviewed and adjusted.
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At block 206, the management system obtains location configuration options for each identified location in the distribution network. In an illustrative embodiment of the present invention, each location with the distribution network may be configured in one of a variety of distribution roles with the distribution network. The selection of the most proper role corresponds to an analysis of the physical topology of the distribution network and the data usage within the topology. Accordingly, in some scenarios, more than one distribution role may be applicable for a particular location. For example, a parent site may be configured as a distribution point location with all its children location as secondary site locations. However, if the number of children locations is too large and/or depending on the number of client computers connected to each location, one or more of the children locations may be configured a distribution point location to mitigate network bottlenecks.
In an illustrative embodiment of the present invention, the management system generates a screen display that includes a set of distribution configurations for a specified location.
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At decision block 210, a test is conducted to determine whether additional analysis is required. In an illustrative embodiment of the present invention, the selection of distribution configuration may be repeated to provide for various what if scenarios. For example, routine 200 may be utilized to model distribution network efficiency due to adjustment of location roles/resources. Additionally, routine 200 may be utilized to model potential effects of the addition of locations. If additional analysis is required, the routine 200 returns to block 206 for the selection of another distribution configuration (screen display 400,
While illustrative embodiments of the invention have been illustrated and described, it will be appreciated that various changes can be made therein without departing from the spirit and scope of the invention.