Which topology types are supported by partitioned tier definitions?

Which topology types are supported by partitioned tier definitions?

• A. Mesh and hierarchical
• B. Mesh and radial
• C. Sequential and circular
• D. Hierarchical and linear

Answer: (B)

Partitioned tier definitions are designed to organize the network data into distinct sections that enhance the management and analysis of utility networks. In the context of utility networks, the supported topology types that align with this method include mesh and radial topologies. Mesh topology is characterized by a web-like structure where each node is connected to multiple others, offering high redundancy and reliability. This makes it suitable for partitioned tier definitions as it allows for flexible and efficient data management, accommodating changes and expansions easily. Radial topology, on the other hand, branches out from a single source node, approaching a tree-like structure. This design is common in utility networks, where energy or water distribution typically radiates from a central point to different service areas. The use of partitioned tier definitions in a radial approach helps streamline the management of these pathways, facilitating maintenance and monitoring tasks. The combination of these two topology types—mesh and radial—provides a robust framework that supports the various operational requirements of utility networks, ensuring that data can be effectively partitioned for performance and comprehensibility. The other topology types presented do not fit the criteria as seamlessly, which is why the correct answer is focused on mesh and radial.

Partitioned tier definitions are designed to organize the network data into distinct sections that enhance the management and analysis of utility networks. In the context of utility networks, the supported topology types that align with this method include mesh and radial topologies.

Mesh topology is characterized by a web-like structure where each node is connected to multiple others, offering high redundancy and reliability. This makes it suitable for partitioned tier definitions as it allows for flexible and efficient data management, accommodating changes and expansions easily.

Radial topology, on the other hand, branches out from a single source node, approaching a tree-like structure. This design is common in utility networks, where energy or water distribution typically radiates from a central point to different service areas. The use of partitioned tier definitions in a radial approach helps streamline the management of these pathways, facilitating maintenance and monitoring tasks.

The combination of these two topology types—mesh and radial—provides a robust framework that supports the various operational requirements of utility networks, ensuring that data can be effectively partitioned for performance and comprehensibility. The other topology types presented do not fit the criteria as seamlessly, which is why the correct answer is focused on mesh and radial.