It depends; if topplogy is intended in terms of Local Area Network (LAN), most Ethernet LANs use the same topology which is hub and spoke, where Ethernet switch(es) act as the hub and the spokes are hosts (PC's, servers, printers, IP phones, etc.). If topology is meant in terms of different technologies, e.g. Interconnecting an Ethernet network to a SONET or MPLS network, then a router is required between the two. Another possibility is transporting for instance Ethernet traffic over TDM (SONET or T1/T3) circuits. In such case the Ethernet frames are encapsulated at one end of the circuit using protocols such as GFP, PPP OR HDLC and traffic is de-encapsulated at the other end. Specialized bridges are capable of that, without requiring any IP routing.
A network or the network's layout. How different nodes in a network are connected to each other and how they communicate are determined by the network's topology. Topologies are either physical or logical. Below are diagrams of the five most common network topologies.
Computers can be interconnected in different ways to form a network. Such different ways of interconneconnection are called computer topologies. There are 5 topologies. They are: * BUS TOPOLOGY * RING TOPOLOGY * STAR TOPOLOGY * MESH TOPOLOGY * TREE TOPOLOGY
B. Star
Interconnection topologies refer to the arrangement and layout of nodes and connections in a network, defining how devices communicate and share data. Common topologies include star, ring, bus, and mesh, each with distinct advantages and disadvantages in terms of scalability, reliability, and performance. The choice of topology impacts the network's efficiency, fault tolerance, and ease of maintenance. Understanding these configurations is essential for designing effective communication systems in various applications.
There are two basic categories of network topologies Physical topologies Logical topologies The shape of the cabling layout used to link devices is called the physical topology of the network. Logical topology is the way the signals act in the network In BUS topology you have "THE LINEAR BUS" and "THE DISTRIBUTED BUS" IN the LINEAR bus all the nodes of the network are connected to a common transmission medium which has 2 end points where as in the DISTRIBUTED, all the nodes are connected to a common transmission medium which has more than 2 end points.
The logical topology for a LAN refers to how devices communicate with each other through the network. It defines the path data takes from one device to another, regardless of the physical layout of the network. Common logical topologies include bus, ring, star, and mesh.
Network topology is the way a computer network is set up and arranged, Examples for possible topologies include ring, star, bus, and line. Each of these topologies have their advantages and disadvantages, with star being the most common in today's world.
"Network topology" refers to the physical and/or logical layout of the nodes in a computer network. Common network topologies include "bus" (ethernet, a lot of other networking specs) and "ring" (token ring, ATM).
Without knowing a bit more about the context, probably "topology".Common network topologies are ring, star, bus and mesh.
Network Topology refers to the way that cables and other pieces of hardware connect to one another. There are four common "base" types of topologies: bus, ring, star, and mesh. There are other types as well, but these are referred to as "hybrid topologies." The most commonly used network topology is a hybrid topology called the Star Bus Topology.
Network topology refers to the arrangement of elements (links, nodes, etc.) in a network. It outlines how the components are interconnected and how data flows within the network. Common network topologies include star, bus, ring, and mesh.
The arrangement of connections in a given network area refers to the network topology, which defines how different nodes (devices) are interconnected. Common topologies include star, ring, bus, and mesh, each with its own advantages and disadvantages in terms of performance, scalability, and fault tolerance. Understanding the network topology is essential for efficient data flow and network management.