
Explore routing basics and how to forward ip packets between networks using static and default routes, unicast algorithms, and key protocols like rip v1/v2, ospf, egp, and bgp.
Configure static routing and default routing across routers and PCs to send data between networks, using destination network, next-hop, and common gateway concepts.
Explore unicast routing algorithms, including distance vector, path vector, and link state, and learn how routing tables, costs, paths, and failure updates drive network traffic.
Explore link state routing and the shortest path first concept, showing how flooding and Dijkstra's algorithm compute the shortest path from a source to every node in a network.
Explore RIP v1 and RIP v2, compare classful and classless addressing, and configure Cisco routers in Packet Tracer to see how VLSM and unknown networks are handled.
Learn how OSPF uses cost-based shortest-path routing within an autonomous system, with area zero backbone and area border routers, and why BGP is slower and relies on path vector routing.
Routing is the backbone of modern networking, ensuring that data finds its way from source to destination efficiently and reliably. This course provides a comprehensive understanding of routing concepts, protocols, and real-world configurations used in enterprise and internet-scale networks.
Students will begin with the fundamentals of routing, including IP addressing, static routing, and the differences between distance vector, link state, and path vector protocols. From there, the course dives into dynamic routing protocols such as RIP, OSPF, EIGRP, and BGP, explaining how each operates, their advantages, and their use cases.The course balances theoretical foundations—like distance vector, link state, and path vector approaches—with practical skills in configuring and troubleshooting routers using simulation tools and real-world scenarios. By the end, learners will gain the knowledge and hands-on experience needed to design, implement, and optimize routing strategies for enterprise and internet-scale networks.Through hands-on labs and simulations, learners will configure and troubleshoot routing on virtual routers using tools like Cisco Packet Tracer, GNS3, or equivalent platforms. Advanced topics such as route summarization, redistribution, policy-based routing, and scalability considerations are also covered, preparing students for both practical industry work and certification exams (e.g., CCNA/CCNP).
By the end of this course, students will be able to:
Explain core routing principles and algorithms.
Configure and verify routing protocols in lab environments.
Analyze routing tables and troubleshoot network connectivity.
Understand the role of routing in enterprise and global internet architecture.
Routing is the process of directing data across interconnected networks so that it efficiently reaches its destination. This course introduces the principles, algorithms, and protocols that make routing possible in modern computer networks. Students will explore static and dynamic routing, study the operation of key protocols such as RIP, OSPF, EIGRP, and BGP, and understand how routers build and maintain routing tables.
The course balances theoretical foundations—like distance vector, link state, and path vector approaches—with practical skills in configuring and troubleshooting routers using simulation tools and real-world scenarios. By the end, learners will gain the knowledge and hands-on experience needed to design, implement, and optimize routing strategies for enterprise and internet-scale networks.