In this lab, you will configure and examine EIGRP in two forms, Classic EIGRP and Named EIGRP. Named EIGRP is an update to Classic EIGRP that added multiprotocol support and default support for wide metrics.

In Part 1, you will set up the network topology and configure basic settings on routers.

Configure EIGRP with Autonomous System 27. R1 and R3 use Named EIGRP; R2 uses Classic EIGRP.

In this part of the lab, you will tune and optimize EIGRP for IPv4 through the use of passive interfaces, authentication, and variance.

Customizing EIGRP operations can enhance network performance by speeding up convergence and stabilizing operations during outages. This lab explores advanced EIGRP techniques to optimize performance
in an enterprise network.

In this lab, you will configure the network with EIGRP for IPv6. You will also configure passive interfaces, propagate a default route, configure a summary route, implement routing protocol authentication, modify load balancing, and filter routes with a prefix list.

In Part 1, you will set up the network topology and configure basic settings and interface addressing on routers.

In this part of the lab, you will configure and verify EIGRP in the network. Routers R1 and R3 will used Named EIGRP, while router R2 will use Classic EIGRP. After you have established the network, you will examine the differences in how each version of EIGRP deals with metrics.

In this part of the lab, you will tune and optimize EIGRP for IPv6 through the use of passive interfaces, default router redistribution, summary routes, authentication, load balancing, and route filtering.

In this lab, you will configure single-area OSPF version 2 for IPv4 on a multiaccess Ethernet LAN. This lab was specifically designed to use two Layer 3 switches instead of three routers to highlight how a Layer 3 switch can also be used to provide routing services.

In Part 1, you will set up the network topology and configure basic settings and interface addressing on the router and Layer 3 switches.

In this part, you will implement single-area OSPF on a multiaccess Ethernet network.

In this part, you will configure a default static route to the internet on R1. R1 will then propagate the default route to other OSPF routers as an external Type 2 OSPF route (i.e., O*E2).

In this part, you will configure OSPF optimizing features including; Passive interfaces, Link costs, Reference bandwidth, Hello and Dead interval timers.

In this part, you will configure OSPF DR and BDR placement on the multiaccess network.

In this lab you will configure multiarea OSPF version 2 for IPv4

In Part 1, you will set up the network topology and configure basic settings and interface addressing on the routers and Layer 3 switches.

In this part, you will implement multiarea OSPF. Multiarea OSPF defines a two-layer area hierarchy using a backbone area interconnecting regular areas.

In this part, you will verify that the network has converged and explore how link-state advertisements (LSAs) are used as the building blocks for the OSPF link-state database (LSDB).

In this lab, you will configure route summarization and route filtering using Prefix-lists, ACLs, Distribute list in a multiarea OSPF network. 

In Part 1, you will set up the network topology and configure basic settings and interface addressing on the router and Layer 3 switches

To reduce the size of the routing table and LSDB, network prefixes must be summarized. Route summarization improves OSPF performance as fewer network entries are required.

In this part, you will learn about OSPF route filtering. Route filtering is a method for selectively identifying routes that are advertised or received from neighbor routers. Route filtering may be used to manipulate traffic flows, reduce memory utilization, or improve security.

In this lab, you will configure the network with multiarea OSPFv3 routing using the AF feature for both IPv4 and IPv6 in OSPF areas 0, 1 and 2.

In Part 1, you will set up the network topology and configure basic settings and interface addressing on routers and switches.

In this part of the lab, you will configure traditional OSPFv3 for routing IPv6 on D1, which is in the IPv6-only area.

In this section you will configure OSPFv3 with AF for the IPv4 and IPv6 address families on R1, R2, R3, D1 and D2.

In this part of the lab you can verify neighbor adjacencies with traditional OSPFv3 and OSPFv3 with AF commands.

In this part you will configure the passive interface with passive-interface command in OSPFv3 router mode

In this lab you will configure eBGP for IPv4

In Part 1, you will set up the network topology and configure basic settings and interface addressing on routers

In this part you wil configure and verify eBGP for IPv4