A Cisco Router Lab is a hands-on practice environment for learning, configuring, and troubleshooting Cisco networks from the foundational CCNA level all the way to the expert CCIE level.
This hands-on lab covers physically connecting and performing the initial configuration of a standalone wireless access point, including setting up an SSID, applying WPA3 security, and verifying wireless clients can associate and reach the wired network.
This hands-on lab performs the initial setup of a Wireless LAN Controller, joins a lightweight access point to it, and creates a centrally managed WLAN, demonstrating the controller-based architecture that scales far beyond standalone access points.
This hands-on lab configures static routes using an outgoing interface rather than a next-hop IP address, demonstrating this approach's suitability for point-to-point links and its important limitation on multi-access networks.
This hands-on lab configures static routes using a next-hop IP address rather than an outgoing interface, the generally preferred syntax, and compares the resulting routing table entry against the interface-based approach from the previous lab.
This hands-on lab configures static routes with descriptive names attached using the name keyword, improving documentation and making the routing table significantly easier to interpret for anyone reviewing the configuration later.
This hands-on lab configures a default static route on an edge router to reach the internet through an ISP connection, demonstrating how a single route can represent every otherwise-unknown destination rather than requiring individual routes for each one.
This hands-on lab configures static routes for IPv6 destinations between two routers, mirroring the IPv4 static routing syntax covered earlier in this series while highlighting the IPv6-specific command keyword and address format.
This hands-on lab configures a default static route for IPv6 on an edge router, using the IPv6 equivalent of the all-zeros IPv4 default route to represent every otherwise-unmatched destination.
This hands-on lab configures a floating static route with a higher administrative distance than an existing OSPF-learned route, demonstrating how it remains inactive as a backup until the primary route fails, then automatically takes over.
This hands-on lab configures RIPv2 as a basic dynamic routing protocol between three routers, disables automatic summarization, and verifies routes are learned dynamically without any manual static route configuration.
This hands-on lab configures OSPF between two routers connected via a serial point-to-point link, verifies the neighbor adjacency forms quickly without DR/BDR election, and confirms routes are exchanged correctly.
This hands-on lab configures OSPF across an Ethernet segment with three routers, observing DR and BDR election in action and verifying how it differs fundamentally from the point-to-point behavior covered in the previous lab.
