300-101: CCNP Implementing Cisco IP Routing (ROUTE v2.0) certification video training course by prepaway along with practice test questions and answers, study guide and exam dumps provides the ultimate training package to help you pass.

Implementing Cisco IP Routing (ROUTE) – Cisco 300-101 Exam

Course Overview

The Cisco 300-101 ROUTE exam is a core certification exam for network professionals seeking to validate their knowledge of implementing IP routing in enterprise networks. This course provides comprehensive training on routing protocols, network design, and troubleshooting techniques. It is designed to prepare learners for the ROUTE exam while equipping them with practical skills that can be applied in real-world network environments.

Course Objectives

This course aims to provide a deep understanding of routing concepts and protocols, including OSPF, EIGRP, BGP, and redistribution techniques. Participants will learn how to configure and troubleshoot both IPv4 and IPv6 networks. By the end of the course, learners will be able to implement complex routing solutions, optimize network performance, and confidently handle enterprise network challenges.

Who This Course is For

This course is designed for network engineers, system administrators, and IT professionals who want to advance their career in network routing. It is ideal for those who already have foundational knowledge of networking, such as basic IP addressing and familiarity with Cisco devices. Professionals preparing for the CCNP Routing and Switching certification will find this course essential.

Prerequisites

Before enrolling in this course, participants should have a solid understanding of networking fundamentals. Knowledge of basic IP routing, switching concepts, and network protocols is required. Experience with Cisco IOS commands and basic troubleshooting skills will be highly beneficial. Candidates should be comfortable with subnetting, VLSM, and the basics of LAN and WAN technologies.

Course Description

This training course is structured to provide both theoretical knowledge and practical skills. Each module focuses on a specific area of IP routing, starting from fundamental routing principles and advancing to complex multi-protocol environments. Participants will engage in hands-on labs and simulations to reinforce concepts. The course also emphasizes exam-oriented strategies, ensuring learners can apply their knowledge under exam conditions.

Course Modules

Introduction to Routing

This module introduces the principles of routing, including the difference between static and dynamic routing. Learners will understand routing tables, path selection, and administrative distance. The module also covers basic configuration commands and verification techniques in Cisco IOS.

OSPF Routing Protocol

OSPF is a key routing protocol in enterprise networks. This module explains OSPF concepts, including areas, neighbor relationships, and link-state advertisements. Participants will configure OSPF in different network topologies and troubleshoot common issues.

EIGRP Routing Protocol

Enhanced Interior Gateway Routing Protocol (EIGRP) is another essential protocol covered in this course. The module covers EIGRP operation, metric calculation, and configuration. Students will learn advanced features, such as unequal-cost load balancing and route summarization.

BGP and WAN Connectivity

Border Gateway Protocol (BGP) is critical for inter-domain routing. This module introduces BGP concepts, session establishment, route advertisement, and filtering. Learners will also explore WAN connectivity options and configuration best practices.

Route Redistribution and Troubleshooting

This module focuses on integrating multiple routing protocols within a single network. Learners will study route redistribution, route filtering, and policy-based routing. Advanced troubleshooting techniques are taught to resolve complex routing issues in both IPv4 and IPv6 environments.

Learning Outcomes

Upon completing this part of the course, participants will have a clear understanding of the core routing concepts and be able to configure and troubleshoot enterprise routing protocols. They will develop skills in network optimization and problem-solving, preparing them for more advanced topics in subsequent modules.

OSPF Fundamentals

Open Shortest Path First (OSPF) is a link-state routing protocol used widely in enterprise networks. OSPF determines the shortest path to a destination using Dijkstra’s algorithm. It divides networks into areas to optimize routing efficiency and reduce resource consumption. Each router maintains a Link-State Database (LSDB) to reflect the network topology.

OSPF routers form neighbor relationships through Hello packets. The process includes states such as Down, Init, Two-Way, ExStart, Exchange, Loading, and Full. Understanding these states is crucial for troubleshooting OSPF issues.

OSPF Areas

OSPF uses hierarchical design with areas to manage large networks. The backbone area (Area 0) connects all other areas. Other areas, such as stub, totally stubby, and not-so-stubby areas (NSSA), help limit routing table size. Implementing areas correctly enhances scalability and reduces routing overhead.

OSPF Configuration

Configuring OSPF involves enabling OSPF on routers, defining the router ID, and assigning interfaces to OSPF areas. Network statements determine which interfaces participate in OSPF. Verification commands like show ip ospf neighbor and show ip route ospf are used to monitor operation.

Advanced OSPF features include route summarization, authentication, and priority adjustment. Route summarization reduces routing table size by aggregating multiple routes into a single entry. Authentication ensures that only trusted routers form OSPF adjacencies. Priority adjustment helps control designated router (DR) and backup designated router (BDR) elections.

OSPF Troubleshooting

Troubleshooting OSPF involves analyzing neighbor relationships, LSDB synchronization, and routing table entries. Common issues include mismatched hello and dead intervals, incorrect area assignments, and authentication failures. Debug commands such as debug ip ospf adj provide real-time insights into OSPF behavior.

EIGRP Routing Protocol Deep Dive

EIGRP Fundamentals

Enhanced Interior Gateway Routing Protocol (EIGRP) is a hybrid routing protocol combining features of distance-vector and link-state protocols. EIGRP calculates the best path using the Diffusing Update Algorithm (DUAL). It supports rapid convergence, unequal-cost load balancing, and flexible metric calculation.

EIGRP maintains three main tables: the neighbor table, topology table, and routing table. The neighbor table tracks directly connected routers, the topology table stores all learned routes, and the routing table contains the best paths for packet forwarding.

EIGRP Configuration

Configuring EIGRP begins with enabling it on routers, assigning an autonomous system (AS) number, and specifying networks. Advanced configurations include configuring passive interfaces, summarization, and authentication. Proper configuration ensures efficient route propagation and network stability.

EIGRP Metrics

EIGRP metrics are based on bandwidth, delay, reliability, load, and MTU. Bandwidth and delay are primary components in metric calculation. Adjusting these metrics can influence route selection. EIGRP also supports unequal-cost load balancing using the variance command to forward traffic over multiple paths with differing metrics.

EIGRP Troubleshooting

Troubleshooting EIGRP involves checking neighbor relationships, topology entries, and routing table consistency. Common problems include mismatched K-values, authentication errors, and network misconfiguration. Verification commands such as show ip eigrp neighbors and show ip eigrp topology help diagnose issues effectively.

Border Gateway Protocol (BGP) Fundamentals

BGP Overview

Border Gateway Protocol (BGP) is a path-vector protocol used for routing between autonomous systems. BGP is essential for Internet connectivity and enterprise WAN design. It uses attributes like AS-path, next-hop, and local preference to determine the best path.

BGP maintains a BGP table, which includes all learned routes, and a routing table for active paths. BGP neighbors, also called peers, establish sessions over TCP port 179. Configuring BGP correctly ensures stable inter-domain routing and prevents routing loops.

BGP Configuration

Configuring BGP requires defining an AS number, establishing neighbor relationships, and advertising networks. Additional configuration includes route maps, prefix lists, and filtering policies. Route maps allow conditional route manipulation, while prefix lists filter which routes are advertised or accepted.

BGP Attributes

BGP uses several attributes to select the best path. These include weight, local preference, AS-path, origin, MED, and next-hop. Weight and local preference are local attributes used to influence path selection internally. AS-path ensures loop prevention, and MED (multi-exit discriminator) influences path selection between multiple exit points.

BGP Troubleshooting

Troubleshooting BGP involves verifying peer relationships, route advertisement, and policy application. Common issues include TCP session failures, route filtering misconfigurations, and AS-path loops. Commands like show ip bgp summary and show ip bgp provide insights into the BGP state and route selection.

IPv6 Routing Protocols

Introduction to IPv6

IPv6 is the next-generation IP protocol designed to address IPv4 exhaustion. It features a larger address space, simplified header structure, and improved routing efficiency. IPv6 addresses are 128 bits long and are expressed in hexadecimal notation.

IPv6 Routing Protocols

Many IPv4 routing protocols have IPv6 versions. OSPFv3 is used for IPv6 link-state routing, while EIGRP for IPv6 handles distance-vector routing. BGP supports IPv6 for inter-domain routing. Understanding these protocols and their configuration nuances is essential for modern enterprise networks.

IPv6 Configuration

Configuring IPv6 involves assigning global unicast addresses, enabling routing protocols, and verifying connectivity. Key commands include ipv6 unicast-routing, ipv6 router ospf, and ipv6 eigrp. Verification uses commands such as show ipv6 route and show ipv6 ospf neighbor.

IPv6 Troubleshooting

Common IPv6 issues include misconfigured addresses, missing router advertisements, and routing protocol misconfigurations. Troubleshooting tools like ping ipv6 and traceroute ipv6 help diagnose network problems. Familiarity with IPv6-specific protocol behavior is crucial for effective troubleshooting.

Advanced Routing Concepts

Route Redistribution

Route redistribution enables communication between different routing protocols. It is critical in networks where OSPF, EIGRP, and BGP coexist. Proper configuration requires understanding metrics, administrative distance, and route maps to avoid routing loops.

Policy-Based Routing

Policy-Based Routing (PBR) allows traffic to follow specific paths based on policies rather than routing metrics. PBR is useful for traffic engineering, load balancing, and security enforcement. Configuration includes route maps applied to interfaces to dictate traffic behavior.

Troubleshooting Multi-Protocol Networks

Multi-protocol networks require careful monitoring. Common issues include inconsistent routing tables, duplicate routes, and misapplied policies. Effective troubleshooting relies on analyzing routing tables, protocol-specific logs, and path testing with ping and traceroute.

Practical Labs and Hands-On Practice

Hands-on practice is essential for mastering routing concepts. Labs include configuring OSPF in multi-area topologies, implementing EIGRP with unequal-cost load balancing, establishing BGP sessions with route filtering, and configuring IPv6 routing. Practical exercises reinforce theoretical knowledge and prepare learners for the ROUTE exam.

Introduction to Advanced Routing

Advanced routing involves understanding how multiple routing protocols interact in complex enterprise networks. It requires knowledge of redistribution, policy-based routing, route maps, and advanced metrics. These concepts ensure that large networks operate efficiently and are scalable.

Advanced routing also focuses on network optimization. Proper configuration of routing protocols reduces convergence time and prevents routing loops. Network engineers must carefully plan protocol design, area assignments, and route filtering policies.

Route Redistribution

Route redistribution is the process of sharing routes between different routing protocols. It is necessary when an organization uses OSPF, EIGRP, and BGP simultaneously. Without proper redistribution, traffic may not reach all parts of the network.

Redistribution requires careful metric assignment. Each protocol uses its own metric system, and improper redistribution can cause routing loops or suboptimal paths. Administrative distance also plays a critical role in route selection when multiple protocols advertise the same destination.

Configuring Route Redistribution

To configure route redistribution, network engineers must first identify the source and destination protocols. For example, redistributing OSPF routes into EIGRP requires specifying a metric for EIGRP. Similarly, redistributing EIGRP into OSPF involves mapping EIGRP metrics to OSPF cost.

Route maps are often used with redistribution to control which routes are advertised. This allows selective redistribution and prevents unwanted routes from propagating. Verification commands include show ip route, show ip protocols, and show ip route ospf to confirm redistribution behavior.

Troubleshooting Redistribution

Troubleshooting redistribution involves verifying route propagation, checking for loops, and confirming metric assignments. Common issues include missing routes, incorrect metric mapping, and misconfigured route maps. Debug commands and protocol-specific verification are critical for identifying problems.

Policy-Based Routing (PBR)

Overview of Policy-Based Routing

Policy-Based Routing allows traffic to follow specific paths based on defined policies rather than default routing metrics. PBR is useful for traffic engineering, controlling bandwidth usage, and implementing security policies.

PBR uses route maps applied to interfaces to match traffic based on source IP, destination IP, or protocol type. This traffic is then forwarded to a specific next hop. PBR is commonly used in WAN networks to control traffic flows between sites.

Configuring PBR

To configure PBR, a route map is defined with match and set commands. The match command specifies which traffic will be affected, while the set command determines the next hop or interface. The route map is applied to an interface in the inbound or outbound direction.

Verification involves checking routing table changes, using show route-map, and testing connectivity with ping or traceroute. Proper monitoring ensures that traffic follows the intended paths.

Troubleshooting PBR

Troubleshooting PBR requires examining the route map logic, interface application, and matching criteria. Common issues include incorrect matches, misapplied route maps, and conflicts with standard routing protocols. Simulation tools and packet tracing help identify and resolve these problems.

WAN Routing

Introduction to WAN Routing

Wide Area Network (WAN) routing involves connecting geographically dispersed networks. It includes understanding technologies such as MPLS, Metro Ethernet, Frame Relay, and VPNs. WAN routing often relies on BGP for inter-domain connectivity.

WAN design considerations include redundancy, failover, load balancing, and security. Proper WAN routing ensures minimal latency and reliable connectivity between sites. Engineers must consider link costs, bandwidth limitations, and traffic patterns.

BGP for WAN Connectivity

BGP is the standard protocol for WAN routing between autonomous systems. Configuring BGP for WAN requires defining AS numbers, establishing neighbor sessions, and applying routing policies.

Advanced BGP features include route filtering, AS-path prepending, and local preference manipulation. These features allow control over traffic ingress and egress, optimizing WAN performance and ensuring policy compliance.

OSPF and EIGRP in WAN Networks

OSPF and EIGRP can also be used for WAN routing in certain scenarios. OSPF multi-area design ensures scalability across large networks, while EIGRP supports unequal-cost load balancing. Engineers must carefully plan area boundaries, summarization, and route redistribution to prevent routing loops.

Troubleshooting WAN Routing

WAN routing troubleshooting involves analyzing protocol behavior, examining routing tables, and verifying connectivity. Common issues include neighbor session failures, route filtering errors, and misapplied policies. Tools like ping, traceroute, and protocol-specific commands are essential for diagnosis.

IPv6 Advanced Routing

IPv6 Route Redistribution

IPv6 networks often run multiple routing protocols, requiring redistribution similar to IPv4. Configuring redistribution between OSPFv3, EIGRP for IPv6, and BGP for IPv6 requires understanding of protocol metrics and route maps. Verification ensures routes propagate correctly across the IPv6 network.

IPv6 Policy-Based Routing

Policy-Based Routing for IPv6 functions similarly to IPv4 PBR. Route maps match IPv6 traffic based on source or destination addresses and direct it to specific next hops. This is useful for managing traffic flows in IPv6-enabled WANs and enterprise networks.

IPv6 Troubleshooting

IPv6 troubleshooting involves verifying neighbor discovery, routing tables, and protocol operation. Common issues include incorrect interface configuration, missing router advertisements, and misconfigured route maps. Tools like ping ipv6 and traceroute ipv6 assist in diagnostics.

Route Filtering

Introduction to Route Filtering

Route filtering controls which routes are advertised or accepted by a router. Filtering prevents unnecessary or harmful routes from propagating and ensures network stability. Filters are applied using prefix lists, distribute lists, and route maps.

Prefix Lists

Prefix lists are used to match IP prefixes for filtering purposes. They can permit or deny specific routes during redistribution or BGP advertisement. Proper use of prefix lists enhances network security and routing efficiency.

Distribute Lists

Distribute lists filter routes entering or leaving a routing protocol. They are applied to interfaces or protocol processes to control route propagation. Distribute lists work with access lists or prefix lists for precise filtering.

Route Maps for Filtering

Route maps provide flexible filtering and manipulation of routes. They allow conditional redistribution, route modification, and policy enforcement. Route maps are essential for complex multi-protocol networks and WAN designs.

Troubleshooting Route Filtering

Troubleshooting route filtering involves verifying the effectiveness of filters, checking routing tables, and ensuring no valid routes are unintentionally blocked. Debugging and verification commands help ensure intended behavior.

Advanced Troubleshooting Techniques

Systematic Troubleshooting

Effective troubleshooting requires a systematic approach. Identify the problem, gather information, isolate the issue, implement a solution, and verify results. A structured method reduces downtime and ensures accurate resolution.

Protocol-Specific Troubleshooting

Each routing protocol has unique troubleshooting considerations. OSPF requires checking neighbor states and LSDB synchronization. EIGRP requires verifying topology table entries and DUAL calculations. BGP requires examining peer relationships and route advertisements.

Multi-Protocol Troubleshooting

Networks running multiple protocols face complex issues like routing loops, suboptimal paths, and redistribution errors. Engineers must analyze routing tables, protocol interactions, and policy applications to resolve problems effectively.

Tools for Troubleshooting

Cisco IOS provides commands such as show ip route, show ip protocols, debug ip routing, and protocol-specific debugging. Packet capture and simulation tools also help analyze traffic flows and protocol behavior.

Hands-On Labs

Lab 1: Route Redistribution

Configure redistribution between OSPF and EIGRP, including metric assignment and route maps. Verify routes propagate correctly and troubleshoot any loops or missing routes.

Lab 2: Policy-Based Routing

Implement PBR to control traffic flows in a multi-site network. Match traffic based on source IP and direct it to a specific WAN link. Verify routing behavior and troubleshoot mismatches.

Lab 3: WAN Routing

Configure BGP between two autonomous systems, apply route filtering, and manipulate path selection with local preference and AS-path prepending. Verify WAN connectivity and redundancy.

Lab 4: IPv6 Advanced Routing

Implement OSPFv3 and EIGRP for IPv6 in a multi-area network. Configure redistribution and route filtering. Verify IPv6 connectivity and troubleshoot issues.

Lab 5: Advanced Troubleshooting

Simulate routing failures, misconfigurations, and policy conflicts. Use verification and debugging tools to identify and resolve issues systematically.

Introduction to Routing Security

Routing security ensures that only trusted and valid routing information is propagated within and between networks. Without security measures, networks are vulnerable to attacks such as route hijacking, spoofing, or denial-of-service attacks. Cisco routers offer multiple security mechanisms to protect routing protocols.

Authentication in Routing Protocols

Authentication ensures that only authorized routers exchange routing updates. OSPF supports plain-text and MD5 authentication. MD5 is preferred because it provides stronger security and prevents tampering of routing information. EIGRP and BGP also support authentication using MD5 keys. Configuring authentication involves setting a key and enabling it on the appropriate interfaces or peer connections.

Securing BGP

BGP is particularly vulnerable to attacks due to its inter-domain nature. Common security measures include prefix filtering, route maps, TTL security, and authentication. Prefix filtering prevents advertisement of invalid routes. TTL security limits the scope of BGP sessions to directly connected peers. Authentication ensures that only trusted neighbors can establish sessions.

Securing OSPF and EIGRP

OSPF security involves configuring authentication per area or interface. EIGRP security uses key-chains for MD5 authentication, which prevents unauthorized routers from injecting routes. Regular verification of neighbor relationships and LSDB consistency helps detect potential security breaches.

Monitoring and Logging

Security monitoring and logging are essential for detecting attacks or misconfigurations. Commands like show ip ospf neighbor, show ip eigrp neighbors, and show ip bgp summary help monitor protocol health. Syslog servers and SNMP monitoring can track anomalies in routing behavior.

Advanced BGP Techniques

Introduction to Advanced BGP

BGP provides extensive control over routing between autonomous systems. Advanced BGP techniques include route reflection, confederations, community attributes, and policy-based route manipulation. These features are essential in large-scale enterprise and ISP networks.

BGP Route Filtering

Route filtering in BGP ensures only intended prefixes are advertised or accepted. Tools for filtering include prefix lists, route maps, and AS-path filters. Proper route filtering prevents routing loops, route leaks, and policy violations.

BGP Route Maps

Route maps in BGP allow granular control of route advertisements. They enable conditional route modification, policy enforcement, and traffic engineering. Route maps can manipulate attributes such as weight, local preference, MED, and next-hop.

BGP Communities

BGP communities allow tagging of routes to influence routing policies across multiple autonomous systems. They provide a scalable method for managing traffic flows and applying consistent policies without manually modifying each route.

Route Reflection and Confederations

Route reflection and confederations simplify BGP design in large networks. Route reflectors reduce the need for full-mesh peerings by reflecting routes to clients. Confederations divide a large AS into smaller sub-ASs, reducing BGP complexity while maintaining a single logical AS for external peers.

BGP Troubleshooting

BGP troubleshooting requires verifying peer status, route advertisements, and policy application. Common problems include TCP session failures, misconfigured route maps, and AS-path issues. Commands like show ip bgp summary, show ip bgp, and debug ip bgp are essential for diagnosing problems.

Network Optimization

Introduction to Network Optimization

Network optimization ensures efficient routing, minimal latency, and reliable traffic flow. Optimization involves analyzing routing tables, protocol behavior, and traffic patterns to identify and correct inefficiencies.

OSPF Optimization

OSPF optimization involves proper area design, summarization, and tuning of timers. Summarization reduces routing table size and LSDB overhead. Adjusting hello and dead timers can improve convergence without affecting stability.

EIGRP Optimization

EIGRP optimization uses metric tuning, variance for unequal-cost load balancing, and summarization. Adjusting bandwidth and delay values influences path selection. Proper summarization reduces routing table size and enhances performance.

BGP Optimization

BGP optimization includes attribute manipulation, route filtering, and path selection policies. Adjusting local preference, weight, and MED directs traffic along optimal paths. Community tags can enforce consistent routing policies across multiple sites.

IPv6 Optimization

IPv6 networks benefit from similar optimization techniques. Proper address planning, route summarization, and protocol-specific tuning enhance efficiency. OSPFv3 and EIGRP for IPv6 should be configured carefully to minimize LSDB size and improve convergence.

WAN Optimization

WAN optimization focuses on reducing latency and ensuring efficient traffic flow between sites. Techniques include selecting optimal paths, load balancing, and implementing redundancy. MPLS, Metro Ethernet, and VPNs require careful planning to optimize routing performance.

High Availability in Routing

Introduction to High Availability

High availability ensures continuous network operation even during failures. Routing protocols offer multiple mechanisms to maintain connectivity in case of link or device failure. High availability is critical for enterprise networks where downtime has significant impact.

Redundancy with OSPF

OSPF supports redundancy through multiple paths and area design. Backup designated routers (BDRs) provide failover if the primary DR fails. Equal-cost multipath (ECMP) allows traffic distribution across multiple paths.

Redundancy with EIGRP

EIGRP provides fast convergence and supports unequal-cost load balancing using variance. Feasible successors in the topology table act as backup routes in case the primary path fails. Proper metric configuration ensures seamless failover.

Redundancy with BGP

BGP supports redundancy using multiple peerings, route filtering, and attribute manipulation. AS-path prepending and local preference help control failover behavior. Backup peers ensure continued connectivity if the primary session fails.

Redundancy in IPv6 Networks

IPv6 supports redundancy through OSPFv3, EIGRP for IPv6, and BGP. Backup routes and multiple paths provide high availability. Careful design prevents routing loops and ensures quick convergence during failures.

Monitoring High Availability

Monitoring tools track neighbor relationships, routing tables, and protocol events. Regular testing of failover scenarios ensures network resilience. Commands like show ip route, show ip protocols, and protocol-specific neighbor checks are essential for verification.

Exam Preparation Strategies

Understanding the Exam

The Cisco 300-101 ROUTE exam tests knowledge of routing protocols, multi-protocol integration, troubleshooting, and advanced features. It includes configuration, verification, and scenario-based questions. Understanding exam objectives and focusing on hands-on practice is critical.

Study Plan

A structured study plan ensures coverage of all exam topics. Allocate time for theory, lab practice, and troubleshooting exercises. Review official Cisco exam blueprints and documentation to identify areas requiring more focus.

Hands-On Practice

Hands-on practice is essential for success. Configure OSPF, EIGRP, BGP, IPv6, route redistribution, and policy-based routing in lab environments. Practice troubleshooting and verifying network behavior using Cisco IOS commands and simulation tools.

Time Management

During the exam, effective time management is crucial. Allocate time for configuration, verification, and scenario analysis. Avoid spending too long on a single question and prioritize questions with higher weight or complexity.

Common Pitfalls

Common pitfalls include misconfiguring routing protocols, incorrect route redistribution, and improper attribute manipulation. Review lab exercises, verify configurations, and double-check commands to avoid these errors.

Mock Exams

Taking mock exams helps simulate real exam conditions. Analyze incorrect answers, identify knowledge gaps, and revisit topics as needed. Mock exams improve speed, accuracy, and confidence.

Hands-On Labs

Lab 1: Advanced BGP Configuration

Configure BGP with route maps, communities, and AS-path manipulation. Test failover and verify route selection using multiple peers. Troubleshoot session failures and misconfigured policies.

Lab 2: High Availability OSPF

Implement OSPF with multiple areas and backup DR/BDR configuration. Test link failures and verify seamless failover using ping and traceroute.

Lab 3: EIGRP Optimization

Configure EIGRP with unequal-cost load balancing, variance, and summarization. Test convergence and verify routing efficiency across multiple paths.

Lab 4: IPv6 Advanced Labs

Configure OSPFv3, EIGRP for IPv6, and BGP for IPv6 in a multi-area, multi-AS topology. Implement route redistribution, route filtering, and failover scenarios.

Lab 5: Exam Simulation

Simulate real exam scenarios with combined routing protocols, redistribution, security, and optimization tasks. Verify configurations and troubleshoot all issues to reinforce exam readiness.

Prepaway's 300-101: CCNP Implementing Cisco IP Routing (ROUTE v2.0) video training course for passing certification exams is the only solution which you need.