MikroTik Certified Internet Protocol v6 Engineer (MTCIPv6E)
1 Introduction to IPv6
1-1 History and Evolution of IPv6
1-2 IPv6 Addressing
1-3 IPv6 Header Structure
1-4 IPv6 Address Types
1-5 IPv6 Address Representation
2 IPv6 Addressing and Subnetting
2-1 IPv6 Addressing Architecture
2-2 IPv6 Subnetting
2-3 IPv6 Prefix Lengths
2-4 IPv6 Address Allocation
2-5 IPv6 Address Autoconfiguration
3 IPv6 Routing
3-1 IPv6 Routing Protocols
3-2 IPv6 Routing Tables
3-3 IPv6 Static Routing
3-4 IPv6 Dynamic Routing
3-5 IPv6 Routing Policies
4 IPv6 Transition Mechanisms
4-1 Dual Stack
4-2 Tunneling
4-3 NAT64 and DNS64
4-4 6to4 and 6in4 Tunneling
4-5 ISATAP
5 IPv6 Security
5-1 IPv6 Security Challenges
5-2 IPv6 Security Features
5-3 IPv6 Firewall Configuration
5-4 IPv6 Access Control Lists (ACLs)
5-5 IPv6 Security Best Practices
6 IPv6 Quality of Service (QoS)
6-1 IPv6 QoS Overview
6-2 IPv6 QoS Mechanisms
6-3 IPv6 Traffic Shaping
6-4 IPv6 Policing
6-5 IPv6 QoS Configuration
7 IPv6 Network Management
7-1 IPv6 Network Monitoring
7-2 IPv6 Network Troubleshooting
7-3 IPv6 Network Performance Optimization
7-4 IPv6 Network Documentation
7-5 IPv6 Network Automation
8 IPv6 in MikroTik Routers
8-1 MikroTik RouterOS IPv6 Overview
8-2 IPv6 Configuration on MikroTik Routers
8-3 IPv6 Routing on MikroTik Routers
8-4 IPv6 Security on MikroTik Routers
8-5 IPv6 QoS on MikroTik Routers
8-6 IPv6 Network Management on MikroTik Routers
9 IPv6 Case Studies
9-1 IPv6 Deployment in Enterprise Networks
9-2 IPv6 Deployment in Service Provider Networks
9-3 IPv6 Deployment in Mobile Networks
9-4 IPv6 Deployment in IoT Networks
9-5 IPv6 Deployment in Cloud Networks
10 IPv6 Certification Exam Preparation
10-1 Exam Objectives
10-2 Exam Format
10-3 Exam Preparation Tips
10-4 Practice Questions
10-5 Certification Exam Registration
IPv6 Routing Protocols Explained

IPv6 Routing Protocols Explained

IPv6 routing protocols are essential for enabling communication between different networks. Understanding these protocols is crucial for configuring and managing IPv6 networks effectively. This webpage will delve into three key IPv6 routing protocols: RIPng, OSPFv3, and BGP4+.

1. RIPng (Routing Information Protocol next generation)

RIPng is an extension of the RIP protocol designed for IPv6 networks. It uses distance-vector routing to determine the best path for data packets. RIPng operates on UDP port 521 and uses hop count as its metric.

Example: In a small network with three routers, RIPng can be used to share routing information between them. Each router broadcasts its routing table to its neighbors, and based on the hop count, the best path is determined.

2. OSPFv3 (Open Shortest Path First version 3)

OSPFv3 is the IPv6 version of the OSPF protocol, which uses link-state routing. It is more complex than RIPng but provides more accurate and efficient routing. OSPFv3 operates on IP protocol 89 and uses cost as its metric, which is based on the bandwidth of the link.

Example: In a large enterprise network, OSPFv3 can be used to create a hierarchical routing structure. The network is divided into areas, and each area shares its link-state information with other areas. This allows for more efficient routing and better scalability.

3. BGP4+ (Border Gateway Protocol version 4+) / BGP-IPv6

BGP4+ is the IPv6 version of the BGP protocol, which is used for routing between different autonomous systems (AS). BGP4+ is a path-vector protocol that uses policy-based routing to determine the best path for data packets. It operates on TCP port 179.

Example: In an ISP network, BGP4+ can be used to route traffic between different ISPs. Each ISP advertises its routes to other ISPs, and based on policies and path attributes, the best path for data packets is determined.

Understanding these IPv6 routing protocols is essential for designing and managing efficient and scalable IPv6 networks. Each protocol has its strengths and is suited for different network environments, making them indispensable tools for network engineers.