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
6-3 IPv6 Traffic Shaping Explained

6-3 IPv6 Traffic Shaping Explained

IPv6 Traffic Shaping is a technique used to manage and control the flow of IPv6 traffic within a network. This method ensures that network resources are used efficiently and that critical applications receive the necessary bandwidth. Understanding IPv6 Traffic Shaping is essential for network engineers to optimize network performance and ensure quality of service (QoS).

Key Concepts

1. Traffic Shaping

Traffic Shaping involves regulating the rate at which traffic is sent or received. This is achieved by delaying packets that exceed a specified rate, ensuring that the overall traffic flow remains within acceptable limits.

Example: In a corporate network, Traffic Shaping can be used to ensure that VoIP traffic receives priority over file transfers. By shaping the traffic, the network can guarantee that VoIP calls maintain high quality, even during peak usage times.

2. Queuing Mechanisms

Queuing mechanisms are used to manage the order in which packets are processed. Common queuing methods include FIFO (First In, First Out), PQ (Priority Queuing), and CBQ (Class-Based Queuing). These mechanisms help in prioritizing critical traffic and ensuring fair distribution of bandwidth.

Example: In a university network, PQ can be configured to prioritize academic resources over recreational traffic. This ensures that students and faculty have reliable access to essential services, such as online learning platforms.

3. Bandwidth Allocation

Bandwidth Allocation involves distributing available bandwidth among different types of traffic. This ensures that each type of traffic receives an appropriate share of the available bandwidth, preventing any single type of traffic from monopolizing the network.

Example: In a hospital network, bandwidth can be allocated to ensure that patient monitoring systems receive a dedicated portion of the bandwidth, while administrative tasks share the remaining bandwidth. This ensures that critical medical services are not disrupted by other network activities.

4. Policing

Policing is a technique used to enforce traffic policies by monitoring and controlling the rate of traffic. If traffic exceeds the specified rate, it is either dropped or marked for lower priority, ensuring that the network remains within predefined limits.

Example: In a retail network, policing can be used to limit the bandwidth used by point-of-sale (POS) systems during peak shopping hours. This ensures that the network can handle the increased traffic without compromising the performance of critical systems.

5. DSCP Marking

Differentiated Services Code Point (DSCP) Marking is used to classify and prioritize traffic based on its importance. By marking packets with specific DSCP values, routers can apply appropriate queuing and forwarding policies, ensuring that critical traffic receives the necessary priority.

Example: In a financial institution, DSCP marking can be used to prioritize transactions over other types of traffic. This ensures that financial transactions are processed quickly and reliably, maintaining the integrity of the financial system.

Understanding these IPv6 Traffic Shaping concepts is crucial for network engineers to optimize network performance and ensure quality of service. By implementing Traffic Shaping, Queuing Mechanisms, Bandwidth Allocation, Policing, and DSCP Marking, network administrators can enhance the efficiency and reliability of their IPv6 networks.