MikroTik Certified Wireless Engineer (MTCWE)
1 Introduction to MikroTik Wireless
1-1 Overview of MikroTik Wireless Products
1-2 MikroTik Wireless Standards and Technologies
1-3 MikroTik Wireless Network Architecture
1-4 MikroTik Wireless Security Concepts
2 MikroTik Wireless Devices
2-1 MikroTik Wireless Access Points (APs)
2-2 MikroTik Wireless Bridges
2-3 MikroTik Wireless Routers
2-4 MikroTik Wireless Client Devices
3 MikroTik Wireless Configuration
3-1 Basic Wireless Configuration
3-2 Advanced Wireless Configuration
3-3 Wireless Channel and Power Settings
3-4 Wireless Network Profiles
4 MikroTik Wireless Security
4-1 Wireless Encryption Protocols
4-2 Wireless Authentication Methods
4-3 Wireless Access Control
4-4 Wireless Intrusion Detection and Prevention
5 MikroTik Wireless Performance Optimization
5-1 Wireless Signal Strength and Quality
5-2 Wireless Channel Optimization
5-3 Wireless Load Balancing
5-4 Wireless QoS (Quality of Service)
6 MikroTik Wireless Troubleshooting
6-1 Common Wireless Issues
6-2 Wireless Network Diagnostics
6-3 Wireless Performance Monitoring
6-4 Wireless Problem Resolution
7 MikroTik Wireless Deployment Scenarios
7-1 Wireless LAN (WLAN) Deployment
7-2 Wireless Mesh Network Deployment
7-3 Wireless Point-to-Point (PTP) Deployment
7-4 Wireless Point-to-Multipoint (PTMP) Deployment
8 MikroTik Wireless Management
8-1 MikroTik Wireless Device Management
8-2 MikroTik Wireless Network Management
8-3 MikroTik Wireless Monitoring Tools
8-4 MikroTik Wireless Reporting and Analytics
9 MikroTik Wireless Integration
9-1 Integrating MikroTik Wireless with Other Networks
9-2 MikroTik Wireless and VPN Integration
9-3 MikroTik Wireless and SD-WAN Integration
9-4 MikroTik Wireless and IoT Integration
10 MikroTik Wireless Certification Exam Preparation
10-1 Exam Objectives and Structure
10-2 Sample Exam Questions
10-3 Study Resources and Tips
10-4 Certification Exam Registration and Scheduling
7.2 Wireless Mesh Network Deployment Explained

7.2 Wireless Mesh Network Deployment Explained

Key Concepts

Understanding Wireless Mesh Network Deployment involves grasping several key concepts:

Mesh Topology

Mesh Topology is a network structure where each node (device) is connected to multiple other nodes. This creates multiple paths for data to travel, enhancing reliability and redundancy. In a mesh network, data can reach its destination through various routes, ensuring continuous connectivity even if some nodes fail.

Example: Think of a mesh topology as a spider web. Each strand (node) is connected to multiple other strands, creating a complex network. If one strand breaks (node failure), the spider (data) can still reach its destination by following other strands.

Mesh Nodes

Mesh Nodes are the individual devices that form the mesh network. These nodes can be routers, access points, or other wireless devices. Each node acts as both a client and a relay, forwarding data to other nodes until it reaches its destination. This decentralized structure enhances network resilience and coverage.

Example: Consider mesh nodes as volunteers in a relay race. Each volunteer (node) not only runs their part of the race (connects to the network) but also passes the baton (data) to the next volunteer, ensuring the race (data transmission) continues smoothly.

Routing Protocols

Routing Protocols in mesh networks determine the best path for data to travel from source to destination. These protocols dynamically adjust routes based on network conditions, such as signal strength, congestion, and node availability. Common routing protocols for mesh networks include OLSR (Optimized Link State Routing) and B.A.T.M.A.N. (Better Approach To Mobile Ad-hoc Networking).

Example: Think of routing protocols as GPS navigation systems. The GPS (routing protocol) continuously monitors traffic (network conditions) and suggests the fastest route (best path) to reach your destination, adjusting as conditions change.

Self-Healing

Self-Healing is a feature of mesh networks where the network automatically adjusts and repairs itself in case of node failures or changes in network conditions. This is achieved through dynamic routing protocols that find alternative paths for data transmission. Self-healing ensures continuous network operation without manual intervention.

Example: Consider self-healing as a self-repairing bridge. If a section of the bridge (node) collapses, the bridge (network) automatically reroutes traffic (data) to other sections, ensuring continuous flow without needing human intervention.

Scalability

Scalability refers to the ability of a mesh network to grow and accommodate more nodes without degrading performance. In a scalable mesh network, adding new nodes increases network coverage and capacity, enhancing overall performance. This makes mesh networks ideal for large-scale deployments and environments where network expansion is expected.

Example: Think of scalability as a growing tree. As the tree (network) grows, it adds more branches (nodes), increasing its reach (coverage) and ability to support more leaves (devices). Each new branch enhances the tree's overall health and functionality.