MikroTik Certified Enterprise Wireless Engineer (MTCEWE)
1 Introduction to MikroTik Enterprise Wireless
2 Wireless Networking Fundamentals
1 Radio Frequency (RF) Basics
2 Wireless Standards and Protocols
3 Wireless Network Topologies
3 MikroTik Wireless Products
1 Overview of MikroTik Wireless Devices
2 MikroTik Wireless Access Points (APs)
3 MikroTik Wireless Routers
4 MikroTik Wireless Bridges
4 MikroTik Wireless Configuration
1 Basic Wireless Configuration
2 Advanced Wireless Configuration
3 Wireless Security Settings
4 Wireless Quality of Service (QoS)
5 MikroTik Wireless Management
1 Centralized Wireless Management
2 Wireless Site Surveys
3 Wireless Performance Monitoring
4 Wireless Troubleshooting
6 MikroTik Wireless Security
1 Wireless Encryption Protocols
2 Wireless Authentication Methods
3 Wireless Intrusion Detection and Prevention
4 Wireless Security Best Practices
7 MikroTik Wireless Integration
1 Integrating MikroTik Wireless with Other Networks
2 Wireless Mesh Networks
3 Wireless Guest Networks
4 Wireless IoT Integration
8 MikroTik Wireless Deployment Scenarios
1 Small OfficeHome Office (SOHO) Wireless Deployment
2 Enterprise Wireless Deployment
3 Outdoor Wireless Deployment
4 Wireless Hotspot Deployment
9 MikroTik Wireless Troubleshooting
1 Common Wireless Issues
2 Wireless Troubleshooting Tools
3 Wireless Performance Optimization
4 Wireless Interference Mitigation
10 MikroTik Wireless Certification Exam Preparation
1 Exam Objectives and Structure
2 Sample Exam Questions
3 Study Resources and Tips
4 Certification Exam Registration and Scheduling
MikroTik Wireless Integration

MikroTik Wireless Integration

MikroTik Wireless Integration involves combining various wireless technologies and features to create a cohesive and efficient wireless network. Below, we explore seven key concepts related to MikroTik Wireless Integration.

1. Wireless Mesh Networks

Wireless Mesh Networks are decentralized networks where each node (access point) can relay data to other nodes, creating a multi-hop network. This approach enhances coverage and reliability by allowing data to take multiple paths to reach its destination.

Example: In a large campus, deploying a wireless mesh network ensures that even remote areas receive strong Wi-Fi signals. If one access point fails, data can still reach its destination through alternative paths, maintaining network connectivity.

2. Wireless Distribution System (WDS)

Wireless Distribution System (WDS) allows multiple access points to communicate wirelessly, extending the network coverage without the need for additional cabling. WDS can be configured in bridge mode, repeater mode, or AP client mode.

Example: A retail store with multiple buildings can use WDS to connect all buildings wirelessly. This setup ensures seamless Wi-Fi coverage across the entire store, enhancing customer experience and operational efficiency.

3. Wireless Client Bridge

Wireless Client Bridge mode allows an access point to connect to another wireless network as a client, bridging the connection to a wired network. This is useful for extending wired network coverage to areas where cabling is impractical.

Example: In a rural area, a home can use a MikroTik access point in client bridge mode to connect to a distant Wi-Fi network, providing internet access to the entire household without the need for extensive cabling.

4. Wireless Repeater

Wireless Repeater mode amplifies and retransmits wireless signals, extending the range of the network. This is particularly useful in areas with weak signal strength or where the signal needs to penetrate physical barriers.

Example: A large warehouse with poor Wi-Fi coverage can deploy a MikroTik access point in repeater mode to boost the signal. This ensures that all areas of the warehouse have reliable Wi-Fi, improving productivity and connectivity.

5. Wireless Load Balancing

Wireless Load Balancing distributes client connections across multiple access points to optimize network performance and prevent overloading any single AP. This ensures consistent performance and reliability, even during peak usage times.

Example: In a busy office, wireless load balancing ensures that client devices are evenly distributed across available access points. This prevents any single AP from becoming a bottleneck, maintaining high network performance.

6. Wireless Roaming

Wireless Roaming allows client devices to seamlessly switch between access points as they move within the network coverage area. This ensures uninterrupted connectivity and a consistent user experience, even in large or multi-building environments.

Example: A university campus with multiple access points can implement wireless roaming. As students move between buildings, their devices automatically switch to the nearest AP, ensuring continuous internet access without manual intervention.

7. Wireless Backhaul

Wireless Backhaul refers to the use of wireless links to connect remote access points to the main network. This is particularly useful in scenarios where cabling is difficult or expensive, such as in rural areas or temporary setups.

Example: A remote village can use MikroTik access points with wireless backhaul to connect to a central internet source. This provides internet access to the entire village without the need for costly and complex cabling infrastructure.