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==Introduction==

Mesh networking is a revolutionary approach to wireless connectivity, offering numerous benefits that make it increasingly popular in various applications. At its core, mesh networking involves interconnected nodes that communicate with each other to create a network. Here's why it's used and why it's so valuable:
1. Flexibility and Scalability: Mesh networks are adaptable and can scale easily based on requirements.
2. Redundancy and Reliability: Multiple paths for data transmission enhance reliability and ensure uninterrupted connectivity.
3. Coverage and Range Extension: Nodes relay signals to extend coverage over a wide area, overcoming obstacles like walls and terrain.
4. Self-Healing and Self-Organizing: Mesh networks dynamically adjust routes to maintain connectivity, even if nodes go offline or new nodes join.
5. Cost-Effectiveness: Mesh networks can be more cost-effective than traditional infrastructure deployments, reducing installation and maintenance costs.
6. Ad Hoc and Temporary Deployments: Suitable for quick deployments in scenarios like outdoor events, disaster recovery, or construction sites.
7. IoT and Smart Home Applications: Mesh networks efficiently connect and manage IoT devices and smart home systems, supporting diverse connectivity requirements without compromising performance.
Overall, mesh networking represents a versatile and robust solution for wireless connectivity, offering unparalleled flexibility, reliability, and scalability across a wide range of applications. As technology continues to evolve, mesh networks are poised to play an increasingly essential role in powering the connected world of tomorrow.
==Prerequisites==
Configuring a wireless mesh network with Teltonika devices is straightforward and requires just a few steps, which can be replicated across multiple devices. The number of devices needed depends on the specific use case, but the setup provided can be effortlessly expanded to accommodate many devices. In the example below, we will utilize RUTX50 as the node with mobile internet connectivity, serving as the mesh gateway and DHCP server. The access points (TAP100 and TAP200) will function as mesh nodes.

Note: Ensure that the firmware version of the Access Points (TAP100 and TAP200) is 00.07.07.1 or later, as the TAP functionality was not available in versions prior to this.


==Topology==
[[File:TAP MESH NETWORK MODEL.jpg|border|class=tlt-border]]
The test configuration utilizes the RUTX50 router along with the TAP100 and TAP200 access points. The RUTX50 unit is connected to the internet via mobile internet connectivity, although other connection types are feasible. After proper setup, all mesh devices should establish communication among themselves via wireless mesh, directly or through other devices in the mesh network. This enables an expansion of the Wi-Fi coverage radius.
Configration
If you're having trouble finding this page or some of the parameters described here on your device's WebUI, you should turn on "Advanced WebUI" mode. You can do that by clicking the "Advanced" button, located at the top of the WebUI.

==Configuration==
{{Template:Networking_rutos_manual_basic_advanced_webui_disclaimer
| series = RUTX
}}
===Mesh gateway===
This router requires internet access. The specified settings should be activated by default.
# Open router’s '''WebUI → Network → LAN.'''
# Press the pencil icon on the LAN interface.
# In General Settings tab select Protocol as Static.
# Set IPv4 address and Subnet Mask.
# Please activate DHCP. Adjust DHCP limit and lease time according to your specifications, leaving other settings at their default values if desired.