Imagine a wireless network that doesn’t drop connections as you move across a large office, warehouse, or campus. That’s the promise of a mesh WiFi network—an architecture where multiple access points (APs) work together to blanket a space in uninterrupted connectivity. Unlike traditional networks relying on a single router, a mesh system distributes traffic intelligently, eliminating dead zones and bottlenecks.

Ubiquiti’s UniFi solution brings next-level coordination to mesh networking. Each UniFi access point communicates with the others through a dedicated backhaul or shared wireless link, creating a unified wireless fabric under a single SSID. The result? Devices roam freely between APs with minimal latency and no manual reconnection.

For businesses—especially those managing multiple floors, open-plan layouts, or multi-building sites—the scalability and performance of the UniFi mesh system deliver tangible advantages. From central management via the UniFi Network Controller to real-time traffic monitoring and zero-handoff roaming, UniFi ensures enterprise-grade coverage that scales with operational growth.

UniFi Hardware Requirements: Selecting the Right Gear for a High-Performance Mesh

Recommended UniFi Access Points for Mesh Setups

UniFi offers several access points designed specifically to support mesh networking. Among the standout models:

• UAP-AC-M: A WiFi 5, dual-band model equipped with external antennas. With its weather-resistant casing, the UAP-AC-M fits outdoor applications and rapidly-deployable topologies.
• U6-Mesh: A higher throughput unit leveraging WiFi 6 for better spatial stream handling, OFDMA-based efficiency, and stronger concurrent device performance.

The U6-Mesh also introduces more robust uplink communication, making it better suited where high-density or low-latency demands matter. Deployment flexibility increases with its compact cylindrical design and versatile mounting options.

WiFi 5 vs. WiFi 6 Models: What Changes?

WiFi 6 (802.11ax) models deliver tangible uplifts in both capacity and efficiency compared to WiFi 5 (802.11ac) units. The inclusion of OFDMA and Target Wake Time (TWT) allows for more simultaneous device support and power-saving capabilities, especially under load.

• WiFi 5: Higher raw throughput on 5 GHz, but less efficient in multi-user environments. UAP-AC-M falls in this category.
• WiFi 6: Prioritizes network efficiency, lower latency, and increased device density. The UniFi U6 models clearly lead here.

Choosing between them hinges on usage patterns—go WiFi 6 for high-density environments and future-proofing, stick with WiFi 5 for budget-limited, standard yield deployments.

PoE Switches and Ethernet Cabling: Foundation for Uptime

Access points in UniFi mesh networks rely on Power over Ethernet (PoE) to reduce cabling complexity and enable central power management. Models such as the USW-Lite-8-PoE or the USW-Pro series integrate seamlessly with UniFi controller software while delivering consistent PoE output.

Use CAT5e or CAT6 cables to guarantee Gigabit Ethernet speeds between devices. CAT6 offers better shielding and higher bandwidth headroom, especially for access links exceeding 30 meters or located near EMI sources.

Network Gateway and Firewall Hardware

Every UniFi mesh starts with a central gateway that directs external traffic and handles routing policies. Two dominant options include:

• UniFi Dream Machine (UDM/UDM-Pro): An all-in-one solution combining router, firewall, switch, access point, and controller. Ideal for setups seeking integrated administration with fewer devices.
• UniFi Security Gateway (USG): A compact router/firewall that pairs with external switches and access points. Better suited for customized or segmented networks where each function is distributed across separate hardware.

UDM variants also offer IDS/IPS capabilities without compromising throughput on gigabit lines. For SMBs or tech-heavy environments, this matters.

Designing an Effective UniFi Mesh Network Topology

Evaluating Your Site and Space Layout

Every successful mesh network design starts with a thorough evaluation of the physical environment. Before deploying any equipment, map the building layout — floors, walls (especially those made of concrete or metal), entryways, and outdoor areas. Look for potential RF barriers that can obstruct signal propagation. Use detailed floor plans or a site survey tool like UniFi Design Center to visualize coverage and dead zones. In multi-floor deployments, factor in vertical signal bleed-through when planning placement across stories.

Deciding Between Wired Backhaul vs Wireless Uplinks

Backhaul methods determine the performance ceiling of a UniFi mesh network. Where possible, use wired Ethernet backhauls between access points to guarantee maximum throughput and minimal latency. This configuration eliminates wireless interference and ensures consistent performance even during peak loads.

Alternatively, when Ethernet isn’t feasible, UniFi’s wireless uplinks allow Access Points (APs) to connect over-the-air. However, mesh uplinks consume part of the available spectrum, reducing effective bandwidth for clients. In throughput-sensitive environments — such as conference centers or hospitality venues — prioritizing wired links results in superior client experience.

Understanding Client Load Estimation

The number of client devices expected per area directly influences access point density. Start by categorizing usage zones: offices, open collaborative spaces, hallways, warehouses, etc. Estimate peak connection counts per AP based on the role:

• Heavy-load areas (auditoriums, classrooms): 50–60 clients per AP
• Standard office space: 30–40 clients per AP
• Warehouse or storage: 10–20 clients per AP

Use UniFi’s built-in analytics to monitor active clients over time after deployment, then fine-tune placement or add APs as needed.

Scalability Considerations: How Many Access Points Are Optimal?

Install only the number of APs required to deliver overlapping but not excessive coverage. Over-deploying causes co-channel interference and reduces spectral efficiency. Here’s a basic planning framework:

• Start with one AP per 1,500 to 2,000 square feet in low-density environments
• In client-dense environments, reduce coverage area per AP to 800–1,200 square feet
• Use dual-band APs to distribute clients across both 2.4GHz and 5GHz radios

Leave room for future node additions by utilizing UniFi’s mesh capability. A modular topology lets administrators dynamically expand Wi-Fi coverage without significant changes to backend infrastructure.

Optimizing Access Point Placement for Maximum Coverage

Signal Behavior: Factors That Weaken Wi-Fi Strength

Wi-Fi signal performance hinges on environmental variables and physical layout. Concrete walls, metal structures, and even glass partitions absorb or deflect radio waves, reducing effective coverage. A standard drywall attenuates signals by around 3 dB, while reinforced concrete can cause a loss of up to 15 dB. Elevation also matters—placing an access point too low, such as behind office furniture or equipment, will reduce its broadcast reach. Appliances and other electronic devices operating on 2.4 GHz, including microwave ovens and cordless phones, create interference and degrade throughput.

Visualizing Coverage with UniFi Design Center

The UniFi Design Center is a browser-based planning tool that simulates AP coverage in your actual floorplans. Upload a scaled map, identify the construction materials used in each wall, and drop access points onto the model. The simulation engine calculates signal heatmaps using real-world attenuation values and radio signal propagation patterns. This visual forecast shows coverage boundaries, dead zones, and overlapping areas between APs—allowing precise optimization before any cabling or drilling begins.

Indoor vs Outdoor Models: Choosing the Right AP

Environmental exposure drives the AP selection process. For controlled indoor spaces, models like the UniFi 6 Lite or UniFi 6 Pro provide high throughput and compact form factors. These units support MU-MIMO and OFDMA on Wi-Fi 6, handling more client devices simultaneously with lower latency. For outdoor areas or semi-exposed patios, look at weather-resistant options such as the UniFi Mesh U6 or UniFi AC Mesh Pro. These outdoor-rated units withstand rain, temperature swings, and UV exposure, with enclosures certified up to IP67.

Strategic Placement in High-Density Zones

Dense environments demand thoughtful layout. Lobbies, auditoriums, and conference rooms often experience bursts of high client load. In these zones:

• Mount APs at ceiling height to reduce obstacles and ensure line-of-sight with devices below.
• Stagger channels between access points to limit co-channel interference—use UniFi’s Auto Channel Optimization tool to streamline this process.
• Position APs roughly every 8–12 meters when using 5 GHz for reliable throughput, accounting for signal drop-off and user density.
• In multi-floor buildings, avoid vertical stacking of access points to minimize channel overlap between floors.

Think about how people interact with space: in a conference room with 50 attendees, a ceiling-mounted 6E AP will outperform a wall-mounted unit. Have you considered traffic flow? Spaces like hallways and entry points benefit from directional antennas that focus signal strength toward active zones, not spread it loosely in all directions.

UniFi Controller Software Setup

Installing the UniFi Network Application

Begin by selecting your preferred installation method: locally hosted or through a UniFi Cloud Key. Local installations suit desktops and servers, offering complete control over the environment. Use Windows, macOS, or Linux—deb or rpm distributions—to run the controller software. For headless systems, Linux command-line installation works efficiently.

The Cloud Key Gen2 Plus and Cloud Key Gen2 streamline network orchestration with integrated applications and centralized backups. Insert it into your network, connect via the UniFi Network mobile app or browser interface, and complete setup in minutes.

Cloud Management with UniFi OS Consoles

If you're deploying a UniFi Dream Machine Pro (UDM-Pro), Dream Router, or Cloud Key Plus, these devices run UniFi OS natively. This operating system provides gateway, controller, and advanced threat management features from a single interface. After initial boot, access the console by entering its IP address in your browser or scanning for it in the UniFi mobile app.

The UniFi OS dashboard unifies device management across Protect, Access, and Network applications. Navigate to the Network tab to configure your mesh architecture.

Walking Through the Setup Wizard

The first-time setup wizard guides you through time zone, admin credentials, and site configuration. It prompts firmware updates, scans for unadopted devices, and allows you to define WiFi names (SSIDs), passwords, and basic networking settings.

Customizable options include:

• Site Name – Define the identifier used across all connected devices
• Timezone and Region Settings – Ensure correct wireless operation based on band regulations
• Device Adoption Mode – Choose between auto-adoption or manual approval
• Cloud Access – Link to your Ubiquiti account for remote management

Accessing the Controller Interface

Whether you've installed the UniFi Network Application on a local device or activated it through a UniFi OS Console, access the interface in two primary ways:

• Web Browser – Enter the IP address (e.g., 192.168.1.1) or use https://unifi.ui.com to access via the cloud
• UniFi Mobile App – Install from App Store or Google Play, log in with your Ubiquiti ID, and control your network from anywhere

Looking to manage a multi-site deployment? The controller handles multiple sites with isolated configurations under a single user interface.

Streamlining Device Adoption and Provisioning in Your UniFi Mesh Network

Adopting Access Points Into the UniFi Network

Before any AP becomes part of your mesh network, it must be adopted into the UniFi ecosystem using the UniFi Network Controller. This process binds the device to the controller, allowing centralized configuration, firmware management, and live monitoring.

Once the AP is powered and connected—either via Ethernet or wirelessly—you'll find it listed in the controller under the Devices tab with a “Pending Adoption” status. Adoption requires that the controller and the AP are on the same Layer 2 network unless Layer 3 adoption is configured.

Click Adopt next to the relevant device. If the AP has previously been part of another UniFi installation, a "Factory Reset" will be required before it can be adopted.

Assigning Locations or Sites for Multi-Site Management

UniFi’s multi-site feature allows networks in different geographical locations or business units to be managed from a single controller. Each “site” maintains its own unique topology, settings, and device groupings.

To configure this, navigate to Settings > System > Site. Create a new site, then during device adoption, select the appropriate site from the site selector in the top-left corner of the interface. Devices adopted into a site remain siloed from others unless moved manually.

Use site grouping to streamline large-scale support and keep data organized—especially useful in franchise environments or campus deployments.

Understanding the Provisioning and Update Process

Provisioning occurs after device adoption and anytime configuration changes are applied. During this phase, the controller pushes settings—such as SSID, network VLANs, or radio transmit power—to the AP.

Provisioning is indicated by a blue flashing LED on the device. In the controller, the status reads “Provisioning…” and typically completes within 1–3 minutes, depending on network traffic and AP firmware version.

Firmware upgrades follow a similar flow. Initiate them manually or through automatic schedules under Settings > System > Maintenance. Once installed, the AP reboots and re-registers with the controller.

Common Issues During Adoption and How to Resolve Them

• Adoption Timeout: Typically caused by firewalls or incompatible VLANs. Ensure UDP ports 3478 and TCP ports 8080 and 8443 are open between the AP and controller.
• Device Unreachable: Confirm that the AP is powered, the PoE injector (if used) is functional, and that no IP conflicts exist on the DHCP scope.
• Previously Managed Device: Devices previously registered to another controller must be reset. Hold the reset button for 10 seconds until the LED flashes white.
• L3 Adoption Challenges: Use the UniFi Device Discovery Tool or set the “inform” URL via SSH using set-inform http://[controller-IP]:8080/inform.

Understanding each part of the adoption and provisioning process eliminates downtime and ensures new devices integrate seamlessly into your mesh network.

Configuring Wireless Uplinks in a Mesh Setup

Auto Uplink vs Manual Meshing Options

UniFi access points (APs) in a mesh topology rely on uplinks — the connections that deliver data back to the wired LAN or other APs. When adopting new wireless APs into an existing mesh, UniFi offers two methods for establishing uplinks: auto uplink and manual meshing.

• Auto Uplink: This default behavior assigns wireless uplinks based on signal strength, link speed, and quality. Access points evaluate available neighbors and automatically select the optimal parent AP for forwarding traffic.
• Manual Meshing: Admins can override automatic behavior by designating specific uplink APs under "Mesh Settings" in the UniFi Network Controller. This allows precise control of the mesh topology, especially useful in high-density, multi-AP environments.

For environments with dynamic wireless conditions or frequent changes in layout, auto uplink reduces manual overhead. However, in statically designed deployments with predictable RF paths, manual meshing enforces consistency.

Best Practices for Setting Uplink Priority

The UniFi Controller allows per-AP uplink priority settings to influence how an AP selects its preferred parent within the mesh. Implementing a structured priority strategy improves performance and reduces the likelihood of suboptimal wireless hops.

• Assign highest priority to wired APs, as they provide direct LAN access.
• Set secondary priority to APs with the least number of child clients, preventing bottlenecked upstream channels.
• In dense installations, maintain no more than two wireless hops between client and gateway.

After adjusting uplink priority, force a network refresh to prompt recalculation of mesh paths. Observe topology changes in the Controller’s Map view for confirmation.

Diagnosing Signal Strength and Link Quality

Understanding real-time link performance is essential for stable throughput. The UniFi Controller displays mesh link metrics including RSSI (Received Signal Strength Indicator), signal-to-noise ratio (SNR), and PHY rate.

• RSSI: Measured in dBm; values between -60 and -70 dBm yield strong, stable uplinks.
• SNR: Higher SNR (above 25 dB) ensures clear transmissions with minimal error.
• PHY Rate: This data rate reflects the theoretical uplink speed. Speeds below 100 Mbps on 5 GHz indicate congestion or interference.

From the UniFi dashboard, navigate to Devices > [Access Point] > Radios to view these values in context. Consistently low measurements point to physical obstructions, RF interference, or misaligned AP placement.

Troubleshooting Failed Uplink Associations

If an access point fails to establish a wireless uplink, it remains in a disconnected or adopting state. These failures stem from various causes, including:

• Signal from parent AP too weak — target RSSI less than -75 dBm often leads to failed associations.
• Mismatched firmware — ensure all APs run compatible versions to support mesh links.
• Mesh networking disabled — verify Enable Meshing is activated under site settings.
• Layer 2 isolation or restricted VLANs — check switch configurations for management VLAN access.

Use the UniFi Controller’s Log Viewer or Events tab to locate messages related to mesh handshake failures, and correlate timestamps with changes in wireless environment or configuration.

Still not linking? On affected devices, perform a factory reset and re-adopt with updated mesh settings. Often, fresh provisioning clears state mismatches and restores connectivity.

SSID and VLAN Configuration in a UniFi Mesh Network

Organizing Wireless Access: SSIDs for User Segmentation

Separating wireless networks by user groups improves manageability and security. In the UniFi Controller, navigate to Settings > WiFi to create multiple SSIDs. Define one for internal users (e.g., Corp-WiFi) and another for temporary or external users (e.g., Guest-WiFi). Each network should have a distinct purpose—internal SSIDs receive access to corporate resources, while guest SSIDs remain isolated.

Assign unique security protocols to each SSID. WPA2 or WPA3-Enterprise suits internal networks with RADIUS-based authentication, while Guest SSIDs can remain open or secured with WPA2-Personal and captive portal for limited access. UniFi allows setting per-SSID bandwidth limits and access control rules, managed under the WiFi Settings’ Advanced Options.

Segmenting Network Traffic with VLAN Tagging

Use VLANs to ensure traffic isolation between different user categories. In the UniFi Controller, go to Settings > Networks and create new network segments using tagged VLANs. Assign VLAN IDs based on role—such as VLAN 10 for staff, VLAN 20 for guests, and VLAN 30 for IoT devices.

• Staff VLAN (VLAN 10): Full LAN access. Assign to the staff SSID.
• Guest VLAN (VLAN 20): Internet-only, with firewall rules preventing local access.
• IoT VLAN (VLAN 30): Restricted access for smart devices. Firewall rules limit communication to required services like MQTT or DNS.

Apply VLANs per SSID by editing the wireless network, enabling Use VLAN, and entering the corresponding VLAN ID. Confirm that your switch ports and router accept 802.1Q tagged frames and are configured to handle trunking accordingly.

Applying Network Profiles to Enforce VLAN and SSID Behavior

Network profiles define which VLANs and networks are allowed on each access point. Under Devices > [Select AP] > Networks, apply a network profile so the AP provides only the necessary SSIDs and associated VLANs. This prevents unnecessary broadcast domains from propagating across APs that don’t serve specific user groups.

For example, a warehouse AP serving IoT devices shouldn’t broadcast the staff or guest SSIDs. Excluding them from the AP profile reduces RF noise and clears the airtime for critical devices like scanners or sensors.

Tips to Minimize Broadcast Overhead and Maximize Throughput

• Limit the number of SSIDs per AP; UniFi recommends no more than 4 per radio band to reduce management frame overhead.
• Disable "Broadcast SSID" for hidden networks that don't need regular discovery.
• Use VLAN-specific DHCP scopes on the gateway to ensure accurate address provisioning without leakages across networks.
• Enable Multicast and Broadcast Filtering under wireless settings to suppress unnecessary traffic across the RF domain.

Consider assigning lower data rates to eliminate support for legacy clients. Under each WiFi network’s Advanced settings, restrict minimum data rates—e.g., disable 802.11b rates—to reduce airtime consumption from slow devices.

Optimizing Client Connectivity: Band Steering and Airtime Fairness in a UniFi Mesh Network

Directing Devices to Faster Bands with Band Steering

UniFi’s band steering feature intelligently pushes dual-band client devices to connect over the 5 GHz band instead of the more congested 2.4 GHz. Since 5 GHz provides significantly higher throughput and lower interference, redirecting compatible devices to it boosts overall network performance.

When enabled, band steering works by delaying 2.4 GHz responses and prioritizing 5 GHz beacons for dual-band capable clients. This subtle prioritization often results in mobile phones, laptops, and tablets connecting to 5 GHz, leaving 2.4 GHz open for legacy or IoT devices.

UniFi offers three modes of band steering:

• Off: No steering logic applied; devices connect based on default behavior.
• Prefer 5 GHz: Encourages clients to connect to 5 GHz, though ultimately allows fallback.
• Force 5 GHz: Denies 2.4 GHz associations for dual-band capable clients until 5 GHz attempts fail.

Balancing Access with Airtime Fairness

In high-density wireless environments, a few slow or older clients can monopolize airtime and disrupt the experience for faster ones. Airtime Fairness corrects this by distributing radio time evenly among connected devices, rather than based on data rates. A 1 Mbps client no longer blocks a 300 Mbps client from transmitting.

This mechanism doesn’t cut off slower devices—rather, it reduces their overuse of shared spectrum. Modern client devices benefit with quicker throughput, lower latency, and more stable streaming or conferencing sessions. In testing environments, enabling airtime fairness has shown as much as a 35% improvement in total network throughput when mixed with both old and new Wi-Fi clients.

Performance Impact and Client Roaming Behavior

Combined, band steering and airtime fairness form a complementary duo: band steering shifts capable clients to higher-speed frequencies, and airtime fairness prevents older devices from degrading that bandwidth. Together, they create a network that performs predictably even under load, ensuring the right clients occupy the right frequencies and no single device dominates availability.

While some clients may experience slightly longer roaming delays with aggressive band steering, these are typically offset by gains in throughput and lower congestion. Roaming events become smoother once devices settle into the optimal band, especially when paired with fast BSS transition (802.11r) configurations.

Configuring Settings in the UniFi Network Dashboard

Within the UniFi Network Controller, head to the WiFi section under Settings:

• Select the SSID to modify.
• Scroll to the Advanced settings.
• Toggle Band Steering and choose between “Prefer 5G” or “Force 5G.”
• Enable Airtime Fairness directly below if supported by the selected APs.

These simple toggles in the UniFi dashboard unlock complex optimizations behind the scenes. When managed across a mesh setup, coverage becomes more balanced, roaming more efficient, and user experience more consistent—even in dynamic, high-utilization environments.

Securing Your UniFi Mesh: Network Security Best Practices

Enabling WPA3 for Robust Encryption

WPA3 encryption significantly enhances wireless security compared to WPA2 by mandating forward secrecy and using Simultaneous Authentication of Equals (SAE) instead of the vulnerable pre-shared key (PSK) exchange. WPA3 resists offline password guessing attacks, even when users choose weak credentials.

To enable WPA3 in the UniFi Controller, navigate to the WiFi Networks section under Settings > WiFi. Select an existing SSID or create a new one, then choose WPA3 or WPA2/WPA3 mixed mode for broader compatibility. Devices that support WPA3 will connect using the newer standard; legacy devices will fall back to WPA2.

Implementing MAC Filtering and Client Isolation

Layering MAC address filtering adds another barrier against unauthorized devices. UniFi allows whitelist and blacklist policies for precise control. Access this via Settings > Profiles > WiFi MAC Filter and apply the policy to your SSIDs accordingly.

Client isolation blocks wireless clients from talking to each other—a critical feature in open-access or guest networks. You can enable this per SSID under Settings > WiFi > Advanced. Once activated, clients can reach the internet and external resources but cannot interact with one another, eliminating lateral attack vectors.

Defining Firewall Rules for Inbound and Outbound Traffic

Precise firewall rules reduce exposure by controlling traffic at layer 3 and 4. In the UniFi Controller, go to Settings > Firewall & Security. Under “Internet In”, block unused ports or restrict access to known IPs only. For “LAN In” and “LAN Out” rules, segment IoT devices or isolate VLANs.

• Block inter-VLAN traffic unless explicitly required
• Deny all inbound traffic from guest networks to private subnets
• Limit outgoing connections for security cameras or smart devices

UniFi offers pre-defined rules for common scenarios, but custom rules provide deeper control. Use logging to validate rule behavior without risking disruption during initial deployment.

Restricting Administrative Access with Role-Based Permissions

The UniFi Controller supports granular admin privileges through Role-Based Access Control (RBAC). Assigning roles minimizes the risk of configuration mistakes and internal threats.

Navigate to Settings > Admins, then click Invite Administrator. Select predefined roles like Read-only or Site admin, or create a custom role under Settings > Roles. Limit permissions by function, location, or device group.

For sensitive environments, enable two-factor authentication (2FA) for all administrators. Combine this with IP-based login restrictions and audit logging for complete oversight.

Streamlined Network Management Starts with a Smart UniFi Mesh

Deploying a UniFi mesh network brings structure, precision, and flexibility to WiFi environments that demand performance at scale. Every stage of the UniFi setup—from structured access point placement to VLAN SSID configuration—leads to a sharper, more responsive, and scalable solution. Businesses that rely on seamless device mobility, consistent bandwidth allocation, and simple network expansion find a clear edge in Ubiquiti's mesh architecture.

Essential Components That Drive the Mesh

• High-efficiency access point placement ensures even coverage and scalable expansion.
• The UniFi Controller centralizes provisioning, device adoption, monitoring, and analytics.
• Wireless uplink UniFi settings connect mesh nodes without Ethernet, cutting back on wiring costs.
• SSID and VLAN customization segments traffic for staff, guests, and IoT devices.
• Roaming and band steering keep latency down as users move across nodes.

Why Businesses Call This the Best WiFi Mesh System

Retail chains, co-working spaces, campus-style deployments, and multi-floor offices all benefit from UniFi's adaptability. The system handles high device density, allows granular control of subnetworks, and delivers rock-solid uptime. With a controller-based approach to network management, UniFi lowers the technical overhead while giving IT teams full visibility into performance, client behavior, and traffic patterns.

Want to offload weekend support tickets caused by poor signal? Mesh WiFi sidesteps dead zones entirely. Trying to scale a tech startup with 200 connected devices per floor? Mesh handles the load with dynamic routing. From performance to price, UniFi mesh ranks consistently among the most capable solutions for WiFi for businesses.

Keep Optimizing—The Controller’s Always On

Good networks don't just get installed once and left untouched. To extract the most from your mesh WiFi system, revisit the UniFi Controller dashboard regularly. Dive into RF performance reports, adjust power levels, review client logs, fine-tune wireless uplinks, or test site-specific VLAN SSID configurations. What worked during week one may need adjustment by quarter two.

Build Smarter: Tools and Resources to Plan Ahead

Leverage the UniFi Design Center to simulate access point placement, floor coverage and backhaul topology. Join more than 100,000 network admins on the Ubiquiti Community. Need to revisit VLAN creation? Jump to our guide on How to Create VLANs in UniFi Controller.

• Explore UniFi gear: Ubiquiti UniFi Products Page
• Compare AP models: use our Guide to Choosing the Right UniFi AP
• Reinstalling? Start here: Step-by-Step UniFi Controller Installation

Consider saving our downloadable deployment checklist and watching our embedded walkthrough of the Controller UI for hands-on guidance.