High-capacity outdoor wireless backhaul
Ubiquiti Wave MLO Series in Dubai, UAE
Wave MLO brings WiFi 7-based Multi-Link Operation to long-range point-to-point wireless infrastructure. The family gives network operators a choice between dual 5 GHz operation and a combined 5 GHz plus 6 GHz design, supported by 10 GbE and SFP+ connectivity for high-capacity backhaul projects.
Plan the link before ordering
Share the proposed endpoints, link distance, target capacity, spectrum preference, antenna requirement and installation scope. FourTeck can help translate those details into a practical bill of materials.
Direct answer for buyers
The Ubiquiti Wave MLO Series is an outdoor wireless family for creating high-capacity point-to-point links between two locations. Wave MLO5 uses two 5 GHz radios, while Wave MLO6 combines 5 GHz and 6 GHz radios. Both use Multi-Link Operation to move traffic across two radio links and are intended for operators that need more capacity than conventional single-channel wireless bridges may provide. Buyers should consider the family for building-to-building, tower-to-tower, campus, industrial and service-provider backhaul. Before proceeding, confirm the exact model, regulatory availability of the required bands, clear line of sight, antenna type, path length, expected throughput, Ethernet handoff, power method and whether permanent internet access is required for regional 6 GHz operation.
What Wave MLO does
A conventional wireless bridge usually relies on one operating channel at a time. Wave MLO is designed around two active radio links and Multi-Link Operation. In practical terms, this gives the system more than one path across available spectrum. The platform can direct traffic toward the radio link experiencing lower packet loss, which can help the bridge adapt when interference affects one channel more heavily than the other. The outcome still depends on path engineering, channel availability, antenna choice, firmware, local regulations and the wider network design.
The radios use a Rocket-style form factor with external antenna connections. This lets the designer select a compatible horn or dish according to distance, gain, beamwidth and interference conditions rather than being limited to one integrated antenna. Each unit also provides a 10 GbE copper interface and a 10G SFP+ interface, allowing the wireless side to connect into higher-speed switching, routing or fibre infrastructure without a one-gigabit bottleneck at the device handoff.
Who should evaluate it
The family is relevant to wireless internet service providers, managed network operators, enterprises linking separate facilities, schools and universities connecting campuses, hospitality groups with distributed buildings, logistics yards, industrial sites, construction compounds, surveillance networks and organisations that need a high-capacity path where fibre is delayed, unavailable or commercially difficult.
It is not a universal replacement for every Ubiquiti radio. Wave MLO should be treated as its own point-to-point platform. Buyers upgrading from airMAX, LTU, airFiber or older Wave equipment need to confirm interoperability rather than assuming mixed-family links will work. The series also deserves careful assessment when the path is obstructed, when antenna mounting is unstable, when spectrum is congested, or when a project depends on 6 GHz operation that may be restricted by regional policy or automated frequency coordination requirements.
Business challenges the series can help address
Fibre is not available on the required route
A properly engineered wireless bridge can provide an alternative path between two sites when trenching, landlord approvals, civil works or carrier lead times make fibre impractical. The radio link still requires clear path analysis, suitable mounting and power at both endpoints.
Existing wireless links limit network capacity
The family provides multi-gigabit platform capability and high-speed network interfaces, creating room for larger traffic flows. Actual usable throughput is influenced by channel width, signal quality, interference, distance, modulation and network overhead.
One channel is vulnerable to changing interference
Multi-Link Operation gives the bridge two radio paths instead of relying on a single channel. It can favour the link with lower packet loss, though it cannot remove poor path design or guarantee uninterrupted performance in heavily congested spectrum.
The wired handoff must exceed one gigabit
Both models include 10 GbE RJ45 and 10G SFP+ connectivity. The connected switch, router, fibre module, copper cabling and power arrangement must be selected to support the intended interface and traffic level.
Shared platform capabilities
WiFi 7-based radio platform
Wave MLO uses 802.11be-generation technology as the foundation for high-order modulation, wide channels and Multi-Link Operation in an outdoor bridge design.
Dual-radio MLO architecture
Each model operates two radios. MLO5 uses two 5 GHz links; MLO6 uses one 5 GHz and one 6 GHz link. Channel availability remains region dependent.
High-speed wired interfaces
A 10 GbE RJ45 port and a 10G SFP+ port support copper or fibre handoff options suitable for multi-gigabit network designs.
External antenna flexibility
Waterproof RP-SMA connections allow the use of suitable Ubiquiti UISP horn or dish antennas, subject to compatibility and path requirements.
Outdoor deployment design
The enclosure is rated IPX6 and supports pole mounting. Correct weatherproofing, grounding, surge protection and cable routing remain part of installation quality.
UISP operational support
UISP support helps operators monitor and manage devices within a wider service-provider or infrastructure environment, subject to platform design and software version.
Model-fit matrix
| Buyer requirement | Model to evaluate | Confirm before ordering |
|---|---|---|
| Dual-link operation entirely within 5 GHz | Wave MLO5 | Available channels, interference, antenna and permitted EIRP |
| Use of 5 GHz and 6 GHz for the highest family capacity | Wave MLO6 | Regional 6 GHz rules, AFC or internet dependency, channel access |
| Copper connection to a nearby 10 GbE switch | Either model | Cable category, length, surge protection, PoE arrangement |
| Fibre handoff from the radio location | Either model | SFP+ module, fibre type, switch compatibility and separate power path |
| Migration from airMAX, LTU or airFiber | New matched Wave MLO link | Do not assume cross-family radio compatibility; plan both endpoints |
| Long-distance licensed-style certainty | Further design review required | Wave MLO uses unlicensed spectrum; assess interference and regulatory fit |
Verified family information
The table separates the two models so that the strongest value from one device is not presented as a shared specification. Frequency ranges and certifications can vary by regulatory region. The values below should be checked against the final regional SKU and current vendor documentation when the quotation is prepared.
| Field | Wave MLO5 | Wave MLO6 |
|---|---|---|
| Model | Wave-MLO5 | Wave-MLO6 |
| Radio design | Two 5 GHz radios | One 5 GHz and one 6 GHz radio |
| MIMO | Two 2 x 2 5 GHz radios | 2 x 2 at 5 GHz and 2 x 2 at 6 GHz |
| Published total throughput | 5+ Gbps | 8+ Gbps |
| Published maximum range | Up to 100 km | Up to 100 km |
| Network interfaces | 1 x 10 GbE RJ45, 1 x 10G SFP+ | 1 x 10 GbE RJ45, 1 x 10G SFP+ |
| Processor and memory | Quad-core IPQ5322 at 1.5 GHz, 1 GB DDR4 | Quad-core IPQ5322 at 1.5 GHz, 1 GB |
| Maximum power consumption | 20 W | 20 W |
| Included power supply | 54 V DC, 0.56 A, 10 GbE PoE adapter | 54 V DC, 0.56 A, 10 GbE PoE adapter |
| RF connections | 2 x waterproof RP-SMA, 1 x waterproof GPS | 2 x waterproof RP-SMA, 1 x waterproof GPS |
| Dimensions | 249.3 x 82 x 47.6 mm | 249.3 x 82 x 47.6 mm |
| Weatherproofing | IPX6 | IPX6 |
| Operating mode | Point-to-point | Point-to-point |
| Encryption | WPA3-PSK with AES | WPA3-PSK with AES |
| Important regional note | 5 GHz channel availability and permitted power vary by region. | 6 GHz may be disabled by default and can require permanent internet access for operation, depending on region and regulatory mechanisms. |
Published throughput and range are platform maximums, not guarantees for a particular path. Real performance depends on spectrum, antenna gain, alignment, line of sight, Fresnel-zone clearance, channel width, distance, weather, interference, firmware and network overhead.
Compatibility, regulatory and scope dependencies
A high-capacity radio is only one part of a working link. Wave MLO requires a matched design at both endpoints, compatible antennas, correct cabling, power, mounting, grounding and a clear path. Compatibility with airMAX, LTU, airFiber or other Wave products should not be assumed. A migration normally means replacing or redesigning both sides of the wireless path rather than changing one radio in isolation.
For Wave MLO6, 6 GHz operation is especially dependent on country rules. Ubiquiti notes that the 6 GHz radio can be disabled by default and that a permanent internet connection may be required for 6 GHz link operation. That requirement can be associated with regulatory coordination and must be considered for isolated sites, temporary locations and networks with restricted outbound connectivity. The exact regional SKU, approved channels, maximum transmit power and certification status should be confirmed before purchase.
Antenna selection is also part of compliance and performance. More gain and a narrower beam can support longer paths and reduce reception of off-axis interference, but the design must remain within local EIRP limits and must be aligned accurately. Conversely, a wider horn can simplify shorter links and accommodate some structural movement, but it can receive more competing energy. FourTeck can discuss the antenna options, although final RF engineering may require coordinates, elevation, mounting height and a spectrum assessment.
A practical purchase and deployment journey
Define the business requirement
State what the link must carry, the acceptable downtime, expected growth, whether it is a primary or backup path and whether any traffic has strict latency or packet-loss sensitivity. This prevents model selection from being based only on a headline throughput figure.
Review the path
Provide endpoint coordinates, approximate distance, mounting heights and photographs where possible. A path review should consider line of sight, Fresnel clearance, obstructions, roof access, mast stability and future construction that may affect the link.
Choose MLO5 or MLO6
MLO5 may be appropriate when the project must remain in 5 GHz. MLO6 should be evaluated when 6 GHz is permitted and the additional spectrum is operationally useful. The decision should include regulatory access, interference, permanent internet requirements and target capacity.
Select antenna and handoff
Choose the antenna according to distance, beamwidth, gain, wind loading and local interference. Decide whether the network handoff will use 10 GbE copper or SFP+ fibre, and confirm switch ports, optics, cable runs, PoE and surge protection.
Prepare installation and commissioning scope
Define who supplies mounts, masts, weatherproof boxes, earthing, cable containment, access equipment and safety permits. Commissioning should include alignment, channel planning, firmware review, capacity testing, failover testing where applicable and documentation.
Monitor and maintain the link
After handover, establish baselines for signal, modulation, throughput, error rates and latency. Review firmware before upgrades, inspect outdoor cabling and mounts periodically, and retain a recovery plan for configuration, power or antenna faults.
Capacity that reaches the wired network
A multi-gigabit wireless bridge only creates business value when the connected network can accept and route the traffic. Both Wave MLO models include 10 GbE RJ45 and 10G SFP+ interfaces, which removes the obvious one-gigabit device bottleneck. However, the rest of the path must be designed at the same level. Copper runs need suitable cable category, distance control and lightning protection. Fibre handoff requires compatible SFP+ modules, fibre type and patching. The upstream switches, routers and firewalls must also have enough forwarding capacity.
The advertised 5+ Gbps for MLO5 and 8+ Gbps for MLO6 should be treated as published platform throughput, not a promise that every installation will produce that rate. Real throughput can change with channel width, signal-to-noise ratio, modulation, retransmissions, link distance, competing transmissions and protocol overhead. Buyers should define the minimum acceptable application throughput and test against that requirement during commissioning.
MLO as an interference-management tool
Multi-Link Operation is significant because it gives the system two radio links rather than one. Ubiquiti describes its algorithm as directing traffic toward the frequency with lower packet loss. That can improve the behaviour of a link when one channel experiences heavier interference, but it is not a substitute for spectrum planning. If both selected channels are poor, if line of sight is blocked or if the antenna system is unsuitable, MLO cannot turn a weak path into a dependable one.
For MLO5, both links remain in the 5 GHz band, so the quality and availability of non-contiguous 5 GHz spectrum are central to the design. MLO6 adds 6 GHz, which may offer cleaner spectrum in some locations but introduces regulatory and connectivity dependencies. An experienced buyer will compare not only peak capacity but also channel availability at the proposed site, the required bandwidth, the impact of weather and distance, and the operational process for maintaining regulatory access.
Operational visibility through UISP
Wave MLO supports UISP, making it relevant to operators that already use the platform for infrastructure oversight. The device tools include antenna alignment, site survey, speed testing, ping, traceroute and discovery functions. These tools support installation and troubleshooting, while ping watchdog and NTP client capabilities assist routine operation. The exact interface and feature set can evolve with firmware, so operational procedures should be documented against the deployed software version.
Management should include more than observing a green status icon. Teams should record normal signal levels, channel use, negotiated rates, latency and throughput. Alerts should be meaningful and tied to response procedures. Firmware upgrades should be reviewed for model compatibility and release notes, particularly on newer radio platforms. For business-critical links, configuration backups, spare-power planning and a defined rollback or alternate-path process are advisable.
Suitable environments and use cases
Service-provider backhaul
WISPs can evaluate Wave MLO for high-capacity point-to-point connections between towers, aggregation sites and network facilities. The design must account for unlicensed-spectrum competition, antenna loading, power resilience and backhaul redundancy.
Campus building links
Universities, schools, hospitals and corporate campuses may use a bridge to extend network services between buildings where fibre installation is delayed or disruptive. Network segmentation and upstream security remain separate design responsibilities.
Industrial and logistics sites
Factories, warehouses, ports and logistics yards may need connectivity across large properties. Mount vibration, dust, heat, cable protection, maintenance access and electromagnetic conditions should be considered alongside radio performance.
Hospitality and mixed-use properties
Hotels, resorts and multi-building properties can use point-to-point links to connect facilities, staff networks, guest-service systems or surveillance infrastructure. Capacity planning should separate peak demand from average utilisation.
Surveillance transport
High-resolution camera networks may generate sustained traffic from remote buildings or perimeter locations. The link should be sized for aggregate bitrate, recording patterns, viewing traffic and future camera expansion rather than camera count alone.
Temporary or rapidly deployed networks
Construction, events and temporary facilities may benefit from avoiding permanent civil works. These projects need secure mounting, stable power, local spectrum review and a practical plan for relocation, especially where 6 GHz operation needs persistent internet access.
Integration and operational considerations
Wave MLO operates as a bridge, so the broader network architecture determines how traffic is segmented, routed, protected and prioritised. Before installation, confirm the VLAN design, spanning-tree approach, broadcast boundaries, maximum transmission unit, quality-of-service requirements and whether the link participates in a redundant topology. A very fast Layer 2 bridge can also transport loops or broadcast storms quickly if the surrounding network is poorly controlled.
When the link carries voice, video, control systems or storage replication, the buyer should define acceptable latency, jitter and packet loss. Capacity alone does not prove application suitability. Baseline tests should be performed when the path is quiet and under realistic load. For redundant networks, test failure and recovery rather than assuming alternate routing will behave correctly. The switching and routing equipment at both endpoints should have enough buffering and forwarding capacity for the expected bursts.
Power and environmental planning deserve equal attention. The included 54 V 10 GbE PoE adapter supports the radio, but the installation may require protected AC power, an outdoor-rated enclosure, UPS support, grounding and surge arrestors. Cable shields and earthing should follow the site electrical design. In exposed locations, mast loading, wind, corrosion and access safety can determine long-term reliability more than the radio specification itself.
Security should include strong administrative credentials, controlled management access, current firmware, configuration backups and logging. WPA3-PSK with AES protects the radio link, while application and network security continue to depend on firewalls, segmentation, identity controls and endpoint policy. FourTeck can help discuss related network security options in Dubai and broader installation and configuration services where those items form part of the project.
Questions to resolve before requesting a quotation
What is the real traffic target?
Specify expected sustained and peak throughput, traffic direction and growth. A headline maximum is less useful than an agreed minimum for business applications.
Is 6 GHz available and operationally suitable?
For MLO6, confirm regional permission, channel access, any automated coordination requirement and the availability of permanent internet connectivity where required.
What does the path look like?
Coordinates, distance, elevation and mounting height are needed to review line of sight and Fresnel clearance. A visual view between roofs does not always prove adequate clearance.
Which antenna is appropriate?
The choice between a horn and dish depends on distance, gain, beamwidth, wind loading, interference and regulatory limits. Include mounts and weatherproof RF connections in the bill of materials.
How will the radio connect to the network?
Decide between 10 GbE copper and SFP+ fibre. Confirm port availability, optics, cable distance, PoE, surge protection and upstream device capacity.
What service scope is expected?
Clarify whether the request includes supply only, path assessment, mounting, cabling, alignment, configuration, testing, documentation, training or ongoing support.
Procurement checklist
☐ Exact model: Wave MLO5 or Wave MLO6
☐ Two radios for a complete point-to-point link
☐ Required quantity and spare-unit strategy
☐ Endpoint coordinates and path distance
☐ Mounting height and structural access
☐ Compatible horn or dish antenna at each end
☐ Regional frequency and power compliance
☐ 6 GHz internet or coordination dependency
☐ Copper or fibre network handoff
☐ SFP+ optics and fibre patching where required
☐ PoE, UPS, surge protection and grounding
☐ Installation, alignment and commissioning scope
☐ UISP monitoring and administrative ownership
☐ Warranty, lead time and UAE availability confirmation
How FourTeck can assist
FourTeck can help buyers move from a product name to a project-ready requirement. The process can begin with a review of the two endpoints, business capacity target, preferred frequency plan and existing switching infrastructure. From there, the discussion can cover MLO5 versus MLO6, compatible antenna choices, PoE and network handoff, mounting accessories, installation responsibilities and testing expectations.
For procurement teams, FourTeck can coordinate a quotation that identifies the exact model, quantity and supporting components rather than presenting a radio alone as a complete solution. For technical teams, the scope can include configuration and installation planning where required. Buyers considering the family as part of a wider infrastructure refresh can browse FourTeck technology products or discuss related routing, switching, security and connectivity requirements through the FourTeck contact team.
The most useful enquiry includes coordinates or addresses for both sites, approximate distance, required throughput, intended applications, preferred deployment date, mounting information, network interface requirements and whether installation is needed. These details reduce ambiguity and allow the quotation to distinguish confirmed items from options that remain dependent on site survey or regional policy.
UAE availability and support guidance
Contact FourTeck to confirm current UAE availability for Wave MLO5, Wave MLO6, compatible antennas and associated accessories. Availability may depend on model, regional SKU, quantity, vendor lead time and the regulatory status of the required frequency band. Delivery planning should begin only after the exact bill of materials is agreed.
For projects in Dubai, Abu Dhabi, Sharjah and Ajman, FourTeck can discuss requirement review, quotation coordination, delivery planning and installation or configuration scope. Site access, rooftop permits, mast work, cable routes, power availability, safety requirements and the need for a formal path survey can change the project scope. Warranty terms should be confirmed for the supplied regional product rather than assumed from another country’s online store. Where the radio link is part of a larger network project, switching, fibre, cybersecurity and monitoring requirements can be included in the planning discussion.
GCC Availability
Organisations planning Wave MLO links across the GCC can contact FourTeck for requirement review, model selection, quotation coordination and deployment planning. Projects in the United Arab Emirates, Saudi Arabia, Kuwait, Qatar, Bahrain and Oman may face different frequency rules, approved channel ranges, equipment variants and service logistics. This is particularly important for Wave MLO6 because 6 GHz operation can depend on country policy and internet-based regulatory coordination. Buyers should provide the destination country, exact model under consideration, required quantity, intended link distance, antenna preference, project location and expected schedule. FourTeck can also discuss configuration, installation and testing scope where those services are needed. Product availability, vendor lead time, licensing or regulatory requirements, delivery schedules and onsite coordination vary by country and project. No regional stock position or installation date should be assumed until the requirement and destination are confirmed. For Kuwait-specific coordination, buyers may also review FourTeck Kuwait technology support.
Africa Availability
FourTeck can assist organisations evaluating Ubiquiti Wave MLO for infrastructure projects in Africa, including service-provider, campus, industrial and multi-site connectivity requirements. The review should start with the destination country, exact model, link endpoints, quantity, antenna design, power conditions, network handoff and preferred deployment schedule. Availability and fulfilment can vary according to product model, regulatory region, permitted frequency bands, 6 GHz policy, shipping arrangements, vendor lead time and local installation conditions. Heat, wind, corrosion, mast access, grounding standards and the availability of suitable fibre or copper switching may also affect the final scope. Buyers in East Africa and other regions can request guidance on product selection, accessories, configuration, support and procurement planning without assuming local inventory or immediate shipment. FourTeck maintains regional information through FourTeck Africa, with additional resources for Kenya technology projects and Uganda business infrastructure.
Related products, services and alternatives
Wave MLO5
Consider the dual-5 GHz model when the project requires Multi-Link Operation but 6 GHz is unavailable, unnecessary or operationally unsuitable.
Wave MLO6
Evaluate the 5 GHz plus 6 GHz model for the highest published capacity in the family, subject to regional access and internet requirements.
UISP horn and dish antennas
A compatible external antenna is required. Selection depends on path length, gain, beamwidth, wind loading and interference conditions.
10G switching and fibre handoff
The link may require 10 GbE switching, SFP+ optics, fibre patching, surge protection and structured cabling to carry the wireless capacity into the network.
Installation and alignment support
Outdoor mounting, grounding, accurate antenna alignment, channel selection and acceptance testing can be included as a defined project scope.
Alternative wireless backhaul families
airFiber, LTU, airMAX or 60 GHz Wave options may suit different distances, capacities or deployment types, but should not be treated as directly compatible or equivalent without design review.
Why businesses contact FourTeck
The value of a supplier conversation is not limited to confirming a radio price. Business buyers need confidence that the selected model, antennas, interfaces and services form a coherent deployment. FourTeck can help clarify the requirement, separate mandatory components from optional items, review compatibility questions and prepare a quotation around the actual link rather than an isolated product.
This is useful when the buyer must compare MLO5 and MLO6, explain the decision to procurement, identify regional dependencies, coordinate installation responsibilities or include related switching and security equipment. The discussion can also cover bill-of-material guidance, configuration scope, commissioning tests, documentation expectations and support coordination. These activities depend on the information provided and should be explicitly included in the quotation where required. Learn more about FourTeck’s business technology focus or submit project details through the main FourTeck contact channel.
Frequently asked questions
What is the Ubiquiti Wave MLO Series?
It is a family of outdoor WiFi 7-based point-to-point radios that uses Multi-Link Operation across two radio links. The current family includes Wave MLO5 and Wave MLO6.
What is the difference between Wave MLO5 and Wave MLO6?
Wave MLO5 uses two 5 GHz radios and has published total throughput of 5+ Gbps. Wave MLO6 uses one 5 GHz and one 6 GHz radio and has published total throughput of 8+ Gbps. Regional 6 GHz access must be confirmed.
Can one Wave MLO radio create a complete link?
A point-to-point link requires a compatible radio and antenna arrangement at both endpoints. Quantities, spares and accessories should be defined in the bill of materials.
Is Wave MLO compatible with airMAX, LTU or airFiber radios?
Cross-family compatibility should not be assumed. A Wave MLO deployment should be planned as a matched link, and migrations generally require review of both endpoints.
Does Wave MLO include an antenna?
The radios use external waterproof RP-SMA connections. A compatible antenna must be selected according to the required gain, beamwidth, distance and regulatory limits. Confirm included components in the final quotation.
Does Wave MLO6 require internet access?
Ubiquiti states that the 6 GHz radio is disabled by default and that permanent internet connectivity is required for 6 GHz link operation. The exact regional mechanism and permitted channels should be confirmed for the destination.
Will the link always deliver 5 or 8 Gbps?
No. Those are published total-throughput figures for the respective platforms. Actual results depend on path quality, channel width, interference, antenna selection, distance, alignment, modulation, firmware and protocol overhead.
Which network interfaces are available?
Both models provide one 10 GbE RJ45 port and one 10G SFP+ port. The connected switch, optics, cabling and power design must support the selected handoff.
Can FourTeck assist with installation and configuration?
FourTeck can discuss path review, antenna selection, bill-of-material planning, installation, alignment, configuration and testing. Required services should be stated in the quotation request because scope depends on the site.
What information is needed for a UAE quote?
Provide the preferred model, quantity, endpoint locations, path distance, target throughput, antenna requirement, copper or fibre handoff, installation scope and desired schedule. FourTeck will confirm current availability and applicable options.
Turn the link requirement into a workable bill of materials
Send FourTeck the two endpoint locations, target capacity, proposed installation height and preferred deployment schedule. The team can help compare Wave MLO5 and Wave MLO6, identify related antennas and interfaces, and coordinate a UAE quotation with installation or configuration scope where required.