Ubiquiti airMAX 2.4 GHz 16 dBi Sector AM-2G16-90 in Dubai, UAE
The AM-2G16-90 is a directional sector antenna for outdoor wireless networks that need to serve multiple subscriber locations across a defined 90-degree area. It is designed to pair with a compatible Ubiquiti radio, helping network planners shape coverage rather than radiating equally in every direction.
Planning a sector deployment?
Share the proposed tower location, client count, distances, radio model and mounting requirements. FourTeck can help prepare a suitable bill of materials and quotation.
90-degree sector
2.3–2.7 GHz
16–17 dBi
PtMP base-station sector
Compatible external radio
Direct answer for buyers
The Ubiquiti airMAX AM-2G16-90 is a passive outdoor sector antenna built for 2.4 GHz point-to-multipoint networks. Its main role is to focus radio energy across a defined 90-degree service area so a central base station can communicate with multiple remote client radios. Internet service providers, estates, industrial operators, farms, campuses and organisations building private wireless links may consider it where 2.4 GHz propagation characteristics and local spectrum conditions suit the project. Before proceeding, buyers should confirm the compatible radio, allowed frequencies, required link distances, subscriber locations, expected capacity, interference environment, mounting structure, grounding approach and accessory list. The antenna itself does not provide networking, routing or wireless management without a suitable radio and complete deployment design.
What it does
The AM-2G16-90 shapes the coverage pattern of a compatible 2.4 GHz base-station radio. Instead of spreading energy in every horizontal direction like an omnidirectional antenna, it concentrates coverage over a sector. This can help a network designer direct service toward a known cluster of client locations, divide a site into multiple sectors, and reduce unnecessary radiation behind the antenna. It is commonly considered for point-to-multipoint networks where several subscriber devices connect to one base-station location.
The antenna supports dual-linear polarisation and is built to integrate physically with compatible Ubiquiti Rocket-style radios through the included bracket and RF jumpers. Actual link quality, throughput and client capacity depend on the selected radio, channel width, noise level, modulation, distance, line of sight, installation accuracy and regulatory power limits.
Who it suits
This model may suit wireless internet service providers expanding 2.4 GHz coverage, system integrators designing outdoor connectivity, property operators linking distributed buildings, and organisations that need a sectorised wireless architecture across a campus, yard, farm or remote operational area. It can also be relevant where 2.4 GHz offers practical propagation advantages through moderate foliage or over longer paths, although congestion in this band must be assessed carefully.
It is not the right choice for every project. Buyers seeking indoor Wi-Fi, a complete access point, a wide 120-degree sector, a narrow high-capacity 5 GHz deployment, or an all-in-one client bridge should evaluate other products. FourTeck can assist with product selection after reviewing the service area, subscriber count, radio compatibility and expected network performance.
Business challenges this antenna can help address
Serving multiple remote points
A single directional base-station sector can support communication with multiple compatible client radios located inside the designed coverage area. This can reduce the need for a separate point-to-point antenna at the hub for every remote location, provided the radio platform and capacity plan are suitable.
Controlling coverage direction
A 90-degree sector allows planners to target a defined geographical area. This is useful when subscribers are clustered in one direction or when several antennas will divide a wider area into separate sectors. Proper azimuth, tilt and mounting height remain essential.
Improving site organisation
Sectorisation can create a clearer network layout by assigning groups of clients to specific coverage zones. It may make future expansion, troubleshooting and channel planning easier, though careful frequency reuse and interference management are still required.
Supporting outdoor infrastructure
The mechanical design, included pole mount and stated wind survivability make the antenna suitable for engineered outdoor installations. Structural loading, mast condition, lightning protection and local environmental requirements must still be reviewed by the project team.
Core capability band
Focused 90-degree coverage
The sector pattern is intended to cover a defined portion of the horizon. This helps match antenna coverage to the actual subscriber distribution rather than transmitting around the full site.
Dual-linear polarisation
Dual-linear polarisation supports two signal paths when paired with an appropriate MIMO radio. Real-world results depend on radio capability, path conditions, installation and spectrum quality.
Rocket integration
The supplied RocketM bracket and weatherproof RF jumpers simplify physical integration with supported Ubiquiti radio hardware. Exact radio compatibility should be confirmed before procurement.
Outdoor mechanical design
The antenna is specified for outdoor use with a universal pole mount. The installation structure must be chosen for the local wind environment, antenna weight and safe maintenance access.
Product-fit decision matrix
| Requirement | Suitable when | Confirm before ordering |
|---|---|---|
| 2.4 GHz PtMP coverage | Several remote stations are located within a planned 90-degree service sector. | Permitted frequencies, channel plan, client radio compatibility and noise floor. |
| Directional base station | Coverage should be concentrated toward a defined geographic area. | Azimuth, mechanical tilt, electrical downtilt and subscriber distribution. |
| Outdoor tower or rooftop | A suitable pole, mast or rooftop structure is available. | Wind load, grounding, lightning protection, cable route and maintenance access. |
| Rocket-style radio integration | The project uses a compatible external Ubiquiti radio. | Exact radio model, software support, RF connectors and power arrangement. |
| High-capacity modern network | Only when the selected radio and spectrum plan meet required capacity. | Expected throughput, client count, airtime use and whether a newer 5 GHz or 6 GHz design is more appropriate. |
Verified technical information
| Brand | Ubiquiti |
| Product name | airMAX 2.4 GHz, 16 dBi, 90-degree Sector |
| Model | AM-2G16-90 |
| Product type | Passive outdoor sector antenna |
| Frequency range | 2.3–2.7 GHz |
| Antenna gain | 16–17 dBi |
| VPOL beamwidth | 90 degrees at 6 dB |
| Electrical beamwidth | 9 degrees |
| Electrical downtilt | 4 degrees |
| Polarisation | Dual-linear |
| Cross-polarisation isolation | 28 dB minimum |
| Maximum VSWR | 1.5:1 |
| Dimensions | 700 × 145 × 79 mm |
| Weight | 3.9 kg |
| Wind survivability | 200 km/h |
| Wind loading | 85 N at 160 km/h |
| Included mounting items | Universal pole mount, RocketM bracket and weatherproof RF jumpers |
| ETSI specification | EN 302 326 DN2 |
| Radio included | No. A compatible radio is required. |
| Availability | Contact FourTeck for current UAE options, quantity confirmation and vendor lead time. |
Compatibility and dependency notice
The AM-2G16-90 is an antenna, not a complete wireless access point. It must be paired with a compatible external radio, power arrangement, Ethernet infrastructure and correctly configured remote subscriber devices. Compatibility can vary by radio generation, supported frequency range, connector layout, firmware availability and regional regulations. Buyers should not assume that any 2.4 GHz radio will fit physically or operate correctly with this antenna.
The usable channel plan must comply with the destination country’s spectrum rules. The antenna’s stated 2.3–2.7 GHz frequency range does not mean every frequency in that range is freely available for unlicensed operation. Transmit power, antenna gain and effective isotropic radiated power may be restricted. For a UAE deployment, the integrator or operator should verify the applicable regulatory requirements and configure the connected radio accordingly. Capacity, range and reliability are also configuration dependent and should be evaluated through a site survey and link-budget process.
A practical purchase and deployment journey
Map the service area
Identify the central site, subscriber positions, distances, elevation differences and obstacles. A simple geographic map with coordinates helps determine whether one 90-degree sector is suitable or whether several sectors are required.
Survey the spectrum
Measure noise, competing networks and usable channels at the proposed mounting height. The 2.4 GHz band can be crowded, so the antenna should not be selected on range expectations alone.
Choose the radio platform
Confirm a compatible base-station radio and suitable client devices. Review supported bandwidth, management platform, security, software status and realistic aggregate capacity.
Engineer the mounting
Check pole diameter, structural capacity, wind exposure, grounding, lightning protection, cable strain relief and safe installation access. Include all required brackets, surge protection and outdoor-rated cabling.
Align and validate
Install the antenna with the planned azimuth and tilt, then validate signal levels, modulation, throughput, latency and coverage at representative client sites. Fine adjustment may be necessary.
Coverage shaping and sector planning
The main reason to choose a sector antenna is control. A network designer can point the main lobe toward the intended client area and reduce energy sent in other directions. For a base station serving a community, industrial yard or large property, this creates a more deliberate radio-frequency footprint than an omnidirectional antenna. The 90-degree pattern can be especially useful when users occupy a quadrant relative to the tower or when four sectors are being considered for broad directional coverage around a central structure.
Sector width should match actual geography. A narrow sector can offer more focused gain and may reduce the number of unwanted transmit and receive directions, but it can also leave edge clients outside the strongest coverage area. A wider sector covers more azimuth but may reduce gain or increase the number of clients sharing one radio. The AM-2G16-90 therefore should be selected after plotting subscriber bearings, not simply because it has a higher gain figure than a wider model.
Electrical downtilt and vertical beam shape influence how coverage reaches ground-level clients. Mounting the antenna very high without considering the vertical pattern may cause nearby subscribers to fall outside the strongest part of the beam. Conversely, mounting too low can introduce obstructions and poor Fresnel-zone clearance for distant links. The antenna’s fixed electrical characteristics should be combined with appropriate mechanical alignment. A site model or field validation is recommended when the network is commercially important.
Radio integration and capacity considerations
An antenna cannot create throughput by itself. The connected radio determines modulation, channel width, scheduling, protocol behaviour, software features and management options. When reviewing the AM-2G16-90, buyers should treat it as one part of a complete base-station assembly. The radio’s supported frequency range must overlap the intended channel, and the mounting arrangement, RF connectors and jumpers must be suitable. The remote subscriber radios must also be compatible with the selected platform and configured for the same network architecture.
Capacity planning should start with the number of clients, service profile and expected simultaneous usage. A sector serving a few telemetry links has very different requirements from one providing internet access to many business or residential sites. Aggregate throughput, airtime fairness, uplink demand, latency sensitivity and growth over the next several years should all be considered. A high antenna gain can improve link margin, but it does not remove the shared-medium limits of a point-to-multipoint radio network.
The 2.4 GHz band may offer useful propagation in some environments, but it is also widely used by Wi-Fi, Bluetooth and other devices. Interference can reduce modulation rates and increase retransmissions even when received signal strength looks adequate. A field spectrum survey should therefore influence the final decision. In some projects, a 5 GHz or other frequency design may provide better capacity; in others, 2.4 GHz may remain practical because of path length, foliage or client-device constraints.
Mechanical installation, wind and outdoor resilience
Outdoor wireless reliability depends heavily on mechanical work. The AM-2G16-90 weighs 3.9 kg and has a sizeable 700 mm vertical profile. The supporting pole, mast, rooftop frame or tower leg must be able to handle the antenna weight and wind load together with the connected radio, cables and any other equipment. Ubiquiti states wind survivability of 200 km/h and wind loading of 85 N at 160 km/h, but these figures do not replace structural assessment of the complete installation.
Installers should use the included universal pole mounting hardware according to the product guide and confirm that the pole diameter and material are appropriate. Fasteners must be tightened correctly, while avoiding damage to the antenna body or mount. The antenna should be positioned so maintenance staff can safely access the radio and connectors without disturbing alignment. Cable loops should be controlled, UV-resistant outdoor cable should be used, and every penetration into a building should be weather sealed.
Grounding and surge protection are critical for exposed network equipment. The project should include an earthing plan, shielded cabling where required, Ethernet surge protection and compliance with local electrical and lightning-protection practices. Water ingress often begins at poorly dressed connectors or cable entries, so weatherproofing should be inspected during installation and maintenance. In dusty, coastal or high-temperature environments, periodic visual checks can help identify corrosion, loose hardware, cable degradation or alignment changes before service is affected.
Ideal environments and realistic use cases
Wireless service provider sectors
A provider may use the antenna at a tower or rooftop to serve multiple compatible subscriber radios within one geographic sector. The final design must account for client density, channel availability, service plans and network backhaul.
Large farms and remote estates
A central sector can support connectivity toward distributed buildings, gates, offices, monitoring points or accommodation areas. Terrain, foliage, power availability and line of sight should be confirmed for each endpoint.
Industrial yards and logistics sites
The antenna may be considered for connecting fixed remote points across a wide operational area where trenching fibre is difficult. Radio-frequency noise from machinery and metal reflections should be reviewed.
Campuses and compounds
A point-to-multipoint sector can link outlying buildings to a main network location. Security architecture, VLAN design, bandwidth allocation and redundancy should be planned beyond the wireless link itself.
Video-surveillance backhaul
Fixed camera clusters may connect through subscriber radios to a central sector. Required upstream bitrate, recording continuity, latency, power backup and failure recovery must be calculated carefully.
Temporary project connectivity
Construction and project sites may use sector wireless where infrastructure changes frequently. Mounting safety, spectrum coordination and future relocation requirements should be included in the deployment plan.
Integration and operational considerations
A successful sector deployment extends beyond the antenna and radio. The base station needs a dependable network connection, suitable power, surge protection, management access and monitoring. If the sector is carrying business-critical traffic, the upstream switch, router, firewall and backhaul should be sized for the expected aggregate load. Network segmentation may be required to separate customers, sites, cameras, operational technology or guest services.
Management architecture depends on the selected radio platform. Buyers should confirm whether local management, a UISP-based approach or another operational model is required. Device credentials, software updates, backup configuration, alerting, inventory records and change control should be defined before the site goes live. Remote management can reduce travel, but it should be secured through appropriate authentication, access restrictions and logging.
Operational teams should establish baseline performance after commissioning. Record signal strength, noise floor, modulation rates, throughput, latency, error rates and client count. These measurements make later troubleshooting easier. Gradual performance decline may indicate new interference, foliage growth, hardware movement, water ingress, damaged cabling or increased airtime demand. Capacity should be reviewed as subscribers and applications grow.
For networks carrying voice, video or industrial traffic, test the actual applications rather than relying only on a speed test. Packet loss, jitter and latency under load can matter more than headline throughput. Where downtime is costly, consider redundant backhaul, spare equipment, documented replacement procedures and alternative coverage paths.
Buyer questions to resolve before requesting a quotation
Where are the clients located?
Provide approximate bearings, distances and elevations from the planned base station. This determines whether a 90-degree sector matches the actual coverage area.
Which radio will be used?
Confirm the exact base-station radio and subscriber models. Physical fit, RF range, software support and network compatibility cannot be assumed from frequency alone.
How much capacity is needed?
Estimate active clients, traffic profile, peak demand and growth. The antenna gain does not define the sector’s total usable throughput.
What is the spectrum condition?
A site survey should identify noise and competing signals. A crowded channel may limit performance regardless of link distance or signal strength.
What mounting structure exists?
Share pole diameter, tower type, rooftop details, height and wind exposure. Additional steelwork or mounting components may be required.
Is installation support required?
Clarify whether the quotation should include survey, mounting, cabling, grounding, radio configuration, alignment, testing and handover documentation.
Procurement checklist
□ Confirm the exact model AM-2G16-90 and required quantity.
□ Confirm the intended destination and applicable spectrum rules.
□ Provide the base-station and subscriber radio models.
□ Confirm the planned service sector, bearings and distances.
□ Define expected client count and traffic capacity.
□ Review interference and available channel options.
□ Confirm pole, mast or tower mounting details.
□ Include surge protection, grounding and outdoor cabling.
□ Verify whether additional brackets or weatherproofing materials are needed.
□ State whether radio configuration and alignment are required.
□ Confirm commissioning tests and documentation expectations.
□ Request current lead time, warranty guidance and delivery coordination.
How FourTeck can assist with selection and deployment
FourTeck can support the procurement process by turning a broad requirement into a clearer bill of materials. For an AM-2G16-90 request, this may include confirming that the 90-degree pattern matches the proposed service area, checking the intended radio family, identifying subscriber-side equipment, reviewing mounting needs and separating included items from additional accessories. This reduces the risk of ordering an antenna without the components needed to create a working sector.
Where project information is available, FourTeck can coordinate a quotation that reflects quantity, delivery destination and requested services. Installation, radio configuration, alignment, cabling, grounding, testing and documentation should be stated explicitly because these activities are not automatically included with hardware. For broader network requirements, buyers can review FourTeck technology products or discuss implementation through the network and infrastructure services team.
FourTeck can also help compare this model with wider-sector, narrower-sector, omnidirectional or different-frequency alternatives. The purpose is not simply to select the highest gain figure. The correct choice depends on client geography, noise, capacity, radio generation, structure and operating environment. Submit the known details through the FourTeck contact page for a requirement review and current quotation guidance.
UAE availability and support guidance
Contact FourTeck to confirm current UAE availability for the Ubiquiti AM-2G16-90. Availability can depend on quantity, vendor lead time, regional supply and the exact bill of materials. A quotation should distinguish the antenna from the radio, subscriber devices, power supplies, surge protectors, cables, mounts and service work. Buyers should also confirm warranty handling and return conditions for the supplied item before purchase.
Delivery and project coordination can be discussed after the requirement is confirmed. For installations, provide the site type, access conditions, tower or rooftop height, required safety arrangements and whether cabling, grounding, alignment or testing are within scope. FourTeck can coordinate requirements for organisations in Dubai and elsewhere in the UAE without assuming that every item or service is immediately available.
Dubai, Abu Dhabi, Sharjah and Ajman coverage
Businesses planning wireless links in Dubai, Abu Dhabi, Sharjah and Ajman can contact FourTeck for model confirmation, quotation coordination and project-scope discussion. The most useful starting information is the exact destination, quantity, deployment environment, tower or rooftop arrangement, proposed radio model and required installation services. A warehouse compound in Dubai may have very different interference and mounting conditions from a remote industrial site in Abu Dhabi or a multi-building property in Sharjah or Ajman. For that reason, the same antenna should not be assumed to deliver the same result across every location. FourTeck can help organise the procurement conversation around the actual use case and identify which technical details must be validated before supply or installation.
GCC availability
FourTeck can assist organisations planning Ubiquiti wireless infrastructure across GCC markets, including the United Arab Emirates, Saudi Arabia, Kuwait, Qatar, Bahrain and Oman. Support may include requirement review, antenna and radio selection, quotation coordination, delivery planning, configuration-scope definition and installation planning. For an AM-2G16-90 request, buyers should provide the destination country, quantity, intended frequency plan, preferred radio, subscriber count, deployment location and expected schedule. Product availability, permitted frequencies, licensing requirements, delivery arrangements, service visits and vendor lead times can vary by country and project. Regional power, grounding, tower access and environmental conditions may also affect the final bill of materials. FourTeck does not assume local inventory or a fixed installation date; these points should be confirmed in the quotation. Organisations with requirements in Kuwait may also review FourTeck Kuwait technology support for relevant regional coordination.
Africa availability
FourTeck can help organisations in African markets evaluate the AM-2G16-90 as part of a wider point-to-multipoint wireless design. Assistance may cover product selection, compatible radios, subscriber devices, mounting accessories, outdoor protection, configuration scope and support planning. Availability and fulfilment depend on the destination, quantity, vendor lead time, shipping arrangements, frequency regulations, local power conditions and project access. Buyers should share the destination country, exact model and quantity, proposed deployment schedule, client locations, installation height and any requirement for survey, configuration or onsite support. East African projects in Kenya or Uganda, for example, may require different delivery and service planning from projects elsewhere on the continent. FourTeck can coordinate the requirement without promising local inventory, customs outcomes or country-wide onsite coverage. Relevant regional information is available through FourTeck Africa, FourTeck Kenya and FourTeck Uganda.
Related products and services to consider
Compatible base-station radio
The antenna requires a suitable external radio. Confirm the exact Ubiquiti model, supported frequency, software status and mounting compatibility before ordering.
Subscriber station radios
Remote endpoints need compatible client devices sized for distance, required throughput, antenna pattern and local installation conditions.
120-degree sector alternative
A wider sector may suit sites where clients occupy a broader azimuth. Wider coverage changes gain, client loading and frequency-planning considerations.
5 GHz sector options
A 5 GHz design may be preferable where capacity, channel availability or smaller antennas matter. Propagation and line-of-sight requirements differ.
Outdoor surge protection
Ethernet surge protection, grounding materials and shielded outdoor cabling should be considered for exposed radio sites.
Survey and installation support
A survey can validate spectrum, line of sight and mounting conditions. Installation scope may include alignment, cabling, grounding, configuration and testing.
Why businesses contact FourTeck
Wireless infrastructure purchases often fail when the discussion starts and ends with a model number. Businesses contact FourTeck to clarify the real requirement behind the requested item. For this antenna, that means reviewing sector width, subscriber geography, radio compatibility, mounting, environmental exposure, accessories and service scope. The result is a more useful quotation and fewer missing components during deployment.
FourTeck can help separate confirmed product facts from project-dependent expectations. Range, throughput, client capacity and service quality cannot be guaranteed from antenna gain alone. By collecting site details and operational requirements, the team can identify decisions that need a survey or engineering review. Buyers can also discuss network switching, routing, firewalling, structured cabling and support requirements that sit around the wireless link. Learn more about FourTeck’s business technology approach or submit a requirement through the contact page.
Frequently asked questions
Is the AM-2G16-90 a complete wireless access point?
No. It is a passive sector antenna. A compatible external radio, power source, Ethernet connection and configured subscriber devices are required to create a working point-to-multipoint network.
What coverage angle does this model provide?
The product is identified as a 90-degree sector antenna, and Ubiquiti specifies a 90-degree VPOL beamwidth at 6 dB. Actual usable coverage depends on alignment, radio power, terrain, interference and client placement.
Which frequency range does it support?
The stated antenna range is 2.3 to 2.7 GHz. The legal operating channels depend on the connected radio, country regulations and configured transmit power. Not every frequency in the antenna range is necessarily available for use.
Which Ubiquiti radio should be paired with it?
Compatibility should be confirmed against the exact radio model and current product documentation. The antenna includes a RocketM bracket and weatherproof RF jumpers, but buyers should not assume compatibility with every Rocket or airMAX generation.
Can this antenna cover very long distances?
Potential distance depends on the complete link budget, radio, client antenna, channel width, interference, line of sight, Fresnel clearance and regulatory power limits. A site-specific design is needed rather than a single universal range figure.
Is 2.4 GHz suitable for a busy urban environment?
It may be suitable, but the band is often congested. A spectrum survey should measure local noise and competing networks. In some locations a different frequency platform may provide better capacity or reliability.
What mounting hardware is included?
Ubiquiti lists a universal pole mount, RocketM bracket and weatherproof RF jumpers as included. Additional pole hardware, surge protection, grounding, cable and structural components may still be required.
Does FourTeck provide installation and alignment?
Installation, alignment, cabling, grounding, radio configuration and testing can be discussed as part of the project scope. These services should be clearly included in the quotation when required and remain subject to site assessment and availability.
How can I confirm UAE availability and price?
Send FourTeck the exact model, quantity, destination and required accessories or services. Current price, availability, lead time, warranty guidance and delivery coordination can then be confirmed for the specific request.
What information is needed for an accurate quotation?
Provide quantity, destination, base-station radio, subscriber models, sector map, client distances, mounting details, required accessories and whether survey, installation, configuration or support must be included.
Confirm the antenna, radio and deployment scope together
Share your sector map, client count, radio preference, mounting location and required services. FourTeck can help prepare a clearer UAE quotation and identify the technical points that should be validated before ordering.
