524WiFi™ Outdoor Wi-Fi 6E Omnidirectional Antenna, 2×2 MIMO, 2.4/5/6 GHz, 4/6 dBi, 2x RP-SMA Male

2×2 MIMO, two RP-SMA male leads

This purchased configuration has two 30 cm white LMR100 leads terminated in RP-SMA male. The short leads are intended to keep the radio or a low-loss extension close to the antenna, limiting feed loss at the higher bands.

Use it with a compatible two-port radio. Both paths share the same stated bands and pattern so the access point can use 2×2 MIMO from one planned mast location.

How the radiation pattern shapes real-world coverage

The horizontal beam width is 360°, which describes coverage around the mast. The vertical beam is 48° at 2.4 GHz and 28° at 4.9–7.125 GHz. Imagine a flattened volume of RF energy extending around the antenna rather than a perfect sphere. Mounting the antenna higher can improve line of sight, but excessive height or a poorly chosen vertical pattern can move the strongest energy above or beyond nearby users. Coverage must be planned in three dimensions.

Install with the antenna vertical and clear of large metal surfaces. Mounting directly beside a steel pole, wall edge, roof plant or solar-array frame can shadow part of the circle and change impedance. Use the supplied mast hardware within the documented diameter range, support every cable independently and create a weather-managed cable route. The outdoor radome and wind rating do not make an exposed connector joint automatically weatherproof; seal outdoor RF interfaces with a professional layered weatherproofing system.

What 2×2 contributes — and what it does not promise

Two independent antenna feeds support a compatible 2×2 radio. Spatial diversity can help the radio use multipath and maintain a more resilient link, while two-stream operation can increase capacity when both radio and client support it. Because both feeds are housed together, their placement and weather exposure remain consistent.

MIMO performance is an end-to-end property. The radio must provide the corresponding number of external RF ports, the firmware must use them correctly and the remote device must support compatible spatial operation. The antenna cannot manufacture extra streams, bandwidth or transmitter power. Its job is to provide matched passive RF paths with a known pattern, gain, impedance and connector arrangement.

Connect all active radio paths and keep cable routing consistent. Long extensions, mixed cable types and unnecessary adapters can introduce unequal loss between paths, which reduces the value of a carefully selected MIMO antenna. Where an extension is unavoidable, choose 50-ohm low-loss coax rated for the highest operating frequency and include the complete connector-and-cable loss in the link budget.

524WiFi Signal Plus™ on receive and transmit

524WiFi Signal Plus™ is our specification-led designation for the complete passive RF path. The antenna works reciprocally: on receive it collects energy from remote radios; on transmit it radiates the energy delivered by the connected equipment. The same frequency coverage, pattern, gain, matching and feed system matter in both directions. Signal Plus is not a powered amplifier and does not override the radio’s limits.

At 2.4 GHz, VSWR is specified below 1.5; across 4.9–7.125 GHz it is below 2.2. Those matching limits, combined with 4/6 dBi gain and short LMR100 leads, are the measurable basis of the Signal Plus implementation for this model.

Recommended deployments

The 2×2 version is well matched to compact outdoor radios, wireless gateways and access points with two RP-SMA female antenna ports. It provides the broad azimuth pattern needed for moving or distributed clients without the cable count of a 4×4 system.

Site-planning checklist

1. Map the clients. Confirm that important devices genuinely surround the antenna. If they occupy one direction only, compare a directional panel before committing to omni coverage.
2. Confirm bands and ports. Match the radio’s operating bands, number of external antenna ports, 50-ohm impedance and exact connector gender to this purchased configuration.
3. Choose useful height. Seek line of sight over local obstructions without placing the vertical pattern above nearby clients. Analyse both the closest and farthest service points.
4. Control feed-line loss. Keep the supplied 30 cm LMR100 leads short and protected. If more distance is unavoidable, use matched low-loss extensions on both paths and count their loss at 6 GHz.
5. Protect the outdoor interfaces. Provide strain relief, a drip loop, connector weatherproofing, grounding and surge protection appropriate to the structure and local electrical rules.
6. Measure both directions. Check receive metrics, throughput and stability from representative low-power clients as well as signal strength reported by the client. A strong downlink alone is not a complete wireless link.

Understanding the specification instead of chasing one headline number

Frequency coverage

Each port covers 2400–2500 and 4900–7125 MHz. The antenna can pass 2.4, 5 and 6 GHz Wi-Fi frequencies, but it cannot add Wi-Fi 6E capability to a radio that lacks it.

Documented gain

4 dBi at 2.4 GHz and 6 dBi at 4.9–7.125 GHz. The higher-band gain comes with a narrower 28° vertical beam, so mounting geometry matters.

VSWR

Below 1.5 at 2.4 GHz and below 2.2 at 4.9–7.125 GHz under the stated product specification. Installed matching can be affected by adapters, cable damage and nearby metal.

50-ohm impedance

Matches the standard RF system impedance expected by compatible radios, connectors and coaxial feed lines.

DC ground

Describes the antenna’s specified static/lightning-protection topology. It does not replace building bonding, surge arrestors or a code-compliant lightning-protection design.

Wind and temperature

The specified radome assembly is rated for 210 km/h wind and operation from −40°C to +65°C. Correct mast hardware, cable support and connector sealing remain the installer’s responsibility.

Omnidirectional or directional?

Choose this omni model when coverage must extend around the installation point and a single azimuth direction would leave important clients behind the antenna. Choose a directional panel when the remote site, base station or service sector is known and concentrated. A directional antenna can offer more gain and interference rejection toward one target, while an omni antenna offers broader azimuth coverage and easier support for moving or distributed clients.

Compared with the four-port Wi-Fi version, this model is the efficient choice for a dual-chain radio. Do not buy four antenna paths for equipment that exposes only two compatible ports.

Frequently asked technical questions

Does higher mounting always improve the result?

No. Height can improve line of sight, but the vertical beam must still intersect the client area and longer cable may consume the gain advantage. Select height together with pattern, distance and feed loss.

Can this passive antenna boost transmitter power?

No. It has no active amplifier. Antenna gain describes how the radiation pattern concentrates energy relative to a reference. Legal transmitter power and EIRP remain controlled by the radio configuration and local regulation.

Can unused MIMO leads be left disconnected?

Only if the radio manufacturer explicitly permits that operating mode and the unused radio ports are handled as specified. Never transmit into an active unterminated port. Select the antenna port count that matches the equipment.

Is the antenna automatically compatible with every router?

No. Compatibility requires matching frequency bands, number of external ports, 50-ohm impedance, connector series and gender, and support for external antennas in the device documentation. This version uses RP-SMA male; standard SMA is not the same connector.

Will the antenna provide the same distance in every direction?

The nominal azimuth pattern is omnidirectional, but the installed environment is not. Buildings, trees, vehicles, terrain, metalwork, cable loss, interference and remote-device capability can create substantial directional differences. A site survey is the correct way to validate coverage.