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Wi-Fi 6 Access Points for Business: NetWave Lotus Alpha Series

NetWave Lotus Alpha is Immunity's Wi-Fi 6 access point range for commercial deployment — the indoor AX820 for offices, wards, classrooms and guest areas, and the ruggedised outdoor AX821 for campuses, streets and open spaces. Designed and manufactured in India, MTCTE certified, and managed from either an on-premises controller or the cloud.

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Indoor and outdoor at a glance

Lotus Alpha (AX820)Lotus Alpha OD (AX821)
DeploymentIndoorOutdoor, weatherproof
Typical useOffices, wards, classrooms, lobbies, guest areasCampuses, quadrangles, streets, villages, car parks
StandardWi-Fi 6Wi-Fi 6
PowerPower over EthernetPower over Ethernet
ManagementNetGuard X5 on-premises or NetCloud CentralNetGuard X5 on-premises or NetCloud Central
NotableDesigned for client density in enclosed spacesIndia's first PM-WANI certified access point

Full specifications, radio details and port configurations are in the model datasheets — AX820 indoor and AX821 outdoor. Detailed figures are supplied on the datasheet rather than summarised here, so that what you quote from is the current controlled document.

What Wi-Fi 6 changes for a busy office

Wi-Fi 6 is often sold on peak speed, which is the least interesting thing about it in an enterprise setting. What matters in a dense environment is how the standard handles many clients at once.

More clients per access point

OFDMA lets one transmission carry data for several clients at the same time rather than serving them strictly in turn. In practice that means a meeting room or classroom full of devices behaves better than the same space on older standards, even where raw per-device speed is similar.

Better behaviour with cheap devices

Much of the traffic on a corporate network comes from phones, scanners, sensors and IoT endpoints rather than laptops. Wi-Fi 6 scheduling and target wake time reduce airtime waste from those devices, which improves the experience for everyone sharing the channel.

Density is a design decision, not a product feature

No access point solves a bad plan. Wi-Fi 6 raises the ceiling, but the number of access points, their placement and their channel plan still determine whether a space works at peak occupancy. We size against the busiest hour and validate with an RF survey.

Choosing between the two

If you are covering…UseBecause
Open-plan office, meeting roomsAX820 indoorDensity-oriented indoor coverage on PoE
Hospital wards and corridorsAX820 indoorPredictable coverage through dense construction
Hotel guest floorsAX820 indoorPer-room coverage with portal-based guest access
Campus grounds, walkwaysAX821 outdoorWeatherproof housing built for field conditions
Public and street Wi-FiAX821 outdoorPM-WANI certified for public access deployments
Warehouse yards, car parksAX821 outdoorOutdoor coverage where there is no ceiling to mount to

Managing the access points

Both models are managed the same way, and you can change your mind later.

On-premises — the NetGuard X5 Controller provides wireless control together with gateway security, captive portal and authentication in a single appliance. This suits single sites and deployments where control must stay on the premises.

Cloud — NetCloud Central provides zero-touch provisioning, per-site dashboards, remote operations and AIOps monitoring across an estate. This suits multi-site operators and lean IT teams.

Many customers run both: local control at each site, central visibility across all of them. Whether one appliance or several makes sense for you is covered in our architecture comparison.

Powering and connecting them

Access points need PoE and a switching layer that can enforce segmentation. Our NetForce managed switches provide PoE access ports and hardware VLAN separation, so guest, staff and operational traffic never share a broadcast domain. Where existing switching stays in place, PoE injectors and adapters can power individual access points. NetWave access points are standards-based and will run on third-party PoE switching.

Certifications

Immunity equipment is MTCTE certified (and CE, FCC & RoHS compliant), with products listed on the Trusted Telecom Portal. Immunity also holds WPC approval, an IEEE OUI and an IANA PEN. Certification status varies by model and changes over time — ask us for current certification status on the models in your design and we will confirm in writing.

Frequently asked questions

What is the difference between Lotus Alpha and Lotus Alpha OD?

Lotus Alpha (AX820) is the indoor model; Lotus Alpha OD (AX821) is the ruggedised outdoor model in a weatherproof housing. Both are Wi-Fi 6 and both are managed the same way.

Do these access points need a controller?

They are managed either by the NetGuard X5 controller on-premises or through NetCloud Central in the cloud. Which you choose depends on whether you need local control, central multi-site visibility, or both.

Can they be used for public Wi-Fi?

Yes. The outdoor AX821 is India's first PM-WANI certified access point and is used in public access deployments. If you are looking specifically at running public Wi-Fi as a business, see PM-WANI.

Will they work with our existing switches?

Yes. The access points are standards-based and will run on third-party PoE switching. Pairing them with NetForce switches simplifies VLAN policy and consolidates support, but is not required.

Where are they manufactured?

At our facility in Sanand GIDC, Gujarat. Immunity has designed and manufactured networking equipment in India since 2009.

Get the datasheets

Tell us the spaces you need to cover and the numbers you expect at peak. We will recommend a model mix and access point count, and send the current datasheets.

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The Wi-Fi 6 features that matter in practice

Wi-Fi 6 introduced several mechanisms that only show their value under load. Here is what each one does in a real deployment, without the marketing gloss.

OFDMA — sharing airtime instead of queueing

Earlier standards gave the whole channel to one client at a time. OFDMA divides a channel into smaller resource units so several clients can be served within a single transmission. The gain is largest where many devices send small amounts of data frequently — which describes most offices, classrooms and wards. It reduces latency and jitter more visibly than it raises peak speed.

BSS colouring — coping with your own neighbours

In a dense deployment your own access points are the main source of interference. BSS colouring tags transmissions so a device can distinguish its own network's traffic from a neighbouring cell's and transmit rather than needlessly deferring. This is what makes tighter access point spacing viable in high-density areas.

Target wake time — keeping IoT off the air

Sensors, scanners and building devices wake, transmit briefly and sleep. Target wake time schedules those wake-ups so they stop competing randomly for airtime. On a network with hundreds of IoT endpoints this frees capacity for the people using it, and extends battery life on the devices themselves.

MU-MIMO — serving several clients at once

Multi-user MIMO allows an access point to transmit to multiple capable clients simultaneously using spatial streams. The benefit depends on client support and on how devices are physically distributed, so it complements OFDMA rather than replacing it.

WPA3 — the security baseline

Wi-Fi 6 arrives with WPA3, which strengthens authentication against offline password attacks and improves protection on open networks. For guest and public deployments this matters more than throughput.

Planning power and cabling

Access points are only as reliable as what feeds them, and PoE is where wireless projects most often get pinched.

Budget the switch, not just the port

A switch may support PoE on every port but have a total power budget lower than the sum of those ports. Populate every port with an access point and the budget, not the port count, becomes the limit. We calculate total draw across the estate as part of design.

Cable runs and distance

Ethernet runs to roughly 100 metres including patch leads. Outdoor and large-site deployments frequently exceed that, which is where fibre to a local switch, or a repositioned comms cabinet, enters the design. Better to find this during survey than during installation.

Outdoor considerations

Outdoor access points need surge protection and proper earthing, and mounting must account for wind loading and access for maintenance. Weatherproof housing is necessary but not sufficient — the installation practice around it matters as much.

Where existing switching stays in place, PoE injectors and adapters power individual access points without replacing the switch.

How many access points do you need?

The honest answer is that it cannot be calculated from floor area alone, but the reasoning is straightforward.

  1. Count devices at peak, not people. Assume several connected endpoints per person in most workplaces, and include IoT, cameras and handsets.
  2. Decide the per-client experience you need. Video conferencing sets a much higher bar than email and browsing.
  3. Divide by realistic clients per radio. Not the datasheet maximum — a figure that leaves headroom at the busiest hour.
  4. Adjust for the building. Dense walls, shielded rooms and racking increase the count for coverage reasons independent of capacity.
  5. Validate by survey. The desk estimate produces a budget; the survey produces the design.

We will do this sizing for your sites before quoting, and we will show the working.

Getting deployment right

Two access points of identical specification can perform very differently depending on how they are installed. These are the practical points that most affect the result.

Mount them where the users are

Ceiling mounting in the occupied space almost always beats mounting in a corridor or comms room and hoping the signal reaches. Access points above false ceilings, inside metal enclosures or behind ducting lose a surprising amount of performance.

Plan channels, do not leave it to chance

In the 5 GHz band there is enough spectrum to plan properly; in 2.4 GHz there is not. Overlapping co-channel cells cause devices to defer transmission, which users experience as slowness even at full signal strength.

Do not over-power the radios

Turning transmit power to maximum is the most common self-inflicted problem in dense deployments. It makes cells overlap, encourages devices to cling to distant access points, and degrades roaming. Lower power with more access points outperforms fewer access points shouting.

Validate after installation

A post-installation survey confirms the design performed as modelled and catches the handful of locations that behave differently in practice. It is a short exercise that prevents long arguments later.

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