Cisco Meraki MR Model Comparison
Choosing a Meraki access point in 2026 is not simply a matter of selecting the model with the largest headline throughput figure. The practical decision now includes radio generation, client density, multigigabit switching, PoE budget, indoor or outdoor mounting, 6 GHz readiness, cloud licensing and—critically—the lifecycle position of several established MR models.
Direct answer: what is the Cisco Meraki MR family and which model should you consider?
Cisco Meraki MR is a family of cloud-managed wireless access points used to provide centrally administered business Wi-Fi. Within the models most commonly encountered in current projects and installed estates, the family spans entry-level indoor APs such as the MR28, wall-switch hospitality designs such as the MR36H, higher-capacity indoor Wi-Fi 6 platforms such as the MR44 and MR46, the former high-end MR56, the tri-band Wi-Fi 6E MR57, and the outdoor MR78. These products are managed through the Meraki cloud and require suitable Meraki wireless licensing.
A small office with moderate user density can often start its evaluation around the MR28 class. A hotel guest room, student residence or compact branch where wired device ports are useful should examine the MR36H form factor. An office floor with heavier concurrency should compare MR44 and MR46 class designs, while organisations that require 6 GHz client access, dual multigigabit uplinks or a more future-oriented high-capacity platform should evaluate the MR57 and also compare current Cisco wireless successors before committing to a new standard. Outdoor courtyards, warehouses, school grounds and exterior coverage zones point toward the weather-resistant MR78 rather than an indoor AP.
The most important factor to confirm is not a single radio number. The correct model depends on measured RF conditions, expected concurrent clients, application behaviour, switch-port speed, PoE power, cable plant, mounting position, regulatory availability of the required radio bands, licensing model and hardware lifecycle. A high-end AP connected to a one-gigabit switch with insufficient PoE or installed in the wrong RF location can deliver a worse project outcome than a smaller AP correctly designed into a denser cell plan.
FourTeck can help turn those variables into an actionable shortlist: which AP class fits each area, whether existing switches can power and uplink it correctly, which licence structure applies to the Meraki organisation, whether an announced end-of-sale model still makes commercial sense, and whether a newer Cisco wireless platform should be compared before purchase.
The 2026 lifecycle issue changes the comparison
A Meraki MR comparison written only around radio speeds is incomplete in 2026. Cisco Meraki has announced end-of-sale dates for several well-known Wi-Fi 6 MR models. MR36, MR36H, MR44, MR46 and MR46E were announced for end of sale with a last order date of December 31, 2026 and an end-of-support date of December 31, 2031. MR56 had an earlier end-of-sale date of August 7, 2025 with end of support scheduled for August 7, 2030. That means the MR56 should generally be treated as installed-base, replacement or lifecycle-planning hardware rather than a default greenfield recommendation.
The other important nuance is timing. On September 1, 2026, the MR36, MR36H, MR44 and MR46 are still inside their published order window, but they are already on a defined lifecycle path. An organisation may still have a rational reason to buy them: standardising an existing site, matching spares, completing a phased rollout, using an approved design that cannot be changed quickly, or keeping operational consistency across a large estate. However, a buyer planning a completely new five-to-seven-year WLAN should compare those models against newer Cisco wireless options before making a long-term decision.
This distinction is especially important for Dubai projects where procurement, fit-out and handover can span months. A model that is technically suitable today may be commercially awkward if additional units are expected after the published final order date. The purchasing plan should therefore include both technical fit and the expected timeline for expansion, spares, branch rollouts and support coverage.
Lifecycle reading guide
- MR36 / MR36H / MR44 / MR46 / MR46E: still orderable within the announced window, but final order date is 31 December 2026.
- MR56: end of sale passed on 7 August 2025; think installed-base support, replacement planning and successor comparison.
- MR28 / MR57 / MR78: they were not listed in the cited Meraki EOL table at the time this comparison was prepared; still confirm current orderability in the quotation because product status can change.
- Greenfield rule: always compare lifecycle horizon with the intended network service life, not merely with today’s stock status.
Cisco Meraki MR model comparison matrix
The table below focuses on buyer decisions rather than trying to reproduce every datasheet field. Radio and interface values are useful for shortlisting, but final RF design should still use site conditions, client capability and regulatory settings.
| Model | Wireless / radio position | Uplink | Power position | Best-fit discussion | 2026 lifecycle view |
|---|---|---|---|---|---|
| MR28 | Dual-band Wi-Fi 6, 2×2:2, up to 1.5 Gbps aggregate frame rate. | 1 x 1 GbE | 802.3af, 15 W maximum listed. | Cost-conscious indoor coverage, basic to medium-density branches, smaller offices and rooms where multigigabit uplink is not required. | Not listed in the referenced EOL table when prepared; confirm quote-time status. |
| MR36 | Dual-band Wi-Fi 6, 2×2 class. | 1 x 1 GbE | 802.3af class, 15 W maximum in Cisco comparison data. | Established general-purpose indoor deployments where a straightforward Wi-Fi 6 AP aligns with an existing Meraki standard. | End of sale announced for 31 Dec 2026; support to 31 Dec 2031. |
| MR36H | Dual-band Wi-Fi 6, 2×2:2 wall-switch AP with dedicated security/RF radio and BLE. | 1 x 1 GbE uplink plus integrated wired access ports and passthrough. | Up to 30 W with 802.3at; PoE-out capability is a design consideration. | Hotels, residences, dormitories and room-based deployments where Wi-Fi and local wired endpoints converge at the wall plate. | End of sale announced for 31 Dec 2026; support to 31 Dec 2031. |
| MR44 | Wi-Fi 6 with 2×2:2 on 2.4 GHz and 4×4:4 on 5 GHz; up to 2.7 Gbps aggregate frame rate. | 1 x 2.5 GbE | 802.3at up to 30 W; documented low-power operation is possible in specific conditions. | Office floors and education areas where 5 GHz capacity matters more than a symmetric 4×4 radio on both bands. | End of sale announced for 31 Dec 2026; support to 31 Dec 2031. |
| MR46 | Dual-band Wi-Fi 6, 4×4:4, up to 2.98 Gbps aggregate frame rate. | 1 x 2.5 GbE | 802.3at, 30 W maximum listed. | Higher-density Wi-Fi 6 indoor areas where 4×4 capability on both client bands and multigigabit access switching are justified. | End of sale announced for 31 Dec 2026; support to 31 Dec 2031. |
| MR56 | High-performance Wi-Fi 6 with 8×8:8 on 5 GHz and 4×4 on 2.4 GHz; up to 5.38 Gbps aggregate frame rate. | 1 x up to 5 GbE | 802.3at, 30 W maximum listed. | Existing high-density Wi-Fi 6 estates and replacement planning. New greenfield buyers should compare newer platforms. | End of sale passed 7 Aug 2025; support to 7 Aug 2030. |
| MR57 | Tri-band Wi-Fi 6E, 4×4 class across 2.4, 5 and 6 GHz; up to 7.78 Gbps aggregate frame rate. | 2 x up to 5 GbE | 30 W minimum; up to 40 W with 802.3bt when full power/USB requirements apply. | High-capacity indoor environments, 6 GHz strategy, resilient uplink designs and clients capable of benefiting from Wi-Fi 6E. | Not listed in the referenced EOL table when prepared; confirm current orderability and compare current Cisco alternatives. |
| MR78 | Outdoor dual-band Wi-Fi 6, 2×2:2, up to 1.5 Gbps aggregate frame rate. | 1 x 1 GbE | 802.3af, 15 W maximum listed. | Outdoor coverage where IP67 environmental protection is more important than indoor high-density radio scale. | Not listed in the referenced EOL table when prepared; confirm quote-time status. |
Model-by-model buyer analysis
MR28: entry-level Wi-Fi 6 for straightforward indoor coverage
The MR28 is the simplest model in this comparison to position. It is a dual-band 802.11ax access point with 2×2:2 radios and a published aggregate frame rate of up to 1.5 Gbps. Its single 1 GbE uplink and 15 W 802.3af power profile keep the wired-side requirement modest. That combination can be attractive in branch offices, compact retail spaces, clinics, back-office areas and smaller meeting zones where the design objective is reliable managed Wi-Fi rather than maximum per-AP capacity.
The limitation is equally clear. A 1 GbE uplink and 2×2 radio architecture do not make the MR28 the natural choice for the busiest floor of a dense office or a venue expecting many high-throughput clients on one cell. A buyer should resist the assumption that lower-cost APs can simply be placed farther apart to reduce quantity. Wireless capacity depends on airtime, contention, client transmit power and channel reuse. In many business environments, several correctly placed moderate-capacity cells perform better than a small number of APs expected to cover excessive area.
The MR28 is therefore best evaluated as an efficient cloud-managed coverage AP. Confirm the number of active devices per zone, expected video and collaboration traffic, the age of client devices, ceiling layout and whether a 1 GbE access layer is intended to remain in service. If the switching refresh will introduce multigigabit ports and the WLAN is expected to serve denser collaboration areas, a higher class of AP may produce a more balanced investment.
MR36: established general-purpose Wi-Fi 6, now with a defined sales horizon
The MR36 has been a common general-purpose indoor Meraki Wi-Fi 6 platform. It sits in the 2×2 class and uses a 1 GbE uplink, making it straightforward to deploy on conventional access switching. For organisations with an established MR36 design, one of its biggest practical advantages is operational consistency: known mounting methods, familiar RF behaviour, standardised spare strategy and a large body of existing configuration experience.
The 2026 question is no longer whether the MR36 can provide business Wi-Fi—it can—but whether buying more of it aligns with the expected life of the network. Cisco Meraki has announced December 31, 2026 as the end-of-sale date for MR36 hardware, with support extending to December 31, 2031. That creates two legitimate but different purchasing paths. An existing estate that needs a final phase, a controlled replacement pool or a consistent branch standard may still have a strong reason to purchase before the cutoff. A greenfield project that intends to expand after 2026 should compare a newer Cisco platform before locking the architecture.
Procurement should therefore ask a timeline question alongside the usual RF questions: will every required AP for the planned deployment be ordered before the final date, and will support through 2031 cover the intended service period? If the answer is uncertain, migration planning matters more than saving effort by reusing a familiar model.
MR36H: hospitality and room-based Wi-Fi with wired access at the edge
The MR36H is different from the ceiling-focused APs because it combines dual-band Wi-Fi 6 with a wall-switch form factor and integrated wired connectivity. Cisco documents three wired access ports plus a passthrough port, with one Ethernet output capable of 802.3af PoE when the AP is appropriately powered. That makes the unit particularly relevant to hotel rooms, serviced apartments, student accommodation and other spaces where a local television, phone, media device or workstation may need Ethernet close to the user.
This design can simplify room cabling and reduce the number of separate edge devices, but it changes the PoE calculation. The AP can draw up to the 30 W class, and the availability of PoE output depends on the powering arrangement. A design that assumes downstream PoE without checking the switch budget and negotiated input power can fail operationally even though the wireless side appears correct on paper. The physical wall position also affects RF propagation differently from a central ceiling-mounted AP, so a room-by-room heatmap or validation is valuable in hospitality projects with thick walls, mirrored surfaces, bathrooms and corridor attenuation.
The MR36H shares the December 31, 2026 end-of-sale date announced for several MR models. Buyers completing a hotel standard based on this unit should verify quantities, spares and project phases early. For new properties whose fit-out extends beyond that point, the wired-port requirement should be carried into the successor comparison rather than treating any ceiling AP as an equivalent replacement.
MR44: stronger 5 GHz capacity without the full MR46 radio profile
The MR44 is a useful middle ground in the classic Meraki Wi-Fi 6 line. Cisco lists a 2×2:2 radio on 2.4 GHz and a 4×4:4 radio on 5 GHz, with an aggregate frame rate up to 2.7 Gbps and a 2.5 GbE uplink. That asymmetric radio design fits an enterprise reality: most performance-sensitive business clients should preferentially use 5 GHz, while 2.4 GHz remains important for coverage, legacy clients and some IoT devices.
The MR44 can therefore make sense on office floors, education spaces and mixed-user environments where 5 GHz capacity is the primary concern and a multigigabit access layer is available. It should not be selected simply because 2.5 GbE is present. Whether the uplink is materially beneficial depends on aggregate client demand, channel widths, RF conditions and the number of capable clients. In a low-density environment, the real-world difference from a smaller AP may be limited; in a dense collaboration zone, the additional radio capability can be valuable.
Like MR36 and MR46, the MR44 has a published end-of-sale date of December 31, 2026. Existing deployments may reasonably continue with it for standardisation, but a new long-life network should treat its lifecycle as part of the business case. The comparison should include expected expansion dates and the cost of maintaining two AP generations if new buildings or branches will be added later.
MR46: balanced 4×4 Wi-Fi 6 for demanding indoor zones
MR46 moves to 4×4:4 operation on both 2.4 GHz and 5 GHz in Cisco’s comparison data and offers a published aggregate frame rate of up to 2.98 Gbps. Its wired uplink supports up to 2.5 GbE and the unit is designed around 802.3at power. In practical design terms, MR46 is the classic choice to examine when user density, airtime efficiency and performance expectations have moved beyond an entry-level 2×2 AP but a 6 GHz strategy is not required.
A common mistake is to translate 4×4 directly into four times the user experience of a 1×1 client. Most endpoints will not use every spatial stream exposed by the AP. The advantage is broader: better radio resources, multi-user operation, stronger handling of aggregate traffic and more headroom in demanding cells. Those benefits are meaningful in open offices, higher-education spaces, medical environments and busy commercial interiors, but they still depend on channel planning and client mix.
MR46 is also in the March 2026 end-of-sale announcement group, with the last order date set to December 31, 2026. A buyer considering MR46 now should ask whether the project is extending an installed estate or creating a new platform. For an extension, compatibility and standardisation may outweigh lifecycle concerns. For greenfield, compare the switching, PoE and licensing investment against newer Cisco wireless hardware that can carry the design further into the next refresh cycle.
MR56: powerful Wi-Fi 6 hardware, but no longer a normal new-sale choice
The MR56 was positioned as a high-performance Wi-Fi 6 AP. Cisco lists an 8×8:8 5 GHz radio, 4×4 2.4 GHz radio, up to 5.38 Gbps aggregate frame rate and a wired interface capable of 5 GbE. From a pure specification perspective, those numbers remain substantial. For an installed estate, that capability can still be operationally relevant in dense locations where replacement needs to preserve known radio performance.
The lifecycle position is decisive, however. MR56 reached end of sale on August 7, 2025. Cisco lists end of support as August 7, 2030. A greenfield design in 2026 should not treat MR56 as the top of a currently open ordering ladder. Instead, it should be viewed as a reference point: what capacity did the old high-end Wi-Fi 6 design provide, and which currently orderable Cisco platform best replaces that role?
If an MR56 estate needs replacement units, procurement should confirm supported sourcing, warranty implications and whether a direct hardware substitution remains the right operational decision. It may be more economical to begin a controlled migration in the highest-value areas rather than perpetuate a shrinking hardware pool. The correct answer depends on support horizon, stock position, firmware policy, available switching and how quickly the organisation expects to adopt newer client generations.
MR57: Wi-Fi 6E, 6 GHz and dual multigigabit uplinks
MR57 is the most architecturally distinct indoor model in this MR comparison. It is a tri-band Wi-Fi 6E AP with 2.4 GHz, 5 GHz and 6 GHz client access. Cisco publishes a 7.78 Gbps tri-radio aggregate frame rate, 4×4-class radios and two Ethernet interfaces capable of 100/1000/2.5G/5G. The second uplink can support designs that use power/data sharing or high-availability functions when the required firmware and configuration conditions are met.
The 6 GHz band is the reason many buyers notice MR57, but 6 GHz should be treated as a design capability, not a guarantee of faster Wi-Fi for every device. Clients must support the band, regulatory availability must permit the intended channels, and 6 GHz propagation characteristics are different from lower frequencies. A network may gain clean spectrum and additional channel opportunities while also needing more careful cell placement because higher-frequency signals attenuate more rapidly through certain walls and building materials.
The wired and power side is equally important. Cisco lists 30 W as a minimum operating requirement and up to 40 W with 802.3bt when the design needs the full power envelope and USB support. A switch that only provides basic PoE may therefore be unsuitable. Likewise, using a premium 6E AP on a legacy gigabit uplink can create a mismatch between WLAN investment and access-layer capacity. The quotation should verify PoE class, per-port budget, total switch budget, cable category, switch multigigabit capability and whether dual uplinks are actually required.
MR57 suits organisations with a clear reason to adopt 6 GHz, dense client populations, premium collaboration areas or resilience requirements. For a new 2026 project, it should also be compared with Cisco’s newer wireless generations so the buyer understands whether Wi-Fi 6E remains the right target or whether a Wi-Fi 7 platform better matches the client-refresh horizon.
MR78: outdoor Wi-Fi 6 when environmental protection is the primary requirement
MR78 is not an outdoor version of the highest-capacity indoor MR model. It is an entry-level outdoor Wi-Fi 6 AP with dual-band 2×2:2 radios, up to 1.5 Gbps aggregate frame rate, one 1 GbE uplink and 802.3af power. Cisco lists an IP67 environmental rating and an operating range from -20 °C to 55 °C. That combination makes its role easy to understand: practical outdoor coverage with a relatively simple wired requirement.
Outdoor WLAN design introduces variables that do not appear in normal office calculations. Mounting height, line of sight, reflections from glass and metal, landscaping, weather exposure, cable entry protection, lightning and grounding practice, legal EIRP limits and the distance between users and the AP all matter. In Dubai, heat exposure and direct sun can also affect the installation environment even when the product’s rated temperature is suitable; the exact mounting location should avoid unnecessary thermal stress where practical.
MR78 is well suited to courtyards, school grounds, loading zones, outdoor hospitality areas and exterior walkways where moderate capacity is sufficient. It is less suitable where a large open venue needs very high density or directional coverage. In those cases, the design should consider a higher-class outdoor Cisco platform or external-antenna architecture rather than assuming that adding more MR78 units in arbitrary positions will solve capacity and interference.
Wi-Fi 6 versus Wi-Fi 6E: when the generation difference actually matters
MR28, MR36, MR36H, MR44, MR46, MR56 and MR78 are Wi-Fi 6-class access points operating on the familiar 2.4 GHz and 5 GHz client bands. MR57 adds the 6 GHz band through Wi-Fi 6E. The buyer value of 6E is not simply a larger marketing number. The extra band can provide additional spectrum and cleaner channel opportunities for compatible devices, potentially reducing contention in environments where 5 GHz is busy. This can be useful for modern laptops and collaboration devices that support 6 GHz.
However, a 6 GHz radio does not accelerate an older 5 GHz-only client. The benefit appears only when a meaningful portion of the endpoint population can use the band and the WLAN is configured accordingly. Before choosing MR57 specifically for 6 GHz, inventory the client estate: laptop models, mobile devices, corporate refresh cycle, operating-system support and authentication method. If most endpoints will remain Wi-Fi 5 or Wi-Fi 6 dual-band devices for several years, the immediate return from a premium 6E design may be lower than expected.
Coverage planning also changes. Higher-frequency 6 GHz signals generally experience greater attenuation through obstacles than lower-frequency signals. The same AP grid created for 2.4 GHz coverage should not automatically be assumed to provide equivalent 6 GHz service. A well-designed tri-band network may use 2.4 GHz for reach and selected IoT needs, 5 GHz for broad business capacity and 6 GHz for modern clients in cells where the spectrum is advantageous. That is a radio strategy, not a one-model specification comparison.
Regulatory support must also be confirmed for the deployment country and firmware domain. Cisco’s own MR57 documentation notes that 6 GHz channel availability depends on regulatory bodies. A Dubai or wider UAE quotation should therefore confirm the current approved operating conditions rather than copying channel assumptions from a United States or European design.
Capacity and density: why spatial streams are only part of the answer
Client count is not enough
Two spaces can each have 60 connected devices but very different capacity needs. A classroom running web browsing and messaging behaves differently from a design studio moving large files or a boardroom sustaining multiple video calls. Estimate simultaneous active users, not only registered devices, and identify applications that consume airtime continuously.
Channel width changes the trade-off
Wider channels can raise peak throughput but consume more spectrum and reduce the number of non-overlapping channels available for reuse. Dense enterprise designs often need a deliberate compromise between headline speed and the ability to operate many adjacent cells without excessive co-channel contention.
The weakest client still uses airtime
Legacy and distant clients can occupy more airtime to transmit the same amount of data. A premium AP cannot compensate for every poorly placed device, obstructed endpoint or old radio. Minimum data rates, band steering strategy, cell sizing and roaming behaviour matter alongside AP model selection.
More APs can be better than bigger APs
In some high-density environments, capacity is improved by creating more carefully controlled cells instead of relying on one extremely capable radio to cover a large area. The correct AP count follows RF design and traffic demand, not a simplistic square-metre ratio.
Uplink speed must match likely aggregate demand
MR44 and MR46 can use 2.5 GbE, MR56 can use 5 GbE and MR57 provides dual interfaces up to 5 GbE. Those capabilities matter when the RF side can generate enough traffic. Otherwise, upgrading every switch port solely because an AP supports multigigabit Ethernet may not be the best use of budget.
Validate the design after installation
Predictive surveys are useful, but final commissioning should verify real signal levels, channel use, roaming boundaries, interference and application performance. Furniture, partitions, shelving, decorative metal and neighbouring networks can change the RF environment from the original floor plan.
PoE and switching: the hidden part of the AP purchase
An access-point quote that lists hardware and licences but ignores switching can produce an incomplete project. The MR28 and MR78 have simple 15 W 802.3af requirements in Cisco’s datasheets. MR44, MR46 and MR56 move into the 30 W class around 802.3at. MR36H can also require the 30 W class, particularly when its edge-port capabilities are part of the design. MR57 is more demanding: Cisco lists a 30 W minimum and up to 40 W with 802.3bt for its full power envelope and USB support. These are not interchangeable assumptions.
Check PoE at two levels. First, confirm that each switch port supports the required standard. Second, confirm that the total PoE budget of the switch can power all attached APs and other PoE devices simultaneously. A 48-port switch may technically offer PoE+ on every port but still have a finite overall wattage budget. Phones, cameras, sensors and access points compete for that budget. The design should model normal and maximum demand, then preserve sensible headroom.
Uplink speed is the next layer. MR28, MR36 and MR78 use gigabit uplinks. MR44 and MR46 support 2.5 GbE. MR56 supports up to 5 GbE. MR57 provides two interfaces up to 5 GbE each. A multigigabit AP port may require compatible switch hardware and suitable copper cabling. Existing Cat5e can support some multigigabit scenarios depending on distance and installation quality, but cable testing is safer than assuming every legacy run will negotiate at the desired rate. Patch panels, patch leads and termination quality are part of the path.
Do not upgrade to a multigigabit switch purely to match a label on the AP. Estimate the aggregate WLAN demand and WAN/LAN architecture. A branch with a 500 Mbps internet circuit and mostly SaaS traffic may receive little practical benefit from a 5 GbE AP uplink, while a design studio using fast local storage could justify it. The access layer should match traffic flow, not just radio capability.
MR57’s dual uplink options also deserve deliberate design. Redundant physical links can improve resilience only if upstream switching, VLAN design, firmware support and failure behaviour are understood. Two cables do not automatically create application continuity. If high availability is a requirement, document the expected failure scenarios—switch-port failure, switch failure, power failure and upstream path failure—and design around the actual outcome required by the business.
Meraki licensing: compare the organisation model as carefully as the AP model
Meraki cloud management is a core part of the MR experience, and access points require appropriate licensing. Cisco Meraki currently documents three licensing models across the platform: Subscription Licensing, Co-Termination Licensing and Per-Device Licensing, while noting that per-device licensing is no longer available as a new conversion path in regions where subscription licensing is available. A buyer should not assume that the licence process for a new organisation is identical to that of an older Meraki estate.
For traditional MR licensing, Cisco describes MR licences as model-agnostic within the relevant licensing system and offers Enterprise, Advanced and Upgrade concepts. MR Enterprise covers standard wireless functionality; MR Advanced adds selected capabilities such as AI-assisted features, AI-RRM, proactive packet capture, Adaptive Policy and other enhancements documented by Cisco. The exact feature tier should be chosen because the organisation needs those functions, not because a higher tier sounds safer.
Subscription licensing changes the commercial structure. Cisco documents subscription SKUs as hardware-agnostic within product classes and positions subscription licensing as the flexible long-term model. This can simplify hardware evolution because the licence class is not tied to one exact AP SKU in the same way buyers may expect from other networking products. Co-term licensing, by contrast, calculates a shared organisation-wide expiration date based on the licences present in the organisation. That can be convenient for a stable estate but requires careful renewal planning because adding licences changes the co-term calculation.
The quotation must start with the existing Meraki organisation, not with a generic licence line. Ask whether the customer already has a Dashboard organisation, which licensing model it uses, the current expiry position, the number of APs already claimed, the desired term and whether Enterprise or Advanced capabilities are required. For a migration, check whether new APs are being added alongside existing MR units or replacing them one-for-one. Licence treatment and renewal timing can affect total cost more than a small hardware-price difference between two AP models.
For budgeting, separate hardware, licences, PoE injectors or adapters where required, switching upgrades, cabling remediation, installation, survey work and support. A low hardware price is not a low project price if the chosen AP triggers an unplanned switch replacement or if the wrong licence assumption creates a renewal correction later.
Cloud management, RF operations and security implications
The main reason organisations standardise on Meraki is usually operational rather than purely radio-related. MR access points are managed through the Meraki Dashboard, which centralises configuration, monitoring, firmware, client visibility and troubleshooting. For multi-site businesses, this can reduce the need to maintain separate controller infrastructure at every location and allows branch WLANs to be administered from one interface.
That operating model influences design. Internet reachability to Meraki cloud services, firewall rules, DNS and time services should be accounted for during deployment. Local data forwarding and cloud management are separate concepts: the AP does not need to tunnel every user packet through a distant Meraki cloud data plane simply because configuration is cloud managed. Still, the Dashboard relationship is essential for configuration, monitoring and licence compliance, so WAN and security policy should not accidentally block required management communication.
Dedicated or opportunistic scanning behaviour also differs by model. Higher-class MR units can use dedicated radios for security scanning, spectrum analysis or RF functions, while entry designs may perform some monitoring opportunistically. Buyers running security-sensitive wireless environments should therefore compare not only client-radio stream counts but also how the AP performs Air Marshal, RF optimisation and location-related functions. An apparent saving at the hardware layer may remove a capability that the security or operations team assumes is always present.
Authentication design remains independent of the AP model choice. Corporate WLANs commonly use WPA2-Enterprise or WPA3-Enterprise with 802.1X, often integrated with RADIUS, Cisco ISE or another identity platform. Guest networks may use separate VLANs, splash pages or policy controls. IoT devices may require their own SSIDs or segmentation because they cannot support the same authentication stack as laptops. The AP model must support the intended design, but good segmentation and identity policy are architecture decisions rather than features that appear automatically after a hardware upgrade.
For replacement projects, export and review the current WLAN configuration before assuming it should be replicated unchanged. Old SSIDs, low legacy data rates, outdated encryption methods, excessive SSID count and historical exceptions can carry technical debt into a new AP generation. Hardware refresh is an opportunity to simplify the RF and policy design while keeping business-critical compatibility where it is genuinely needed.
How to choose by deployment type
Small offices and branch locations
Start by estimating active users and applications. MR28-class hardware can fit many small sites where one-gigabit wired access and 2×2 Wi-Fi 6 are sufficient. If the branch includes a high-traffic training room, large meeting suite or dense hot-desking area, use a mixed design rather than forcing one AP class across every zone.
The best branch standard balances simplicity with enough capacity for the next refresh cycle. If dozens of branches will be deployed after December 2026, avoid building the standard around models whose final order date will have passed.
Open offices and collaboration floors
MR44 and MR46-class radios are more appropriate to evaluate where 5 GHz capacity, concurrency and multigigabit switching matter. MR57 becomes relevant when 6 GHz clients and the supporting PoE/multigigabit infrastructure are part of the design. Do not determine AP count from square metres alone; meeting rooms and clustered desks create local demand peaks.
A site survey should identify wall materials, neighbouring RF, ceiling height and client distribution. Capacity cells around collaboration spaces may need different placement from general coverage cells.
Hotels and serviced accommodation
MR36H is purposefully different because it combines room Wi-Fi with local Ethernet outputs. This can simplify service delivery to televisions, phones or room devices while placing the AP close to the user. The design must confirm wall-box compatibility, cable path, switch PoE budget and whether PoE output from the AP is required.
Because MR36H is now on an announced sales timeline, new hotel programmes that will open in phases should explicitly identify a successor strategy rather than assuming identical hardware will remain orderable throughout construction.
Outdoor courtyards and external areas
MR78 fits moderate outdoor coverage where IP67 protection and a simple 802.3af/1 GbE installation are suitable. Outdoor high-density venues, long-range links and directional sectors require a different design discussion. Weather rating alone does not determine whether an AP can serve the intended user population.
Mounting hardware, cable entry, surge protection, earthing, local radio rules and physical security should all appear in the bill of materials and implementation plan.
Greenfield deployment versus expansion of an existing MR estate
An existing Meraki customer and a first-time buyer should not use the same decision logic. Existing customers may already own PoE switches, have Dashboard templates, documented RF profiles, licensing commitments and operational experience with specific MR models. For them, continuity has real value. Adding a small number of MR44 or MR46 units before end of sale may be more efficient than introducing a new hardware family for one remaining floor, especially if the whole estate is scheduled for replacement before the 2031 support horizon.
Greenfield customers have fewer reasons to accept a shortened commercial horizon. If the first deployment phase starts in late 2026 and expansion continues in 2027 or 2028, a model whose sales window closes in December 2026 can create unnecessary complexity. The project may need mixed generations, different mounting kits, revised RF assumptions and changed spare strategy sooner than expected. In that scenario, comparing current Cisco wireless successors is part of responsible procurement even if the older MR model is available at an attractive price.
Mixed estates are not inherently a problem. Meraki Dashboard can manage varied AP models, and organisations often run several generations during transitions. The question is whether the mix is planned. A planned migration defines which buildings move first, how SSIDs and policies remain consistent, which firmware branch is supported, whether switch upgrades happen in parallel and how spares are allocated. An accidental mix emerges from last-minute availability and tends to create more operational exceptions.
For a major Dubai campus or multi-site UAE rollout, create a three-year hardware map before ordering: installed base, 2026 purchases, expected 2027 additions and retirement dates. That simple planning exercise often reveals whether buying an end-of-sale-announced MR model is sensible or whether the project should move directly to a newer platform.
Installation and RF survey considerations in Dubai and the UAE
Wireless performance is highly sensitive to physical environment. Dubai offices can combine glass partitions, metal framing, marble, dense fit-out materials and large open areas within the same floor. Hotels may add concrete walls, mirrors, bathrooms and corridor layouts that strongly affect room-to-room propagation. Warehouses introduce high ceilings, moving inventory and metal shelving. A model comparison is only the first step; placement determines whether the selected hardware can perform as intended.
For new construction, predictive design should use the latest floor plans and expected wall materials rather than a bare shell drawing. Mark meeting rooms, high-density spaces, phone booths, reception areas and devices that require wireless. Identify ceiling restrictions, decorative rafts, access panels and areas where an AP cannot be visually exposed. The result should be an installation map, not just a count.
For existing sites, an active or passive survey can reveal noise, channel utilisation and current coverage gaps. When replacing older APs, do not automatically reuse every existing mounting position. A new generation may have different antenna patterns, band strategy and client expectations. A location chosen years ago for 2.4 GHz coverage may be poor for a 6 GHz-first design. Conversely, some existing cable drops may still be ideal and can reduce installation cost.
Ceiling temperature and outdoor exposure deserve attention. MR78’s outdoor rating supports harsh conditions within its specified operating range, but installation should still avoid unnecessary direct thermal load, standing water, exposed connectors and unsecured cable paths. Outdoor Ethernet runs may require surge protection and grounding practices consistent with local standards and building requirements.
After installation, validation should test more than signal bars. Measure signal strength and signal-to-noise ratio, confirm channel allocation and transmit power, test roaming between APs, verify DHCP and authentication, check application performance, confirm guest isolation and test failover behaviour if redundant uplinks are used. For voice over Wi-Fi or real-time collaboration, perform mobility testing along actual walking paths rather than evaluating only from fixed desks.
A strong handover also documents Dashboard ownership, administrator roles, licence dates, firmware policy, switch ports, cable labels, AP serial numbers, physical locations and the agreed support process. This information reduces troubleshooting time long after the installation team leaves the site.
Procurement risks that a comparison table alone cannot show
Lifecycle mismatch: ordering a technically suitable MR36, MR44 or MR46 late in 2026 without accounting for the December 31 sales cutoff can complicate future expansion. Order timing, spare quantities and successor strategy should be written into the procurement decision.
Insufficient PoE: MR57’s power profile is materially different from MR28 or MR78. If the access switch cannot provide the required class or total wattage, the project may need injectors or a switch upgrade. That changes rack space, electrical load and cost.
Uplink bottleneck: buying multigigabit APs without multigigabit switch ports may leave some capability unused. That is not automatically wrong, but it should be an intentional phased design rather than a surprise discovered during commissioning.
Licence assumption: the customer’s Meraki organisation may use subscription or co-term licensing and may already have renewal constraints. The correct quotation must reflect the actual organisation rather than applying a generic AP licence line without checking context.
6 GHz expectations: MR57 requires compatible client devices and regulatory support for the intended 6 GHz operation. If users do not have compatible endpoints, the business case should rely on broader MR57 capabilities rather than on an assumed universal 6 GHz performance gain.
Mounting and accessories: wall, ceiling and outdoor models have different mounting and environmental needs. Injectors, power adapters and some accessories are sold separately. The bill of materials should include everything needed to commission the AP, not just the access-point SKU.
Unverified stock: product lifecycle status and distributor inventory are not the same thing. An item can remain physically available after a manufacturer’s sales window or be temporarily unavailable while still current. Commercial availability should be confirmed at quotation time, especially around announced lifecycle transitions.
Practical model shortlisting scenarios
Scenario 1: 25-person branch, mainly SaaS
If the office has a conventional 1 GbE PoE switch, modest meeting-room load and no requirement for 6 GHz, MR28-class hardware may be sufficient. The design should still check walls, AP count and guest/IoT separation. Spending on MR57 would offer little value if the client and wired infrastructure cannot use its higher-end features.
Scenario 2: dense corporate collaboration floor
Compare MR44, MR46 and MR57 based on active client density, applications, multigigabit switching and client refresh plans. MR46 offers stronger dual-band 4×4 Wi-Fi 6, while MR57 adds 6 GHz and dual 5 GbE interfaces but demands more careful PoE planning. Because MR44/MR46 are on a 2026 sales timeline, lifecycle may tip a greenfield decision toward a newer Cisco option.
Scenario 3: hotel room with TV and IP phone
MR36H is the natural MR model to examine because its wall format includes multiple wired ports and can support PoE output under suitable powering conditions. Confirm cable topology and the final 2026 ordering plan. A ceiling AP cannot be considered an equivalent simply because both advertise Wi-Fi 6.
Scenario 4: outdoor café and courtyard
MR78 may provide the right environmental fit where moderate capacity and IP67 protection are needed. The survey must identify mounting height, shade, line of sight, wall penetration and whether users are spread evenly or concentrated in one seating area. If capacity is very high, evaluate a stronger outdoor architecture instead.
Scenario 5: existing MR56 campus
Because MR56 is already end of sale, the decision is about support horizon and transition. Keep enough supported spares for near-term continuity if appropriate, but identify a successor architecture for expansion and for replacements approaching the 2030 end-of-support date. A like-for-like radio comparison is only one part of that migration plan.
When a newer Cisco wireless platform should be compared
Cisco’s wireless portfolio now extends beyond the classic MR naming pattern used in this comparison. Wi-Fi 6E and Wi-Fi 7 Catalyst Wireless models can operate with Meraki management in supported designs, and Cisco documentation compares models such as CW9162, CW9164, CW9166 and newer CW917x hardware against established MR platforms. This matters because several familiar MR Wi-Fi 6 models are approaching end of sale.
For a new site, the successor comparison should answer four questions. First, does the newer platform provide the radio generation and 6 GHz capability that matches the client-refresh plan? Second, does it change the PoE requirement enough to trigger a switching upgrade? Third, are mounting, cable and uplink requirements compatible with the site? Fourth, does the chosen licensing and management mode fit the existing Meraki organisation?
The existence of a newer generation does not make every MR purchase wrong. An organisation standardised on MR46 with a planned full refresh in 2029 may reasonably complete its remaining 2026 rollout with the same hardware. The operational cost of introducing a new platform could exceed the benefit for a small final phase. Conversely, a new campus expected to expand through 2030 has a stronger reason to avoid a product whose final order date is only months away.
The key is to compare lifecycle and architecture together. A technically newer AP that requires unsupported PoE, unplanned switch replacement or client capabilities the business will not have may not be the best immediate fit. A mature MR model nearing end of sale may still be the right tactical choice for a controlled extension. The buyer should see those trade-offs explicitly in the quotation.
Frequently asked buyer questions
Is MR57 automatically better than MR46?
MR57 is a more capable tri-band Wi-Fi 6E platform with 6 GHz and dual multigigabit Ethernet, but that does not make it automatically better for every site. MR57 needs suitable PoE, switching and compatible clients to justify its extra capability. MR46 may remain appropriate for an existing dual-band Wi-Fi 6 estate, although its December 2026 end-of-sale date must be considered for new purchases.
Can I replace an MR36 with an MR44 or MR46 without changing the switch?
Possibly, but verify both PoE and port speed. MR36 can operate in the 15 W 802.3af class with a 1 GbE uplink, while MR44 and MR46 are designed for higher power and can use 2.5 GbE. A switch may power the AP but not provide its best uplink capability, or it may lack sufficient PoE budget across all ports. Check the exact switch model and power supply before treating the change as drop-in.
Does every MR access point need a licence?
Meraki MR access points require appropriate Meraki wireless licensing. The exact commercial structure depends on the organisation’s licensing model and feature tier. Existing customers should identify whether they use subscription, co-term or a legacy per-device arrangement before ordering, because renewal timing and licence treatment differ.
Is MR56 still worth buying?
MR56 remains technically capable and may be relevant to installed-base support, but Cisco Meraki ended sale on August 7, 2025. For a normal greenfield purchase in 2026, compare currently orderable successors instead. If an existing MR56 estate needs continuity, evaluate supported sourcing, spare strategy and the 2030 end-of-support date.
What is the main difference between MR28 and MR78?
Both are 2×2:2 Wi-Fi 6 designs with up to 1.5 Gbps aggregate frame rate and 1 GbE uplinks, but their physical deployment roles differ. MR28 is an indoor AP. MR78 is designed for outdoor use and carries an IP67 environmental rating. The outdoor enclosure and operating conditions, not a large radio-performance gap, are the reason to choose MR78.
Why would a hotel choose MR36H instead of a ceiling AP?
MR36H places Wi-Fi at the room wall and provides integrated wired access ports, which can serve local room devices and reduce the need for a separate mini-switch in some designs. The form factor can improve room-level service, but its wall position, PoE requirements and 2026 lifecycle must be considered. A ceiling AP may provide broader corridor coverage but does not provide the same room-edge wired functionality.
Do I need 2.5 GbE or 5 GbE switching for Meraki Wi-Fi?
Only if the selected AP and expected traffic justify it. MR44 and MR46 support 2.5 GbE; MR56 and MR57 can go higher. A multigigabit switch provides headroom, but actual benefit depends on channel width, client population, local traffic and WAN/LAN capacity. For smaller branches, one-gigabit access may still be sufficient. The design should model traffic instead of upgrading solely because the AP supports a faster port.
Will 6 GHz improve coverage?
6 GHz primarily adds spectrum and channel opportunities; it should not be selected as a coverage-extending feature. Higher frequencies generally attenuate more through building materials. MR57 can improve capacity for compatible clients in an appropriately designed 6 GHz environment, but cell placement may need to be denser or more deliberate than a legacy 2.4 GHz coverage plan.
Should every office use the same MR model?
Not necessarily. Standardisation simplifies spares and operations, but mixed use can be more efficient. General office areas may use one model, high-density boardrooms another, outdoor spaces MR78 and hospitality rooms MR36H. The objective is a manageable architecture with a small number of justified AP profiles, not forcing one radio design into every environment.
What information is needed for an accurate Meraki quotation?
Provide site drawings or area descriptions, AP quantity if already designed, expected users and devices, indoor/outdoor zones, existing switch models, PoE budget, cable type, Meraki organisation and licence model, required licence term, target installation dates, current AP estate, desired support scope and whether survey, cabling or installation services are required. For lifecycle-sensitive models, include the expansion timeline so the quotation can consider successor options.
FourTeck network and infrastructure resources
For UAE procurement and infrastructure discussions, buyers can review FourTeck UAE for local technology supply and project support. Multi-country organisations can also reference the broader FourTeck global site when the wireless standard must be coordinated across regions.
Wireless projects often expose adjacent infrastructure needs such as switch configuration, VLAN design, cabling validation, migration and support. FourTeck IT Services UAE covers implementation and ongoing IT support requirements that may sit around the Meraki hardware purchase.
Where wireless segmentation must integrate with gateway security, VPN and firewall policy, the Firewall Dubai by FourTeck specialist resource can help buyers consider the security edge alongside the WLAN rather than treating access points as an isolated project.
Decision recap: what should drive the final model choice?
1. Deployment role
Indoor coverage, dense office, hospitality wall unit and outdoor AP are different jobs. Start with the physical role before comparing throughput.
2. Client and traffic profile
Concurrent active users, video, voice, local file traffic, device generations and 6 GHz support determine whether higher radio capacity creates business value.
3. Switching and PoE
A premium AP can trigger multigigabit ports, higher PoE class, larger switch power supplies or cable remediation. Include those costs before comparing AP price.
4. Licensing
Identify the Meraki organisation’s licensing model, feature tier, expiry position and required term. Hardware and licence decisions should be quoted together.
5. Lifecycle
MR36, MR36H, MR44 and MR46 are approaching end of sale in December 2026; MR56 is already end of sale. Expansion horizon can outweigh small spec differences.
6. Survey and validation
RF design, mounting and post-install verification decide whether the selected model achieves the expected user experience in the real building.
What FourTeck needs from you for an accurate Meraki comparison and quotation
Drawings, approximate areas, ceiling heights and indoor/outdoor zones.
Expected concurrent users, laptops, phones, IoT devices and peak areas.
Voice, video meetings, guest traffic, local servers, cloud applications and high-throughput workflows.
Switch models, available ports, PoE class, total PoE budget and multigigabit capability.
Existing MR models, Dashboard organisation, templates and replacement or expansion scope.
Subscription, co-term or existing per-device model, licence tier and target term.
Required delivery, installation phases and any future expansion after 2026.
Supply only, survey, installation, cabling, migration, configuration, support or managed service.
Choose the MR model around your network, not around a single specification
For a simple office, MR28 may be entirely adequate. For hospitality, MR36H solves a specific wall-and-wired-access problem. MR44 and MR46 provide stronger Wi-Fi 6 capacity but are now lifecycle-sensitive purchases. MR56 is already past end of sale and belongs mainly in installed-base planning. MR57 adds 6 GHz, higher throughput potential and resilient multigigabit options, but only pays off when clients, PoE and switching can support the architecture. MR78 is an outdoor solution whose environmental fit matters more than competing on indoor performance numbers.
The best quotation should therefore show the recommended AP, the reason for that recommendation, the licence model, required PoE and switching, any accessory or survey requirement, lifecycle position and at least one alternative where the decision is not obvious. That gives procurement a defendable technical choice rather than a list of part numbers.