Qualcomm WiFi Chipset Complete Guide for Embedded & Enterprise

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1. Qualcomm’s Position in the WiFi Chipset Market

Qualcomm commands the largest share of the WiFi silicon market for enterprise access points, carrier-grade gateways, and embedded wireless systems. Its chipset portfolio spans four product generations across multiple price-performance tiers, giving OEMs and system integrators a unified platform strategy that scales from cost-sensitive IoT gateways to multi-gigabit enterprise APs.

Qualcomm’s market leadership rests on three competitive advantages. First, its chipset roadmaps track closely with IEEE 802.11 standard timelines — it was first to market with Wave 2 802.11ac silicon (QCA9984 in 2015), first to ship WiFi 6E chips at scale (QCN9074 in 2021), and currently leads WiFi 7 production shipments with the Waikiki platform. Second, Qualcomm maintains the ath10k/ath11k/ath12k Linux driver stack, which is mainlined in the upstream Linux kernel, making these chipsets natively accessible to the OpenWRT, QSDK, and OpenWiFi ecosystems. Third, cross-vendor interoperability with Broadcom, MediaTek, and Intel client silicon is more thoroughly validated on Qualcomm infrastructure radios than on any competing platform.

For OEMs building embedded wireless products — industrial gateways, wireless bridges, surveillance backhaul links, and enterprise APs — the Qualcomm ecosystem offers a clear migration path. A module design using the QCA9880 (WiFi 5, 3×3) can be retargeted to the QCN9074 (WiFi 6E, 4×4) using the same PCIe host interface and similar BSP structures. This design continuity reduces NRE, shortens certification cycles, and lets engineering teams focus on application-layer differentiation instead of reinventing the RF front-end.

This guide covers all major shipping Qualcomm WiFi chipsets relevant for new OEM designs entering production between 2026 and 2028. We focus on part numbers currently available through module manufacturers and distribution channels.

2. WiFi 5 (802.11ac) Chipsets: QCA9882, QCA9880, QCA9886

Qualcomm’s WiFi 5 lineup splits into two tiers: the Peregrine series (QCA9882, QCA9886) for cost-optimized 2×2 designs, and the QCA9880 for 3×3 high-throughput applications. These chips remain relevant in 2026 for legacy-compatible designs, cost-sensitive industrial IoT gateways, and long-lifecycle products where WiFi 5 throughput is sufficient and WiFi 6/6E certification isn’t required.

QCA9882 — Peregrine 2×2 Dual-Band WiFi 5

The QCA9882 is Qualcomm’s high-volume WiFi 5 chipset for 2×2 MIMO dual-band applications. It covers 2.4 GHz (802.11n, 40 MHz, up to 300 Mbps) and 5 GHz (802.11ac, 80 MHz, up to 867 Mbps) with a peak aggregate PHY rate of 1,167 Mbps. The chip uses a PCIe 1.1 interface and is available in commercial (0°C to +70°C) and industrial (-40°C to +85°C) temperature grades through the QCA9892 variant. Active power consumption is roughly 2.5 W in continuous 5 GHz TX mode.

The QCA9882 powers Compex’s WLE600VX / WLE600VX-I modules, among the most widely deployed industrial WiFi 5 modules worldwide. The WLE600VX-I variant uses the QCA9892 (industrial temperature, -40°C to +85°C) and delivers 20 dBm per chain on 5 GHz from a single 3.3V rail at 3.5 W max power consumption. These modules support AP, STA, and AP+STA concurrent modes through the ath10k open-source driver and Qualcomm QSDK.

If you’re designing a cost-sensitive industrial gateway or an embedded system that needs reliable dual-band WiFi 5 with broad driver support, the WLE600VX / WLE600VX-I module based on the QCA9892 delivers a proven, production-ready solution with 3.5W power consumption, PCIe interface, and -40°C to +85°C industrial temperature support.

QCA9880 — Wave 1 3×3 High-Performance WiFi 5

The QCA9880 is Qualcomm’s highest-performing Wave 1 802.11ac chipset, supporting 3×3 MIMO with 80 MHz channel bandwidth and a peak PHY rate of 1.3 Gbps. It uses PCIe 2.0 as the host interface and draws roughly 4.5 W under full TX load. The QCA9880 served as the reference chipset for the Compex WLE900VX series and remains in production for military, aerospace, and long-lifecycle industrial applications where the 3-stream MIMO advantage justifies the higher power budget.

The QCA9880’s 3×3 architecture delivers real-world TCP throughput of 550–650 Mbps at close range, 400–500 Mbps at 100 meters, and 250–350 Mbps at 500 meters with 15 dBi directional antennas in outdoor line-of-sight PtP bridges. For applications that don’t need WiFi 6/6E features but require more throughput than 2×2 can provide, the QCA9880 remains a practical option.

For designs that need the full 3×3 throughput capability in outdoor PtP or PtMP deployments, the WLE900V5-27ESD 8AB High-Power Module integrates the QCA9880 with 27 dBm per chain output, 3x MMCX connectors, and ESD protection — purpose-built for long-range wireless links.

QCA9886 — Peregrine 2×2 Single-Band WiFi 5

The QCA9886 is a cost-reduced variant of the QCA9882, limited to 5 GHz-only operation with no 2.4 GHz radio. It supports 2×2 MIMO with 80 MHz bandwidth and an 867 Mbps PHY rate. The chip targets single-band wireless backhaul and bridge applications where 2.4 GHz coverage isn’t needed. It shares the same PCIe 1.1 interface and driver compatibility as the QCA9882, making it a drop-in replacement for designs that only need 5 GHz connectivity. Power consumption is roughly 2.0 W, slightly lower than the dual-band QCA9882 thanks to the absent 2.4 GHz radio.

For a deeper look at how Wave 1 and Wave 2 802.11ac architectures compare — including the QCA9880 versus QCA9984, channel bandwidth differences, MU-MIMO support, and module-level benchmarks — see our WiFi 5 802.11ac Wave 1 vs Wave 2 Technical Comparison.

3. WiFi 6 (802.11ax) Chipsets: QCN6024, QCN9024

Qualcomm’s WiFi 6 portfolio is built around the Pine series, a unified silicon platform that scales from dual-band WiFi 6 (QCN6024) to tri-band WiFi 6E (QCN9024). Both chips share the same baseband architecture, ath11k driver stack, PCIe 3.0 interface, and 802.11ax protocol implementation — their primary difference is 6 GHz band support.

QCN6024 — Dual-Band WiFi 6 (2.4 GHz + 5 GHz)

The QCN6024 is Qualcomm’s high-volume WiFi 6 chipset for dual-band operation. It covers 2.4 GHz and 5 GHz with up to 4×4 MU-MIMO and 160 MHz channel bandwidth on 5 GHz, delivering a peak PHY rate of 4.8 Gbps (4×4:4, 160 MHz, 1024-QAM) or 2.4 Gbps in 2×2 configurations. The chip includes full DL/UL OFDMA, DL/UL MU-MIMO, 1024-QAM modulation, and Target Wake Time (TWT) for power management. Typical power consumption for a 2×2 reference design is roughly 6.6 W at maximum TX duty cycle.

The QCN6024 is the right choice when your client device ecosystem is predominantly WiFi 5 and WiFi 6-only (no 6 GHz capability). It delivers identical 2.4/5 GHz performance to the QCN9024 at a lower module cost and without the additional regulatory certification required for 6 GHz operation. For standard-density office deployments, retail networks, and moderate-density IoT applications, the QCN6024 hits the optimal price-performance point.

QCN9024 — Tri-Band WiFi 6E (2.4 GHz + 5 GHz + 6 GHz)

The QCN9024 extends the Pine-series architecture with 6 GHz band support (5.925–7.125 GHz), making it a full WiFi 6E chipset. It supports simultaneous tri-band operation with up to 4×4 MU-MIMO per band and 160 MHz channel widths on 5 GHz and 6 GHz, delivering an aggregate PHY rate of up to 4.8 Gbps in 4×4 configurations. On the 6 GHz band, some reference designs achieve 4096-QAM support, giving roughly a 20% peak rate improvement over 1024-QAM under ideal SNR conditions.

The QCN9024’s key advantage is access to the 6 GHz band’s 1,200 MHz of contiguous clean spectrum. In dense enterprise environments — convention centers, lecture halls, large open-plan offices — this translates to lower channel utilization, reduced co-channel interference, and 40–60% lower average latency compared to 5 GHz-only operation. The chip requires Linux kernel 5.17+ for full 6 GHz support through the ath11k driver, and products need additional regulatory certification for 6 GHz operation in each target market.

We’ve published a detailed side-by-side comparison covering RF parameters, real-world throughput benchmarks, and scenario-specific selection guidance in our QCN6024 vs QCN9024: WiFi 6/6E Module Comparison.

4. WiFi 6E Chipsets: QCA2062, QCA2066, QCN6274

Qualcomm’s WiFi 6E lineup spans three distinct tiers: the QCA2062 and QCA2066 for tri-band client and AP applications, and the QCN6274 as a high-performance enterprise AP chip with full 4×4 MIMO on the 6 GHz band.

QCA2062 and QCA2066 — Tri-Band WiFi 6E Modules

The QCA2062 and QCA2066 are Qualcomm’s tri-band WiFi 6E modules for simultaneous 2.4 GHz, 5 GHz, and 6 GHz operation. Both share the same 2×2 MIMO spatial stream configuration per band, 1024-QAM modulation, and PCIe 3.0 interface. The key difference lies in their tri-band concurrency model.

The QCA2066 delivers full simultaneous tri-band operation with independent radio chains on all three bands, reaching a peak aggregate throughput of 3.6 Gbps and supporting 100+ concurrent devices. In lab testing with Ixia Veriwave testbeds, it achieved 3.17 Gbps aggregate TCP throughput in single-client-per-band tests (287 Mbps on 2.4 GHz + 1,201 Mbps on 5 GHz + 1,682 Mbps on 6 GHz). Under a 30-client-per-band mixed-traffic load, it delivered 2.15 Gbps aggregate with stable latency profiles.

The QCA2062 uses an optimized tri-band architecture where the 2.4 GHz radio operates independently while the 5 GHz and 6 GHz radios share a configurable resource pool. Peak aggregate throughput reaches 1.8 Gbps, with sustained client capacity of 50–80 devices. The QCA2062 targets mainstream routers, SMB APs, and embedded systems where full triple-radio concurrency isn’t necessary but tri-band frequency support is.

Both modules deliver enterprise-grade latency: the QCA2066 consistently stays under 5 ms average latency on the 6 GHz band with 80+ active clients distributed across three bands, while the QCA2062 holds under 10 ms with up to 60 clients under identical traffic profiles. For a full technical breakdown covering tri-band architecture, RF specifications, and performance test results, see our QCA2062 / QCA2066 WiFi 6E Module: Tri-Band Advantages.

QCN6274 — Enterprise WiFi 6E Chipset

The QCN6274 sits between the Pine-series (QCN9024) and Waikiki-series (QCN9274) in Qualcomm’s WiFi 6E lineup. It’s a 4×4 MU-MIMO chip built on the 7 nm process, supporting 320 MHz channel bandwidth in the 6 GHz band (when operating in WiFi 7 mode) and full 802.11ax capabilities for WiFi 6E operation. The chip targets the upper tier of enterprise AP designs that need 4×4 performance on the 6 GHz band without the full cost and power draw of a WiFi 7 chipset.

While the QCN6274 can technically support the 802.11be PHY layer, its primary deployment mode is as a high-performance WiFi 6E radio. The 7 nm process gives it a power efficiency edge over the QCN9074, with roughly 30–40% lower power consumption at equivalent throughput. Module manufacturers are producing QCN6274-based M.2 and miniPCIe modules for enterprise AP applications requiring sustained 4.8 Gbps PHY rates on the 6 GHz band.

For a comprehensive comparison of the QCN6274 against the WiFi 7 QCN9274 — covering architecture differences, throughput capabilities, and platform commonality — see our CN6274 / QCN9274: WiFi 7 Chipset Overview.

QCN9074 — Industrial-Grade WiFi 6E Pine-Series

The QCN9074 is the industrial-grade variant in Qualcomm’s Pine-series WiFi 6E family, filling the gap between the commercial-grade QCN9024 and the next-gen Waikiki platform. It operates across 2.4 GHz, 5 GHz, and 6 GHz with 4×4 MU-MIMO and four spatial streams, delivering a peak aggregate data rate of 4,804 Mbps on 160 MHz with 1024-QAM modulation. Maximum TX power hits +23 dBm per chain (roughly +26 dBm with 5 V FEM implementations), and the module consumes approximately 16 W at maximum TX duty cycle with 5 V high-power FEMs.

What sets the QCN9074 apart from the QCN9024 is its industrial temperature qualification (-40°C to +85°C vs -20°C to +70°C) and FIPS 140-2 Level 2 cryptographic validation. These specs make it the chipset of choice for thermally uncontrolled deployments — factory floors, warehouse distribution centers, outdoor campus networks, and transportation hubs — where environmental conditions exceed commercial-grade limits. The QCN9074 also includes tighter RF filtering and stricter spectral emission control, important for dense multi-AP environments.

If you’re evaluating the QCN9074 for an industrial or enterprise design, our dedicated article covers enterprise application scenarios, real-world deployment case studies (including a 48-AP deployment in a 12-story corporate office campus and a 30-AP temporary trade show network), and detailed RF performance parameters: QCN9074 WiFi 6E Module: Features & Enterprise Applications.

5. WiFi 7 (802.11be) Chipsets: QCN9274, QCN9274R

Qualcomm’s WiFi 7 portfolio is built on the Waikiki platform, a 7 nm architecture that represents the most significant generational leap in WiFi silicon since the transition from 802.11n to 802.11ac. The QCN9274 and QCN9274R are the flagship chipsets in this family, designed for enterprise APs, carrier-grade gateways, and high-density public venue infrastructure.

QCN9274 — Waikiki Flagship WiFi 7

The QCN9274 is Qualcomm’s flagship WiFi 7 chipset, supporting up to 4×4 MU-MIMO per band across 2.4 GHz, 5 GHz, and 6 GHz simultaneously. It delivers a peak aggregate PHY throughput exceeding 30 Gbps, enabled by four key 802.11be features: 320 MHz channel bandwidth in the 6 GHz band (doubling WiFi 6E’s 160 MHz ceiling), 4096-QAM modulation (20% spectral efficiency gain over 1024-QAM), Multi-Link Operation (MLO) with simultaneous transmit/receive across bands, and preamble puncturing, which lets the radio use partially occupied spectrum blocks efficiently.

The 7 nm process node gives the QCN9274 roughly 40–50% power reduction at equivalent throughput compared to 14 nm WiFi 6/6E chips like the QCN9074. Per spatial stream, the QCN9274 achieves approximately 2.88 Gbps at 320 MHz with 4096-QAM. Real-world TCP throughput in controlled tests typically runs 50–60% of PHY rates, putting sustained multi-gigabit TCP performance within reach for enterprise-grade equipment.

MLO is arguably the most transformative WiFi 7 feature in the QCN9274. It enables simultaneous data transmission across two or three bands — for example, bonding 5 GHz and 6 GHz channels to create a virtual link exceeding 5 Gbps aggregate throughput, or using 2.4 GHz + 5 GHz for extended coverage with fallback redundancy. The chip supports both Multi-Link Single Radio (MLSR) and Multi-Link Multi-Radio (MLMR) modes, giving OEMs configurable power-versus-throughput tradeoffs at the firmware level.

QCN9274R — Reduced-SKU WiFi 7

The QCN9274R is a reduced-configuration variant of the QCN9274, targeting mid-range enterprise APs, SMB routers, and industrial IoT gateways where the full 4×4 tri-band capability of the QCN9274 exceeds both cost and power budgets. It typically ships with 2×2 MIMO per band (configurable to 4×4 in select SKUs) and an aggregate throughput ceiling of roughly 20 Gbps. The QCN9274R shares the same 7 nm architecture, ath12k driver stack, and PCIe 3.0 host interface as the QCN9274, so OEMs can design a single PCB that accepts either chip depending on market tier. This platform approach is one of the strongest value propositions of the Waikiki family — one hardware design, two price-performance points.

6. Chipset Comparison Table

The table below provides a side-by-side comparison of all major Qualcomm WiFi chipsets covered in this guide. Parameters are sourced from Qualcomm reference design documentation, publicly available datasheets, and third-party module manufacturer specifications.

Parameter	QCA9882	QCA9880	QCN6024	QCN9024	QCN9074	QCA2066	QCN6274	QCN9274
WiFi Standard	802.11ac (WiFi 5)	802.11ac (WiFi 5)	802.11ax (WiFi 6)	802.11ax (WiFi 6E)	802.11ax (WiFi 6E)	802.11ax (WiFi 6E)	802.11ax/be (WiFi 6E/7)	802.11be (WiFi 7)
Process Node	28 nm	28 nm	14 nm	14 nm	14 nm	14 nm	7 nm	7 nm
Max MIMO	2×2:2	3×3:3	4×4:4	4×4:4	4×4:4	2×2:2 per band	4×4:4	4×4:4 per band
Spatial Streams	2	3	4	4	4	2 per band (6 agg.)	4	4 per band (12 agg.)
Max Bandwidth	80 MHz	80 MHz	160 MHz	160 MHz	160 MHz	160 MHz	320 MHz (6 GHz)	320 MHz (6 GHz)
Peak PHY Rate	867 Mbps	1.3 Gbps	4.8 Gbps	4.8 Gbps	4.8 Gbps	3.6 Gbps (agg.)	~20 Gbps (agg.)	30+ Gbps (agg.)
Frequency Bands	2.4, 5 GHz	5 GHz	2.4, 5 GHz	2.4, 5, 6 GHz	2.4, 5, 6 GHz	2.4, 5, 6 GHz	2.4, 5, 6 GHz	2.4, 5, 6 GHz
Max TX Power	20 dBm	27 dBm	20 dBm	20 dBm	23 dBm	20 dBm	22 dBm	22 dBm
Power Consumption	~3.5 W	~10 W	~6.6 W	~8.8 W	~16 W	~5.5 W	~12 W	~15 W
Host Interface	PCIe 1.1	PCIe 2.0	PCIe 3.0	PCIe 3.0	PCIe 3.0	PCIe 3.0	PCIe 3.0	PCIe 3.0
Process Node	28 nm	28 nm	14 nm	14 nm	14 nm	14 nm	7 nm	7 nm
Temp Range	-40 to +85°C	-20 to +70°C	-20 to +70°C	-20 to +70°C	-40 to +85°C	-20 to +70°C	-20 to +70°C	-20 to +70°C
Linux Driver	ath10k	ath10k	ath11k	ath11k	ath11k	ath11k	ath12k	ath12k
Target Market	IoT, SMB	Industrial, PtP	Enterprise WiFi 6	Enterprise WiFi 6E	Industrial WiFi 6E	Tri-band AP	Enterprise WiFi 7	Flagship WiFi 7

Table: Side-by-side comparison of key parameters across Qualcomm WiFi chipsets from WiFi 5 through WiFi 7. Data compiled from Qualcomm reference documentation, publicly available datasheets, and manufacturer specifications. Power consumption values shown for typical 2×2 or 3×3 reference designs at maximum TX duty cycle; actual values vary with module implementation.

7. How to Choose the Right Qualcomm Chipset

Selecting the right Qualcomm WiFi chipset for an embedded or enterprise product comes down to four factors: throughput requirements, deployment density, operating environment, and ecosystem compatibility. The following framework maps common use cases to recommended chipsets.

Step 1: Determine Your Throughput Floor

Start with the minimum real-world TCP throughput your application needs. This differs from peak PHY rates — real-world TCP throughput typically runs 50–65% of PHY rates depending on protocol overhead, host interface limitations, and environmental conditions.

• Under 500 Mbps required: QCA9882 (2×2 WiFi 5, 867 Mbps PHY, ~500 Mbps TCP) or QCA9886 for single-band 5 GHz. Both are mature, cost-optimized, and widely available through module manufacturers like Compex (WLE600VX series).
• 500–900 Mbps required: QCA9880 (3×3 WiFi 5, 1.3 Gbps PHY, ~650 Mbps TCP). The extra spatial stream provides meaningful throughput headroom for PtP bridges and high-capacity backhaul links.
• 1–2 Gbps required: QCN6024 in 2×2 mode (2.4 Gbps PHY, ~1.1 Gbps TCP on 5 GHz). This covers most enterprise access point and mid-range gateway applications.
• 2–4 Gbps required: QCN9024 or QCN9074 in 4×4 mode (4.8 Gbps PHY, ~2.8 Gbps TCP). For high-density enterprise APs, video surveillance backhaul, and multi-gigabit gateways.
• Over 4 Gbps required: QCN9274 WiFi 7 chipset (30+ Gbps aggregate PHY). For flagship enterprise APs, carrier-grade infrastructure, and future-proof designs targeting 2027+ deployment.

Step 2: Assess Client Density and Spectrum Needs

Client density determines whether you need 6 GHz spectrum access. If your deployment averages under 50 concurrent clients per AP and operates primarily in suburban or low-density urban environments, 5 GHz-only chipsets (QCN6024, QCA9880) are sufficient. Above 80 clients per AP in dense urban or enterprise environments, the 6 GHz band’s additional 1,200 MHz of spectrum becomes a measurable performance advantage.

For tri-band deployments, the choice between QCA2062 and QCA2066 comes down to concurrency needs. The QCA2066’s full triple-radio architecture is necessary for true 100+ client density targets. The QCA2062’s optimized tri-band mode works well for 50–80 client scenarios common in SMB and residential gateway applications.

Step 3: Evaluate Environmental Conditions

Operating temperature range is a non-negotiable selection criterion. Chipsets like the QCN9074 and QCA9892 (industrial variant of QCA9882) are qualified for -40°C to +85°C operation, making them suitable for outdoor enclosures, factory floors, and thermally uncontrolled environments. The QCN9024, QCA2062, and QCA2066 are rated -20°C to +70°C, appropriate for indoor enterprise deployments with climate control.

For deployments requiring FIPS 140-2 cryptographic validation — common in government, defense, and financial sector applications — the QCN9074 is currently the only Qualcomm WiFi 6E chip with Level 2 certification. If FIPS compliance is required and you need WiFi 7 capability, additional testing will be needed as the QCN9274 certification path is still in progress.

Step 4: Consider Platform Migration Path

One of Qualcomm’s strongest advantages is platform continuity across generations. A hardware design using PCIe 3.0 as the host interface can support QCN6024, QCN9024, QCN9074, or QCN9274 chipsets with minimal PCB changes. Similarly, the ath10k/ath11k/ath12k driver family shares common API structures, making BSP migration straightforward.

The Waikiki platform (QCN9274, QCN9274R) takes this further by letting OEMs design a single PCB that accepts either chip — the QCN9274R for mid-range price points and the QCN9274 for flagship tiers. This approach minimizes inventory complexity and certification duplication across product lines.

8. Reference Design & SDK Support

Qualcomm provides reference designs for all their WiFi chipsets through the Qualcomm Reference Design (QRD) program. These are complete hardware and software packages that include schematic diagrams, PCB layout files, BOM, thermal simulation models, antenna selection guides, and regulatory certification test reports. Module manufacturers like Compex, Wallys, SparkLAN, and 524WiFi license these reference designs and produce certified modules in MiniPCIe, M.2 E-Key, and M.2 A+E-Key form factors.

Software Development Kit Ecosystem

Qualcomm’s WiFi chipsets are supported across three software ecosystems:

ath10k/ath11k/ath12k (Open Source, Mainline Linux): The open-source ath10k (WiFi 5), ath11k (WiFi 6/6E), and ath12k (WiFi 7) drivers are integrated into the mainline Linux kernel. They support AP and station modes, WPA2/WPA3, 802.11k/v/r roaming, and basic OFDMA and MU-MIMO configuration. The ath11k driver has been in mainline Linux since kernel 5.4 (QCN6024) and kernel 5.17 (QCN9024 6 GHz support). The ath12k driver is in mainline Linux since kernel 6.2 for the QCN9274.

QSDK (Qualcomm Software Development Kit): QSDK is Qualcomm’s proprietary SDK based on OpenWRT, providing full feature support including SON (Self-Organizing Network), EasyMesh, advanced QoS, band steering, and optimized OFDMA scheduling. QSDK is available to OEMs under NDA and is the recommended path for products requiring enterprise-grade feature sets. Most module manufacturers ship their modules pre-validated with specific QSDK versions.

OpenWiFi (TIP): The Telecom Infra Project’s OpenWiFi platform supports Qualcomm chipsets through the ath11k driver. This is an option for carriers and enterprise operators seeking disaggregated hardware-software architectures. Feature parity with QSDK varies by kernel version and driver maturity.

Module Form Factor Availability

Qualcomm chipsets are available through third-party module manufacturers in the following form factors:

• MiniPCIe (52-pin): Common for WiFi 5 and early WiFi 6 modules. Used in industrial PCs, embedded systems, and legacy platform upgrades. Example: WLE600VX-I (QCA9892), WLE900V5-27ESD (QCA9880).
• M.2 E-Key (2230): Standard for modern WiFi 6/6E modules. Compact form factor suitable for thin enterprise APs and embedded designs. Used for QCN9074, QCN9024, QCA2062, QCA2066 modules.
• M.2 A+E-Key (2230): Wider keying that accommodates additional PCIe lanes. Used for QCN9274 WiFi 7 modules requiring PCIe 3.0 x2 bandwidth.
• Custom reference designs: Module manufacturers can produce custom form factors based on Qualcomm reference designs for volume OEM/ODM programs.

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