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In October 2026, the TP-Link Archer 8 Ultra will be available for pre-order simultaneously in the UK, Germany, and Australia, priced at £669.99. This is the world's first complete Wi-Fi 8 series product aimed at the consumer market . However, what is truly noteworthy is not the router's theoretical aggregation speed of 19Gbps, but a more fundamental technological shift: Wi-Fi 8 (IEEE 802.11bn) is abandoning the traditional path of "each generation must be faster," and shifting its focus to reliability, coverage, and concurrency efficiency in real-world network environments . What does this shift mean for Wi-Fi module solution providers? If Wi-Fi 7 addressed the "peak speed ceiling" problem, Wi-Fi 8 aims to solve the "lower limit of actual user experience." The two technologies have different technical logics, and the corresponding module design approaches, chip selection criteria, and supply chain preparation schedules will also change accordingly. The "time difference" between the standard timeline and the commercial pace To understand the commercialization process of Wi-Fi 8, we first need to clarify a key fact: there is a significant time lag between product launch and standard finalization . According to the latest progress from the IEEE 802.11 working group, final approval of the Wi-Fi 8 standard is expected in May 2028 , while the Wi-Fi Alliance's certification program is scheduled to launch during CES in January 2028. Rolf de Vegt, Qualcomm's Vice President of Technical Standards, confirmed that Draft 2.0 will be finalized at the IEEE meeting in July 2026; this version is generally considered a sign that core technical features are stabilizing . This "product-first, standards-undefined" approach presents unique selection challenges for module solution providers: early chip solutions may have inconsistent feature completeness, and some Wi-Fi 8 functions require subsequent firmware updates to activate. TP-Link has explicitly stated that features such as DSO (Dynamic Subband Operation), ELR (Enhanced Long Distance Transmission), and DRU (Distributed Resource Unit) on the Archer 8 Ultra will be gradually released through OTA updates . A shift in technological logic: from "peak rate" to "consistent throughput" The technical goals of Wi-Fi 8 can be summarized by a set of figures: 25% increase in data rate, 25% reduction in tail latency, and 25% reduction in lost MAC protocol data units . The design intent of these goals is clear—not to make a single device run faster, but to make connections more stable across multiple devices, over long distances, and in environments with interference. The specific technical mechanisms include several levels: Multi-AP Coordination is the core architectural change in Wi-Fi 8. Unlike Wi-Fi 7 where each AP works independently, Wi-Fi 8 allows multiple routers to form a coordinated network, even serving a single device simultaneously . This means that in Mesh networking or enterprise deployments, interference between APs can be actively managed, rather than passively avoided. Enhanced Long Range Transmission (ELR) and Distributed Resource Units (DRUs) are designed for edge-of-signal scenarios. TP-Link's test data shows that over medium to large distances, Wi-Fi 8 offers a 33% improvement in throughput consistency compared to Wi-Fi 7 ; in interference environments, throughput consistency is improved by 24% . Receiver sensitivity is improved by 1-3 dB in the 5GHz and 6GHz bands . Non-Primary Channel Access (NPCA) and Dynamic Sub-Band Operation (DSO) address the issue of spectrum coexistence. NPCA allows APs to dynamically switch when the primary channel is congested, while DSO supports the efficient coexistence of devices with different bandwidth capabilities within the same network . MediaTek claims that its NPCA+ technology can improve throughput by approximately 80% in high-density environments with overlapping multi-networks . From a physical layer perspective, Wi-Fi 8 introduces a new 3888-bit LDPC code , an extension of the existing 648, 1296, and 1944-bit codes. This longer code block provides a coding gain of 0.5–1.0 dB at higher MCS levels and in multi-spatial-stream scenarios , at the cost of requiring parallel decoding capabilities, which may limit its performance in narrow-channel 2.4 GHz bands . An overlooked accelerating factor: storage cost pressures Behind the accelerated commercialization of Wi-Fi 8 lies a driving force unrelated to wireless technology itself: the continuous rise in memory chip prices . A Dell'Oro Group report in August 2026 indicated that the introduction of enterprise-grade Wi-Fi 8 could be brought forward to 2027 due to tight DDR4 memory supply and rising prices , allowing vendors to reduce their reliance on high-cost storage components through new architectural designs . The report's author, Siân Morgan, concluded: "The faster vendors change their AP designs to reduce their reliance on the highest-cost memory components, the more competitive they will be on price. This constitutes a strong incentive to move to Wi-Fi 8." This logic also applies to Wi-Fi modules. If the architectural optimizations of Wi-Fi 8 can reduce the reliance on large-capacity memory in module solutions, then in an environment of high storage costs, the overall BOM cost structure of Wi-Fi 8 modules may be more competitive than that of Wi-Fi 7. The driving force behind technological upgrades comes not only from performance requirements but also from cost pressures from the upstream supply chain. Complementary rather than substitutive technologies: Wi-Fi 7 addresses the question of "how fast can it be," while Wi-Fi 8 addresses the question of "how stable can it be." To understand the relationship between Wi-Fi 7 and Wi-Fi 8, we need to go back to the core design goals of IEEE 802.11bn. The technical logic behind Wi-Fi 7 (IEEE 802.11be, Extremely High Throughput) is to push peak speeds to the limit : 320MHz channels, 4096-QAM, Multi-Link Operation (MLO), Multi-Resource Unit (Multi-RU), and preamble puncturing . Research published in IEEE Communications Standards Magazine indicates that Wi-Fi 7 aims to achieve "throughputs up to 30 Gbps and lower latency than Wi-Fi 6." These characteristics correspond to high-bandwidth, low-latency scenarios such as 8K video streaming, VR/AR, and cloud gaming. The technical logic of Wi-Fi 8 (IEEE 802.11bn, Ultra High Reliability) has undergone a fundamental shift. According to the technical lecture summary of IEEE Region 6, Wi-Fi 8 "maintains peak rates" while shifting its focus to "reliability, lower latency, less packet loss, and stable throughput under load ." Its core technical means include multi-AP coordination, coordinated spatial multiplexing, non-primary channel access, and enhanced long-distance operation—all pointing to the same goal: to allow users to experience throughput closer to theoretical values in real-world network environments with dense interference, diverse devices, and proximity to the edge . This difference in positioning determines the complementarity of Wi-Fi 7 and Wi-Fi 8 in application scenarios. For scenarios requiring extreme speeds (VR wireless streaming, 8K live streaming, high-speed file transfer), Wi-Fi 7's 320MHz and MLO are core capabilities; for scenarios requiring extreme reliability (industrial automation, AGV/AMR, telemedicine, smart home whole-house coverage), Wi-Fi 8's Multi-AP coordination and ELR are key. The two are not in a "new generation replacing the old generation" relationship, but rather a coexistence relationship where each leverages its strengths in different scenarios. The practical significance of Qogrisys Wi-Fi 7 module solution During this window of time when generations coexist, the value of module solution providers lies not in "betting on which generation of technology will win," but in providing suitable Wi-Fi 7 module options for different scenarios, while reserving the ability to switch to Wi-Fi 8 technology . Taking the O2072PM module from Qogrisys as an example, this module is based on the Qualcomm QCC2072 (FastConnect C7700) design, supports 320MHz channels, 4096-QAM, MLO, tri-band 2.4/5/6GHz concurrent operation, peak data rate of 5.8 Gbps, and Bluetooth supports BLE 6.0 and LE Audio . These features directly correspond to the core capabilities of Wi-Fi 7, making it suitable for industrial gateways, smart terminals, and embedded systems that require high throughput and low latency. The market viability of these Wi-Fi 7 module solutions in the current and next two years is based on the following facts: First, the Wi-Fi 7 terminal ecosystem is already mature. Intel's Wi-Fi 7 product line has been continuously iterated from BE200 (Q3 2023) to BE213/BE211 (Q4 2025) , and the Wi-Fi 7 platform has been fully deployed in routers, mobile phones, and PCs. Module solution providers do not need to wait for "terminal readiness" because terminals are already being shipped. Secondly, the chip production capacity and supply chain for Wi-Fi 7 have stabilized. The capacity utilization rate of Wi-Fi 7 modules is projected to be only 62.3% in 2026, indicating a structural oversupply . This means that chip supply is no longer a bottleneck, and module manufacturers can obtain competitive procurement costs and stable delivery times. Third, early demand for Wi-Fi 8 modules will primarily appear in enterprise and industrial applications, rather than consumer applications. Dell'Oro Group predicts that enterprise-grade Wi-Fi 8 may be introduced as early as 2027, driven by storage cost pressures rather than end-user demand . Large-scale demand for consumer-grade Wi-Fi 8 modules will require waiting for the standard to be finalized in 2028 and for end devices to fully adopt it. Key conclusions First, the dominant position of Wi-Fi 7 modules in shipments from 2026 to 2028 will be determined by the terminal iteration cycle, rather than by technological superiority or inferiority. The expected annual shipment of 234 million units and a 46% contribution rate to sales revenue indicate that Wi-Fi 7 has entered a period of large-scale returns. Secondly, Wi-Fi 8's "reliability-first" positioning makes it complementary to Wi-Fi 7 in various scenarios, rather than a simple replacement. Wi-Fi 7 addresses "speed," while Wi-Fi 8 addresses "stability." The two will coexist in high-density, long-distance, and multi-device coexistence scenarios for a long time. Third, the core strategy of module solution providers at this stage is to cover mature terminal needs with Wi-Fi 7 solutions, while reserving a technical window for Wi-Fi 8 FEM pre-research and chip platform evaluation. Wi-Fi 8 RF front-end pre-research needs to be coordinated with the SoC ecosystem, and this preparation should be completed in 2026-2027.      

I. A trillion-yuan existing market is opening up China's hotel industry has entered a stock era. Over the next three years, 732,000 rooms older than 15 years will enter a concentrated renovation cycle , with the market size already exceeding 100 billion yuan . Since 2026, the number of renovation contracts signed has already surpassed the total number for the entire previous year, and "renovation" and "rebranding" are becoming accompanying actions in the upgrading of China's hotel stock . The core challenge of renovating existing hotels lies in the need to upgrade guest rooms with smart technology while maintaining operations and minimizing disruption to guests. This places demands on the construction costs and deployment flexibility of communication technologies far exceeding those of new projects. II . Market Trends The smart hotel market is currently experiencing a period of structural expansion. Market research firms predict that the global smart hotel market will grow to US$90.46 billion by 2032 , representing a compound annual growth rate of 14.20% . The Asia-Pacific region is the fastest-growing area, driven by high smartphone penetration, urban tourism expansion, and large-scale hotel modernization . In terms of connectivity technology, PLCs are transforming from a "supplement to wireless solutions" to a "connection base for hotel guest room control ." This judgment is based not only on Lihe Micro's implementation data but also on changes in the competitive landscape: Honeywell's INNCOM FLEX intelligent hotel guest room control system, released in September 2026, explicitly supports "wired and wireless dual deployment solutions" and is compatible with mainstream building protocols such as BACnet IP and Modbus TCP, reflecting the leading building automation manufacturers' recognition of the "multi-protocol compatibility and open deployment" approach . III . The Dilemma Between Wired and Wireless Traditional hotel guest room control systems face a structural dilemma. Wired solutions (RS-485 bus, TCP/IP Ethernet) offer stable and reliable communication with strong anti-interference capabilities and no data packet loss issues, but require the laying of dedicated communication cables. In existing renovation scenarios, this means trenching, ceiling removal, and wall repair, resulting in long construction periods and often requiring closure or phased construction, significantly impacting hotel operations . This type of solution is more suitable for new construction or complete renovation of high-end hotels . Wireless solutions (Bluetooth Mesh, Zigbee, Wi-Fi) offer flexible deployment options, requiring only the laying of power lines, making them cost-effective and easy to install in converted hotels . However, wireless signals face challenges in complex hotel structures, such as wall attenuation, metal cabinet obstruction, and co-channel interference, resulting in weaker communication stability compared to wired methods. Furthermore, the location of the equipment significantly impacts signal quality . No single technological approach can simultaneously meet the dual requirements of "uninterrupted transformation" and "highly reliable communication." What the industry needs is a third path. IV . PLC: Resolving the conflict between "existing power lines" and "new wiring". The core logic of PLC (Power Line Carrier Communication) differs fundamentally from traditional solutions. Wireless solutions rely on electromagnetic wave propagation, and signals experience significant attenuation when passing through load-bearing concrete walls and metal structures. In contrast, PLC uses the building's existing 220V/380V power lines as the data transmission medium. Signals travel along the power lines and are unaffected by physical obstructions from walls, floors, or metal structures—as long as the circuit is powered, the communication link remains stable . Real-world test data supports these technical characteristics: PLC-IoT end-to-end response latency is consistently below 50 milliseconds , and the communication success rate is nominally as high as 99.99% ; a single host can support 128–384 device nodes; academic research confirms that PLC-IoT has comprehensive advantages over ZigBee and KNX technologies in terms of stability, cost-effectiveness, and anti-interference capabilities . For hotel renovation projects, the most valuable feature of PLCs is that they eliminate the need for wiring. V. Open ecosystems are replacing closed solutions The accelerated adoption of PLC technology in the hotel industry also benefits from the industry's reflection on "closed-loop guest room control solutions". Currently, most hotel smart guest room control projects adopt closed-loop solutions, with hotel systems, equipment, and platforms highly dependent on a single supplier. If a vendor experiences operational or technical issues, the entire guest room control system may be paralyzed. Furthermore, incompatible communication protocols between gateway devices from different brands prevent interoperability and hinder system expansion, resulting in persistently high costs for subsequent hotel upgrades, maintenance, and iterations . Based on a unified protocol standard, the PLCP ecosystem brings together products such as switch panels, light drivers, curtain motors, and temperature control panels from numerous equipment manufacturers. Hotels can flexibly select from multiple brands and categories, eliminating the supply chain risks of "one vendor monopolizing" products. This trend offers a clear message for module manufacturers: hotel customers are no longer simply buying "a gateway + a set of equipment," but are looking for "a standard + an ecosystem." As the underlying communication layer, modules need to be compatible with mainstream protocol stacks. VI . PLC module slots of Qogrisys Shenzhen Ofeixin Technology Co., Ltd. has developed two core module products for hotel scenarios in the PLC field. The 3121N-H (based on the HiSilicon Hi3121S) is based on a subset of the IEEE 1901.1 standard. A single CCO supports up to 200 STA nodes , dynamic routing, and automatic multi-path addressing. A typical 200-node, two-tier network can be set up within 10 seconds . The module size is 23.5×30mm, integrating built-in line drivers and onboard coupling circuitry, and providing interfaces such as UART, PWM, GPIO, I2C, and ADC. Qogrisys has also designed an integrated PLC + power supply kit with a built-in conversion transformer for direct connection to 220V bidirectional AC power, facilitating rapid product adoption by customer control solution providers . The S130N-ISI (based on the Leadcore VC6330) uses an LCC package, measuring only 20.6×12.6mm , making its ultra-miniaturized design suitable for space-constrained hotel panel devices. It integrates a 32-bit ARM Cortex-M3 MCU and a 32-bit DSP dual-core processor, supporting both China SGCC Q/GDW 11612 and IEEE 1901.1 protocols . The Leadcore VC6330 chip achieves an application-layer communication rate of up to 1Mbps, with a 99.99% communication success rate in actual projects and a Level 1 network communication latency of

I. Centralized Procurement Signal: The Iteration of Wi-Fi 7 for Home Gateways Enters Substantive Stage The centralized procurement of home network terminals completed by China Telecom and China Mobile in 2026 sends a clear signal to the industry: the role of Wi-Fi 7 in operators' home gateways and FTTR products is shifting from "flagship configuration" to "mainstream configuration" .   In China Mobile's 2026-2027 smart home gateway centralized procurement, Tianyi Technology was shortlisted as the third successful bidder for Package 1 and the sixth successful bidder for Package 2, with an estimated value of 208 million yuan. In China Telecom's FTTR centralized procurement, Tianyi Technology won two packages, with an estimated value of 273.6 million yuan. Jiulian Technology was shortlisted for China Mobile's GPON and 10G GPON packages, with market shares of 14.63% and 12.20%, respectively. The significance of these centralized procurements lies in the fact that operators' technology choices for home network terminals directly determine the upstream module demand structure for OEMs over the next 12 to 18 months . From a penetration rate perspective, the proportion of Wi-Fi 7 in FTTR terminals is rapidly increasing. According to IIM Information's "Global FTTR All-Optical Network Industry Outlook In-Depth Analysis Report," the proportion of FTTR terminals supporting Wi-Fi 7 is expected to reach 38.6% in 2026 , an increase of 17.2 percentage points compared to 2025. This growth rate is significant in the iteration of communication terminal technology, reflecting operators' clear willingness to invest in the evolution from "whole-house gigabit" to "whole-house Wi-Fi 7." II. Engineering Constraints of FTTR Architecture on RF Modules The core architecture of FTTR is a distributed network consisting of a main gateway and multiple sub-routers. Fiber optic backhaul solves the wired bandwidth problem between nodes, but the wireless coverage quality of each node directly determines the user's true perception of "gigabit throughout the house." This architecture imposes three engineering constraints on the radio frequency module that differ from those in a single-router scenario. First, latency consistency during multi-node handover. When users move between rooms, terminal devices need to complete roaming handovers between different sub-routers. Traditional Wi-Fi roaming mechanisms experience service interruptions on the order of 100ms during handover. For real-time applications such as video calls and online games, this interruption is sufficient to cause noticeable experience degradation. Wi-Fi 7's Multi-Link Operation (MLO) and its Enhanced Single-Radio Implementation (EMLSR) significantly reduce handover interruptions through link pre-sense and fast handover mechanisms. Huawei explicitly claims an ultra-low latency of 10ms in its Wi-Fi 7 FTTR solution . This is not just marketing hype, but a scenario-based realization of Wi-Fi 7 MLO capabilities. Second, scheduling efficiency under dense device concurrency. Modern homes typically have more than 20 devices online simultaneously, and in mid-to-high-end scenarios, this can reach over 40. While FTTR's distributed architecture expands coverage, it also means more radio frequency nodes operating in the same spectrum space, leading to increased inter-node interference and terminal scheduling complexity. Wi-Fi 7's optimized OFDMA resource scheduling and multi-link redundancy mechanisms offer far greater value in this scenario than in a single-router environment. Third, matching the fiber backhaul bandwidth. When the fiber backhaul between the FTTR main gateway and sub-routers provides 2.5Gbps or even higher bandwidth, if the wireless side still relies on Wi-Fi 6's 160MHz channel capability, it will become a bottleneck for end-to-end throughput. Wi-Fi 7's 320MHz channel and tri-band capability enable the wireless side to have the basic bandwidth supply to match the fiber backhaul. In this architecture, the role of the RF module is to transform the chip's protocol capabilities into a mass-producible, testable, and reliably deliverable RF subsystem. The chip provides "what it can do," while the module determines "how much it actually accomplishes." III. Engineering Parameters and Scenario Adaptation Analysis of O2072PM/PB The O2072PM and O2072PB modules designed by Qogrisys based on the Qualcomm QCC2072 (FastConnect C7700) platform correspond to the engineering constraints of the aforementioned FTTR/gateway scenarios in terms of parameters . In terms of RF capabilities , the O2072PM supports the IEEE 802.11be standard, 2×2 MIMO, and tri-band 2.4/5/6GHz concurrent operation. The 6GHz band channel bandwidth can reach 320MHz , achieving a peak rate of 5.8Gbps with 4096-QAM modulation . This rate level provides ample margin in current FTTR gateway designs, matching fiber backhaul bandwidth and reserving scheduling space for multi-user concurrent scenarios. In terms of latency control , the O2072PM supports 320MHz Enhanced Multi-Link Single Radio (eMLSR) . eMLSR, in engineering terms, means that in a single-radio hardware architecture, it uses an auxiliary radio (Aux Radio) to monitor the status of multiple frequency band links, quickly switching to a backup link when the primary link encounters interference or congestion, without undergoing a complete scan-association process . Qualcomm describes Aux Radio in its technical documentation as "automatically shutting down or waking up the primary radio by monitoring the TX/RX status," while also performing low-latency background scanning to reduce the impact of scanning on throughput . For cost-sensitive and space-constrained design scenarios such as FTTR sub-routers, eMLSR provides a feasible path to achieve near-multi-radio latency performance on a single-radio architecture. In terms of power management , the independent listening mechanism of the Aux Radio allows the main radio to enter a low-power state when idle, and is only awakened when the auxiliary radio detects a signal that needs to be transmitted or received. This mechanism has practical significance for the heat dissipation design and long-term operating power consumption of FTTR sub-routers—distributed networking means that multiple nodes are continuously online, and the cumulative effect of power consumption of a single node cannot be ignored. In terms of packaging , the O2072PM uses the M.2 2230 Key E standard interface, while the O2072PB is a 13×15mm surface-mount package . These two forms correspond to different overall hardware architectures: the M.2 interface is suitable for slot-based gateway/router products, while the surface-mount version is suitable for high-density onboard sub-routers or space-constrained FTTR slave gateways. This packaging option itself demonstrates engineering adaptability , as different OEMs' hardware platforms differ significantly in interface definitions, PCB space, and heat dissipation paths. Regarding platform compatibility , the O2072PM is compatible with Intel x86 platforms for kernel versions 5.15.24+, 6.1.99, and 6.12.0, and also has V1 compatibility with OpenWrt . This information is valuable for OEMs in their selection process: the maturity of driver compatibility directly impacts product development cycles and post-mass production stability risks . Mature compatibility with Linux platforms means that gateway solutions based on x86 or ARM Linux can complete RF subsystem debugging in a shorter time, while OpenWrt compatibility provides a foundation for customized routing/gateway products. IV. The Value Position of the Module Segment in the Industry Chain According to IIM Information's "Global and China WiFi Module Market Analysis and Survey Report," the global Wi-Fi module market size is projected to reach US$16.82 billion in 2026 , with Wi-Fi 7 module shipments expected to climb to 17.2% , reaching approximately 234 million units for the year. IndexBox's market analysis further indicates that Wi-Fi 7 modules have a 40% to 70% price premium compared to their predecessors , and high-end modules (tri-band, 320MHz, 16+ spatial streams) are priced between US$250 and US$1500 . This pricing structure reflects an industry reality: the added value of the module segment largely depends on its "conversion efficiency" to chip capabilities . The same Wi-Fi 7 chip can exhibit significantly different RF performance, heat dissipation characteristics, power consumption curves, and driver compatibility in designs from different module manufacturers. As a carrier-grade product, FTTR gateways have higher requirements for long-term operational stability, environmental adaptability, and batch consistency than consumer-grade products. When selecting module solutions, OEMs focus not only on "Wi-Fi 7 support" but also on "whether the nominal performance can be stably reproduced under mass production conditions." From a supply chain perspective, Qualcomm's QCC2072 provides the foundational capabilities for the protocol layer as a chip platform, while module manufacturers focus on RF front-end matching, antenna design coordination, power management optimization, driver adaptation and verification, and engineering implementation for different package types. The value of this layer lies not in the chip definition stage, but in the product realization stage. V. Conclusion: Module Selection Logic in Centralized Procurement Scenarios The successful procurement of home gateways by China Telecom and China Mobile in 2026 marks the official launch of large-scale deployment of Wi-Fi 7 in operator home network terminals. The distributed architecture of FTTR and the product requirements for carriers impose engineering constraints on radio frequency modules that differ from those on consumer-grade routers. In a supply chain system driven by centralized procurement, the competitiveness of a module solution depends on the comprehensive performance of three dimensions: protocol compatibility with FTTR scenarios, hardware adaptability across multiple packaging forms, and driver maturity under the Linux/OpenWrt platform. The O2072PM's eMLSR implementation, Aux Radio power management, and tri-band 320MHz capability technically address the core needs of FTTR sub-routers and home gateways; its M.2 and surface-mount dual packaging forms cover the hardware architecture choices of different OEMs; and its Intel x86 and OpenWrt driver adaptation provides a verifiable starting point for complete system development. The transmission cycle of operator centralized procurement dictates that OEMs' module selection decisions often occur during the solution design phase before the procurement announcement. Within this time window, module solutions with a complete RF parameter system, multiple packaging options, and verifiable driver adaptation records occupy a more advantageous position in OEMs' technical evaluations .