China Shenzhen Ofeixin Technology Co., Ltd Company News

  Embodied intelligence accelerating its start, the low-altitude economy gaining momentum, and artificial intelligence penetrating public governance and livelihood services—amid a new wave of technological and industrial transformation, Hangzhou is leveraging institutional innovation, scenario openness, and ecosystem collaboration to accelerate the journey of scientific achievements from laboratories to the market. The city is striving to build a nationally influential hub for artificial intelligence innovation.   Last October, under the theme of “building a city of innovation and vitality,” the General Office of the Hangzhou Municipal Party Committee openly addressed challenges such as talent attraction, policy coordination, and insufficient application scenarios during a televised public governance program. These issues drew widespread public attention. Have the rectifications been implemented? Have the commitments been fulfilled? Recently, a follow-up inspection group composed of municipal departments, deputies to the People’s Congress, CPPCC members, and media representatives conducted on-site investigations and provided interim answers.   Breaking Bottlenecks in Scenario Data Ensuring Innovation Goes Beyond the Laboratory   In Linping District’s Computing Power Town, an intelligent robot named “Turing No.1” has become a new “colleague” in daily cleaning operations. From automatically identifying stains to completing cleaning tasks, human–machine collaboration has moved from concept to reality within minutes.   For technology-driven enterprises, real-world application scenarios are not only showcases but also critical data sources for rapid iteration. In the past, insufficient scenario openness was a frequent concern. Today, as public spaces such as citizen service centers, airports, and streets are gradually opened to enterprises, companies can validate and optimize technologies in real environments, accelerating the transition from “usable” to “highly usable.”   Relevant departments in Linping District have also introduced systematic support measures for technology enterprises, ranging from innovation funds and computing subsidies to talent and land guarantees. Together, these form a long-term support mechanism covering the journey “from 0 to 1,” providing institutional backing for enterprises to overcome growth bottlenecks.   Amplifying the “First-to-Fly” Advantage Building a Hangzhou Model for the Low-Altitude Economy At the Future Science Park of Nanhu in Yuhang District, the “China Fly Valley” has officially been approved as a civil drone test flight and operation base, offering one-stop services such as R&D testing, flight verification, training, and education for low-altitude industry enterprises. This platform directly addresses long-standing pain points faced by drone companies, including high testing costs and fragmented test sites.   Companies deeply engaged in the drone sector generally believe that the scaled development of the low-altitude economy requires not only application scenarios but also the parallel improvement of standards and infrastructure. Currently, Yuhang District is promoting the accelerated deployment of drones in urban inspection, emergency firefighting, and agricultural and forestry operations through measures such as standardized takeoff and landing points, testing service systems, and fiscal support—continuously strengthening its “first-mover” industrial advantage.   Expanding the Boundaries of Intelligent Services Bringing Technological Achievements into Public Life   From exoskeleton robots entering parks to intelligent assistive devices being included in age-friendly subsidy programs, Hangzhou is pushing artificial intelligence technologies from “laboratory results” into “doorstep services.” To address the challenge that some technological products are well-received but not widely adopted, the government is helping enterprises enhance market visibility and expand application reach through platform matchmaking, scenario trials, and coordinated mechanisms.   This demand-driven innovation path—where scenarios feed back into technology development—is gradually forming Hangzhou’s distinctive model of “localized technology commercialization,” laying a practical foundation for the deep integration of artificial intelligence and the low-altitude economy.   From “Able to Fly” to “Flying Stably” The Connectivity Foundation Behind Low-Altitude Applications Takes Shape   As drones are increasingly used in urban governance, emergency response, and industrial services, stable, long-range, and interference-resistant wireless connectivity has become critical infrastructure for the scaled development of the low-altitude economy. In complex electromagnetic environments and cross-regional operations, the reliability of communication systems directly determines the safety boundaries and efficiency limits of low-altitude applications.   Against this backdrop, Shenzhen Ofeixin Technology Co., Ltd. is closely following the trend of the low-altitude economy. Targeting low-altitude flight application scenarios, Qogrisys has launched a mature, end-to-end product solution—the O9201UDH drone communication module—specifically designed for low-altitude flight and capable of seamlessly supporting such applications. Based on a Wi-Fi 6 and Bluetooth 5.4 architecture, the module supports an external FEM solution, with maximum transmit power up to 30 dBm, significantly enhancing link budget and coverage. It also supports 5 MHz and 10 MHz narrowband operating modes, offering clear advantages in long-distance, low-interference, and high-stability scenarios.   Whether for city-wide drone inspection networks or campus-scale, clustered low-altitude deployments, the O9201UDH strikes a balance between power, stability, and bandwidth flexibility, providing a reliable device-side wireless connectivity foundation for the low-altitude economy. When policy, scenarios, and technology work in synergy, the low-altitude economy is no longer just about “taking off,” but about flying stably, farther, and longer. Hangzhou stands at the forefront of this transformation.    

At the recently concluded CES, a clear consensus emerged: Robots are no longer mere “concept demonstrations” of technology, but are rapidly becoming intelligent productivity tools capable of large-scale deployment.   Chip and platform vendors represented by Qualcomm are reshaping robot architectures through “Physical Artificial Intelligence (Physical AI)” — spanning computing, perception, decision-making, communication, and collaboration to form truly end-to-end system capabilities. This transformation enables robots to continuously learn, understand their environments, and make autonomous decisions, covering a wide range of form factors from personal service robots and logistics or retail AMRs to full-size humanoid robots.   From “Point Intelligence” to “System-Level Intelligence”   The core of next-generation robot architectures is no longer the simple stacking of computing power, but system-level collaboration that combines high performance, low power consumption, and strong connectivity.   The latest robot platforms showcased at CES commonly feature: - High-efficiency computing architectures optimized for edge AI - Heterogeneous computing capabilities supporting complex perception and motion planning - Industrial-grade safety, reliability, and real-time design - Open software stacks capable of working with large models (VLA / VLM)   These architectural changes allow robots to evolve from passively executing commands into intelligent agents capable of understanding, reasoning, and decision-making, accelerating deployment across manufacturing, logistics, warehousing, and service scenarios.   A Key Bottleneck in Large-Scale Robot Deployment Is Being Underestimated   As computing platforms and AI capabilities mature, connectivity is becoming one of the decisive factors determining whether robots are truly usable in real-world environments.   Whether humanoid robots or AMRs, real deployments impose unprecedented requirements on wireless connectivity: - Ultra-low latency for real-time perception, remote collaboration, and cloud-edge coordination - Ultra-high bandwidth for multi-channel vision, radar, and sensor data transmission - High reliability for stable communication in complex industrial environments - Multi-device concurrency for robot fleet coordination and scheduling   This means traditional Wi-Fi solutions are approaching their limits. Next-generation robots require future-oriented connectivity technologies as their “neural network.”   Wi-Fi 7 Is Becoming a Standard Capability for Next-Generation Robots   Across multiple robot demonstrations at CES, Wi-Fi 7 (802.11be) was frequently highlighted. Compared with previous standards, Wi-Fi 7 offers particularly significant value for robotic applications: - 320 MHz ultra-wide bandwidth for high-throughput data transmission - Multi-Link Operation (MLO) to significantly reduce latency and jitter - Higher-order modulation (4K QAM) to improve spectral efficiency - Better suitability for high-density industrial and commercial environments with many devices online simultaneously   Wi-Fi 7 is not merely a speed upgrade — it is a connectivity foundation purpose-built for the Physical AI era.   From Computing to Connectivity, Truly Complete Robot Systems Are Just Taking Shape   As high-performance robot processors mature and ecosystem partners continue to join, the robotics industry is entering a new phase — transitioning from “working prototypes” to “replicable and scalable intelligent systems.”   In this process, whoever can first provide mature, stable, and mass-producible next-generation communication modules will occupy a critical position in the robotics value chain.   Building Truly Deployable Wi-Fi 7 Connectivity for the Next Generation of Robots   Against this industry backdrop, QOGRISYS has launched the O2072PM Wi-Fi 7 communication module.   O2072PM is a Wi-Fi 7 + Bluetooth 6.0 tri-band 2×2 MIMO module designed for high-end robots, industrial equipment, and intelligent terminals. It supports 2.4 / 5 / 6 GHz bands with up to 320 MHz bandwidth across all bands and delivers peak data rates of up to 5.8 Gbps, meeting stringent requirements for multi-sensor fusion, high-definition video transmission, and low-latency control.   More importantly, in the Chinese market, QOGRISYS is one of the pioneers in the Wi-Fi 7 module space. Only a handful of vendors truly possess comprehensive Wi-Fi 7 engineering capabilities, mass-production readiness, and real-world deployment experience — and QOGRISYS has already taken the lead by bridging the gap from solutions to modules, and from laboratories to real application scenarios.   As robots move beyond exhibition halls into the real world, stable, high-performance, and future-ready connectivity will become indispensable infrastructure. O2072PM is the connectivity module built for this era.  

  On December 10, Qualcomm announced the completion of its acquisition of Ventana Micro Systems, further strengthening its technological footprint in the RISC-V architecture and high-performance computing fields. The global leading chip and wireless connectivity platform supplier Qualcomm announced it has officially completed the acquisition of Ventana Micro Systems. As a leader specializing in high-performance RISC-V architecture, the addition of Ventana will significantly enhance Qualcomm's computing power layout for the AI era, heterogeneous computing architecture design capabilities, and open ecosystem building capabilities, providing a stronger underlying foundation for future smart terminals, industrial equipment, and edge computing systems. Architecture Capabilities, Accelerating Heterogeneous Computing Innovation As demands for AI inference, local computing, security isolation, and low-power processing continue to rise, the requirements for CPU scalability and energy efficiency in terminal devices are constantly increasing. Ventana specializes in scalable RISC-V compute chiplets, and its team is deeply involved in advancing open instruction set standards, which will provide Qualcomm's Oryon CPU architecture with further room for architectural innovation. Qualcomm stated that the new team will collaborate with the existing CPU R&D department to promote the development of more versatile, efficient, and open processor capabilities for future mobile terminals, XR, automotive electronics, industrial equipment, and AI edge nodes. Enhancing System-Level Design Capabilities, Expanding Future SoC Product Roadmap With the integration of Ventana's technology, Qualcomm's future SoC architectures will possess stronger modular expansion capabilities, enabling more efficient coordination among processors, DSPs, AI engines, and connectivity subsystems. The company stated that this move will significantly enhance its competitiveness in fields such as data center edge, industrial control, and high-efficiency computing, and will attract more partners through a more open RISC-V ecosystem, promoting the standardization of next-generation system platforms Driving Industry Collaboration with an Open Ecosystem, Providing More Flexible Technological Paths for Terminal Devices Ventana's entry not only completes a key piece of Qualcomm's puzzle in the RISC-V ecosystem but also means that future OEMs, ODMs, and IoT device manufacturers will have access to more open and customizable reference architectures. With more controllable core IP, a more transparent ecosystem model, and a more efficient computing power structure, Qualcomm hopes this strategic move will accelerate the iteration of various smart devices in terms of security, energy efficiency, and local intelligent processing. Integrating Industry Chain Innovation, Accelerating Next-Generation Wireless Terminal Development As computing power and architectural capabilities improve, the demand for wireless connectivity in next-generation terminals is also upgrading. To ensure stable device performance in high-density, low-latency, multi-link environments, QOGRISYS has launched the O2072PM tri-band Wi-Fi 7 + Bluetooth 6.0 module based on the Qualcomm platform. This module features deep optimizations on 320MHz, 4K QAM, eMLSR multi-link, and Qualcomm's advanced RF architecture, enabling more reliable high-bandwidth connections in homes, industrial settings, campuses, and smart devices. With its compact packaging and PCIe design, the O2072PM provides terminal manufacturers with a quickly mass-producible, stable-performance, future-ready Wi-Fi 7 connectivity foundation.  

Amid accelerating convergence between AI and wireless technologies, LitePoint hosted its annual technical seminar in Hsinchu and Taipei in September 2025 under the theme “Intelligent Connectivity Without Boundaries: Test-Driven Innovation.” As a global leader in wireless test solutions, LitePoint highlighted key challenges of the multi-technology era and showcased advances in Wi-Fi 8, 5G RedCap, Bluetooth 6.0, UWB, and optical communication testing. Figure 1. Glenn Farris, Global Vice President of Sales, LitePoint   Multi-Technology Convergence as a Core Industry Trend The event began with remarks from Glenn Farris, LitePoint’s Vice President of Global Sales, who emphasized that expanding wireless applications and increasingly complex deployment environments are placing higher demands on testing systems. Adam Smith, Vice President of Marketing, noted that AI-driven wireless innovation is moving toward multi-technology collaboration, where 5G RedCap, Wi-Fi, Bluetooth, and UWB will coexist and complement one another. Security, stability, and interference resistance will be essential competitive factors for future devices.   Smith added that while 6G development remains cautious, 5G FWA is rapidly expanding globally. Meanwhile, mid- and high-end devices are upgrading to Wi-Fi 7, laying the foundation for Wi-Fi 8. Wireless experience metrics will shift from being speed-centric to prioritizing low latency, high reliability, and coordinated multi-device operation.   Wi-Fi 8: From High Speed to High Reliability A MediaTek representative detailed four major enhancements coming with Wi-Fi 8: Enhanced Long Range (ELR), Coordinated Spatial Reuse (Co-SR), Dynamic Subchannel Operation (DSO), and Non-Primary Channel Access (NPCA). These features aim to strengthen Wi-Fi performance in crowded, high-interference environments. ELR improves connectivity at greater distances; Co-SR enhances efficiency in multi-router Mesh deployments; and NPCA improves link stability under heavy interference. MediaTek expects Wi-Fi 8 to become foundational for home, enterprise, and industrial scenarios, supported by LitePoint’s comprehensive testing ecosystem.   Optical Communication and CPO Rising AI compute demands are accelerating bandwidth growth in data centers, making optical communication a key topic at the seminar. Quantifi Photonics presented parallel testing solutions for silicon photonics and co-packaged optics (CPO). With 800 Gbps and 1.6 Tbps modules entering mass production, full-chain testing from wafer to finished system is becoming increasingly critical. Quantifi demonstrated multi-channel automated testing on a PXI platform, emphasizing its importance for large-scale optical module manufacturing.   Bluetooth 6.0, UWB, and RedCap: Joint Evolution of Multi-Radio Technologies The seminar also highlighted advancements in Bluetooth 6.0, UWB 802.15.4ab, and 5G RedCap. Bluetooth 6.0 enables sub-meter precision for tracking and indoor navigation; UWB’s new narrowband auxiliary link enhances long-distance stability; and 5G RedCap/eRedCap supports wider IoT adoption with lower power consumption and costs. LitePoint’s IQxel, IQgig, and IQcell platforms support comprehensive testing for these technologies. Figure 2. Zhiwei Huang, Deputy Director of Applications Engineering, LitePoint   IIoT and Edge AI: New Opportunities Through Industry Collaboration A roundtable discussion explored the integration of IIoT and edge AI. Experts noted that high-reliability wireless connectivity is becoming essential for AMR robots, smart warehousing, medical systems, and urban infrastructure. Wi-Fi 7, 5G RedCap, GNSS, and UWB together form the communication backbone for next-generation intelligent devices. Mature testing platforms will be key to enabling large-scale deployment.   As multi-technology collaboration deepens, wireless capability is becoming a core device attribute. Whether it is Wi-Fi 8’s high reliability or Wi-Fi 7’s rapid adoption, the ability of devices to evolve with network upgrades will be crucial. Device manufacturers are now asking: in complex, high-concurrency environments, what wireless foundation is needed for devices to fully leverage next-generation networks?   QOGRISYS is advancing its Wi-Fi 7 module development using LitePoint’s MX Wi-Fi 7 test platform. The new O2072PM and O2072PB tri-band Wi-Fi 7 + Bluetooth 6.0 modules provide optimized 320 MHz bandwidth, eMLSR multi-link performance, 4K QAM, and CSI sensing. These features enhance performance in high-density and low-latency environments. With a compact design and PCIe interface, O2072PM integrates easily into smart devices, industrial equipment, and IoT nodes, providing a strong foundation for the transition into the Wi-Fi 7 era.    

Figure1: WAA Presents the WLAN Integrated Sensing and Communication Excellent Case Certificate to Huawei The "Digital-Intelligent Campus Innovation Practice Meetup", focused on network experience upgrades and intelligent innovation for office campuses, concluded successfully at Huawei's Nanjing Research Institute. Industry organizations, enterprise customers, and ecosystem partners gathered on-site for in-depth exchanges on new campus network technologies, architectures, and scenarios, and experienced a series of innovative implementations such as smart meeting rooms, inspection care, asset inventory, and AI navigation. Notably, the Huawei Nanjing Research Institute AI Integrated Sensing and Communication Smart Campus (hereafter referred to as "AI Digital-Intelligent NRI") was successfully selected as the "WLAN Integrated Sensing and Communication Excellent Case" by the World Wireless LAN Application Development Alliance (WAA). Latest Network Technologies First Applied to Own Campus, Creating a "Replicable" Future Campus Model In his speech, Zhao Shaoqi, President of the Campus Network Domain, Data Communication Product Line at Huawei, stated that Huawei consistently prioritizes applying the latest technologies to its own campuses, adhering to the practical spirit of "testing one's own parachute first" to create a benchmark model for the industry to reference. The "AI Digital-Intelligent NRI" project is precisely based on this philosophy. By integrating "Wi-Fi + Sensing" and "Wi-Fi + IoT" capabilities, it infuses powerful intelligence and visualization capabilities into the 10 Gigabit campus network, setting a new direction for digital-intelligent upgrades for industry customers. WAA: Excellent Case Provides Demonstrative Value for Global Campus Network Construction WAA Secretary-General Yang He pointed out that the alliance continuously promotes global WLAN industry innovation, supporting campus network construction through white papers and evaluation methodology systems. The emergence of cases like "AI Digital-Intelligent NRI" provides the industry with a high-quality reference model that can be promoted top-down, accelerating the large-scale application of integrated sensing and communication technology in smart campuses. Deep Integration with Business Scenarios, Driving Campuses Towards "Fully Digital, Fully Perceptive, Fully Intelligent" In a keynote speech, Lu Xin, Vice President of Huawei's IT Platform Service Department, shared the construction philosophy of "AI Digital-Intelligent NRI". Centered around typical scenarios like office work, access, inspection, and security, the project leverages Huawei's Galaxy AI 10 Gigabit Campus Network and HIS Digital Operating System. Through digital element aggregation, AI governance, and scenario-based applications, it achieves a comprehensive improvement in employee office experience and enables more efficient, real-time intelligent operational capabilities for the campus. Chen Jiefu from the Shanghai Institute of Architectural Design & Research also shared his experience in intelligent building renovation for urban structures. He mentioned that in the Shanghai Design Mansion project, Huawei's 10 Gigabit Campus Office Network Solution was adopted. The All-Optical Ethernet architecture and Wi-Fi 7 Integrated Sensing and Communication technology together built a stable wireless foundation, enabling the building to achieve a genuine digital advancement. AI-Driven Network Evolution, Achieving "Dual Upgrade" in Operations and Experience Chen Yongxing, Vice President of the Campus Network Domain, Data Communication Product Line at Huawei, emphasized that the introduction of AI has significantly enhanced campus network security, application performance, wireless experience, and operational management. Huawei aims to create a campus network foundation characterized by high stability, high intelligence, and high operational efficiency for its customers through deep synergy between technology and business. The "Tiangang Laboratory" open house on the day allowed attendees to deeply experience the real-world application results of integrated sensing and communication capabilities in office scenarios. For example, using CSI sensing technology to enable smart meeting room features like "lights on when people enter, off when they leave" and "automatic release when unoccupied"; achieving precise security inspections at night by sensing human figures; enabling automatic asset inventory in warehouses, significantly reducing loss probability; realizing visual, self-optimizing, and intelligent diagnosis full-process operations through iMaster NCE and the AI Network Agent; and the AI navigation function enabling meter-level precise location of office resources, bringing great convenience to large-campus work. Figure2 Chen Yongxing, Vice President of the Campus Network Domain, Data Communication Product Line at Huawei This series of achievements not only demonstrates the maturity and replicability of integrated sensing and communication technology but also reflects the crucial transition of campus networks from "connectivity" to "intelligence". Looking Forward: O2072PM Empowers More Smart Campus Devices Towards Wi-Fi 7 As campus networks rapidly evolve from "high-bandwidth" to "intelligent sensing" and "multi-service integration", various terminal devices are also moving towards higher performance, lower latency, and stronger sensing capabilities. In response to this trend, QOGRISYS introduces the O2072PM Tri-Band Wi-Fi 7 + Bluetooth 6.0 Module, providing more flexible and powerful wireless foundational capabilities for the new generation of smart campus terminals. The O2072PM adopts a tri-band architecture and supports key Wi-Fi 7 features such as 320MHz bandwidth, eMLSR multi-link operation, 4K QAM, and CSI sensing. It can deliver more stable and controllable connection experiences in high-density offices, smart inspection terminals, indoor positioning devices, and general IoT equipment. Its compact package design allows various campus terminals to integrate Wi-Fi 7 capability with lightweight design, accelerating the large-scale deployment of "smart scenarios + wireless sensing" technology and bringing higher value to smart campus construction.

As enterprise-grade wireless networks rapidly advance towards intelligence, automation, and visualization, global vendors are re-evaluating the foundational capability planning for next-generation Wi-Fi and the Internet of Things (IoT). At the WWC conference in Dubai, Cisco executives systematically outlined key future directions for enterprise wireless: simpler network assurance, more intelligent AI-powered operations and maintenance (O&M), lower-latency wireless backhaul, higher-level security, and the accelerated evolution of enterprise spaces from "traditional connectivity" to "intelligent spaces." AI-Driven Enterprise Wireless: From Reactive Response to Proactive Optimization Enterprise wireless technology is undergoing a profound transformation. Bahador Amiri, Senior Director of Wireless Engineering at Cisco, pointed out that IT team sizes are generally being compressed while the number of devices continues to grow, necessitating that network assurance becomes more automated and predictable. He stated that enterprise wireless is transitioning from a manual, reactive model to an AI-based automated assurance model: networks proactively analyze status, perform automated remediation, and predict potential risks in the background, significantly improving overall availability. The AI-RRM (AI Radio Resource Management) demonstrated by Cisco is a typical case of this shift. This technology, trained on real traffic trends, can automatically optimize wireless resource allocation based on user mobility, device density, and scenario changes, reducing the complexity of traditional spectrum and power tuning. Simultaneously, the capability for "natural language query of network status" is becoming an important direction for next-generation network O&M, enabling IT personnel to perform diagnostics and issue commands in a more intuitive way. Post-Quantum Cryptography Gradually Becoming Baseline Beyond the trend of intelligentization, security has also become a significant focus for the next phase of enterprise wireless. With the development of quantum computing, traditional cryptographic systems face new challenges. At the conference, Cisco emphasized its investment in the PQC (Post-Quantum Cryptography) direction, aiming to ensure network security even in the context of potential future quantum attacks. Strengthening Role of Wi-Fi in Critical Scenarios In industry scenarios such as transportation, energy, and industrial automation, the demand for "ultra-reliable, ultra-low latency" is continuously increasing. Cisco is configuring its high-end access points to support proprietary ultra-low latency wireless backhaul technology, enabling Wi-Fi to undertake more tasks akin to "quasi-5G communication," granting wireless a higher priority in mission-critical operations. Moving from Fragmented Systems Towards a Unified Platform Cisco revealed that its access points used for IoT connectivity have grown significantly, from 1 million in 2023 to 4.9 million. Previously, IoT connectivity was long fragmented by disparate protocols and independent systems. Today, enterprises are progressively integrating towards unified platforms, utilizing a single AP to carry more sensing, tracking, positioning, and energy management capabilities. In this direction, Cisco Spaces has become a typical solution, supporting functions like asset tracking, navigation, environmental monitoring, and occupancy analysis through a unified platform. To underpin these capabilities, Cisco has integrated four Wi-Fi radio modules, BLE 6.0, UWB, and GPS into its flagship AP 9178, transforming it into a multi-modal information entry point. . (Bahador Amiri, Senior Director of Wireless Engineering at Cisco, delivering a speech at the WWC conference in Dubai on November 19, 2025) Wireless Module Requirements for New Scenarios Are Evolving With the growth of intelligent spaces, low-latency backhaul, and concurrent multi-service demands, the requirements for wireless modules in new-generation enterprise terminals and IoT devices are also changing: higher performance, lower latency, smaller size, and stronger multi-modal compatibility are becoming mainstream market directions. Following this trend, QOGRISYS has launched the O2072PB Tri-Band Wi-Fi 7 + Bluetooth 6.0 Module. This product features a 2×2 MIMO and 320MHz ultra-wide bandwidth design. It achieves a peak rate of 5.8Gbps in the 6GHz band and supports key Wi-Fi 7 capabilities such as eMLSR, Multi-Link Operation, 4K QAM, and 802.11az distance measurement. Its compact 15×13×2.3 mm package and PCIe interface enable lightweight adaptation for enterprise terminals, intelligent space devices, and industrial IoT, accelerating the deployment of next-generation high-performance wireless capabilities in more scenarios.

At the critical juncture where global broadband is entering the multi-gigabit era, Wi-Fi 7 is moving from standardization to large-scale deployment at an unprecedented speed. A recent survey released by Heavy Reading (part of Omdia) in collaboration with eero and Qualcomm shows that among 90 global Internet Service Providers (ISPs), over 50% have already deployed or plan to deploy Wi-Fi 7 based on broadband solutions within the next 12 months. This pace far exceeds that of any previous generation of Wi-Fi technology, indicating that the industry chain is proactively embracing a new window for experience upgrades. The core driver for the adoption of Wi-Fi 7 comes from the rapid growth of multi-gigabit broadband plans. According to the survey data, the compound annual growth rate of such plans exceeds 20%, creating new competitive points for operators. Simultaneously, 61% of the surveyed operators cited "faster wireless experience" as the primary driver for upgrading to Wi-Fi 7, followed closely by "better user experience" (48%) and "lower latency" (47%). Whether for streaming media, cloud gaming, or large-scale smart device connectivity, current user demands are exceeding the capabilities of existing Wi-Fi standards. Looking at the standards lifecycle, the support window for older generation technologies by operators is noticeably narrowing. The survey reveals that 63% of ISPs have stopped or plan to stop supporting Wi-Fi 5 within two years; the lifecycle of Wi-Fi 6 is also shortening, with 38% of ISPs stating they will support it for no more than two years. This signifies that the iteration speed of Wi-Fi technology is accelerating, and the comprehensive performance advantages of Wi-Fi 7 in bandwidth, concurrency, intelligent scheduling, etc., make it the mainstay for wireless experiences in the coming years. The structure of user complaints is also pushing operators to accelerate the shift to Wi-Fi 7. The survey indicates that "insufficient indoor coverage" and "too many signal dead zones" remain the primary user complaints. To improve the coverage experience, 61% of operators are introducing multi-node architectures into their solutions, including Wi-Fi extenders (33%) and Mesh systems (28%). This aligns directly with the inherent advantages of Wi-Fi 7 in technologies like tri-band concurrency, Multi-Link Operation (MLO), and intelligent path selection. From an industry trend perspective, the core capabilities of Wi-Fi 7 are being widely recognized: • 66% of enterprise and consumer users consider tri-band support (2.4GHz, 5GHz, 6GHz) a necessary capability; • 94% of ISPs have deployed or plan to deploy Multi-Link Operation (MLO), which is considered a key selling point for Wi-Fi 7; • 67% of operators rank "security and reliability" as the primary evaluation metric for Wi-Fi equipment; • AI-based network management is being implemented, with automated fault diagnosis (28%) and intelligent optimization (26%) receiving the most attention. Although Wi-Fi 7 is currently mainly concentrated in the high-end market, as the supply chain continues to introduce more cost-effective devices, the barrier to adoption for Wi-Fi 7 will rapidly decrease. The operator ecosystem, terminal brands, consumer electronics, and industrial applications will all accelerate their alignment with the new standard, further unleashing the scale effect of the industry chain.   It is worth noting that the development of Wi-Fi 7 is not only reflected in routers and home networks; its device-side ecosystem is also growing simultaneously. Emerging scenarios such as smart hardware, industrial equipment, IoT terminals, and spatial awareness devices have continuously increasing demands for higher throughput, lower latency, and more stable links, making the deployment of Wi-Fi 7 on the device side particularly crucial. Within this trend, new-generation communication modules are becoming an important force driving Wi-Fi 7 into more application scenarios. Taking the O2072PM launched by QOGRISYS as an example, this Wi-Fi 7 module for devices adopts an advanced tri-band architecture, ensuring more stable link performance in high-density environments. It supports 320MHz ultra-wide bandwidth and enhanced Multi-Link Operation, and integrates next-generation sensing capabilities, providing richer functionality in scenarios like smart homes, industrial interconnection, and spatial positioning. Simultaneously, the module features built-in auxiliary RF links and long-range Bluetooth capabilities, enabling it to adapt to the needs of various types of smart terminals and industrial equipment. This allows Wi-Fi 7 to no longer exist only in home routers but to truly enter broader, more diverse, and complex application fields. As products like the O2072PM continue to enter the market, the Wi-Fi 7 ecosystem will expand from operator networks to terminal devices and industry applications, propelling the entire wireless ecosystem into a new phase characterized by higher speed, greater intelligence, and enhanced stability.

Wi-Fi 8 Technology Outlook: Redefining Wireless Connectivity for the AI Era Intel recently released a white paper that systematically outlines, for the first time, the core vision for the next-generation wireless technology, Wi-Fi 8 (based on the IEEE P802.11bn standard). Unlike Wi-Fi 7, which primarily pursued peak rate increases, Wi-Fi 8's strategic focus shifts to "Deterministic Experience," aiming to build an ultra-reliable and intelligently perceptive wireless environment. According to the roadmap, the first commercial devices compliant with the standard are expected to arrive between late 2027 and early 2028. From "High Speed" to "Reliable": The Four Value Pillars of Wi-Fi 8 The technological evolution of Wi-Fi 8 revolves around four core dimensions: Network Performance Optimization remains the foundation. The new generation standard will improve throughput by at least 25% in complex environments and significantly reduce latency through finer channel access control and extended coverage technologies. Deterministic Connectivity becomes the key breakthrough. Wi-Fi 8 introduces enhanced priority scheduling mechanisms, capable of providing dedicated channels for critical traffic like gaming and industrial control, ensuring data packets are delivered reliably within specified time. Security and Privacy Protection receive comprehensive upgrades. The standard is expected to support enhanced protocols like IEEE 802.11bi, enabling encryption protection for the entire connection process and significantly improving security in public network environments. AI Empowerment is the standout feature. Devices will natively support Wi-Fi signal-based sensing and ranging capabilities, laying the groundwork for intelligent applications such as gesture recognition and human presence detection. Specific Scenarios Transforming the User Experience Smart Homes will be among the first to benefit. As the number of connected home devices approaches 30, Wi-Fi 8's multi-AP coordination technology enables router networks to work in concert like a "symphony orchestra," completely eliminating dead zones and ensuring critical applications like gaming and video conferencing remain unaffected by download tasks. Enterprise Applications usher in innovation. In high-density scenarios like airports and stadiums, access points can coordinate transmission timing and power in real-time, avoiding mutual interference, allowing thousands of users to enjoy a smooth experience simultaneously. XR Collaboration enters a new stage. When colleagues collaborate remotely via AR glasses, Wi-Fi 8's deterministic latency ensures virtual operations and real feedback are almost synchronous, truly enabling "immersive" work efficiency. The Underlying Technological Innovations Multi-AP Coordination is the core technological breakthrough. Multiple access points can share scheduling information, intelligently allocate transmission resources, and even coordinately adjust antenna beam shapes, effectively reducing interference from adjacent networks. Intelligent Spectrum Management makes connections more stable. The newly added non-primary channel access function allows devices to quickly switch to idle frequency bands, akin to planning multiple "emergency lanes" for data flows, significantly enhancing anti-interference capability. Seamless Roaming experience is upgraded. Devices can maintain a "connect first, disconnect later" handover between access points, combined with a pre-established security key mechanism, making video calls during movement almost imperceptible. Industry Preparation and Ecosystem Outlook Although the final standard ratification is still some time away, chip manufacturers like Intel and Broadcom have already begun preliminary technology planning. Notably, Wi-Fi 8 will be fully backward compatible with existing devices, ensuring a smooth transition for user investments. Industry analysts point out that the true value of Wi-Fi 8 lies in providing the wireless foundation for applications in the AI era. From perceptive interactions in smart homes to precise control in the Industrial IoT, its guarantee of "deterministic performance" will unlock a new cycle of innovation. Wi-Fi 7 Modules Provide the Hardware Foundation for Industry Upgrades While the industry focuses on the development of Wi-Fi 8, the O2072PM wireless module launched by QOGRISYS has entered the large-scale commercial stage. This module adopts a tri-band concurrent architecture (2.4/5/6 GHz), supports 320 MHz channel bandwidth and a theoretical rate of 5.8 Gbps, significantly improving spectrum efficiency through 2x2 MIMO and 4K QAM technologies. Its Enhanced Multi-Link Operation (eMLSR) supports intelligent switching between multiple frequency bands, effectively ensuring connection reliability. Integrated Bluetooth 6.0 technology can simultaneously support LE Audio and BLE long-range transmission, meeting the composite connection needs of multimedia and IoT devices. For industrial applications, it features High Accuracy Distance Measurement (HADM) and auxiliary radio frequency functions, adapting to low-latency scenarios such as industrial control and smart warehousing. The compact M.2 2230 form factor facilitates terminal integration, providing hardware support for smart device upgrades and laying the foundation for the evolution towards Wi-Fi 8.  

Oman Airports recently announced the comprehensive deployment of Wi-Fi 7 networks across all its national airports, becoming the world's first airport operator to implement this technology. This deployment, jointly advanced by Oman Airports and Huawei, aims to provide passengers with a more efficient, secure, and stable wireless network experience, while accelerating the digital transformation of the airports. Wi-Fi 7 Brings a New Experience for Passengers and Operations As the latest generation wireless connection standard, Wi-Fi 7 supports high-speed transmission, high bandwidth, and low latency, significantly improving network quality in high-density passenger environments. The deployment at Oman Airports covers all national airports and can provide passengers with: High-speed network services capable of meeting demands for streaming media, cloud applications, and more. Enhanced data encryption and security protection. A stable connection experience, maintaining service quality even during peak hours. Oman Airports stated that this upgrade represents a significant leap in its service innovation and technical operations. Promoting the Construction of a Smart Airport Ecosystem This Wi-Fi 7 project not only improves the internet experience for passengers but is also an important part of the airport's strategy to advance its smart transformation. By introducing the new generation wireless technology, Oman Airports aims to: Enhance operational efficiency and response speed. Support digital services such as self-service check-in, automated boarding, and smart security checks. Reserve technical space for future passenger growth and service innovation. This project signals the further maturation of intelligent aviation infrastructure. Aligning with the "Oman 2040 Vision," Creating a Regional Technology Benchmark The deployment of Wi-Fi 7 also supports the digitalization and smart transformation goals within the Omani government's "2040 Vision" strategy, which emphasizes: Improving public service efficiency through technological innovation. Building tourism, transportation and urban infrastructure in line with global benchmarks. Promoting the synergistic development of the tourism, transportation, and technology industries. This innovative move by Oman Airports also showcases its leading position as a regional aviation hub. Collaboration with Huawei Achieves an Industry First Leveraging Huawei's technological advantages in the field of wireless communications, Oman Airports was able to rapidly deploy the Wi-Fi 7 system across multiple terminals. The project achieved seamless roaming, dense connection assurance, and high-performance network operation, becoming a global industry reference case. In the device field, the application of Wi-Fi 7 is gradually expanding to smart terminals, industrial equipment, and IoT scenarios. Some upstream module manufacturers have begun launching new generation products adopting combined Wi-Fi 7 and Bluetooth 6.0 solutions. Taking the QOGRISYS O2072PM module as an example, this product adopts a tri-band architecture, supports 320MHz bandwidth and eMLSR multi-link operation, and integrates technologies like CSI sensing to enhance link performance in high-density environments. Simultaneously, the inclusion of designs such as Aux Radio and BLE Long Range also creates conditions for its application in complex scenarios like smart devices, industrial control, and spatial awareness.

Madrid, Spain – November 5, 2025 – The future of hotel connectivity was unveiled today at the Huawei European Connect Conference (HCE 2025). In a significant move for the European hospitality sector, Huawei, in partnership with leading technology integrator Cerium, announced the launch of a groundbreaking high-quality hotel network solution powered by the latest Wi-Fi 7 standard. This new solution is designed to meet the skyrocketing demand for robust, seamless, and secure wireless experiences, directly addressing the connectivity challenges faced by modern hotels and their guests. Why Wi-Fi 7 is a Game-Changer for Hospitality Moving beyond mere speed improvements, Wi-Fi 7 introduces a new level of network intelligence. For hoteliers, this translates into a powerful infrastructure that not only satisfies guests but also streamlines operations. Key benefits of the new solution include: Seamless Connectivity: Advanced features like Multi-Link Operation (MLO) ensure a "zero-roaming" experience. Guests can move throughout the property—from lobby to room to conference center—without dropped video calls or buffering streams. Unmatched Speed and Reliability: Leveraging 320 MHz bandwidth and 4K QAM modulation, the network delivers high throughput and ultra-low latency. This is essential for supporting bandwidth-intensive activities like 4K/8K streaming, virtual reality, and large file downloads simultaneously across the property. Intelligent and Efficient Operation: AI-driven coordination and Channel State Information (CSI) sensing allow the network to monitor its environment in real-time. It dynamically optimizes bandwidth allocation, ensuring peak performance during high-density events and improving overall power efficiency. Enhanced Security: Built-in "Wi-Fi Shield" security protection safeguards guest data and network integrity, creating a trusted digital environment. Industry Leaders Endorse the Shift to Intelligent Networking The launch event featured insights from top industry figures who emphasized the critical role of advanced networking. “Network connectivity is now fundamental infrastructure,” stated Victor Jiménez, President of AMETIC. “The hospitality industry requires solutions that guarantee high availability and an exceptional end-to-end user experience.” Dirk Trossen, Secretary-General of the DIA, highlighted the broader impact: “The standardization of Wi-Fi 7 is catalyzing innovation across sectors, with smart hotels being a primary beneficiary of this technological leap.” A Foundation for Europe's Digital Future In her closing remarks, Ran Xiao, Vice President of Huawei, positioned Wi-Fi 7 as a cornerstone of Europe's "Digital Decade" strategy. She called for collaboration across the industry to focus on customer-centric innovation and accelerate the adoption of these high-value solutions.   The Ecosystem is Ready for Deployment The solution is supported by a mature and evolving ecosystem. Partners like QOGRISYS have already launched compatible hardware, such as the O2072PM communication module, which supports Wi-Fi 7 and Bluetooth 6.0. This ensures that a wide range of devices and IoT applications can leverage the new network's capabilities, from smart room controls to wireless audio systems. As Wi-Fi 7 moves from validation to widespread commercial deployment, it promises to redefine wireless architecture for enterprises and institutions. For the European hospitality industry, this means laying a new digital foundation that enhances guest satisfaction, enables new services, and drives operational efficiency for years to come. About the HCE 2025 Conference: The Huawei Connect Europe event brings together industry leaders, partners, and experts to explore the latest trends and solutions in digital transformation across various sectors.