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GLOBAL Wi-Fi NEWS bulletin

HOUSTON, TX – NOVEMBER 20, 2025 – WorldVue, a leading global provider of turnkey hospitality technology solutions, today proudly announces the successful integration and certification of TigerTMS.

As part of our commitment to delivering seamless guest experiences, enhanced property operations and next-generation network services, the certified TigerTMS interface provides an integrated, scalable and globally supported solution. TigerTMS’s proven track record, trusted by over 10,000 hotels worldwide aligns perfectly with WorldVue’s mission to drive technology-driven innovation in the hospitality sector.

“This certification of TigerTMS marks a strategic leap forward for WorldVue and our hospitality clients. By incorporating TigerTMS’s robust middleware and interface capabilities into our global technology stack, we enable hotel brands and properties to unlock unparalleled connectivity, data insights and operational efficiency, all while maintaining the consistent world-class service our customers expect.” Said Mark Schaps, EVP and CIO, WorldVue.

Built on the AI-driven RUCKUS One platform, the new MDU 360 capability, RUCKUS DSE AI assistant, and Wi-Fi 7 access points work together to bring intelligent network management and integrated Wi-Fi solutions to MDU stakeholders

CommScope (NASDAQ: COMM), a global leader in network connectivity, today announced its new RUCKUS® MDU (Multi-Dwelling Unit) suite featuring innovative AI and Wi-Fi 7 solutions. This new suite of solutions meets stakeholder demands through its ability to combine enterprise-level Wi-Fi® analytics with cloud simplicity and automation; this enables more devices per unit, low latency and high reliability, and a reduction in manual troubleshooting. These outcomes will help drive improved resident satisfaction and optimize operating costs.

MDU operators can benefit from these advanced features:

  • RUCKUS One® MDU 360 Platform builds on the proven RUCKUS One AI-driven platform specifically for property-group owners and managed service providers (MSPs). The MDU 360 solution delivers a unified view of network health, resident experience and service-level performance across every property in the portfolio. It delivers intelligent analytics, simplified role-based access and predictive insights from RUCKUS AI, to transform how property networks are managed. The unified view of network performance and resident experience helps identify trends, verify service quality and make data-driven decisions.
  • RUCKUS Digital System Engineer (DSE) an AI-powered assistant, uses a chat interface to help property operators, MSPs, and IT teams quickly and easily manage large residential portfolios—turning complex network analytics into simple, natural-language interactions with data-driven answers. Menus are replaced by conversation, dashboards are auto generated, and insights are available to users without specialized product expertise. Embedded directly within the RUCKUS One platform, DSE makes the platform more approachable for every user, from first-time administrators to veteran network engineers, by turning complex data exploration into an intuitive, conversational experience.
  • RUCKUS H670 and R575 Wi-Fi 7 tri-band wall- and ceiling-mounted access points deliver multi-gigabit performance and built-in Bluetooth® Low Energy and Zigbee® radios with Matter and Thread support—enabling advanced IoT services across modern multi-dwelling and managed property environments. Backed by RUCKUS Networks patented RF technologies and AI-driven optimization, these access points deliver strong signals, broad coverage and consistent performance—even in the most demanding conditions. Seamless integration with the RUCKUS One, RUCKUS SmartZone™, and RUCKUS Unleashed™ solutions provides AI-driven assurance, giving property owners and operators a smarter, faster and more secure connected experience for every resident and device.

“Our RUCKUS MDU suite showcases our leadership in AI innovation and our proven expertise in Wi-Fi 7 MDU networks—making it easier for our customers to build and manage high-quality networks and services for MDUs,” said Bart Giordano, SVP & president, RUCKUS Networks. “Our market-leading AI solutions represent a major breakthrough. Owners and MSPs can now drill down from a high-level view of network health to see the resident experience score and historical SLA performance for every property and unit. Furthermore, users can query the RUCKUS Digital System Engineer (DSE) AI assistant in simple language, instead of navigating menus or building reports. They’ll get data-driven answers, visualized through tables, charts or widgets that reveal actionable insights. This is the future of MDU network automation and management.”

RUCKUS Networks will be demonstrating the RUCKUS MDU Suite at OPTECH, booth 204, from November 17-19th in Las Vegas, NV, USA. For more information, please visit the RUCKUS website.

—END—

RUCKUS, RUCKUS One, RUCKUS SmartZone, RUCKUS Unleashed, CommScope and the CommScope logo are registered trademarks of CommScope and/or its affiliates in the U.S. and other countries. For additional trademark information see https://www.commscope.com/trademarks. Wi-Fi and Wi-Fi 7 are trademarks of the Wi-Fi Alliance. Bluetooth is a trademark of Bluetooth Sig, Inc. Zigbee is a trademark of the Connectivity Standards Alliance. All other product names, trademarks and registered trademarks are property of their respective owners.

About CommScope:

CommScope (NASDAQ: COMM) is pushing the boundaries of technology to create the world’s most advanced wired and wireless networks. Our global team of employees, innovators and technologists empower customers to anticipate what’s next and invent what’s possible. Discover more at www.commscope.com.

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News Media Contact:
Luke Hamer
[email protected]

Financial Contact:
Massimo Disabato, CommScope
[email protected]

This press release includes forward-looking statements that are based on information currently available to management, management’s beliefs, as well as on a number of assumptions concerning future events. Forward-looking statements are not a guarantee of performance and are subject to a number of uncertainties and other factors, which could cause the actual results to differ materially from those currently expected. In providing forward-looking statements, the company does not intend, and is not undertaking any obligation or duty, to update these statements as a result of new information, future events or otherwise.

Source: CommScope

4G/5G NSA Wi-Fi Access

The 3GPP AAA server is located within the 3GPP Home Public Land Mobile Network (HPLMN). For 3GPP Wi-Fi access in 4G and 5G non-standalone (5G NSA) networks, the 3GPP AAA provides authentication, authorization, policy enforcement, and routing information to the packet gateways in both the Wi-Fi core and mobile core networks. It performs EAP-SIM/AKA/AKA′ authentication via the SIM card for automatic and secure authentication of Wi-Fi devices.

Below, we will explore the role of the standard 3GPP AAA for SIM authentication in various 4G and 5G NSA Wi-Fi access scenarios, including all 3GPP-specified options for 3GPP Wi-Fi access. To provide a comprehensive view, we include the Enea Aptilo SMP in the diagrams with an integrated 3GPP AAA and additional functions that may be essential for real-world deployments. We will cover the Enea Aptilo SMP in more depth in the upcoming Enea’s Wi-Fi Offloading Expertise chapter, download the full white paper to get access to it now.

The two first, local WLAN break-out and access through DPI, are not standardized by 3GPP but are extensively used and could also be used for 5G as long as SIM authentication can be carried out in the corresponding 5G architecture.

Local WLAN Break-Out

3GPP Wi-Fi Access Local WLAN break-out

As discussed, this option can be used for any generation of cellular networks and is currently mobile operators’ most widely deployed architecture. It enables local traffic breakout for all clients at the Wi-Fi access gateway and utilizes standard RADIUS and EAP methods for authentication with the HSS/HLR. The Wi-Fi access point must support 802.1x authentication with EAP-SIM/AKA/AKA′. Integration with the HLR for SIM authentication is facilitated through the D′/Gr′ MAP interfaces or with the HSS via the Wx/SWx Diameter interfaces.

Access Through DPI

3GPP Wi-Fi Access through DPI

This option can be used for any generation of cellular networks. The mobile operator typically uses the DPI to inspect and enforce policies for SIM-enabled devices.

All traffic for devices with SIM authentication support is terminated at the Deep Packet Inspection (DPI) node in the mobile core. In contrast, traffic from non-SIM devices is directed to the Internet locally.

This option uses standard RADIUS and EAP methods for authentication with HLR/HSS. The Wi-Fi access point requires support for 802.1x authentication with EAP-SIM/AKA/AKA′. Integration with the HLR for SIM authentication is facilitated through the D′/Gr′ MAP interfaces or with the HSS via the Wx/SWx Diameter interfaces.

Policy-based routing is utilized to route the traffic from the Wi-Fi access gateway to the DPI.

Trusted Wi-Fi Access in EPC

3GPP Trusted Wi-Fi Access in EPC

This option is for 4G and 5G non-standalone (5G NSA) and based on 3GPP specification TS23.402 with the introduction of the Trusted Wireless Access Gateway (TWAG) node. The TWAG establishes GTPv2, PMIP, or MIP tunnel (the S2a interface) to the P-GW in the EPC core for all trusted traffic.

“Trusted” traffic means an operator-controlled secure Wi-Fi environment with 802.1x. SIM authentication with the HLR is integrated through the D′/Gr′ MAP interfaces or with the HSS via the SWx Diameter interfaces. The Wi-Fi access point requires support for 802.1x and EAP-SIM/AKA/AKA′ authentication methods. This option also requires support for EAP in the device.

The STa interface is mainly used for EAP client authentication with HSS and S2a option selection of which tunnel type to use. The S6b interface between 3GPP AAA and P-GW is mainly used for tunnel authentication, static quality of service, and mobility (if applicable).

The 3GPP specification also allows for a full or partial local breakout of Wi-Fi traffic at the TWAG in the Wi-Fi core.

Untrusted Wi-Fi Access in EPC

3GPP Untrusted Wi-Fi Access in EPC

This option is for 4G and 5G non-standalone (5G NSA) and based on 3GPP spec TS23.402 with the introduction of the evolved Packet Data Gateway (ePDG) node. This option requires an EAP client in the device with IPsec support. There is no impact on the Wi-Fi core or Wi-Fi RAN; any Wi-Fi network will function seamlessly. IPsec tunnels are terminated in the ePDG, a mobile core node specifically

introduced for this purpose. The ePDG maps the IPsec tunnels into GTPv2 or PMIP tunnels, which are terminated in the P-GW. In practice, both ePDG and P-GW functions are typically integrated into the same Evolved Packet Gateway (EPG).

The SWa interface is mainly used for EAP client authentication with HSS through the SWx interface. The SWm interface is used for additional authentication parameters, including subscription profiles and S2b option selection of which tunnel type to use. The S6b interface is mainly used between 3GPP AAA and P-GW for tunnel authentication, static quality of service, and mobility (if applicable).

The last thing you want to see when pushing a team in Apex Legends is a connection issue icon flashing on your screen. Whether it’s high ping, packet loss, or congestion, connection issues will ruin your aim, movement, and gameplay in general.

In this blog, we’ll be giving you solutions to fix all connection issues in Apex Legends. If you follow every solution included in this blog, you’ll have a stable and low ping connection in every game of Apex Legends.

Apex Legends Server Status

The first thing to check when lagging in Apex Legends is the game’s server status. If you are lagging on a usually stable connection, it could be due to server issues or servers being under heavy load. This is common when a new update is released and a large influx of players come back to the game.

We will link some useful sites below that show the status of all Apex Legends data centres.

Apex Legends Server Status

Apex Legends Downdetector

If your local server or data centre is experiencing issues, it’s just a waiting game for the game developers to issue a fix or update. The useful thing about knowing about server issues is you can be pretty sure your network issues are being caused by that, rather than an issue with your network.

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In-game Settings

There’s some useful settings in Apex Legends that will give you more insights into the types of lag you are experiencing. These settings will also be useful with our last lag-fixing tip.

The first piece of useful information is available right when you start up the game. In the bottom left corner of the screen, there’s an option to view the data centres that you can connect to when searching for a game in Apex Legends. Depending on the platform you are playing on, the button to access this menu will differ.

You can select your preferred data centre on this menu to favour connecting to low ping servers. We can use this information later on in the blog, but you can see from this list the ping values and packet loss of the data centres. This is another way to see whether your local server/s are experiencing any issues before you start playing.

The other setting that’s worth mentioning is in the game settings menu. It’s called “Performance Display.” You’ll want to enable this to get in-game telemetry settings.

This shows your ping and packet loss values so you can see when you are experiencing network issues when playing. It can also be used to show your low ping and stable connection once you’ve followed our steps from this blog.

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Use a Wired Connection

One of the most overlooked tips for improving your connection when gaming is using a wired (ethernet) connection. It provides a much stronger and stable connection than Wi-Fi, which is crucial for gaming.

Wi-Fi is extremely convenient, and is the reason most people end up using it, even when gaming. Especially if your PC or console is located far away from your router, using Wi-Fi is the quickest and easiest option. But if you take Apex Legends, or gaming online seriously, you need to be playing on a wired connection.

Stability is the number one factor for having a great connection in online gaming. It’s a common misconception that you need faster internet to get low ping or a stable connection, but it’s just not true. Gaming only requires a tiny amount of bandwidth for a great connection, but things like congestion and packet loss cause you to lag in-game.

Wi-Fi struggles when the signals need to travel a long distance or through walls/floors to reach your PC or console. This can lead to dropped packets, which then causes packet loss and stuttering in-game. An ethernet cable doesn’t have this issue, and it’s why it provides a better quality connection for online gaming.

If the distance between your router and PC/console is stopping you from using an ethernet cable, we have a best of both worlds solution. It’s a piece of tech called Powerline Adapters. They use your home’s existing electrical wiring to carry an ethernet connection to different rooms/floors of your home.

So this way you can still achieve a stable connection, even if your router is in another room from your gaming setup.

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Netduma R3 Lag Fix Guide

If you’ve tried the tips we have already mentioned and you’re still experiencing network issues, our next solution is a must-have if you want the best connection in Apex Legends.

The Netduma R3 gaming router is a network optimisation Swiss army knife. Powered by a set of networking tools that will ensure you only play on low ping servers, stabilise your ping by removing jitter, and eliminate congestion on your network.

So, let’s take a look at the features that will optimise your connection.

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Geo-Filter: Always Get Low Ping in Apex Legends

Geo-Filter can be used in conjunction with the data centre selector in Apex Legends to ensure you only play on low ping servers. If you are already using the data centre selection setting, Geo-Filter still serves a purpose by enabling another R3 feature, Steady Ping. We explain what this powerful feature does in the next section.

Adding your gaming device to Geo-Filter makes it so you can only connect to the servers within your filter radius. Another R3 feature, Ping Heatmap, shows you where the Apex Legends servers are located. It also shows you the ping you would have when connecting to them.

Now you know the best servers to connect to, you can adjust your Geo-Filter radius to only include these servers.

Steady Ping: Stabilise Your Connection in Apex Legends

Steady Ping is our newest gaming feature, exclusive to the Netduma R3. It completely stabilises your ping by removing jitter from your connection. This makes your inputs feel incredibly responsive, as the game server can process them better without jitter.

Jitter is the constant change in your ping that you are probably used to seeing in the telemetry settings of Apex Legends. By removing jitter, it means you will be playing on a stable ping, which is ideal for a fast-paced game like Apex.

In order to use Steady Ping, you must add your device to Geo-Filter. Steady Ping locks in a stable ping by adding a small buffer to your connection. This will slightly raise your ping, but it does this to account for any fluctuation you would normally experience.

You can learn more about how Steady Ping works, and how beneficial it is in the video below.

SmartBOOST: Fix Packet Loss in Apex Legends

So, now you are only playing on low ping servers with a stable connection; the only thing that will make you lag is congestion on your network.

You know what it’s like to game on a busy network. People are streaming 4K video, downloading files, and scrolling on social media. All of these activities use up your network’s bandwidth and make your gaming suffer.

SmartBOOST is the ultimate QoS (quality of service) solution. It automatically manages your bandwidth usage to prioritise gaming traffic and stops bandwidth-intensive applications from slowing you down.

We have a live demonstration of SmartBOOST optimising a busy network to prioritise gaming. Check out the video below to see SmartBOOST in action.

Thanks for Reading

If you’ve followed the steps in this blog, you should be enjoying a low ping and stable connection, perfect for beaming players in Apex Legends.

If you want to get your hands on the powerful features included in DumaOS 4, then check out our Netduma R3 Gaming Router. It’s our most powerful router yet and comes with DumaOS 4 pre-installed.

Wi Fi Halow And Aiot Enabling Smarter Blog

As the AIoT (Artificial Intelligence of Things) era advances, the ability to collect, connect, and compute data at scale defines true intelligence.
Yet, most IoT networks today still face the same barriers — limited range, unstable links, and short device lifespans.

That’s where Wi-Fi HaLow (IEEE 802.11ah) reshapes the game.

The Power of Wi-Fi HaLow for AIoT

Wi-Fi HaLow operates in the sub-1 GHz band, delivering :

  • 10 × longer range than traditional Wi-Fi
  • Better penetration through walls and obstacles, and
  • Ultra-low power consumption for multi-year battery operation.

These advantages make HaLow ideal for AIoT environments such as smart agriculture, logistics, factories, cities, and energy management, where thousands of devices need to stay connected over wide areas.

With more reliable coverage, AIoT systems can now gather richer, continuous data — powering smarter AI models, predictive analytics, and automated control.

 Introducing AsiaRF HaLowFly

At AsiaRF, we make Wi-Fi HaLow simple and universal.
HaLowFly is a Wi-Fi HaLow USB dongle that brings long-range, low-power connectivity to any device or operating system — including Windows, MAC, Linux, Android, iOS and more.

Just plug it in, and your device instantly gains access to a new world of connectivity :

  • Universal OS support — works seamlessly across multiple platforms
  • Energy-efficient operation — optimized for edge and sensor networks
  • Extended coverage — ideal for outdoor or industrial environments
  • Easy integration — no redesign, no complexity, just plug-and-connect

HaLowFly bridges the gap between existing IoT systems and the next generation of AIoT infrastructure, helping businesses deploy smarter and longer-lasting devices faster than ever.

 Building the Foundation of Smarter AIoT

AIoT’s foundation lies in the data layer — the “basement” where sensors collect information that drives intelligence.
Wi-Fi HaLow and HaLowFly make this foundation stronger :
more data, greater reach, and stable, energy-efficient connectivity that AI can rely on.


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What you should know:
  • With Wi-Fi 8, users benefit from consistently reliable connections, overcoming the limitations of previous Wi-Fi generations in demanding scenarios.
  • Breakthrough innovations at the PHY and MAC layers, enable robust connectivity, seamless roaming, higher throughput and extended coverage for devices across diverse environments.
  • Qualcomm Technologies is helping shape the future of Wi-Fi 8, bringing advanced wireless technologies and AI-driven connectivity to support next-generation intelligent systems and user experiences.

Wi-Fi 8

Wi-Fi 8 is beling developed to meet the demands of a new era shaped by AI-driven systems, personal device ecosystems and mission critical applications.

Learn more in Part 1 of this series

Previously, we explored how Wi-Fi 8 is being developed to meet the demands of a new era shaped by AI-driven systems, personal device ecosystems and mission-critical applications. Designed to deliver ultra-high reliability, Wi-Fi 8 aims to provide consistent, low-latency and near-lossless performance in real-life environments where congestion, interference, mobility and coverage boundaries challenge legacy Wi-Fi.

Here, we’ll take a closer look at the technologies making Wi-Fi 8 uniquely capable of solving these challenges. We’ll also explore how these innovations translate into tangible benefits across key environments: enterprise and industrial settings, connected homes and public venues — where seamless, intelligent connectivity is becoming more and more essential.

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1. The technology behind ultra-high reliability

Wi-Fi technology, like all wireless communication systems, is built on a layered architecture that organizes how data is transmitted and received. Two of the most critical layers in this architecture are the physical (PHY) layer and the medium access control (MAC) layer. The PHY layer is responsible for the actual transmission of data over the air. It defines how bits are converted into radio frequency signals and vice versa, including aspects like modulation, coding and signal strength. The MAC layer, on the other hand, governs how devices access the shared wireless medium, coordinating when and how data packets are sent to avoid collisions and ensure efficient use of the spectrum.

The IEEE 802.11bn standard, which serves as the base for Wi-Fi 8, introduces a suite of innovations at these foundational layers to improve reliability, throughput and responsiveness, especially in challenging conditions. Wi-Fi 8 tackles long-standing limitations in signal handling and spectrum coordination, setting the stage for a new generation of ultra-resilient and high-performance wireless connectivity.

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Enhancing the physical layer

Wi-Fi 8 brings a wave of targeted PHY layer enhancements to address connectivity challenges like weak uplink signals, inefficient MIMO modulation and signal degradation at the network edge. These enhancements are designed to deliver more robust performance and higher effective throughput in non-ideal signal conditions than any previous generation of Wi-Fi.

  • Improved Low Density Parity Check (LDPC) Coding: Packet loss and retransmissions can cripple performance in high-throughput or impaired signal conditions. Wi-Fi 8 offers longer block lengths for low-density parity check (LDPC) coding, significantly improving error correction and decoding. This results in fewer dropped packets and more reliable connections, even in noisy or congested environments.
  • Unequal Modulation Across Spatial Streams (UEQM): Legacy MIMO systems are only as strong as their weakest link, forcing all spatial streams to use the same modulation level. Wi-Fi 8 eliminates this constraint by allowing each stream to adapt its modulation based on individual signal quality. This unlocks higher throughput and greater resilience in environments with uneven signal propagation.
  • Additional Modulation and Coding Schemes (MCS): MCS defines the combination of modulation formats and coding rates that set how data is encoded for transmission over-the-air, thereby determining the achievable data rate. For legacy Wi-Fi, the coarse granularity of available MCS levels limited optimal rate adaptation in fluctuating signal environments, leading to suboptimal performance. Wi-Fi 8 introduces intermediate MCS levels, enabling finer-grained rate adaptation. This allows for smoother transitions and more stable performance in scenarios where signal quality varies rapidly, like in mobile or high-density public settings.
  • Enhanced Long Range (ELR): Devices at the edge of a network, such as outdoor cameras, garage sensors or mobile robots, can suffer from weak uplink signals due to power limitations. This can create an uplink-downlink power imbalance where APs transmit at higher power than clients. ELR addresses this imbalance by improving the link budget  effectively extending network reach and helping maintain reliable connectivity for low-power and distant clients.
  • Distributed Resource Units (DRU): In the 6 GHz band, regulatory limits on power spectral density (PSD), which cap the transmit power per MHz, restrict the total transmit power. For devices using small Resource Units in an OFDMA transmission, such as 26- or 52-tone RUs, this limitation translates into reduced range and reliability. Wi-Fi 8 addresses this challenge through DRU, which allows to spread tones across a wider frequency range, effectively increasing the total transmit power while staying within PSD limits. In regions with stricter PSD limits, this technique can yield power gains  significantly enhancing signal robustness. The result is extended coverage, improved link reliability, and better performance for clients.

Together, these PHY layer innovations form the foundation of Wi-Fi 8’s ultra-high reliability promise, ensuring performance remains consistent, robust and efficient, while also increasing range and boosting throughput in challenging wireless conditions.

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MAC layer innovations
  • SMD Roaming: The single mobility domain (SMD) is a key feature of Wi-Fi 8, designed to deliver seamless roaming across multiple access points without handoff interruptions which can cause packet loss, latency spikes or dropped connections. Legacy Wi-Fi roaming involves disconnecting from one AP and re-connecting (including reassociation and security setup) with another, which introduces delays and data discontinuity. This break-before-make roaming can cause latency spikes, packet loss resulting in audio/video glitches during movement and a poor user experience. In a single mobility domain, multiple APs are logically grouped into a unified domain. A client device maintains its association and security context across multiple APs and remains continuously connected as it moves between APs. SMD roaming is handled via a make-before-break mechanism, meaning the device establishes a new connection before releasing the old one. These innovations enable Wi-Fi 8 to deliver seamless connectivity and consistent performance as users and devices move through coverage zones.
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  • Spectrum Efficiency: Wi-Fi 8 introduces several mechanisms to improve how spectrum is utilized, especially in dense environments and where devices with varying capabilities must coexist efficiently.
  • Dynamic Sub-band Operation (DSO): Today, typically only premium clients support the full 320 MHz, or 160 MHz bandwidth offered by APs, leading to portions of the spectrum being unused and inefficiently allocated. DSO allows multiple narrowband devices to simultaneously operate within different portions of the wideband channel, maximizing spectrum utilization and increasing throughput in mixed-device environments.
  • Non-Primary Channel Access (NPCA): When the primary channel is busy due to overlapping BSS (OBSS) traffic or other conditions, NPCA allows Wi-Fi devices to opportunistically access a secondary channel. The key benefit is that it enables stations to continue transmitting data by switching to a designated NPCA channel, rather than waiting for the primary channel to become free, which improves overall network efficiency and reduces transmission delays in dense environments. Specifically, NPCA helps mitigate the impact of channel congestion caused by neighboring networks by allowing devices to dynamically switch and contend for access on a less congested channel frequencies. This leads to higher throughput, lower latency and better spectrum utilization, especially in scenarios where multiple networks overlap and compete for airtime on the same primary channel.
  • Dynamic Bandwidth Expansion (DBE): Enterprise deployments often avoid wide channels due to frequency reuse constraints. DBE allows APs experiencing high traffic to temporarily expand their operating channel bandwidth to serve high traffic loads, improving throughput without disrupting legacy clients when other channels are not highly utilized. This is especially useful in enterprise deployments where frequency reuse limits the use of wide channels like 160 or 320 MHz.
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  • Multi-AP Coordination: In dense environments with overlapping networks, unmanaged interference and contention can severely degrade performance. Wi-Fi 8 addresses this by introducing coordinated mechanisms that enable APs to operate as a unified system, reducing collisions and improving spectrum efficiency.
    • Coordinated TDMA (Co-TDMA): Enables APs to share transmission opportunities in a time-sliced manner, reducing contention and latency. By distributing airtime across coordinated APs, Co-TDMA enables more predictable access and improved performance for latency-sensitive applications.
    • Coordinated Restricted Target Wake Time (Co-rTWT): APs coordinate the times of access windows to facilitate priority access for latency-sensitive traffic, enabling more deterministic performance even in congested environments.
    • Coordinated Beamforming (Co-BF): APs use advanced antenna steering to focus signals on clients and null interference toward neighboring APs. This improves signal quality, reduces contention, and allows more efficient spectrum reuse in dense deployments.
    • Coordinated Spatial Reuse (Co-SR): allows access points to dynamically adjust transmit power based on the link conditions between the AP and a given client. This enables simultaneous transmissions on the same channel in dense multi-AP deployment scenarios The feature improves overall throughput and efficiency in dense environments.

These coordination mechanisms allow Wi-Fi 8 to deliver consistent, high-throughput, low-latency connectivity in environments with high device density and overlapping coverage.

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2. Mapping Wi-Fi 8 features to real-world environments

Wi-Fi 8 is designed not just for theoretical gains, but for impact; its innovations are tuned to the realities of modern connectivity, where reliability, responsiveness and efficiency are mission-critical. Let’s explore how the technical breakthroughs, many spearheaded by Qualcomm Technologies, connect to the environments where they’ll reshape expectations and redefine what wireless performance feels like.

Enterprise & Industrial IoT: Enabling intelligent and autonomous operations

Enterprise and industrial environments have long relied on wired Ethernet to meet the stringent demands for operations like robotic assembly, real-time monitoring, high-quality conferencing and increasingly AI-driven automation that require ultra-reliable, low-latency connectivity. Wi-Fi 8 introduces the opportunity to deliver that same level of reliability over wireless, unlocking new flexibility for intelligent operations.

  • For example, single mobility domains allow autonomous mobile robots to roam across large factory floors without experiencing reduced throughput or latency spikes. A technician using an XR headset can move between APs while maintaining a seamless video feed without buffering or interruptions.
  • In dense deployments, typical of enterprise campuses and factory settings, multi-AP coordination technologies, such as coordinated TDMA (Co-TDMA) and restricted target wake time (Co-rTWT) allow APs to collaboratively manage transmissions. In a factory setting, where autonomous robots depend on real-time control updates, these technologies can reduce contention and mitigate interference by sharing transmission opportunities and enforcing exclusive access windows for latency-sensitive traffic, thus enabling deterministic operation of these time-critical industrial systems.
  • At the network edge, enhanced long range (ELR) and improved LDPC coding extend coverage and improve reliability for devices like surveillance cameras and IoT sensors, which often operate in challenging RF conditions.
Residential: Consistent, high-throughput, low-latency coverage

While earlier Wi‑Fi generations delivered their strongest performance closest to the access point, Wi‑Fi 8 is designed to extend that experience, delivering consistently higher throughput and lower latency throughout the home.

  • To help maintain strong connections in areas farther from the router, enhanced long range (ELR) and distributed resource units (DRU) improve uplink reliability for distant devices and IoT endpoints such as cameras and sensors.
  • Additional modulation and coding schemes (MCS) provide finer-grained rate adaptation, smoothing out performance in dynamic conditions and supporting bandwidth-intensive applications like streaming and gaming.
  • For homes with multi-AP mesh networks, multi-AP coordination features enable nodes to manage fronthaul and backhaul traffic more efficiently. The Single Mobility Domain (SMD) featureset has the potential to significantly improve the overall user experience for users that are moving throughout their homes while being connected.
  • Finally, power efficiency features for both clients and APs help reduce energy consumption in always-on residential gateways, supporting sustainability goals without compromising responsiveness.
Public spaces: Seamless connectivity in high-density venues

In public venues like airports, stadiums and transit hubs, Wi-Fi 8 tackles the dual challenge of high user density and constant mobility.

  • Key features such as multi-AP coordination, dynamic sub-band operation (DSO) and non-primary channel access (NPCA) work in concert to dramatically boost capacity and manage interference in these crowded environments. By coordinating transmissions across multiple access points, they reduce collisions and maximize throughput with low latency, even when thousands of devices are competing for bandwidth.
  • Meanwhile dynamic bandwidth expansion (DBE) allows APs to temporarily widen their operating channels to handle traffic surges. For instance, during a halftime show or a busy airport rush, when large crowds simultaneously stream high-definition video or upload content, Wi-Fi 8 APs can momentarily open wider channels to accommodate the spike in demand. This ensures that no one experiences a slowdown, even during peak usage.
  • The single mobility domain feature further enhances user experience by enabling seamless roaming across APs. As people move through a venue, their devices hand off between APs without dropping connections, eliminating audio/video glitches during calls or streaming sessions.

In summary, Wi-Fi 8 introduces a suite of innovations designed to meet the demands of modern connectivity, where mobility, density and responsiveness are critical. Together, these innovations enable systems to operate with the precision, responsiveness and reliability traditionally reserved for wired infrastructure, while also delivering significantly faster wireless connectivity in scenarios where legacy Wi-Fi struggled.

As a leader in wireless innovation, Qualcomm Technologies is driving the development of Wi-Fi 8, delivering advanced connectivity solutions that empower enterprises, public spaces and homes worldwide. With our deep expertise in wireless technologies, we are uniquely positioned to unlock the full potential of Wi-Fi 8 for intelligent computing at the edge.

At the Institut Universitaire de Technologie (IUT) in Blagnac, France, a quiet revolution in ultra-wideband (UWB) education and research is underway. Thanks to a long-standing collaboration with Qorvo, faculty and students are developing real-world applications that bridge the gap between innovation, education and industry.

What began with a challenge in a PhD research project, accurately localizing nodes that kept getting nudged out of place, has grown into a robust, multi-facility UWB test bed. The project, spearheaded by IUT Blagnac’s educators and researchers Carine Livoti, Adrien Vonenbosch and Réjane Dalcet, is part high-tech experimentation, part professional training platform, and entirely driven by passion for accessible innovation.

“Our platform was built opportunistically,” said Adrien. “It wasn’t directly funded at the beginning, but every time we had a project, we looked for ways to expand and improve the platform.” With Qorvo’s early support and technology access, the team was able to get hands-on with UWB modules before the broader market recognized their potential. “This gave us a real head start,” he added.

The test bed spans two main locations: a research facility and a “smart home” environment in Blagnac. In the research building, UWB nodes are deployed in open spaces and even inside anechoic chambers to simulate radio-isolated conditions. Some nodes are installed on rails to allow for controlled movement, and recent additions include robotic mobility to add a higher degree of experimentation.

But it’s the smart home installation that reveals the human-centered possibilities of UWB. “It’s about more than experiments,” said Réjane. “It’s about providing a service to people, testing how UWB can function in real environments, with real users.” From locating lost keys to optimizing hospital asset management, their UWB applications focus on transforming technical localization data into intuitive, human-readable outputs. Instead of cryptic coordinates, systems can say, “Your keys are next to the coffee maker in the kitchen.”

 

The demo room at IUT Blagnac.

The team also places an emphasis on education and training. Their platform supports both undergraduate students and professionals from engineering schools and industry. As Carine noted, “At first, students may tune out when we explain that UWB occupies at least 500 megahertz of spectrum. But once they participate in hands-on activities, like a treasure hunt app built on UWB, the technology becomes real and exciting.”

That spirit of engagement drives the team’s larger mission: to popularize UWB and make cutting-edge research accessible to startups, educators and professionals. “A few years ago, I had never even heard of ultra-wideband,” said Carine. “Now, thanks to Qorvo, we are working with startups and developing training sessions that help people outside of academia understand and apply this technology.”

 

The test bed is deployed at a building scale, over the first floor of building C of IUT Blagnac, using Qorvo’s DWM1001C.

Qorvo’s contribution has gone far beyond supplying hardware. Their partnership has helped IUT Blagnac create an educational and experimental environment that merges technical rigor with public-facing impact. It’s a model for how industry and academia can collaborate to make complex technology both approachable and transformative.

Looking ahead, the Blagnac team sees even more opportunities to grow. They are working on turning UWB data into natural-language feedback for use in healthcare, smart homes and public services. Their goal is to continue opening research to the world and bringing innovation from the lab to everyday life. As Réjane put it: “We want to make ultra-wideband popular, understandable and useful. Not just for researchers, but for everyone.”

Find out more about Qorvo UWB solutions here.

The next frontier of connectivity

Across every industry, networks are under pressure. AI applications are consuming exponentially more bandwidth than traditional workloads. Device density is surging and experiences increasingly depend on reliable, real-time wireless performance.

As organizations embrace hybrid work, intelligent buildings, and connected operations, wireless networks must now handle unprecedented bandwidth, latency, and security demands.

But AI is more than a challenge—it’s an opportunity. From safer autonomous factories to smarter hospitals and immersive digital campuses, AI-driven innovation depends on fast, trustworthy data exchanges. To realize these opportunities, organizations need networks that are intelligent, secure, and scalable.

The latest Cisco wireless innovations deliver exactly that. IDC recently named Cisco a Leader in the IDC MarketScape: Worldwide Enterprise Wireless LAN 2025 Vendor Assessment—recognition that reflects our commitment to define what enterprise-grade connectivity looks like today. I’m excited to share how our newest advancements—built on three pillars: scalable devices ready for AI, AgenticOps for operational simplicity, and security fused into the network—extend that leadership even further.

Scalable devices ready for AI

The Cisco Wi-Fi 7 portfolio delivers comprehensive coverage for every operational need through a full range of advanced access points and infrastructure solutions. It provides scalable, reliable connectivity across hospitality, education, enterprise campuses, and high-density venues such as stadiums. Built on a foundation of continuous innovation, Cisco continues to raise the bar for wireless performance and scale with flexible management options spanning cloud, on-premises, and hybrid deployments.

We’re now extending this portfolio with new, versatile options engineered for low- to medium-density environments:

  • Cisco Wireless 9171 Series Access Points: Providing the flexibility, intelligence, security, and full performance of Wi-Fi 7 without the cost or complexity of high-density infrastructure; designed for low-density environments like classrooms, retail spaces, and small- to mid-sized businesses.
  • Cisco Wireless 9174 Series Access Points: Delivering high-speed, reliable connectivity for modern applications that can’t tolerate downtime; designed for demanding environments like healthcare facilities, hospitality, manufacturing floors, and large office campuses. This enterprise-grade access point offers tri-band support (2.4 GHz, 5 GHz, and 6 GHz) with both integrated omnidirectional and external antenna connector models, allowing the CW9174E to adapt to unique coverage scenarios and support mission-critical wireless needs.
  • Cisco CW9800-L Wireless Controller: Enabling enterprises in regulated industries like finance, healthcare, and government to modernize their wireless infrastructure while meeting stringent security certifications and compliance requirements. This robust and scalable controller platform delivers the secure, reliable wireless infrastructure that’s essential for critical business functions, seamlessly integrating with Cisco’s broader networking and security ecosystem without compromising performance.

Complementing these devices is the Cisco Campus Gateway, recently recognized with the Wireless Broadband Alliance Wi-Fi Network Technology Award 2025. This enterprise-class, cloud-native solution delivers real-time control and active-active stateful load balancing to ensure seamless roaming at scale—supporting up to 50,000 clients and 5000 access points with cloud management, without requiring network redesign.

This unified infrastructure empowers enterprises to meet evolving connectivity needs with seamless, high-performance, and secure wireless experiences built to handle AI’s unique demands.

AgenticOps for operational simplicity

Cisco is redefining wireless assurance—simplifying radio frequency (RF) and client management, accelerating troubleshooting, and delivering on the promise of AgenticOps. These innovations give IT teams greater visibility and control, allowing them to proactively detect issues, reduce mean time to resolution, (MTTR) and keep users connected with confidence.

Features like Cisco AI-Enhanced Radio Resource Management (AI-RRM), which automatically optimizes radio performance, and Cisco Intelligent Packet Capture, which provides real-time visibility and actionable insights down to the packet level—keep networks performing at their best.

Building on these foundations, we’re introducing new capabilities that further streamline operations and proactively maintain wireless health:

  • Roaming health insights: Identify and display roaming issues at the network and location level to accelerate troubleshooting. This feature simplifies visibility into client roaming behavior, providing actionable data that reduces MTTR.
  • Client analytics with Zebra integration: Gain native visibility into Zebra devices without requiring extra client software. Zebra joins Apple, Intel, and Samsung in partnering with Cisco to simplify client management by displaying trends and insights at the device and driver level. For instance, in a warehouse environment, network admins can leverage this to track Zebra handheld scanners—including driver and serial number information—to quickly troubleshoot connectivity issues.
  • Active testing (currently in beta): Enable on-demand and scheduled tests at the access point to proactively identify network issues. Powered by ThousandEyes, active testing enables network admins to easily pinpoint where issues occur—anywhere from the access point to the cloud. For example, a university campus can run active tests with the access point acting as a client device, helping to detect and resolve network bottlenecks before students experience connectivity problems during peak hours.

Together, these capabilities reduce manual effort, save time, and ensure consistent, reliable experiences across both cloud and on-premises deployments.

Security fused into the network

Security is foundational to everything we build. Cisco goes beyond traditional security measures by integrating it deeply into the network. This includes securing app access for users, things, and agents through solutions like Cisco Identity Services Engine (ISE), secure access service edge (SASE), and adaptive policy enforcement. Network access is protected with advanced wireless intrusion prevention systems (aWIPS) and Air Marshal, while network connectivity is safeguarded using WPA3, MACSec, and IPsec protocols.

Devices themselves are secured with features such as Cisco Secure Boot (PDF) and Cisco Live Protect. This holistic, multi-layered approach means security is intrinsic, not an add-on. Every component, from device to application, works together to protect data, prevent threats, and enable organizations to confidently scale wireless access in an increasingly complex, AI-driven environment.

Connectivity built for tomorrow

These innovations position Cisco at the forefront of wireless technology, delivering scalable, intelligent, and secure solutions that empower customers to thrive in an increasingly connected world.

Thank you for your continued trust in Cisco as we build the future of wireless together.

WASHINGTON, D.C. — Nov. 4, 2025  — DNSFilter, a global leader in protective DNS and content filtering, announced today a strategic partnership with Midis Group to provide enhanced cybersecurity solutions to customers across Eastern Europe, the Middle East and Africa. This partnership will empower organizations in these regions to safeguard their networks against evolving online threats through a cutting-edge, cloud-based platform known for its real-time threat detection and intuitive management.

DNSFilter’s unique approach leverages artificial intelligence to identify and block malicious domains, reducing cybersecurity risks. By integrating DNSFilter’s robust solution with Midis Groups’ expansive network of value-added distribution, service providers and in-territory experts, customers will now benefit from more reliable, proactive protection against threats such as phishing, malware and ransomware.

Midis Group is a trusted go-to-market partner for leading global technology vendors, including  Apple, Hewlett Packard Enterprise (HPE), IBM, Google, Cloud Software Group (Citrix), Broadcom and Dell Technologies. These partners leverage the company’s deep local expertise in technology and business to accelerate their regional growth.

The partnership aims to provide organizations of all sizes with advanced DNS-layer security, enhancing their ability to prevent and respond to potential attacks. Through DNSFilter’s innovative technology, customers in these regions can better integrate a seamless, protective experience that doesn’t compromise speed or performance. As cybersecurity becomes more complex, DNS-layer security is crucial for organizations aiming to prevent cyberattacks before they infiltrate the network.

Ernest Sales, President Local Office, Midis Group, said: “Partnering with DNSFilter enhances our security portfolio and enables us to better meet our customers’ needs for faster and more accurate threat protection. Together, Midis Group and DNSFilter are committed to ensuring a safer digital experience and helping organizations strengthen their defenses against cybercrime.”

Ken Carnesi, CEO and co-founder, DNSFilter, said: “Our partnership with Midis Group and the opening of our new Dubai office mark a significant milestone in DNSFilter’s commitment to the EMEA region. The Middle East and broader EMEA is a key market for secure DNS protection, and establishing a permanent presence here allows us to better serve our partners and customers. This partnership reflects our long-term investment in the region and our goal to build deep, lasting relationships with local enterprises and service providers.”

About Midis Group
With more than 6700 professionals, some 100 of the world’s leading technology vendors, and a solid 50-year track record of performance and reliability, the Midis Group is a multinational organization comprised of over 175 companies across Europe, Middle East and Africa. The group is known for its advanced offering of managed IT services and consultancy, system integration, cloud and data center capabilities and infrastructure, software, and hardware solutions, as well as technology distribution and retail. The Midis Group was named in 2006 as one of the World Economic Forum’s initial 100 Global Growth Companies. For more information, visit www.midisgroup.com.

About DNSFilter
DNSFilter is a cybersecurity company that protects every click, leveraging AI-driven content filtering and threat protection to block threats 10 days earlier than competitors. DNSFilter’s solution secures workers anywhere they are, helping to boost productivity, minimize compliance risk, and protect corporate brands on public Wi-Fi networks. Unlike traditional filtering solutions, DNSFilter deploys in minutes instead of days and is trusted by more than 43,000 organizations worldwide. Learn more about how DNSFilter is the first and last line of defense for corporate and hybrid networks at dnsfilter.com.

Picture a pallet of goods is loaded onto a truck, on a journey that will take it across a continent or maybe across oceans. It’s equipped with GPS and cellular tracking during transit, but the moment it enters a warehouse, that visibility vanishes. GPS can’t penetrate walls, and cellular triangulation loses accuracy indoors, especially in dense or signal-shielded environments like warehouses or hospitals. Our pallet is still there, but digitally, it’s gone dark.

This is where Wi-Fi steps in, but not in the way we’re used to. This isn’t about joining networks or streaming data. Instead, we’re talking about sensing presence, passively observing signals in the environment, and turning that information into location intelligence.

No handshakes. No connections. Just smart scanning. At Silicon Labs, we’ve built hardware that makes this model not only possible but also practical.

What is Wi-Fi Asset Tracking and How Does It Work?

Instead of depending on heavy infrastructure or GPS alone, positioning with Wi-Fi works by scanning for surrounding SSIDs and determining signal strength to estimate location. This means your devices don’t have to associate with a network, they just need to recognize that they’re near one.

Asset Tracking Device Diagram

Our SiWx917 Wi-Fi 6 ultra-low-power wireless MCU can cold boot and SSID scan all channels in about 5 seconds while consuming less than 50mA. The result is fast updates on location without draining the battery. Consider long-life sensors that only wake up when needed. But sensing alone isn’t enough.

The Cloud Knows the Way with our Wi-Fi Asset Tracking Solution

This is where the backend takes over. Once the SiWx917 identifies nearby SSIDs, that data gets pushed to the cloud via MQTT or another protocol. From there, cloud-based mapping, databases, etc. kick in. They match known SSIDs to real-world coordinates, giving you near real-time asset visibility, even indoors.

Wi-Fi Asset Tracking Without Connecting Diagram 2

This backend magic means facilities don’t need to install anything new. Your warehouse, hospital, or factory already has Wi-Fi. That existing infrastructure becomes your positioning system. No proprietary readers. Just the networks already deployed.

We handle the radio; you handle the maps.

That’s the beauty of this solution: it’s collaborative. We provide the silicon and the low-power intelligence. You bring your choice of the cloud, the dashboards, the data insights. Together, it becomes something greater, a full-coverage, multi-technology, fully visible platform that truly optimizes your return on investment of wireless tracker solutions.

You can track a container from factory to forklift. You can follow a medical cart from ICU to storage. You can monitor inventory on the move, through buildings, and blind spots. All using a chip that sips power and slips easily into your existing design.

And if you’re already using GPS and cellular? Great. Wi-Fi doesn’t replace them, it complements them. You can turn off the heavy radios when you don’t need them, hand off to Wi-Fi sniffing when you do. That flexibility is key to optimizing for both coverage and longevity.

Designing a Wi-Fi Asset Tracker: From Possibility to Deployment

We’ve taken this all the way to reference designs. The SiWx917 acts as a controller, working with GNSS, IMU sensors, and MQTT to push data to the cloud. In one of our hybrid builds, smart pallets were equipped with our Wi-Fi SoC to track transit through ships, trucks, and warehouses without ever joining a network. Just sensing. Just sending. Just working.

Wi-Fi Asset Tracking Without Connecting Diagram 3

The logistics company that implemented this deployment was able to add both Bluetooth LE and Wi-Fi with a single chip, extend battery life, and finally get eyes inside their own facilities.

Why Choose SiWx917 to Build a Wi-Fi Asset Tracker?

Easy. In addition to the features and benefits mentioned above, the SiWx917 Wi-Fi 6 ultra-low-power MCU is a fully integrated wireless solution giving you the functionalities and interfaces you need in Wi-Fi trackers. A few examples include:

  • Integrated networking stack with TCP/IP, TLS, MQTT, and more simplifies integration with the cloud and location database.
  • Includes a rich set of peripherals and GPIO to tie together all the required components such as the GNSS/GPS, LTE/GSM, gyroscope/accelerometer, and an ambient sensor.
  • Large SRAM, PSRAM, and flash memory capacity accommodate all necessary firmware, application software, and location data while also leaving room for OTA updates.
  • Dedicated application MCU with up to 180MHz and an AI/ML accelerator remove the need for an additional standalone MCU, reducing your BoM, power consumption, and board footprint.
  • Wireless and networking stacks are run on a separate processor, increasing MCU sleep time and reducing power consumption.
  • Finally, our SiWx917 modules come with an antenna and regulatory certifications, simplifying your RF design and certification work and reducing the development costs and time.

Let’s Build your Wi-Fi Asset Tracking Device Together

If you’re working on asset visibility, indoor positioning, or real-time logistics, this changes the game. You already have Wi-Fi. Let’s use it better. This is where smart hardware meets smarter networks. Let’s build it together.

To learn more, download our whitepaper, “Wi-Fi Power Optimization Examples for Six IoT Devices” where wireless experts from Silicon Labs and Sigma Connectivity share their best-practice Wi-Fi power optimization guidelines for six IoT devices, including a connectionless Wi-Fi tracker.