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Austin, TX, and Washington, D.C. – February 13, 2025 – Wi-Fi Alliance® welcomes and strongly supports UK Ofcom’s newly released consultation on expanding access to the 6 GHz band for commercial mobile, and Wi-Fi® services. This proposal represents a significant step forward in ensuring the UK remains at the forefront of wireless innovation and connectivity.

By considering an expansion of Wi-Fi access in the upper 6 GHz band, Ofcom acknowledges the critical role that Wi-Fi plays in delivering high-performance, next-generation connectivity for consumers, businesses, and industries across the UK. The 6 GHz band is essential for enabling cutting-edge applications – even in high-density enterprise environments – such as Artificial Intelligence (AI), immersive reality, telemedicine, and smart manufacturing.

“Wi-Fi Alliance commends Ofcom’s leadership in recognizing the immense benefits of 6 GHz Wi-Fi,” said Alex Roytblat, Vice President of Worldwide Regulatory Affairs at Wi-Fi Alliance. “This proposal underscores the UK’s commitment to fostering digital innovation and ensuring that Wi-Fi remains a cornerstone of connectivity, supporting economic growth and technological advancement.”

Expanding Wi-Fi access in the 6 GHz band will enable delivery of high-performance, low latency, reliable Wi-Fi connectivity to help alleviate congestion and enhance broadband performance. The expansion will also ensure that UK consumers and enterprises can fully leverage the latest Wi-Fi technologies, including Wi-Fi 6E and Wi-Fi 7.

Wi-Fi Alliance looks forward to engaging with Ofcom throughout the consultation process and collaborating with stakeholders to ensure that the UK’s spectrum policy supports an open, competitive, and innovation-driven wireless ecosystem.

 

About Wi-Fi Alliance®  |  www.wi-fi.org
Wi-Fi Alliance® is the worldwide network of companies that brings you Wi-Fi®. Members of our collaboration forum come together from across the Wi-Fi ecosystem with the shared vision to connect everyone and everything, everywhere, while providing the best possible user experience. Since 2000, Wi-Fi Alliance has completed more than 80,000 Wi-Fi certifications. The Wi-Fi CERTIFIED™ seal of approval designates products with proven interoperability, backward compatibility, and the highest industry-standard security protections in place. Today, Wi-Fi carries more than half of the Internet’s traffic in an ever-expanding variety of applications. Wi-Fi Alliance continues to drive the adoption and evolution of Wi-Fi, which billions of people rely on every day.

MediaTek has published a second white paper, detailing Reliable Communications in Wi-Fi 8. If you missed the first white paper, which focused on Fast, Efficient Spectrum, you can find it here.

This new white paper discusses how Wi-Fi 8 is designed to seamlessly integrate with cellular networks for internet access, how it increases opportunities for wireless data transmission and spectrum efficiency through Non-Primary Channel Access (NPCA) and In-Device Coexistence (IDC), and how it reduces long-tail latency via TXOP Preemption and High Priority EDCA (HIP-EDCA).

Wi-Fi 8, broadly speaking, prioritizes a generational improvement in connection robustness and reliability over merely increasing headline speeds. This specifically involves enhancing wireless spectrum accessibility and minimizing the long-tail latency of wireless interactions.

Wi-Fi has emerged as the most viable alternative to traditional wireline connectivity solutions, offering the convenience of cable-free flexibility for devices like laptops and televisions. While the peak throughput of Wi-Fi often exceeds the requirements of many applications, users may occasionally experience intermittent jitter during activities such as streaming, gaming, or video conferencing.

This highlights Wi-Fi’s susceptibility to local environmental factors that affect signal quality and consistency. With Wi-Fi access now a staple in virtually every household and the increasing adoption of wireless personal and smart home devices, interference is inevitable. The situation becomes further complicated with the widespread deployment of multiple access points (APs) or mesh networks, which often share the same channel to minimize channel-switching latency. Consequently, the throughput experienced by a user at any given moment may be significantly lower than the peak throughput, leading to intermittent connectivity even when signal quality appears adequate.

Our goal is to address the actual performance users can achieve in typical, everyday Wi-Fi environments. Key enabling technologies include NPCA, IDC, latency and QoS enhancements via preemption, and HIP-EDCA. Their impact on enhancing communication reliability is illustrated in the following real-life scenarios.

Wi-Fi 8, officially known as the IEEE 802.11bn standard, builds on Wi-Fi 7’s advancements to deliver the next leap in connectivity. Our video series, 3 for 3, provides 3 answers for 3 pressing questions about trends in wireless test. In the latest video, LitePoint’s Khushboo Kalyani takes a high-level look at Wi-Fi 8. Watch now to explore what it is, what are some key features its targeting and how it will impact future applications.

 

VIDEO

As we move into 2025, SMBs and service providers will likely face network infrastructure challenges resulting from adopting advanced applications and a shift in work processes that drive the requirement for more bandwidth, faster speeds, and increased reliability. Meeting and exceeding those ever-increasing network performance expectations while managing increasingly tight budgets will require a robust, future-proof infrastructure to eliminate network bottlenecks and maximize productivity.

Cloud-based Services will Drive Demand for Bandwidth and Speed

The demand for increased bandwidth and faster internet speeds in the SMB segment is largely being driven by the shift to cloud-based services and the adoption of 2.5G and 5G services to support bandwidth-intensive applications such as video streaming and transfer of large files.

To support their customers’ increased bandwidth and speed demands, ISPs will need to increase their core networks and offerings to deliver speeds beyond 10G to their customers. A high-speed switch to be released by Zyxel Networks this year will enable metro and rural connectivity over fiber at 2.5G, 5G, 10G, and 25G speeds to stay ahead of cable modem services and 5G type service providers.

Faster Network Speeds will Require High-Performance Security Solutions

As internet speeds surpass 1G to 2.5G, 5G, and 10G, in support of the adoption of cloud and remote work applications by SMBs, enhanced security firewalls will be required to maintain full security for the network. As internet speeds increase, the volume of data increases and security devices need to process this data at high speed to eliminate a data bottleneck. In this high-speed environment, a high-performance network security device is required to provide real-time threat detection, minimize latency, and support advanced technologies like cloud computing, IoT, and AI.

Zyxel H-series family of firewalls provides SMBs and solution providers with robust network protection solutions to support a variety of business sizes ranging from small offices of 25 users up to hundreds of users. These firewalls enable businesses to increase network speed and productivity and deliver robust network security while keeping costs down.

WiFi 7 Fixed Wireless Solutions will Enable Critical Communications in Congested Urban Environments

2.4GHz and 5GHz public WiFi networks in highly populated urban and suburban areas can become easily overwhelmed by the sheer number of connected devices accessing the network. This can become particularly problematic when natural disasters, such as flooding, tornadoes, severe storms, and wildfires, impact highly populated urban and suburban areas, making network use difficult or impossible for emergency responders and residents. WiFi 7 fixed wireless solutions deliver the bandwidth and speeds that can provide life-saving connectivity that increases the efficiency of rescue and recovery efforts.

Designed to provide higher density and performance in congested urban environments, the WiFi 7 6GHz band delivers 5x faster speeds than WiFi 6 and WiFi 6E and provides more than double the bandwidth of 2.4GHz and 5GHz combined. The ability to support more devices with consistently high speeds will make WiFi 7 fixed wireless solutions invaluable in congested urban environments and in the event of surge connectivity.

2024 was a defining year for the Internet of Things (IoT). By the end of 2024, we had more than 18.8 billion connected devices across the globe. These devices evolved into problem-solvers; streamlining operations, improving efficiency, and introducing capabilities that seemed out of reach just a few years ago.

In manufacturing, IoT sensors enabled predictive maintenance, allowing machines to signal when repairs were needed before a breakdown could occur, saving millions in downtime and repair costs. Healthcare witnessed a revolution with real-time patient monitoring, empowering doctors to catch warning signs early and provide better, data-driven care. Retailers used IoT to track inventory, optimize supply chains, and enhance customer experiences, while cities began rolling out smarter infrastructures to address traffic congestion and energy consumption.

Behind these advancements were critical technology enablers. Edge computing gave IoT devices the ability to process data locally, making faster decisions without relying solely on the cloud. Artificial intelligence (AI) enabled IoT devices to become more intelligent, learning user habits, predicting needs, and adapting to changing conditions.

Meanwhile, the expansion of 5G and improved Wi-Fi technology made it possible to connect devices in previously unreachable locations, such as remote farms and deep industrial sites. Advances in chips, sensors, and battery technology further pushed the boundaries, allowing devices to perform complex tasks with greater efficiency and longevity.

However, this explosive growth was not without some challenges. The rise in connected devices brought pressing concerns: safeguarding user data, ensuring interoperability among different devices, and finding ways to handle the tidal wave of information these devices generate. Addressing these issues demanded innovation, collaboration, and new standards, and while progress was made, the journey is far from over.

IoT Tomorrow: Predictions for 2025

In 2025, the momentum only builds. What breakthroughs and shifts lie ahead? What trends will define IoT this year? Let’s explore the possibilities and challenges shaping the next phase of this technology revolution.

1. AI Integration in IoT will Explode

In 2025, AI is expected to transform IoT devices into truly intuitive systems capable of anticipating and adapting to user needs. At the recently concluded 2025 Consumer Electronics Show (CES), we saw significant progress in this direction. Synaptics unveiled its Astra IoT platform, a scalable embedded computing solution designed for multimodal Edge AI workloads.

This platform simplifies Edge AI application development across consumer, enterprise, and industrial markets by combining purpose-built hardware with open-source software. Their focus was on privacy-conscious solutions that process sensitive data locally, boosting security, reducing latency, and enabling real-time decision-making. Here is a video Interview with Synaptics at CES 2025.

Silicon Labs also made a great impression at CES 2025 with its innovations in wireless connectivity and its integration with AI tools. Their next-generation SoCs are designed to support AI-driven IoT devices that can make autonomous decisions while ensuring interoperability across protocols. These developments reflect how silicon vendors are creating the building blocks for smarter, more capable IoT devices.

Looking ahead to the 2025 Embedded World Conference, we’re expecting to see even more exciting progress. It’s been about two years since silicon vendors started focusing on AI chips, and now there are more of them available. At the event, we’ll likely see these chips being tested and showcased, giving us a clear idea of how far the technology has come and what it can do for AI-powered IoT devices.

2. Integration of IoT Sensing and CCTV Technologies

Looking ahead to 2025, IoT sensors, which monitor environmental factors such as temperature, light, or pressure, and smart cameras are set to work together more closely than ever, reshaping how we think about safety and efficiency in smart cities. Cameras powered by AI are expected to do much more than just record.

They will analyze situations in real time, detecting issues like traffic jams or suspicious activities such as loitering in restricted areas and triggering automated responses and alerts. For instance, they could streamline traffic management or enhance public safety by immediately notifying authorities of potential incidents.

IoT sensors are also advancing with onboard image processing capabilities. This allows them to capture and process visual data, sending only precise and streamlined information over low-power networks. This reduces network congestion while improving the speed and accuracy of communication. Together, these technologies promise smarter, more responsive smart cities where systems operate in unison to enhance situational awareness and overall functionality.

3. Network Consolidation and Hybrid Connectivity

In 2025, organizations looking to implement smart solutions will face a more streamlined approach to connectivity. The wide variety of network technologies and devices that have cluttered the market will start to consolidate, making it easier to adopt and scale IoT systems.

Fragmentation in network options has been a challenge for businesses, but recent developments, such as AT&T decommissioning its NB-IoT network in the US in favor of newer technologies like LTE-M, signal a shift towards more unified solutions. However, NB-IoT will continue to play a crucial role in certain regions, such as the UK, where it may work alongside other networks.

Additionally, LoRaWAN technology will remain a flexible and cost-effective option for smart city projects and smart buildings, where local control and service delivery are critical. In 2025, we can expect an acceleration of collaboration among managed LoRaWAN service providers, bringing about better integration and network sharing.

Hybrid connectivity models will also gain traction, combining the strengths of different network types, like cellular and LoRaWAN, to deliver reliable and consistent performance, reducing risks and enabling broader adoption of smart solutions.

4. Transition to Zero-trust Security

Businesses are increasingly integrating IT and IoT networks to improve operations and gain valuable insights. As this convergence expands, a unified security approach becomes crucial, with a growing emphasis on applying zero-trust principles across all networks.

Zero Trust frameworks require a shift towards continuous verification of every device and user. While the core principles of Zero Trust should be consistent, implementation will likely need to be tailored to the specific requirements and constraints of each environment. Although the initial implementation of Zero Trust can involve investment, it offers the potential for long-term efficiencies and cost savings by reducing security risks and improving overall security posture.

There will also be a growing emphasis on securing IoT devices from the outset. While IoT security has been a widely discussed priority for years, the rapid pace of IoT adoption often left security playing catch-up to innovation. In many cases, tight development timelines and cost constraints led to security being treated as an afterthought.

However, with the increasing sophistication of cyber threats and the rising cost of breaches, businesses are now recognizing that robust security must be embedded throughout the device development process, from concept to deployment. This shift reflects a maturing perspective on the balance between innovation and risk management.

Looking ahead, regular risk assessments and network penetration testing will become increasingly routine as organizations seek to maintain a clear and accurate understanding of their security posture. This ongoing evaluation will be essential in ensuring that businesses can minimize vulnerabilities and reduce exposure.

5. Service Evolution

As IoT adoption grows, businesses often face challenges in maintaining consistent services and use cases across diverse applications. These challenges stem from solutions that remain siloed, lack scalability, or fail to integrate effectively.

However, in 2025, we expect to see a shift from fragmented IoT services to more unified services that prioritize consistency, scalability, and interoperability across industries. This transformation will be driven by the development of interoperable connectivity platforms, unified device management systems, and comprehensive security frameworks.

To illustrate the difference, here’s a comparison between fragmented and unified IoT services:

FRAGMENTED IOT SERVICES UNIFIED IOT SERVICES
Solutions are isolated, with limited scalability across devices
Interoperable platforms enable seamless scaling across industries
Data is siloed and fragmented, reducing actionable insights
Unified systems aggregate data for advanced BI, analytics, and AI/ML
Devices are managed individually, creating inefficiencies
Centralized platforms streamline unified management of all devices
Ad-hoc security measures; inconsistent enforcement
Comprehensive frameworks enforce policies consistently across all IoT
Difficult to demonstrate ROI due to inefficiencies
Clear ROI from consistent, reliable, and efficient services

These advancements will help organizations reduce duplication of efforts, improve security, and enhance operational efficiency. Managing IoT ecosystems will become simpler, more secure, and more effective, enabling businesses to deliver consistent service quality while demonstrating clear cost-to-benefit ratios.

In Summary

The trends we’ve explored—AI in IoT, the integration of IoT and CCTV technologies, the consolidation of networks, security, and the maturation of service delivery are all interconnected developments that will drive the next transformation phase. These innovations point to a more unified, efficient, and intelligent world where connectivity, data, and decision-making converge to create smarter solutions across industries.

The fusion of IoT and AI will enable smarter, real-time decision-making, helping cities manage traffic more efficiently and businesses monitor equipment before a breakdown occurs. The increasing integration of network technologies, alongside the growth of hybrid connectivity models, will give way to greater flexibility, reliability, and scalability for organizations deploying smart solutions.

And while the journey toward seamless, mature IoT services continues, 2025 will see businesses benefit from more consistent and standardized service delivery. This will be powered by improved connectivity platforms, better device management, and stronger security frameworks.

If you are navigating the world of Edge AI and building intelligent devices, platforms like ModelNova are leading the way by making the development of Edge AI devices more accessible the same way the no-code platforms did for software development. 

Launched in 2024, ModelNova has already become an invaluable tool for developers, with over 50 pre-trained models designed for low-power hardware platforms. Whether you’re working on AI vision, sound, or speech recognition, ModelNova can simplify the traditionally complex process of selecting, adapting, and deploying AI models on edge devices. 

This acceleration in prototyping and deployment will empower businesses to bring intelligent applications to life faster than ever and bridge the gap between innovation and real-world deployment. Read more on the building blocks of IoT and learn all about the foundations of a connected world.

Cybersecurity firm shows spikes in malicious traffic leading up to and during high-profile sporting events

WASHINGTON, D.C. – Feb. 12, 2025 – DNSFilter today released information gathered through its DNS content filtering platform regarding gambling traffic, both malicious and legitimate, in the lead up to Super Bowl LIX. The data showcases key threats during the NFL playoff season, particularly in January during the NFL playoffs, where unsanctioned streaming and gambling activities increased.

On the day of the Super Bowl, DNSFilter blocked 57% more malicious content related to gambling and betting compared to the rest of the NFL post-season. Previous high spikes to these malicious betting sites coincided with Super Bowl LVIII and 2024 March Madness.

Since sports betting is now legal in a majority of US states, overall traffic to DNSFilter’s gambling category has increased over the last year. Compared to the same timeframe last February, daily traffic to all gambling sites has increased 71%, surpassing DNSFilter’s overall network growth of 16%.

Other key statistics and insights from DNSFilter’s research, focusing on online threats leading up to the 2025 Super Bowl, include:

Streaming Media and Malware:

  • A 15% increase in illegal streaming and torrenting traffic related to fake streaming sites during championship weekend compared to the previous average held between May and December 2024, indicating an escalating risk of security issues tied to streaming during major NFL events. This week had the highest traffic to illegal streaming sites ever on the DNSFilter network. Unauthorized streaming is a common risk factor for organizations, especially with unmanaged devices accessing potentially harmful content.

Threats by Domain:

  • Domains related to the NFL have been seeing increased security threats, with spikes in malicious activity associated with streaming sites, gambling and possibly phishing attacks targeting Super Bowl fans or bettors.
  • Threat domains with “football” in the domain name surged in January, with spikes on January 14, the day after Super Wild Card Weekend, and Super Bowl Sunday.

Fake Betting Site Trends:

  • A significant 20% of malicious gambling domains identified during the NFL playoffs used a string of numbers in their names, a common tactic for “mirror” sites that attempt to evade detection. If you’re unsure of the legitimacy of a gambling site, this is an indicator that it may be a scam.
  • Most malicious domains related to betting were categorized as malware, while most traffic came from newly registered domains.
  • A site with a captcha does not necessarily mean it is safe. Some malicious sites will show a captcha before entering because the host is suspicious of the site, but has not taken it down. DNSFilter encountered a handful of fake betting sites with Captchas during this investigation.

TK Keanini, CTO, DNSFilter, said: “Our technology prevents access to unwanted content by identifying and categorizing threats and harmful sites before a connection is made. With real-time insights into evolving tactics, we’re committed to staying a step ahead, safeguarding users from threats tied to high-profile events like the Super Bowl. By continuously educating and protecting users, we can help foster a safer online environment during sporting events and beyond.”

About the company:

DNSFilter is redefining how organizations secure their largest threat vector: the Internet itself. DNSFilter is making the Internet safer and workplaces more productive by blocking threats at the DNS layer. DNSFilter resolves upwards of 170 billion daily queries. With 79% of attacks using Domain Name System (DNS), DNSFilter provides the world’s fastest protective DNS powered by AI, blocking threats an average of 10 days faster than traditional threat feeds. Over 35 million users trust DNSFilter to protect them from phishing, malware, and advanced cyber threats.

There’s a great deal of talk around the capability of Wi-Fi 7 (IEEE 802.11be) to revolutionize the wireless experience. It’s not hype. A key feature that delivers this transformative impact is multi-link operation (MLO). A mandatory and defining component of 802.11be, MLO enables a multi-link device (MLD) to simultaneously operate across multiple frequency bands, including 2.4 GHz, 5 GHz, and 6 GHz.

Access point (AP) and non-AP MLDs learn each other’s MLO parameters and capabilities through the multi-link information elements exchanged in frames like Beacons and Association Request/Response. In this blog, I’ll illustrate MLO’s impact on wireless connectivity and show you how it works in simultaneous transfer/receive (STR) mode.

How does multi-link operation (MLO) enhance wireless connectivity?

MLO introduces significant benefits for a variety of use cases. Key enhancements include:

  • Simultaneous use of multiple bands. MLDs can transmit (Tx) and receive (Rx) data over more than one band at the same time. This is useful in environments with heavy congestion, as it avoids interference on any single band.
  • Improved throughput. MLO leverages the combined capacity of multiple channels across different bands to enable higher aggregate throughput. This makes Wi-Fi 7 ideal for bandwidth-heavy applications like video streaming, virtual reality, and online gaming.
  • Reduced latency. By offloading traffic across multiple channels. This is particularly useful in gaming, video conferencing, or other apps that require real-time communication.
  • Better reliability and robustness. If one band (for example, 2.4 GHz) experiences congestion, then station (STA) MLDs can seamlessly switch to a less congested band (such as 6 GHz) without dropping the connection. This is extremely helpful in spaces with busy radio frequency (RF) traffic, such as stadiums, apartments, and offices.

Type of MLO operation modes

Wi-Fi 7 defines several single and multi-radio MLO modes, with stations able to support these modes based on their respective hardware capabilities. Various software thresholds—such as bandwidth requirements, band preferences, RF congestion, and QoS—will influence and guide a station’s choice of operating mode.

Figure 1 – MLO modes and attributes.

Among these modes, MLSR is required to be supported by all AP and non-AP MLDs. Support for EMLSR and STR modes is mandatory for AP MLDs, but optional for non-AP MLDs (stations). STR is currently incorporated by most vendors, making this mode an excellent starting place for dissection.

MLO’s STR mode in action

Diagram of multi-link operation STR mode with Wi-Fi 7
Figure 2 – Channel access of AP and Station over STR links.

In STR operation, each link can be used to Tx or Rx concurrent physical layer protocol data units (PPDUs) without any synchronization. Figure 2 illustrates an example where an AP MLD and a non-AP MLD are operating over an STR link pair. Both devices contend for access to the wireless medium and engage in subsequent frame exchanges on those links.

After the AP MLD and the non-AP MLD complete a multi-link setup to successfully establish link 1 and link 2, and with the links enabled, AP 2 can receive data frames from STA 2 on link 2. Meanwhile, AP 1 contends for the wireless medium and, upon securing a transmit opportunity (TXOP), transmits data frames to STA 1 on link 1.

Next, let’s conduct a lab test using Cisco’s CW9178 AP running on Catalyst 9800 Wireless LAN controller (WLC) to demonstrate STR in action.

Diagram of Catalyst 9800 wireless LAN controller and the CW9178 Wi-Fi 7 access point STR in action
Figure 3 – Topology of STR Test

The access point under test (APUT) is configured to operate on 2.4 GHz (20 MHz) and 5 GHz (40 MHz) bandwidths with a WPA3-SAE WLAN. In the first step of the test, Wi-Fi 7/802.11be/MLO is enabled on both bands. We are using a Qualcomm 7800-based STR/MLMR-capable station, while the CW9178 AP serves as the sniffer—capable of capturing data across multiple bands and decoding Wi-Fi 7 frames.

Next, let’s associate the STAUT and check the capability details in both the WLC and Wireshark. During the association process, multiple elements are exchanged: the MLO information elements for the 5 GHz Association link, as well as the “Per-STA Profiles” information elements containing details about the non-association link (2 GHz).

The WLC identifies the STA as STR capable if the “Maximum Number of Simultaneous Links” value in the ML information element of the association request is non-zero. This indicates the number of radios the station is using for its association. See Figure 4 below for the corresponding Wireshark capture.

 

Image of the Wireshark capture with STR capability in the association request
Figure 4 – STR capability in Association Request

The Catalyst 9800 WLC provides a clear display of the STA’s 802.11be capabilities, including MLD links with Slot IDs and bands, MLO mode support (STR/eMLSR), and Tx/Rx RF and data statistics for each band. Equivalent CLI commands are also available, though not covered in this blog.

Figure 5, table with WLC showcasing client MLD capabilities
Figure 5 – WLC showcasing Client (MLD) capabilities.

Now that the STA has associated on the 5G band with an STR link to both the 5G and 2G bands, let’s initiate traffic for one minute to verify STR operation. Using the IxChariot server, we will begin full-bandwidth Downlink UDP traffic. Initially, traffic will flow only on the 5G band, as it is the only active association link. However, the STA will soon assess the need for a secondary link to achieve higher bandwidth. It will then send a QoS Null data frame over the secondary (2G) link. The AP acknowledges this request and enables simultaneous data transmission across both bands.

Figure 6 shows the sequence starting with data on channel 36, followed by a QoS Null data frame on channel 6, and concluding with simultaneous data transmission on both channel 6 and channel 36.

Figure 6, an image of a Wireshark snapshot highlighting data on multiple links
Figure 6 – Wireshark snapshot highlighting data on multiple links.

The Catalyst 9800 WLC offers a comprehensive view of the client’s performance on each MLO link, with monitors providing detailed Tx/Rx data along with RF statistics.

Figure 7, a table with WLC showing detailed statistics for MLD STA
Figure 7 – WLC showing detailed statistics for MLD STA.

Following the one-minute traffic run, the average throughput measured is 747 Mbps, as shown in Figure 8.

Figure 8 - an image showing IxChariot capture displaying Wi-Fi 7 STR client throughput.
Figure 8 – IxChariot capture displaying STR client throughput.

To provide a comparison, the test was repeated under the same conditions, but with 802.11be/MLO disabled, running in 802.11ax mode instead. The average throughput was 506 Mbps.

Figure 9, an image with IxChariot view showing throughput of the Wi-Fi 6 client
Figure 9 – IxChariot view showing throughput of the Wi-Fi 6 (802.11ax) client.

The table below summarizes the throughput comparison between clients. The impact is indeed transformative: Wi-Fi 7 with STR MLO significantly outperforms Wi-Fi 6, delivering a 47% throughput increase, along with more efficient spectrum utilization.The CW9178, CW9176I, and CW9176D APs, along with 9800 series wireless controllers, will fully support Wi-Fi 7 capabilities and features in the upcoming IOS XE 17.15.2 (currently in Beta) release.

The CW9178, CW9176I, and CW9176D APs, along with 9800 series wireless controllers, will fully support Wi-Fi 7 capabilities and features in the upcoming IOS XE 17.15.2 (currently in Beta) release.

Orange Polska Cements its Position as Poland’s Connectivity Leader in Fibre and Wi-Fi

 

PARIS, France – 17 February 2025 – SoftAtHome, a leading software provider for broadband and Wi-Fi innovation, proudly announces collaboration with Orange Polska to launch Poland’s first customer-facing Wi-Fi 7-enabled broadband solution. This achievement represents a significant leap in connectivity, empowering Orange Polska to deliver faster, more reliable internet to its customers.

The launch, on January 20th, of the new improved Funbox 10, powered by SoftAtHome’s advanced solutions, brings Orange Polska’s customers the latest Wi-Fi 7 capabilities. This includes leveraging the 320 MHz channel in the 6 GHz band to double throughput compared to Wi-Fi 6, supporting GPON and XGS-PON, with up to 8 Gbps fibre connections via the latter. This innovation enables Orange Polska to provide exceptional performance for demanding applications like online gaming, 4K streaming, and augmented reality while supporting the growing number of connected devices in modern homes. The availability of eco modes and recycled materials is a step towards more sustainable broadband.

The offer is already available in 39 cities, reaching over 2,5 million homes and businesses.

The tight project timeline—completed in under seven months—demonstrates the agility and innovation of Orange Polska and SoftAtHome’s engineering teams.

Liudmila Climoc, CEO of Orange Polska, commented: “I’m proud to announce that Orange Polska is the first operator in Poland to offer customers a new level of connectivity experience at home, boosted by Wi-Fi 7 wireless technology. This strengthens our position as a leader in connectivity and innovation, providing fast, stable internet that meets the growing demands of our customers.”

Arnaud Bellivier de Prin, CEO of SoftAtHome, added: “We are thrilled to support Orange Polska with the deployment of Poland’s first Wi-Fi 7 broadband solution. This project highlights the strength of our partnership and underscores SoftAtHome’s commitment to innovation. The new Funbox 10 demonstrates how advanced Wi-Fi and fibre technologies can work together to deliver exceptional customer experiences.”

 

By integrating SoftAtHome’s WiFi’ON and Connect’ON technologies, the new Funbox 10 ensures seamless connectivity, intelligent channel selection, and advanced smart Wi-Fi features to enhance network performance. This launch positions Orange Polska as a leader in next-generation connectivity while reaffirming SoftAtHome’s role as a trusted partner for operators worldwide.

 

 

About SoftAtHome

SoftAtHome is an independent software provider with seven critical solutions: broadband (Connect’ON), Wi-Fi (Wifi’ON), security (Secure’ON), smart home (Things’ON), video (Watch’ON), analytics and QoE monitoring (Eyes’ON), and a gateway Appstore environment (Orchestr’ON). SoftAtHome’s solutions power over 30 million connected homes globally, delivering unmatched broadband, Wi-Fi, and smart home experiences. With its focus on energy efficiency and open-source communities like prpl, SoftAtHome continues to innovate for the future of the connected home.

U.S.-based company adds new director of information and security and aligns with efforts to help strengthen national digital infrastructure

IRVINE, Calif.–(BUSINESS WIRE)–TP-Link Systems Inc., a global leader in networking and smart home solutions, today announced a series of proactive initiatives to strengthen its leadership in product security, along with the appointment of Adam Robertson as director of information and security.

“Adam’s pragmatic approach to cybersecurity is exactly what TP-Link needs as we continue to innovate and expand our product offerings”

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These efforts include independent security audits, participation in government-led cybersecurity programs, and investments in advanced technologies to stay ahead of emerging threats. Together, these initiatives demonstrate TP-Link’s ongoing commitment to delivering secure, reliable, and innovative products while prioritizing user privacy and transparency.

“At TP-Link Systems, security and integrity are at the heart of everything we do,” said Jeff Barney, President of TP-Link Systems Inc. “We are proud to call Irvine our home, to contribute to the strength of the U.S. economy, and to deliver innovative, secure products that customers around the world can trust. Our commitment to transparency, rigorous testing, and continuous improvement ensures that we will remain a leader in networking and smart home technology.”

Secure by Design

TP-Link’s comprehensive approach to cybersecurity is in full alignment with the U.S. government’s efforts to strengthen national digital infrastructure. TP-Link will continue to invest in advanced security technologies and collaborate with industry and government partners to stay ahead of emerging cyberthreats.

To that end, TP-Link is a proud signatory of the U.S. Cybersecurity and Infrastructure Security Agency’s (CISA) “Secure by Design” pledge and actively participates in CISA’s Secure by Design Technical Exchange Group. The company also maintains a proactive vulnerability disclosure program, inviting independent researchers and the security community to report potential issues.

In Q1 2025, TP-Link will sponsor a bug bounty program hosted by a prominent platform, further demonstrating its commitment to identifying and addressing vulnerabilities. Additionally, the company supports the Cyber Trust Mark program administered by UL Solutions, and plans to seek certification for its products.

Security Practices Earn High Marks

As a strong proponent of product security and user privacy protections, TP-Link has developed a comprehensive security framework designed to anticipate, identify, and address risks quickly and transparently.

To validate its security practices, TP-Link engaged Finite State, an independent U.S. cybersecurity firm, to conduct a thorough audit of its security investments in 2024. The audit found that TP-Link is on par with or ahead of other major industry players in terms of security outcomes. Public vulnerability data shows that TP-Link’s rate of vulnerabilities per product is significantly lower than those of peer manufacturers, and its average CVSS score aligns with industry leaders.

“TP-Link Systems has demonstrated a strong commitment to security by investing in robust practices and embracing independent validation,” said Matt Wyckhouse, Founder & CEO of Finite State. “Their proactive approach to identifying and addressing vulnerabilities sets a high standard for the industry, and their results speak for themselves.”

Secure Manufacturing and Supply Chain

Since 2018, TP-Link has manufactured its U.S.-bound products in its own factory in Vietnam, ensuring greater control over its supply chain and adding an extra layer of security and governance.

“Manufacturing our products in our own facilities allows us to maintain the highest levels of quality and security,” said Barney. “We are constantly assessing potential risks to our operations, customers, and supply chain to ensure we deliver safe and reliable products that our customers can trust.”

Robertson to Lead Security Initiatives

Adam Robertson brings 17 years of cybersecurity experience to TP-Link, including eight years in senior leadership roles at companies like Reliance, Inc. and Incipio Group. Based at the company’s global headquarters in Irvine, California, he will oversee security for TP-Link’s consumer and enterprise networking and home automation products. His leadership will help further shape the company’s security culture and accelerate innovation in cybersecurity.

“Adam’s pragmatic approach to cybersecurity is exactly what TP-Link needs as we continue to innovate and expand our product offerings,” said Barney. “His ability to balance technical depth with strategic vision will be invaluable as we work to elevate our security standards and set new benchmarks in the industry.”

“I am excited to join TP-Link and contribute to its mission of making secure technology accessible to everyone,” said Robertson. “I look forward to building on our world-class security team and ensuring that the TP-Link brand remains synonymous with trust and security in the technology industry.”

Cutting-Edge Network Security with TP-Link HomeShield

As part of TP-Link’s ongoing commitment to product security, HomeShield provides an additional layer of protection for users’ home networks.

HomeShield offers robust parental controls, enabling users to manage online time and block inappropriate content. Additionally, Quality of Service (QoS) settings help optimize network performance for streaming, gaming, and work-from-home setups, ensuring a seamless connectivity experience. HomeShield also delivers comprehensive security reports, offering users detailed insights into their network activity, potential threats, and overall performance.

Looking Ahead

TP-Link is dedicated to being a leader in IoT and networking security. By working with industry experts, embracing government guidance and standards, and maintaining an unwavering focus on improvement, the company ensures that its customers can trust its devices today and in the future.

“Security is never final; it’s an ongoing journey,” said Robertson. “We are committed to evolving with the landscape, staying ahead of threats, and providing our customers with the peace of mind they deserve.”

For more information about TP-Link, please visit www.tp-link.com.

About TP-Link Systems Inc.

Headquartered in the United States, TP-Link Systems Inc. is a global provider of reliable networking devices and smart home products, consistently ranked as the world’s top provider of Wi-Fi devices. The company is committed to delivering innovative products that enhance people’s lives through faster, more reliable connectivity. With a commitment to excellence, TP-Link serves customers in over 170 countries and continues to grow its global footprint.

 

  • Airties Cloud now shows visibility of 5G FWA link performance providing unified view of QoE across WAN and LAN networks using Qualcomm® 5G Fixed Wireless Access Platforms 
  • Enables FWA operators to observe, diagnose, and fix connectivity issues automatically or through actionable recommendations for 5G broadband home gateways and extenders
  • New capability available in Q2 to be demonstrated at Mobile World Congress 2025

Paris, France – February 6, 2025 –  Airties, a global leader of AI-driven software that improves the home connectivity experience for ISPs, today announced that it will showcase its converged broadband experience platform for Fixed Wireless Access (FWA) operators using Qualcomm® 5G Fixed Wireless Access Platforms at Mobile World Congress 2025. This new capability builds upon the recent collaboration previously announced between the two companies, and enables FWA operators to observe, diagnose, and fix their subscribers’ home connectivity issues automatically, or through actionable recommendations, across local (LAN) and wide-area wireless networks (WAN).

Broadband service providers rely upon Airties’ software for the ongoing optimization of their customers’ broadband experience to help reduce churn, attract new customers, lower operating costs, and innovate in new ways. Airties’ broadband experience platform includes Airties Edge; Airties Cloud; Airties Vision App; and Airties Orbit. In addition to home Wi-Fi, Airties Cloud can now provide WAN performance data and insights for FWA operators to determine whether they should take corrective actions for 5G CPE, such as frequency band changes, bandwidth provisioning, or switching base stations. This new capability will be commercially available in Q2 2025, as part of an ongoing collaboration between Airties and Qualcomm Technologies, Inc.

“Fixed wireless operators have been seeking the means to have a unified view into the home broadband experience of their customers, across their local and wide area networks, and that is precisely what we are now showcasing with Qualcomm Technologies,” said Metin Taskin, founder and CEO of Airties. “Customers using our broadband experience platform can now measure and manage end-to-end performance quality across 5G and home Wi-Fi within Airties Cloud. We look forward to demonstrating this enhanced capability with Qualcomm at Mobile World Congress and offering it to FWA service providers around the globe in the weeks ahead.”

“Ensuring a consistent and high-quality broadband experience for end-users is a top priority for all FWA carriers, and our collaboration with software innovators like Airties highlights the advanced managed network capabilities and optimizations Qualcomm 5G Fixed Wireless Access Platforms can help achieve,” said Gautam Sheoran, Vice President and General Manager, Wireless Broadband & Communications at Qualcomm Technologies, Inc. “This collaboration represents a significant advancement in providing operators with the tools necessary to ensure seamless connectivity and high performance across both WAN and LAN networks.”

Airties’ AI-driven connectivity experience platform helps ISPs observe, diagnose and fix in-home connectivity issues automatically or through actionable recommendations. By personalizing the customer experience and optimizing home connectivity, it is designed to help improve customer satisfaction and NPS scores. Airties’ data-driven insights, across devices and applications, help ISPs improve performance quality, market effectively, and deliver a premium managed broadband experience to consumers.

 

Key software solutions include:

  1. Airties Edge software for gateways/routers/extenders intelligently directs consumers’ devices (laptops, tablets, phones, game consoles, IoT, smart home devices, etc.) to the best available Wi-Fi access point and frequency band based on real-time network conditions; manages Mesh networking; optimizes QoS; and delivers critical data to Airties Cloud;
  2. Airties Cloud helps ISPs observe, diagnose, and fix in-home connectivity issues automatically or through actionable recommendations; delivers insights on connected devices and application performance; and provides APIs to support operators’ CRM systems, customer facing support apps, and Airties Vision App;
  3. Airties Vision, a white-label companion app, empowers homeowners to set-up and manage their home networks and set parent controls, prioritizations, guest access, and more; and,
  4. Airties Orbit, a continuous test automation platform for broadband service providers, customer premises equipment (CPE) manufacturers, and system-on-chip (SoC) manufacturers to support Wi-Fi integration efforts.

Airties has received many prestigious industry awards for its innovations, including: “Best Home Wi-Fi Solution Award” from Broadband World Forum; “Best Wi-Fi Service Provider Solution” and “Best Home Wi-Fi Product” awards from Wi-Fi NOW; “Best Wi-Fi Innovation” and “Best-In Home Wi-Fi Network” awards from Wireless Broadband Alliance; “Best Broadband Customer Experience” from Cable & Satellite International; and numerous others.

Additional information about Airties can be found at: www.airties.com. Additional information about Qualcomm can be found at www.qualcomm.com. To learn more about Qualcomm 5G Fixed Wireless Access platforms, visit link.

About Airties

Airties is a global leader of AI-driven software solutions that improve the home connectivity experience for ISPs to help reduce churn, attract new customers, lower operating costs, and innovate. Leveraging insights from millions of managed homes, Airties provides industry-leading customer experience measurement and optimization for broadband service providers to improve customer satisfaction and NPS scores. Airties’ holistic suite of hardware-agnostic software enables ISPs to manage home connectivity, based on leading industry standards and open-source software, across their fiber, cable/DSL, and fixed wireless access (FWA) deployments. Airties’ customers include leading service providers such as AT&T, Cox, Deutsche Telekom, Telia, Telstra, T-Mobile US, Vodafone, and many others across the world. More information is available at www.airties.com.