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The European Union’s introduction of NIS2 marks a significant evolution in cybersecurity regulation, building upon and expanding the original Network and Information Security Directive.

NIS2 Explained: A Framework Strengthening Network Security

As a comprehensive framework for securing Europe’s digital infrastructure, the directive establishes stringent requirements for essential and important services, fundamentally transforming how organizations must approach their security responsibilities. (European Union) EU member states must implement through legislation the enforcement of the NIS2 directive. But what does NIS2 mean for your network, and how can you ensure compliance with its requirements?

The EU NIS2 Directive is a comprehensive update to the original NIS Directive to improve critical infrastructure security. NIS2 addresses the limitations of its predecessor (NIS) by expanding scope, harmonizing incident reporting, and enforcing stricter penalties for non-compliance up to 2% of a company’s global annual revenue or €10 million.

What is NIS2 and what are its key features?

Targeting a wider range of organizations, NIS2 now applies to essential entities that support sectors like energy, healthcare, financial services, and important entities addressing sectors such as postal and courier services, manufacturing, and data center operations.

The objective is to mandate that public and private entities across these sectors adhere to a uniform standard of cybersecurity capabilities to mitigate potential threats that could disrupt key societal services, basic necessities, and functions or compromise sensitive data. Companies that supply or support these essential and important entities may also need to comply with NIS2 directives.

Overview of NIS2 Cybersecurity Requirements

NIS2 establishes a comprehensive framework for an overall level of cybersecurity, built around four core pillars: risk management, incident handling, business continuity, and information sharing. These pillars are supported by ten detailed categories, which can be distilled into the following key requirements:

  • Risk Management and Cybersecurity Policies: Organizations must develop and maintain comprehensive cybersecurity risk management measures and frameworks incorporating regular risk assessments, threat modeling, and clearly documented security policies. These frameworks should adapt to emerging threats and evolving business needs.
  • Incident Reporting and Response: Any cyber incident that could have a significant impact on services or compromise data must be reported within 24 hours as an “early warning,” emphasizing the urgency of a swift, well-coordinated response; this is just an example of required NIS2 incident response capacities in the evolving cybersecurity threat landscape.
  • Business Continuity and Crisis Management: Entities plan for how they intend to ensure business continuity in case there is a major cyber incident and how they will recover quickly in the aftermath.
  • Supply Chain Security: Acknowledging that suppliers are often a weak link, NIS2 mandates enhanced scrutiny of third-party security standards.
  • Data Integrity and Confidentiality: Measures to protect data integrity and confidentiality are essential, aligning with data protection laws like GDPR to avoid unauthorized access or breaches.

NIS2 Directive and a Company’s Network Security

NIS2 mandates must be reflected in a company’s approach to network security. With expanded legal measures, the mandate that NIS2 be incorporated into EU member state national law, and the inclusion of more sectors, organizations who support essential or important business, or are themselves essential or important businesses, are now accountable for meeting a high common level of cybersecurity standards. This accountability should be reflected in cyber resilience throughout the network architecture and infrastructure.

Does the NIS2 Directive apply just to Information Systems and Cloud?

While network security measures are crucial to NIS2 compliance, the directive’s scope extends far beyond information systems or cloud computing. It requires active engagement from C-level executives and board members who must oversee security governance, build organizational awareness, and ensure accountability. This includes strategic cooperation on incident response, security awareness and training, and facilitating cross-border information sharing across all organizational levels.

What are the Essential Controls for NIS2 Compliant Network Security?

With the broad focus of NIS2, the network is still a central focus and implementation area for cybersecurity controls, access control and management, incident identification and response, and many other security requirements that can help with a company’s NIS2 compliance. Specifically, NIS2 requires network security controls that focus on prevention, detection, cyber crisis management, and recovery. Here are some key controls that must be implemented across multiple network layers:

  • Network Segmentation: Separating networks into distinct zones prevents attackers from moving laterally across systems, limiting the potential damage of a breach.
  • Access Controls: Enforcing strong identity verification and role-based access to enforce that only authorized personnel can access sensitive areas of the network.
  • Intrusion Detection and Prevention Systems (IDPS): These tools help monitor network traffic for unusual activity, intended to stop potential threats before they escalate.
  • Security Audits and Vulnerability Assessments: Continuous security checks enable organizations to identify and address weak spots before they’re exploited.
  • Endpoint Detection and Response: EDR solutions allow for real-time monitoring and faster detection of compromised devices within the network.
  • Incident Response Planning and Training: A well-documented incident response plan, coupled with regular training, ensures that employees understand how to respond to an incident swiftly and effectively.

The Importance of Network Security

As organizations increasingly rely on complex digital infrastructures to manage sensitive data and essential operations, network security has become one of the cornerstones of effective information system security. Effective network security protects the confidentiality, integrity, and availability of data—a triad critical for maintaining trust with customers, partners, and regulatory bodies. Implementing the right controls and best practices, from granting and authenticating access and threat detection to documented and practiced incident response management, companies can use strong network security to reduce the threat landscape and the need to utilize incident response plans.

Network security breaches have real-world consequences, so a properly implemented and secure network architecture is fundamental. Network compromises can cause cascading effects, impacting not just the organization itself but also its customers, partners, and the broader industry. A secure network minimizes disruptions, shields critical data from unauthorized access, and provides a foundation for achieving compliance with NIS2 and other international standards.

data-breach-NIS2-blog

Conclusion

NIS2 marks a significant transformation in European cybersecurity, introducing rigorous standards and embedding accountability throughout every level of organizational security infrastructure. For organizations, this means not just fulfilling compliance requirements but building a security-first culture that values and prioritizes robust network architecture and defenses. By implementing essential controls, companies can establish resilience and responsiveness, meeting NIS2’s requirements while protecting their networks from increasingly sophisticated cyber threats. Network security is not just a technical necessity but a business imperative, required for both operational continuity and sustained trust in doing business.

Table of Contents

As streaming services grow to dominate entertainment, hotel guests increasingly expect seamless access to these platforms during their stay. Unlike a decade ago, when guests used Wi-Fi primarily for email and basic browsing, today’s travelers bring multiple devices and use them for bandwidth-heavy activities like HD streaming, video calls, and gaming. Thus, in 2025, we see a need to focus on improving the streaming experience for hotel guests.

The demand is clear: According to a recent study by Hospitality Technology, 70% of guests take access to streaming services into account when selecting one hotel over another. Our data over the past 2 years show roughly 1/4 of the content viewed in guest rooms is streamed via apps. Our top 3 apps this year are Netflix, YouTube, and Amazon Prime Video. Guests spent over 21 million hours in 2024 watching apps through our streaming services!

In addition, the average traveler connects 3-5 devices during their stay. The chart below shows the types of devices seen on WorldVue-managed networks in 2024, with over 20 million logins.

chart showing device types seen in 2024, by percentage

Our data for 2024 shows an average use of nearly 1.7 GB of data per device – even more for casting and streaming. Along with an increasing number of in-room smart devices, this places a strain on older infrastructure. Without proper planning, this may result in a negative experience with buffering instead of binge-watching.

For hoteliers, meeting these growing demands means rethinking their network design and equipment. The days of a few access points (APs) in hallways are over. Modern hotels need dense, high-performance setups to ensure strong, fast connections throughout the property.

What Do Hotels Need to Support a Better Streaming Experience?

Building a network that can support an improved streaming experience for hotel guests requires careful planning and investment in the right technology. Here are some aspects to consider as we move into 2025:

  • Access points (APs) – To handle multiple devices and high bandwidth demands, hoteliers should aim for one AP per room. Shared APs between rooms or in hallways can lead to weak signals and spotty coverage. Investing in enterprise-grade Wi-Fi 6 or even Wi-Fi 7 APs is critical, as they can handle higher data rates and support more simultaneous connections.
  • Backhaul infrastructure – High-speed wired connections are essential to support the increased traffic from streaming, videoconferencing, and other high-bandwidth activities. Structured cabling offers an effective way to support a property’s operations. Upgrading to Gigabit Ethernet or multi-gigabit switches can help prevent bottlenecks when many guests are using the network.
  • Bandwidth provisioning – For a streaming-friendly network, aim for 3-10 Mbps per device. For a 200-room property, providing 1-2 Gbps of total bandwidth should ensure that guests have the speed they need, even during peak hours.
  • Network controllers and monitoring – Centralized controllers can optimize AP performance and ensure reliable connections. Coupled with network monitoring tools, they help identify and resolve issues proactively.
  • Wi-Fi in public areas – Common areas like lobbies, conference rooms, and pools also need robust Wi-Fi coverage. Consider installing high-capacity APs in these areas to avoid guest complaints.
a couple in a hotel room sipping coffee and watching TV

What about traditional TV?

Traditional TV is still in demand. In fact, with thousands of properties using the WorldVue HUB™, we saw most users choose traditional linear TV. In 2024, 86% of viewing per occupied room was via traditional channels, a 3% increase from 2023.

To deliver a great IPTV experience, hotels require many of the same technology upgrades as for streaming. This is especially true since more than 80% of the most popular viewed channels provide HD programming. Enterprise-grade APs in rooms and common areas, a solid communications infrastructure, and proactive network management are crucial for all your guest-facing technology.

How WorldVue Ensures a Great Streaming Experience for Hotels

At WorldVue, we understand that delivering a seamless streaming experience is becoming critical to guest satisfaction and loyalty. We design and install networking solutions specifically tailored for the hospitality industry. We provide the infrastructure you need to support streaming and other high-bandwidth demands.

Here are some of the ways we can help:

  • Custom Wi-Fi design – Our team ensures optimal placement of high-performance APs, typically one per guest room plus elsewhere as needed. We focus on providing consistent, high-speed coverage throughout your property.
  • Cabling infrastructure – We also offer structured cabling design and installation to support your networking needs for guests and operations.
  • Bandwidth management – We work with you to provision the right amount of bandwidth and implement traffic prioritization to ensure streaming takes precedence during peak usage times.
  • Streaming integration – Our IPTV and in-room entertainment solutions, such as the HUB™, seamlessly integrate with guests’ streaming accounts, enabling them to log in securely and enjoy their favorite content.
  • Proactive monitoring – With 24/7 network monitoring and support, we ensure your Wi-Fi stays reliable and responsive, minimizing disruptions for your guests.

How the WorldVue HUB Enhances the Streaming Experience for Hotel Guests

The HUB takes the in-room entertainment experience to the next level by seamlessly integrating streaming into the hotel entertainment. The HUB simplifies access and ensures a smooth, secure experience:

  • Guest account integration – Guests can log into their personal streaming accounts directly through the HUB interface. This gives them instant access to their favorite shows and movies. No need to bring extra devices or worry about complicated setups.
  • Improvements for security and privacy – The HUB automatically clears all guest credentials upon check-out to protect guest data and privacy.
  • Multi-device support – Chromecast™ powered by HUB will allow guests to use the apps on their personal devices for their viewing pleasure with a simple 3-step process.
  • Centralized control – Hotels can customize the HUB interface to align with their brand, offering guests an intuitive way to access streaming services alongside hotel-specific content like dining menus or spa bookings.

By incorporating the WorldVue HUB into your property’s technology ecosystem, you create a satisfying experience that aligns with the expectations of today’s travelers.

Upgrade Your In-Room Entertainment Experience in 2025

Streaming demand will only increase as more travelers subscribe to services like Netflix, YouTube, and Amazon Prime Video. Today’s guests don’t just want access – they expect smooth, uninterrupted streaming with no buffering.

Hotels that fail to provide a binge-worthy experience risk falling behind their competitors and upsetting guests. A well-designed Wi-Fi network and infrastructure, coupled with solutions like the WorldVue HUB, ensures guests stay satisfied, leave positive reviews, and return for future stays. Upgrading to modern technology with sufficient AP density, bandwidth provisioning, and streaming integration is no longer optional – it’s essential for staying relevant in hospitality in 2025.

For more information about how WorldVue can help your property deliver streaming-ready Wi-Fi and entertainment solutions, visit www.worldvue.com

As the smart home industry evolves, televisions are no longer just for entertainment; they now also act as the central hub for controlling smart home systems. Recently, Google highlighted the integration of Google Home with smart TVs, showcasing how this combination is set to become the central control point for future smart homes.

At CES 2025, Google and MediaTek kicked off a collaboration to build a new chipset solution for the Google Home ecosystem. This chipset will facilitate widespread adoption of Thread and enable developers to provide more robust and responsive smart home experiences for users. Known as the MT7903, this new MediaTek Filogic-branded chipset is a wireless connectivity solution integrating tri-band Wi-Fi 6E, Bluetooth 6, and IEEE 802.15.4/Thread radios.

The upcoming MT7903, slated for sampling in the first half of 2025, will make it more affordable and seamless for manufacturers to integrate Thread into their devices. Additionally, it will support the Matter standard, allowing devices from different manufacturers to interconnect and bring higher security. The new chipset also offers a low power feature called Thread border router offload, which enables the main SoC to enter sleep mode while maintaining its connection with other smart home devices, providing another step forward to achieving sustainability.

Combining Google’s focus on the smart home and MediaTek’s years of experience in the semiconductor space, this team effort ensures a bright future for Google Home and the broader smart home ecosystem.

The Impact of Wi-Fi Technology on IoT

IoT devices have evolved from simple data collectors into intelligent systems, leveraging technologies like Edge AI to process data locally. This shift has enabled faster decision-making, greater autonomy, and new functionality for various sectors, such as healthcare and industrial automation.

Central to this growth is the connectivity framework underpinning IoT ecosystems. While there are various connectivity standards like cellular networks, low-power wide-area networks (LPWAN), and wireless protocols such as Wi-Fi, Zigbee, and Z-Wave, Wi-Fi remains one of the most widely used, powering over 31% of global IoT connections.

Wi-Fi’s importance continues to grow with advancements like Wi-Fi 6E, which delivered faster speeds, lower latency, and greater energy efficiency to more than 473 million IoT devices shipped in 2023.

Now, with the rollout of Wi-Fi 7 in 2024, IoT applications will benefit from even higher performance, making it possible to support demanding use cases like advanced Edge AI processing and real-time automation. These innovations are setting the stage for the next wave of IoT growth.

Historical Development of Wi-Fi

Wi-Fi has been instrumental in the growth of IoT technology. Early IoT solutions used Wi-Fi primarily for its ubiquity, high data rate, and ease of deployment. However, these initial implementations often faced limitations like network congestion, high power consumption, and inconsistent performance in dense device environments.

Now, Wi-Fi has undergone significant evolution, transitioning from Wi-Fi 4 and Wi-Fi 5 to Wi-Fi 6, 6E, and now Wi-Fi 7. Each new generation has introduced features designed to enhance IoT performance.

Evolution of Wi-Fi Generations

Wi-Fi Generation Year Introduced Key Features
Wi-Fi 4 (802.11n)
2009
MIMO (Multiple Input Multiple Output) for improved signal reliability and range, suitable for IoT.
Wi-Fi 5 (802.11ac)
2014
MU-MIMO (Multi-User MIMO) for simultaneous connections, reducing device power consumption in IoT applications.
Wi-Fi HaLow (802.11ah)
2016
Operates in sub-1 GHz bands for long-range, low-power communication. Ideal for battery-operated IoT in industrial and agricultural settings.
Wi-Fi 6 (802.11ax)
2019
OFDMA for efficient multi-device communication, minimizing power usage. Target Wake Time (TWT) for extended IoT device battery life.
Wi-Fi 6E
2020
Access to the 6 GHz spectrum, reducing interference and enhancing IoT efficiency. Retains TWT for optimized power management.
Wi-Fi 7 (802.11be)
2024
Multi-Link Operation (MLO) for seamless multi-band communication, reducing power usage. Advanced interference management for battery-powered IoT applications.

Impact on IoT Devices

Advances in Wi-Fi technology are transforming the capabilities of IoT and enabling them to operate more efficiently. Let’s explore the impact Wi-Fi has on IoT devices:

1. Solving the Latency Challenge for Real-Time Intelligence

Low latency, or the delay in data communication, is a critical factor in edge AI applications where precision and timing are essential. Wi-Fi 7 introduces deterministic latency, a feature designed to deliver minimal delays. While not the sole solution, it provides a robust framework for applications that demand reliable, real-time performance.

For example, autonomous drones inspecting power lines or bridges can greatly benefit from these advancements. As these devices roam across coverage areas, environmental factors such as obstacles and interference may affect the performance of certain frequency bands.

Wi-Fi 7’s Multi-Link Operation (MLO) enables seamless transitions between bands, ensuring uninterrupted connectivity. This allows drones to adapt dynamically to changing conditions, maintaining reliable communication even in challenging environments.

It’s important to note that real-time performance in edge AI devices also depends on the broader ecosystem, such as optimized hardware, software algorithms, and complementary connectivity protocols. Together, these elements enable the low-latency, reliable operations demanded by modern IoT applications.

2. Enhanced Network Capacity for Dense IoT Deployments

As IoT networks become denser, especially in industrial settings, handling a large number of connected devices within the same environment is a critical challenge. Wi-Fi 6E and Wi-Fi 7 address this challenge not just through wider bandwidth channels but also through advanced technologies designed for more efficient handling of multiple devices.

While wider communication channels (160 MHz in Wi-Fi 6E and up to 320 MHz in Wi-Fi 7) help with data-heavy applications, technologies like Orthogonal Frequency-Division Multiple Access (OFDMA) and Target Wake Time (TWT) are more directly responsible for optimizing the capacity to handle many devices.

These features allow Wi-Fi networks to support simultaneous communication between numerous devices without congestion, ensuring reliable performance even in environments with high device density.

For example, in a smart city, where traffic sensors, Wi-Fi hotspots, and connected surveillance cameras operate side by side, Wi-Fi’s ability to efficiently manage this large number of devices allows for uninterrupted data flow, even during peak usage.

Similarly, industrial IoT networks, such as those in factories with autonomous robots and predictive maintenance sensors, can rely on Wi-Fi to enable real-time data sharing without compromising performance.

This shift towards greater efficiency, coupled with advancements in multi-user support and seamless coordination across devices, ensures that Wi-Fi is an ideal choice for high-density IoT deployments, particularly in urban environments.

3. Power Efficiency

Power efficiency is a critical challenge for IoT devices, especially those deployed in resource-constrained environments where battery replacement or frequent maintenance is impractical. Modern Wi-Fi advancements address this issue by introducing innovative strategies and chipsets tailored for ultra-low power consumption.

An example is Silicon Labs’ new SiWx917 ultra-low-power WiFi 6 IoT chipset, which delivers significant improvements in energy efficiency, enabling battery life of up to two years in specific IoT applications.

This chipset integrates Target Wake Time (TWT), a feature that schedules communication intervals for devices, minimizing energy use during idle periods.

By reducing unnecessary network activity, TWT optimizes the power consumption of IoT devices like environmental sensors and wearable health monitors. The SiWx917 also includes advanced features such as a Cortex-M4 processor for on-device processing, reducing reliance on external compute resources and saving additional power.

Synergy Between Wi-Fi and Other IoT Connectivity Protocols

The IoT ecosystem thrives on connectivity diversity, with each protocol carving its niche to meet the unique demands of different applications. While Wi-Fi has earned its reputation as a backbone for high-bandwidth, low-latency environments, it does not operate in isolation.

Instead, it functions as part of a multi-technology ecosystem, complementing other protocols like Zigbee, Bluetooth, cellular networks, and LPWAN to address diverse IoT challenges.

Wi-Fi and Cellular: Powering Mobile and Large-Scale IoT

Cellular technologies like LTE-M and 5G offer unmatched wide-area coverage, mobility, and the ability to keep IoT devices “on the grid.” They are essential for applications such as connected vehicles, remote asset tracking, and large-scale smart city deployments. Wi-Fi, on the other hand, excels at localized high-speed data transfer, making it an effective complement to cellular networks.

In hybrid scenarios, devices use cellular connectivity for persistent tracking and visibility, switching to Wi-Fi when available to handle large amounts of data efficiently.

Applications include:

Wi-Fi and Zigbee: Collaboration in Smart Homes

Wi-Fi IoT collaborations in smart homes

Hybrid smart home systems use Zigbee for efficient local communication and Wi-Fi for seamless internet access, ensuring robust functionality with balanced power efficiency and speed.

Zigbee, a low-power, mesh networking protocol, is a popular choice for applications requiring long battery life and reliable operation across multiple nodes, such as smart lighting and home automation systems. Wi-Fi, on the other hand, delivers the bandwidth needed for streaming video feeds from security cameras or managing cloud-connected devices.

In smart home ecosystems, hybrid solutions often leverage the strengths of both technologies. For example, a Zigbee-enabled smart thermostat might communicate locally with sensors and switches while also using Wi-Fi for remote access via a smartphone app.

Some devices act as bridges, seamlessly speaking both Zigbee and Wi-Fi to connect low-power local networks with the broader internet. This synergy balances power efficiency and high-speed data transfer, ensuring robust functionality without compromising battery life.

Wi-Fi and Bluetooth: For Proximity-Based Applications

Bluetooth is synonymous with short-range, low-power communication, making it ideal for wearable devices, beacons, and proximity-based IoT use cases. Bluetooth Low Energy (BLE) beacons have been used in retail to guide customers with personalized offers based on their location within a store. 

However, while initially touted as transformative, their adoption has been uneven. Challenges like privacy concerns, the need for dedicated apps, and competition from technologies such as Wi-Fi have limited their widespread impact. 

Even so, they remain valuable in niche retail applications, such as inventory management and targeted engagement in loyalty programs. Wi-Fi complements Bluetooth in such scenarios by supporting analytics platforms and transmitting aggregated data to centralized servers.

Wi-Fi and LPWAN: For Long-Range, Low-Power Needs

Low-Power Wide-Area Networks (LPWAN) protocols like LoRaWAN and NB-IoT excel in applications requiring long-range communication and low power consumption, such as environmental monitoring, asset tracking, and smart agriculture. These protocols are ideal for deploying IoT devices in remote areas where power sources are scarce and cellular connectivity may be unreliable. Wi-Fi integrates with LPWAN systems by acting as a gateway between localized IoT deployments and cloud platforms. 

A hybrid Wi-Fi and LPWAN (LoRaWAN) system used in smart farming applications

LoRaWAN-enabled soil sensors gather data on parameters like moisture and temperature across the field. These sensors transmit their data using low-power, long-range LoRaWAN connectivity to a central Wi-Fi gateway, strategically placed within range.

The Wi-Fi gateway processes and forwards the data to a cloud-based analytics platform via a Wi-Fi connection. This hybrid approach leverages LoRaWAN for energy efficiency and extended battery life in field sensors, while Wi-Fi ensures high-speed, reliable transmission of aggregated data for real-time decision-making and insights.

Making IoT Work with embedUR

Wi-Fi has come a long way, evolving from a simple connectivity solution to a critical enabler of modern IoT ecosystems.

With the introduction of Wi-Fi 7, network congestion, latency, and energy efficiency issues are finally being addressed, creating new opportunities for smarter, faster, and more reliable IoT applications. However, technology alone is not enough. Success in IoT depends on making all the pieces work together seamlessly.

That’s where embedUR comes in. For over 20 years, we’ve been driving innovation in IoT connectivity, building the firmware and protocols that power some of the most advanced devices in the industry.

We understand that IoT is not just about getting devices to connect—it’s about making them perform reliably in real-world conditions. Our team specializes in tackling the tough challenges of wireless connectivity, helping companies like yours bring innovative, scalable IoT products to market.

If you’re ready to move beyond off-the-shelf solutions and need a partner who knows how to make IoT work, let’s talk. embedUR can help turn your vision into reality, ensuring your products are not just ready for today’s challenges but built to lead tomorrow’s market. Did you like this post? Then you’ll love reading about all the non-data transmission uses of Wi-Fi.

BACKGROUND
According to data from Statista, from 2012 to 2022 almost 20 percent of the US workforce is employed in the industrial sector, which includes mining, manufacturing, petrochemical plants and more. While there isn’t a specific percentage for “hazardous industrial worksites,” due to varying definitions and data collection methods, it’s estimated that a significant portion of industrial workplaces could be considered to have a high level of hazardous conditions depending on the criteria used to define “hazardous.”

GOING WIRELESS
We point this out in the context of enterprise connectivity in certain conditions where going wireless is preferable–on at least a few levels, to using Ethernet CAT-X and other cabling for industrial networks. With the high-bandwidth requirements brought on by Industry 4.0 style innovations–such as IIoT connectivity and increased automation (often robotic), mission-critical connectivity becomes of paramount importance for uninterrupted, 24/7 operations.

Wireless has always been used to fill in gaps in wireline infrastructure, or as a backup in case of a cable cut. But with there is now a case to be made to consider it as the primary connection medium, especially in harsh environments.

CHALLENGES
The environmental challenges in these industrial and manufacturing facilities include intense vibrations, extreme temperature fluctuations (E.g., -20° C to more than 40°-50° C), corrosive materials, and machinery in near-constant movement. For example, vibrations in moving machinery can cause equipment fatigue resulting in mechanical and electrical failures. Deployments like these often call for special ruggedized heavy-duty cabling, sometimes requiring metal-jacketed conduits.

In these environments, CAT-X cabling can become a single point of failure that can jeopardize a plant’s smooth 24/7 operations. CAT-X cabling can deliver Gigabit-speed connections, but may not be be feasible in certain locations of these facilities. And where it is deployed, it will have a shorter lifespan from the possibilities of cable cuts and caustic substances eating away its protective sheathing. Deploying cable in these areas could result in time-consuming and costly maintenance and replacement.

THE AIRVINE ADVANTAGE
The progress we have made over the last 18 months with the Airvine WaveTunnel and WaveCore product lines now offers management a cost-effective alternative to a wired network in mission-critical industrial and manufacturing settings.

The WaveTunnel has proven itself as a robust wireless backbone that can provide point-to-point-to-point connections in a daisy chain topology in a variety of scenarios. Operating in the 60 GHz band means the WaveTunnel is basically immune to interference from other sources of wireless transmission and has abundant spectrum available to provide multi-Gigabit speeds. This is why 60 GHz equipment is sometimes referred to as “wireless fiber”. Furthermore, while 60 GHz has traditionally operated on a strictly line-of-sight basis, Airvine is the first to achieve NLOS (non line-of-sight) connectivity in 60 GHz. This feature, combined with advanced beam steering, allows the WaveTunnel to go around corners. It can be used anywhere a cable can go.

PENETRATING CONCRETE WIRELESSLY
Excitement is growing over the demonstrated capabilities and potential of the new WaveCore system, launched in September 2024. This product was designed from the ground up to penetrate concrete, brick and similar materials in floors or walls that are 12 inches thick and more. Safety and structural support involves a lot of concrete infrastructure in factories and plants. The WaveCore eliminates expensive and time-consuming drilling, permitting and inspections required to run Ethernet networks through concrete barriers.

And the WaveCore is delivering. Recent deployments have achieved a 3Gbps connection through 8” of concrete in the middle of a 54-foot link, and a 4Gbps connection through a 12” concrete wall in a garage that was in the middle of a 6-foot link. The WaveCore can do the job in multi-story factories, too, as it can penetrate concrete floors that are usually a minimum of 4-5” thick and reinforced with rebar.

WAVECORE FIELD TESTING

During our extensive field testing we were able to demonstrate the performance in a variety of set ups including 12” concrete walls and across an entire stairwell.  Click Here to see more results.

APPLICATIONS
So what kind of applications and benefits are we talking about? One top consideration pertains to worker safety: avoiding exposure to potentially dangerous chemicals and toxins when laying cable and during maintenance calls. The set-it-and-forget-it nature of the WaveTunnel and WaveCore creates an almost maintenance-free situation that will reduce downtime. In petroleum refineries, the wireless alternative presents a high-reliability option in flammable and corrosive zones.

And although not necessarily a harsh environment, food and beverage plants can benefit from Airvine wireless solutions for compliance with hygiene standards, since wireless is cleaner compared to cables.

BENEFITS
Key benefits from deploying a wireless solution from Airvine in harsh industrial settings:

  • Cost Savings: there will be a reduced need for cable repairs and replacements and there is a lower labor cost for installation and maintenance
  • Flexibility: Airvine offers a variety of options at first install and for network reconfiguration requirements to accommodate changes in a plant’s layout. It is suitable in both “brownfields” (as an overlay network or an extension to existing wired infrastructure) or “greenfields” (new construction) environments.
  • Scalability: Airvine provides seamless integration with existing industrial systems and offers a “pay as you grow” model, as it is easy to add additional units as a plant expands
  • Enhanced Reliability: referring to the “interference immunity” noted above, Airvine provides “five 9s” of reliability in harsh industrial deployments.

SUMMARY
Industrial networking requires high speed connectivity in environments that traditional cable was not designed to withstand. With caustic chemicals, moving machinery and the 24/7 nature of operation in these environments a wireless solution from Airvine offers a new, superior networking strategy.

In today’s fast-paced digital landscape, IT efficiency and security are paramount. Many federal customers are realizing Enterprise Agreement (EA) benefits while adopting Cisco solutions at scale, saving millions of dollars annually and accelerating value and innovation. Without EA, customers plan for years, unable to prioritize and execute based on budget gaps alone. How can Cisco EA, FedRAMP Artificial Intelligence integrated solutions, and Cisco’s Expert Care National (ECN) Services enhance your organizational efficiency and trust?

Cisco Enterprise Agreements: Streamlining IT Management

Cisco Enterprise Agreements offer a comprehensive approach to software licensing, designed to streamline software procurement, management, and renewal. By consolidating various software purchases into a single agreement, organizations can achieve:

  • Simplified Management: One contract means one renewal date and one set of terms and conditions, significantly reducing administrative overhead. This consolidation enables IT teams to focus more on strategic initiatives rather than managing multiple contracts.
  • Cost Efficiency: Bundling contracts under an EA often leads to considerable cost savings. Cisco recognizes prior investments, allowing further cost reductions by consolidating existing software into a single agreement. This approach can also simplify budgeting with fixed term options.
  • Scalability and Flexibility: EAs are tailored to accommodate business growth or contraction, providing flexibility in software licensing aligning with your organizational changes without constant renegotiations.

Cost Savings through Contract Bundling and Consolidation

Bundling services under Cisco’s Enterprise Agreements offers additional benefits:

  • Reducing Costs: Consolidation can lead to lower technical services fees, including Software Support Service (SWSS) and operations support, to maximize efficiency.
  • FAR Compliance: Federal Acquisition Regulations (FAR) emphasize procurement efficiency. Cisco’s approach to bundling aligns with FAR guidelines to optimize government spending, particularly through simplified acquisition procedures.

FedRAMP: Ensuring Security in Cloud Software as a Service (SaaS) Solutions

Federal Risk and Authorization Management Program (FedRAMP) is crucial for government workforce enablement, ensuring cloud services meet stringent security requirements. Here’s how FedRAMP impacts efficiency and trust:

  • Standardized Security: FedRAMP sets a security baseline for cloud services, reducing the risk of data breaches by enforcing compliance with NIST 800-53 controls. This standardization speeds up the adoption of cloud technologies while maintaining security.
  • Impact Levels: Services are categorized into low, moderate, and high impact levels, based on the potential effect on organizational operations, assets, or individuals. Understanding these levels helps in selecting appropriate cloud solutions that match your data sensitivity requirements.
  • AI Capabilities: With AI integration, FedRAMP offers support enhanced capabilities in cloud services, including advanced threat detection and automated security responses, which are pivotal for maintaining trust in cloud-based operations. Cisco SaaS Compliant Product Availability may be a helpful roadmap reference for interested customers.

Expert Care National Services: Enhancing Operational Efficiency

Cisco’s Expert Care National Services complement the trust established by FedRAMP and the efficiency of Cisco EA Services by providing:

  • Centralized Support: Providing a unified support experience across Cisco’s broad portfolio of products and services, resolving complex issues up to 55% faster than traditional product-specific support models, delivered by local citizens with local data storage.
  • Proactive Management: Through Cisco CX Cloud, organizations gain insights and analytics that improve asset management efficiency by 96%, ensuring that IT infrastructure is always aligned with business needs.

Alignment with Cisco Enterprise Agreements, FedRAMP compliance, and Cisco’s Expert Care National Services creates a robust framework for enhancing IT operations efficiency and trust. By leveraging these programs, organizations not only ensure compliance with federal standards but may also benefit from significant cost savings and operational agility. For those looking to transform their IT landscape, these options represent a strategic path forward, ensuring both security and efficiency in an increasingly digital world.

Call your Cisco account team today or contact us to validate which EA best fits your requirements and accelerate your IT efficiency!

Thanks to our partners and customers for making 2024 another productive year!  One of the highlights of the year was the honor of receiving CRN 2024 Tech Innovator Awards for TWO of our products!

  • Our range-topping WiFi 7 access point, WBE660S was selected as the winner in the Wireless Networking category. WBE660S was one of the first tri-band 4×4 WiFi 7 access points released into the market, reflecting our commitment to provide our partners early access to the latest technology.
  • USG FLEX 700H won the Network Security for SMB category!  Our new top-of-the-range H-series was recognized as a cutting-edge firewall that meets customer needs and creates new opportunities for solution providers.

Additionally, CRN recognized our multi-gigabit PoE switch, XMG1930-30HP, as a 2024 Tech Innovator Awards finalist in the SMB Networking category. Combining multi-gigabit with 10 Gigabit and high-wattage PoE, this switch is perfect for customers that need ultimate speed combined with a large PoE budget.

This year, we introduced several more innovative solutions that address these demands to enhance the performance and security of SMB networks:

  • Our most affordable Multi-Gig Smart Managed Switches, the XMG1915 series, include Power Over Ethernet models to drive our WiFi 7 access points.  Multi-gigabit and WiFi 7 make a perfect pairing for high-performance applications.
  • We also introduced our most affordable WiFi 7 Access Point, NWA130BE.  This tri-band 2×2 BE11000 access point makes WiFi 7 an easy choice for small businesses.
  • Our all-in-one security router for SMB, USG LITE 60AX AX6000 WiFi 6 Security Router, is a cloud-managed router that combines blazing fast WiFi 6 speeds and best-in-class threat management. Zyxel’s Smart Mesh technology allows USG LITE 60AX to form dynamic wireless links between Zyxel Nebula access points to provide extended coverage and flexible deployment.

Our dedication to the channel and our partners in 2024 was evidenced by the expansion of our business into Canada and the receipt of a couple of industry honors by CRN:

Not only was the industry media singing our praises, but we also produced some very interesting case studies featuring solution providers and their customers who revealed how Zyxel helped them to solve challenging networking problems.

  • Zyxel Nebula solves public WiFi challenge – TCG Tech shared how a Nebula solution comprised of Zyxel WAX655E WiFi 6 access points, XGS2220 series Gigabit Ethernet L3 access switches, and USG FLEX 700H Firewalls enabled them to provide public WiFi at the site of the world’s largest livestock exhibition and rodeo.
  • Zyxel products deliver high-speed Internet in Minneapolis – US Internet discussed how they are using more than 12,000 Zyxel switches and 2,500 Zyxel outdoor access points to provide reliable city-wide high-speed internet service.

As we wrap up an exciting year marked by lots of innovation, we want to thank our partners and customers for choosing to work with us!  We look forward to working with you to help you grow your business, increase your revenues, and strengthen your relationships with your customers!

As wireless communications continue to evolve, the demand for devices that can support multiple protocols simultaneously has grown significantly. This capability, known as concurrent multiprotocol (CMP), allows devices to operate across different wireless standards at the same time, increasing their versatility and adaptability. CMP is a benefit because while devices can traditionally handle multiple protocols, this often requires incorporating multiple radio ICs. CMP simplifies this by enabling devices to achieve the same functionality with just a single radio IC, making it more cost-effective for developers. In this blog, we will dive into the concept of CMP and examine the distinctions between CMP – single channel, CMP with concurrent listening, and CMP with Bluetooth Low Energy (LE) Dynamic Multiprotocol (DMP).

 

Concurrent Multiprotocol CMP: Single Channel

CMP allows a device to support multiple wireless protocols simultaneously that are based on the same IEEE 802.15.4 standard, such as Zigbee and Thread.

By sharing the 802.15.4 PHY and MAC layers, and with Zigbee and Thread operating on the same channel, this feature enables the device to concurrently receive Zigbee or Thread packets using a single radio (and no time slicing). It achieves the differentiation between the protocols through the unique PANID associated with each protocol stack, a functionality referred to as the Multi-PAN feature.

The key advantage of CMP lies in its simplicity and ability to operate on multiple networks with no decrease in performance other than medium congestion.

Concurrent multiprotocol cmp single current
  • Ability to support multiple IEEE 802.15.4 protocols such as Zigbee and Thread operating on the same channel
  • True concurrency (no time slicing)
  • Rx frames differentiated by PAN IDs
  • Channel access managed by normal 802.15.4 CSMA-CA
  • Functional in SoC, (selective) NCP and RCP modes

 

Concurrent Multiprotocol with Concurrent Listening

Concurrent multiprotocol with concurrent listening takes the concept a step further by allowing the device to support multiple wireless protocols operating on independent channels simultaneously.

With the radio rapidly switching between the two operating channels (in the order of tens of microseconds) to detect incoming packets, CMP with concurrent listening allows the device to concurrently listen for Zigbee and/or Thread packets on their respective channels using a single radio and no blocking window.

This is particularly useful in scenarios where a single device needs to be a part of two separate mesh networks operating on different channels. For example, with concurrent listening, a central hub in a smart home environment, that is part of multiple mesh networks can simultaneously monitor signals from various sensors, ensuring timely and precise responses to events such as motion detection or temperature changes. Another key advantage of concurrent listening is its seamless extension to the single channel case (discussed above).

This approach requires more sophisticated hardware and software, with the tradeoff of slightly reduced Rx sensitivity.

Concurrent multiprotocol with concurrent listening
  • Ability to support multiple IEEE 802.15.4 protocols such as Zigbee and Thread operating on different channels
  • Rapid switching between two operating channels
  • RX frames differentiated by PAN IDs
  • Channel access managed by normal 802.15.4 CSMA-CA
  • Functional in SoC and RCP modes

 

Example of Concurrent Multiprotocol with Concurrent Listening:

Concurrent multiprotocol an in depth exploration 3
  • Device rapidly switches between the two operating channels every 48 us
  • When a valid 802.15.4 preamble is detected
    • Stays on channel to receive the entire packet
    • Checks to see if it is a valid packet for the network and device
    • Transmits acknowledgement (if required)
  • Switches to the next channel and repeats the process

 

Concurrent Multiprotocol with Bluetooth LE Dynamic Multiprotocol

Concurrent multiprotocol with concurrent listening when combined with Dynamic Multiprotocol (DMP) allows support for three protocols such as Zigbee, OpenThread and Bluetooth LE simultaneously.

It extends the same concept of dynamic multiprotocol support with Bluetooth LE (in a single protocol case such as Zigbee) to a concurrent multiprotocol case (supporting both Zigbee and Thread), where you do not shutdown or de-initialize the entire protocol stack; instead, you keep running a separate (in this case, a third) protocol stack such as Bluetooth LE through time-slicing or time-sharing, where the device would allocate specific time slots for the Bluetooth LE connection.

By periodically swapping the Bluetooth LE PHY with the 802.15.4 PHY, it allows Bluetooth LE connections to remain active, and at the same time stay connected on the Zigbee and Thread networks. This allows the node to respond to either a command via Zigbee, Thread, or Bluetooth.

With a single radio supporting three protocols, careful management of the DMP configuration based on the application requirements becomes critical to ensure optimum performance.

Concurrent multiprotocol an in depth exploration 4
  • Extends Bluetooth LE DMP to concurrent multiprotocol
  • Bluetooth LE continues to operate in time-sliced DMP mode, interrupting CMP (Zigbee + Thread) as needed.
  • With concurrent listening enabled (for Zigbee and Thread to operate on separate channels), the radio rapidly switches between the two 15.4 channels, while switching to Bluetooth LE channel as configured.
  • Does not impact BLE performance (if Bluetooth LE is set as a higher priority)

 

Current Offerings

Concurrent Multiprotocol – Single Channel

Concurrent multiprotocol an in depth exploration 5
  • Enables Zigbee and Thread support on the same 15.4 channel
  • Optionally supports Bluetooth LE in DMP mode
  • Supported in RCP mode (on Series-1) and SoC, NCP, and RCP modes (on Series-2)

 

 

Concurrent Multiprotocol with Concurrent Listening

Concurrent multiprotocol an in depth exploration 6
  • Enables Zigbee and Thread support on separate 15.4 channels
  • Optionally support Bluetooth LE in DMP mode
  • Supported only on Series-2 in RCP (MG21 and MG24) and SoC mode (MG26 – with Matter integrated)

Combining CMP technology with DMP solutions provides versatile options to address the varied demands of modern wireless communication systems. The choice between these approaches depends on the specific needs of your application.

For scenarios where simplicity and strict concurrency without compromising Rx sensitivity are critical, the CMP in a single-channel setup may suffice. In contrast, applications requiring support for separate 15.4 channels in wireless mesh networks may benefit from CMP with concurrent listening. Lastly, for applications demanding maximum flexibility, including support for Bluetooth LE alongside 15.4 mesh networks, CMP with Bluetooth LE DMP is the optimal choice.

By understanding these approaches and their distinctions, you can make an informed decision to select the most suitable technology, ensuring superior performance and reliability for your application.

Cisco is powering the world’s most connected venues 

In recent years, there has been a significant increase in the need for robust and reliable high-speed Wi-Fi in sports and entertainment venues. Wi-Fi networks offer numerous opportunities to enhance both the attendee experiences and drive operational efficiencies for venues, but they also present challenges. It is crucial to deploy a Wi-Fi network that can meet the growing expectations of fans while keeping the total cost of ownership in check.  

Here are some of the opportunities that Wi-Fi networks bring to sports and venues:  

Enhanced Guest Experience 

More than 82% of sports fans say they use their mobile phones in some way while at a live professional sporting event.  Keeping fans connected and engaged by delivering a more convenient and customized fan experience through technology is essential in today’s event experience. The in-venue experience needs to compete with an ever-more-attractive at-home viewing experience. Fans expect a seamless mobile ticketing entrance, the ability to check fantasy and sports betting applications in real-time, and an easy social media sharing experience. Furthermore, interactive services like ordering food, wayfinding maps, real-time replays, and merchandise promotions add a level of personalization that guests value and keeps them coming back.   

Operational efficiency and lower total cost of ownership

Innovative Wi-Fi networks bring significant benefits to venues by enhancing operational efficiency and reducing the total cost of ownership (TCO). With its improved data speeds, increased capacity, and lower latency, the technology’s ability to handle a higher density of devices ensures smooth operations during large events, minimizing downtime and improving customer experience. Additionally, energy-efficient designs reduce power consumption, helping stadiums lower operational costs in the long term. By providing faster troubleshooting, more seamless device management, and the ability to support a broader range of IoT devices, enhanced Wi-Fi networks enable stadiums to optimize their infrastructure and reduce maintenance expenses, while delivering a superior, modern experience for everyone. 

Increased revenue and business growth

Wi-Fi networks offer new opportunities for monetization, such as digital advertising and promotions based on user data. The NFL’s 32 teams generated an estimated $2.35 billion in sponsorship revenue last season which was up 15% YoY. As the game day experience continues to evolve with technology so does the opportunities for sponsorable assets and content.

Wi-Fi 6E

Our best-in-class portfolio has been supporting successful deployments in sports, media and entertainment for more than 15 years.  Beyond just wired and wireless networking, we offer collaboration tools, comprehensive cybersecurity, and management solutions that deliver enhanced insights and automation. This ensures a more secure, consistent, and scalable infrastructure that is easier to manage, more flexible, and more resilient than ever before. 

We just added to our portfolio a Wi-Fi 6E solution tailored for high-performance in sports and entertainment venues. Our access points leverage Wi-Fi 6E technology with versatile hardware options to suit various venue configurations. 

  • Catalyst IW9167E-STA Heavy Duty Access Point: Equipped with a Wi-Fi 6E 75° wide beam outdoor directional panel antenna, perfect for handrails and short-distance overhead deployments. 
  • Catalyst IW9167E-STA2 Heavy Duty Access Point: Features a Wi-Fi 6E 35° narrow beam outdoor directional panel antenna, ideal for mid to long-range deployments. 
  • Catalyst IW9167I Heavy Duty Access Point: Comes with a Wi-Fi 6E omni-directional antenna, suitable for areas near seats or where overhead mounting is limited. 

The Denver Broncos have implemented our Wi-Fi 6E solutions stadium-wide, enabling faster internet for fans to follow games, share images, videos, and more during events. 

Learn more about our solution here.

Bangkok, Thailand – December 9, 2024 – Wi-Fi Alliance® and Faculty of Medicine Ramathibodi Hospital, Mahidol University successfully completed a seven-month long pilot trial that showcased 6 GHz Wi-Fi® technologies that will transform the future of healthcare. This project demonstrates that full band 6 GHz (5925-7125 MHz) availability sets the foundation for healthcare facilities across the region and world to modernize healthcare services and adopt advanced Wi-Fi technologies that improve user experience and operational efficiency at their facilities. Unlocking the entire 6 GHz band will not only benefit hospitals and healthcare facilities but will also offer many advantages for other industries in countries awaiting regulatory and policy decisions around 6 GHz unlicensed use.

Faculty of Medicine Ramathibodi Hospital and Wi-Fi Alliance – along with Wi-Fi Alliance member partners Hewlett Packard Enterprise, Intel, and Meta –presented the results of the pilot trial that underscored full band 6 GHz Wi-Fi’s value in enhancing teaching and learning capabilities to doctors and medical students. Full band 6 GHz was fully integrated with the hospital’s curriculum and offered performance insights from medical students and faculty that used advanced connectivity technologies in a dense environment for medical training and  educational purposes.

“Wi-Fi Alliance is delighted to see clear and conclusive results demonstrating the significant impact of 6 GHz Wi-Fi in healthcare settings, and to emphasize the broader potential to transform other industries wherever the full 6 GHz band is available to Wi-Fi,” said Kevin Robinson, President and CEO, Wi-Fi Alliance. “Today’s Wi-Fi delivers unmatched performance and reliability, and this successful trial further underscores how Wi-Fi can transcend boundaries and offer secure, economical, high-performance connectivity across numerous applications, industries, and regions.”

“We are proud to welcome our partners from the WiFi Alliance and stakeholders such as the NBTC and the USTDA, along with our esteemed member partners Hewlett Packard Enterprise, Intel, and Meta. Together, we are here to explore the potential of advanced Augmented Reality and Virtual Reality applications in healthcare settings enabled by the unprecedented capabilities of 1200 MHz spectrum in the 6 GHz band. We will also facilitate insightful discussions with healthcare industry leaders, regulators, and innovators. Their expertise will provide us with the broader context necessary to understand the implications of integrating these technologies across the healthcare landscape.” – Clinical Professor Artit Ungkanont, M.D., Dean at Faculty of Medicine Ramathibodi Hospital, Mahidol University

“During this workshop, we are proud to share the pilot results, demonstrating our readiness to lead in this innovation. Collaboration is a cornerstone of driving a paradigm shift in Thailand’s healthcare services and medical education. This project will foster the growth of telemedicine, immersive medical training, research development, and improved patient engagement, all powered by the cutting-edge capabilities of Wi-Fi 6E technology.” – Assistant Professor Sithakom Phusanti, M.D., Assistant Dean for Policy and Planning and Team Lead of the Wi-Fi 6E Technology Projects in Healthcare and Education at the Faculty of Medicine, Ramathibodi Hospital

Key takeaways from the pilot trial include:

  • Using full band 6 GHz, hospitals and healthcare facilities can reduce network congestion and support advanced AR/VR technologies while ensuring stable and fast connections crucial for real-time medical applications and data-intensive trainings.
  • Full band 6 GHz is critical for maintaining an optimal user experience for high network loads.
  • Unlicensed use of full band 6 GHz for Wi-Fi is needed for Ramathibodi Hospital – and the Thailand healthcare industry overall – to maintain a leadership position in medical education and care in Southeast Asia.
  • The latest Wi-Fi innovations in Wi-Fi 6E and Wi-Fi 7 are fully capable of delivering efficient, robust, and reliable service across diverse market segments, provided regulatory decisions enable this critical spectrum access.

Earlier this year, a demonstration – 6 GHz Wi-Fi in healthcare: the future of AR/VR use cases for medical applications highlighted two deployment scenarios using only the three 160 MHz channels available in the lower 500 MHz of the 6 GHz band (lower 6 GHz band) versus the seven channels available in the full 1200 MHz of the 6 GHz band (full band 6 GHz). The demonstration was a limited deployment of 6 GHz on Ramathibodi Hospital’s network whereas the most recent pilot trial fully integrated 6 GHz in an active classroom with 200 medical students and faculty using the same deployment scenarios.

At the end of the pilot trial:

  • User experience satisfaction ratings were obtained from students and faculty that showed a three-time improvement for using full band 6 GHz compared to only the lower 6 GHz band.
  • Data collected over the course of the pilot trial showed more than a two-time increase in network data throughput and more than a five-time reduction in latency when using full band 6 GHz versus the lower 6 GHz band.
  • The pilot trial underscored the criticality of effectively using the available seven 160 MHz channels in the full 6 GHz band which significantly improves network data throughput while reducing network latency delays, two key metrics for improving user experience and maximizing network efficiency.

“HPE Aruba Networking is proud to have partnered with Wi-Fi Alliance and Ramathibodi Hospital to showcase the transformative potential of 6 GHz Wi-Fi in healthcare. By leveraging the full 1200 MHz of the 6 GHz band, we can empower healthcare institutions to deliver superior patient care, facilitate cutting-edge medical research, and optimize operational efficiency. This initiative demonstrates what can be achieved with access to the unlicensed use of the full 6 GHz band and showcases Thailand’s position at the forefront of healthcare technology.” – Prakun Laohakittikul, Country Manager, HPE Aruba Networking Thailand

“As a participant in this groundbreaking initiative, Intel recognizes the transformative potential of 6 GHz Wi-Fi in shaping the future of healthcare and beyond. We firmly believe that strategic spectrum allocation, ensuring technology neutrality between licensed and unlicensed use, is key to unlocking innovation. This successful collaboration highlights the critical importance of unlicensed access to the full 6 GHz band, which is essential for enabling high-performance connectivity, fostering technological advancements, and ultimately driving Thailand’s economic and social prosperity.” – Worapat Patram, Senior Director, Government, Policy and Trade, APJ, Intel Corporation

“Meta is humbled and excited to have been a key part of this “Industry First” trial showcasing the clear benefits of entire 1200 MHz spectrum versus just the lower 500 MHz portion. Based on the quantified user feedback received from this trial about difference in user experiences between two scenarios, it was very evident that we need the entire 1200 MHz spectrum to enable the immersive future of healthcare and education. Being able to provide both a theoretical analysis and following up with an actual deployment showcasing the difference provides convincing evidence of the need and benefit of allocating the full 6 GHz band for Wi-Fi.” – Djordje Tujkovic, Sr. Director and Head of Wireless in Reality labs, Meta

Additional support for this project has been provided by The National Broadcasting and Telecommunications Commission (NBTC) and United States Trade and Development Agency (USTDA).

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.

About Ramathibodi Hospital
The Faculty of Medicine Ramathibodi Hospital, Mahidol University has a long-standing tradition of providing top-notch medical care. With a dedicated team of highly skilled healthcare professionals, the hospital offers a wide range of specialized services, from general practices to complex medical procedures. The institution’s unwavering commitment to patient-centered care ensures that each individual receives the highest standard of treatment in a compassionate and supportive environment. As a hub of medical research and innovation, the institute’s state-of-the-art research facilities and collaborative environment foster groundbreaking studies in various fields, including genomics, regenerative medicine, and public health.

The Chakri Naruebodindra Medical Institute was established to advance medical education and innovation. Officially inaugurated in December 2017 in Bangplee, Samutprakarn, CNMI spans over 100 acres, serving as a state-of-the-art medical institute dedicated to fostering academic excellence and supporting the education of medical students. Renowned for its comprehensive and progressive educational programs, the institute offers a diverse range of undergraduate, graduate, and postgraduate courses aimed at cultivating the next generation of healthcare professionals. By integrating advanced technologies, including augmented reality (AR) and virtual reality (VR), into its clinical anatomy curriculum, CNMI provides students with practical, immersive learning experiences in a controlled environment, ensuring they are well-prepared for real-world medical challenges.