The Architecture of Immersive Streaming and Volumetric Video

The defining characteristic of broadcasting media tech 6G era is the move toward fully immersive content. While 4K and 8K video provide incredible detail, they are still two-dimensional projections. 6G will enable “volumetric video” content that is recorded in three dimensions and can be viewed from any angle. Imagine watching a football match where you can virtually walk onto the field and stand next to the quarterback, or a concert where you can fly through the crowd. This requires a massive leap in data throughput, far beyond the capabilities of 5G. 6G, with its potential for Terabit-per-second speeds, will allow these massive 3D data files to be streamed in real-time to holographic displays or advanced AR/VR headsets, providing a level of realism that is currently only possible in the highest-end film production studios.

AI Content Production and the Automation of Creativity

At the same time that the delivery of content is being revolutionized, the production of content is undergoing its own AI-driven transformation. In the broadcasting media tech 6G era, artificial intelligence will be integrated into every stage of the creative process. AI production tools will be able to handle the labor-intensive tasks of video editing, color grading, and even character animation, allowing creators to focus on the high-level vision. Furthermore, AI can generate “personalized” versions of a broadcast in real-time. For a global sporting event, the AI could automatically generate commentary in dozens of languages, adjust the camera angles based on individual viewer preferences, and even insert targeted advertisements that are seamless parts of the virtual environment. This level of AI content production ensures that media is more relevant, engaging, and accessible than ever before.

Edge Content Delivery and the End of Buffering

To support the massive data requirements of immersive media, the distribution network must be completely redesigned. The traditional model of a few central data centers serving a global audience is no longer viable. Broadcasting media tech 6G era will rely on edge content delivery, where the processing and storage of media are moved to the extreme edge of the network often within the same neighborhood or even the same building as the viewer. By caching content closer to the user and utilizing the “intelligent reflecting surfaces” of 6G architecture, broadcasters can ensure that even the most complex 3D streams are delivered with near-zero latency. This means an end to buffering and a level of responsiveness that allows for true “interactive” broadcasting, where the viewer’s actions can influence the live stream in real-time.

Next Generation Broadcasting and the Rise of Holographic Displays

One of the most anticipated breakthroughs of the 6G era is the perfection of holographic display technology. For decades, holograms have been a staple of science fiction, but the technical requirements for realistic, mid-air 3D images have remained elusive. Broadcasting media tech 6G era provides the missing pieces of the puzzle: the bandwidth to transmit the data and the low latency to synchronize it. In this future, the “screen” as we know it may disappear entirely, replaced by volumetric displays that project 3D images into the center of a room. This will revolutionize everything from news broadcasting where a reporter could appear to be standing in your living room to education, where students can interact with 3D models of historical artifacts or scientific phenomena as if they were physically present.

Digital Media Innovation and the Convergence of Gaming and Media

The 6G era will witness the final convergence of the gaming and broadcasting industries. We are moving toward a world of “persistent virtual environments” where a live broadcast and a multiplayer game are one and the same. For example, a popular science fiction series could be broadcast as a live event within a virtual world, with millions of viewers participating as characters in the story. This level of digital media innovation requires a network that can handle both the high-bandwidth requirements of 8K video and the low-latency requirements of interactive gaming simultaneously. 6G is the only technology capable of providing this “dual-use” connectivity, enabling a new genre of interactive entertainment that is part-movie, part-game, and entirely immersive.

The Role of 6G in Live Events and Remote Production

The logistics of live broadcasting from awards shows to political conventions are notoriously complex and expensive. Broadcasting media tech 6G era will simplify these operations through “remote production.” With the high-speed and ultra-reliable connectivity of 6G, the dozens of cameras and microphones at a stadium can send their raw signals directly back to a central production hub thousands of miles away. This eliminates the need for massive “outside broadcast” (OB) vans and allows a single production team to manage multiple events simultaneously. This efficiency not only reduces costs but also significantly lowers the carbon footprint of the media industry, as there is less need to transport equipment and personnel around the world for every event.

Addressing the Challenges of Privacy and Content Integrity

As media becomes more immersive and AI-driven, the challenges of privacy and content integrity become more urgent. In the broadcasting media tech 6G era, the ability to create “deepfakes” hyper-realistic but entirely fake videos will reach a point where it is almost impossible for the human eye to detect the difference. This makes the verification of content a critical component of next generation broadcasting. Blockchain technology may play a key role here, providing a transparent and immutable record of a video’s origin and any edits that have been made to it. Furthermore, as the network becomes aware of the viewer’s physical environment and emotional state to optimize the immersive experience, protecting the privacy of this personal data must be the highest priority for the media industry.

Building the 6G-Ready Media Organization

The transition to the 6G era will be a period of intense competition and creative disruption. The media organizations that succeed will be those that view themselves as technology companies as much as storytellers. This requires a commitment to investing in 6G media technology and upskilling the workforce to work with AI production tools and 3D design software. The future of media is not just about what we see on a screen, but about the total sensory experience that a broadcaster can provide. By embracing the possibilities of the 6G era, the media industry can create a new world of wonder and information that is more inclusive, more interactive, and more impactful than anything we have seen before.

Key Takeaways:

1. 6G technology will enable a move from 2D video to fully immersive, volumetric content that can be streamed instantly, bridging the final gap between the digital and physical worlds.
2. The integration of AI into every stage of the production process will democratize creativity and allow for a level of personalized content delivery that was previously unimaginable.
3. Edge delivery and holographic displays will redefine the physical experience of media, turning traditional broadcasting into a seamless, interactive sensory journey.

The Architecture of AI Native Networks and Autonomous Connectivity

A primary differentiator of the sixth generation of wireless technology is the shift toward AI native networks. In the 5G era, artificial intelligence is an external tool used to optimize specific network functions. In the 6G world, intelligence is the very foundation of the architecture. Every node, switch, and transmitter in a 6G environment will possess inherent machine learning capabilities. This allows the network to be entirely self-organizing and self-optimizing. It can predict user movement, anticipate data surges, and even reconfigure its own physical parameters to ensure that every user receives a consistent, high-quality connection regardless of their location. This level of advanced connectivity is essential for the next wave of industrial automation, where millions of sensors and robots must communicate with zero latency and absolute reliability.

Exploring the Terahertz Frontier and Spectrum Management

To achieve the staggering data rates promised by 6G with targets as high as 1 Terabit per second the industry is looking toward the Terahertz (THz) spectrum. This high-frequency range offers vast amounts of bandwidth but comes with significant physical challenges. THz waves have a very short range and are easily blocked by objects as simple as a human hand or a raindrop. Overcoming these hurdles requires revolutionary spectrum management and antenna design. 6G innovation future telecom networks will likely utilize “intelligent reflecting surfaces” materials that can be applied to buildings and walls to steer signals around obstacles. By turning the physical environment itself into part of the network, engineers can ensure that high-frequency signals reach their destination with minimal loss, providing the “omnipresent” coverage that 6G demands.

The Evolution of Telecom Infrastructure and Edge Computing

The physical manifestation of 6G technology will differ significantly from the cell towers we see today. The future will be defined by a massive densification of the network, with small cells integrated into everything from street lamps to domestic appliances. This distributed telecom infrastructure will also serve as a decentralized computing platform. By moving processing power to the extreme edge of the network, 6G eliminates the delay caused by sending data to distant data centers. This is the key to achieving the sub-millisecond latency required for holographic telepresence where high-resolution 3D images of people appear to be physically present in a room and for the real-time coordination of thousands of autonomous vehicles in a complex urban environment.

Wireless Innovation and the Convergence of Sensing and Communication

One of the most profound aspects of 6G innovation future telecom networks is the concept of “joint communication and sensing.” In this model, the wireless signals used for data transmission also act as a high-resolution radar system. The network itself becomes aware of the physical objects within its coverage area, mapping the environment in three dimensions with incredible precision. This allows the network to “see” without the need for cameras, identifying a person falling in a smart home or a vehicle approaching a blind corner. This synergy between communication and environmental awareness will drive a new generation of healthcare and safety applications, where the connectivity infrastructure itself acts as a silent guardian, monitoring our well-being and protecting us from harm.

Global Standards and the Geopolitics of Next Generation Telecom

The journey toward 6G is not just a technical challenge; it is a complex geopolitical and regulatory endeavor. Establishing a single global standard for 6G is essential to ensure that a device purchased in Tokyo works seamlessly in New York or London. However, as telecommunications becomes a core component of national security and economic sovereignty, the competition to define these standards has intensified. International cooperation is required to manage spectrum allocation and to ensure that the benefits of 6G technology are shared across the globe, preventing a “digital divide” that could leave developing nations behind. The policy decisions made in the next few years will shape the digital landscape for the remainder of the century, determining how we connect, trade, and govern in a hyperconnected world.

Security by Design and the Post-Quantum Challenge

As we entrust more of our personal and professional lives to the network, the importance of security becomes existential. 6G innovation future telecom networks must be built with a “security by design” philosophy that addresses both current and future threats. With the potential arrival of quantum computing, traditional encryption methods may soon become obsolete. Therefore, 6G researchers are exploring “quantum-resistant” cryptography and physical layer security to ensure that data remains private even in the face of unprecedented computational power. In a world where the network is aware of our physical location and even our physiological state, protecting the privacy and integrity of this data is the most critical challenge facing the telecommunications industry.

The Internet of Senses and the Future of Human Interaction

Looking ahead, 6G will enable the “Internet of Senses,” where high-fidelity haptic feedback, smell, and even taste can be transmitted digitally. This will revolutionize everything from remote education to the way we shop. Imagine being able to “feel” the fabric of a garment before buying it online, or a surgeon being able to “sense” the resistance of tissue while performing an operation on a different continent. This level of immersion will blur the lines between physical and digital presence, allowing us to be “anywhere” at “any time.” While the social and psychological implications of this shift are profound, the potential to bring the world closer together and to solve complex problems through remote collaboration is limitless.

Sustainable Connectivity and the Green 6G Movement

Finally, the development of 6G must be balanced with the urgent need for environmental sustainability. A network of billions of devices could potentially consume a staggering amount of energy. To prevent this, the “Green 6G” movement is focusing on ultra-low-power hardware and AI-driven energy management. By using machine learning to power down network components when they are not in use and by exploring energy-harvesting technologies that allow sensors to run without batteries, 6G can become the most energy-efficient generation of wireless technology yet. This commitment to sustainability ensures that the future of telecom networks is not only faster and smarter but also compatible with the long-term health of our planet.

Key Takeaways:

1. 6G is an AI-native architecture that integrates intelligence at every level to create a self-healing, self-optimizing global network.
2. The use of the Terahertz spectrum and intelligent reflecting surfaces will provide the bandwidth and omnipresence required for holographic communication and the Internet of Senses.
3. The convergence of sensing and communication allows the network to map the physical world in real-time, enabling revolutionary safety, health, and industrial applications.

The Ministry of Science and Technology has, as a matter of fact, issued licenses for fixed as well as mobile satellite telecommunications services, along with the authorization to use radio frequencies as well as equipment. But as far as an official commercial launch date is concerned, it is yet to be announced.

Starlink Services Vietnam Co., Ltd., which is the local entity established by SpaceX, is authorized to go ahead and roll out four gateway stations as well as almost 600,000 user terminals across the country at the initial pilot phase.

This kind of cap will most likely ensure effective management when it comes to radio frequency resources while at the same time maintaining regulatory oversight.

The approval of Starlink satellite internet service in Vietnam happens to be based on a controlled pilot model that enables SpaceX to invest in as well as operate satellite telecommunications services throughout Vietnam, subject to national defense as well as security needs.

Notably, this pilot program is going to last five years from the date the company starts getting its full telecommunications business license and should end before January 1, 2031.

It is worth noting that satellite internet services are anticipated to complement the present terrestrial networks of Vietnam, especially in remote, mountainous border areas along with island areas where the traditional infrastructure is very scarce.

Local authorities also go on to view satellite connectivity as a significant backup during natural disasters, because that’s when the ground-based systems get disrupted.

The decision indeed marks a major step in the digital development of Vietnam, said the experts, as its effect on the domestic telecom market may as well be pretty limited because most areas happen to be already covered. Rather, satellite internet is regarded as a useful addition that actually enhances the network dependability and also widens the access where required.

Interestingly, Vietnam has gone on to build one of the most dynamic internet markets that exists in Southeast Asia, with internet penetration going beyond three-quarters of the population and mobile connectivity offering the primary access channel for most of the users.

Urban areas also have widespread fiber-optic broadband connectivity and 4G coverage, whereas the 5G services are getting gradually expanded throughout major cities.

The digital transformation strategy of the country has indeed made telecommunications infrastructure a national priority, which supports e-government and e-commerce along with the broader digital economy.

Viettel, VNPT as well as MobiFone, which are the major domestic operators, dominate the market and have invested heavily in fiber-to-the-home networks along with nationwide mobile coverage. Due to this, even the most populated areas have quite dependable internet access, and that too at competitive speeds.

But connectivity gaps do remain in remote mountainous terrains and border areas, as well as offshore islands, where rolling out terrestrial infrastructure is expensive as well as technically a steep task.

Vietnam also depends pretty heavily on undersea fiber-optic cable systems when it comes to international bandwidth, which are occasionally disrupted due to faults or maintenance, therefore affecting the connection speeds.

In this regard, satellite internet services are indeed viewed as a complementary solution so as to enhance resilience and at the same time extend coverage throughout hard-to-reach areas.

The partners successfully completed a commercial call over a Tier 1 US operator’s live network using Samsung’s virtualised RAN software platform running on Intel’s Xeon 6700P-B processor series. The deployed system ran on a commercial off-the-shelf (COTS) server from Hewlett Packard Enterprise (HPE) and used a cloud platform from Wind River.

The demonstration highlighted how compute-intensive network functions, which in the past required dedicated hardware, can now be virtualised and consolidated on a single server. By running RAN and AI workloads together on Intel Xeon 6 processors with up to 72 cores, Samsung’s RAN virtualisation solution enables operators to meet the performance demands of the mobile edge without impacting either function.

The server consolidation also creates a path for operators to significantly reduce CAPEX and OPEX by reducing server count, as well as minimising power consumption and simplifying site operations. The solution also contributes to the network sustainability efforts of operators as they modernise their networks from proprietary hardware to software-defined infrastructure.

The live deployment builds on Samsung’s earlier 2024 lab testing and confirms the readiness of single-server vRAN under real-world traffic conditions.

“This breakthrough represents a major leap forward in network virtualisation and efficiency. It confirms the real-world readiness of this latest technology under live network conditions, demonstrating that single-server vRAN deployments can meet the stringent performance and reliability standards required by leading carriers,” said June Moon, Executive VP and Head of R&D, Networks Business at Samsung Electronics.

The system used Intel Xeon 6 system-on-chip technology with Intel Advanced Matrix Extensions and Intel vRAN Boost, enabling higher AI processing performance and improved memory bandwidth compared with earlier platforms.

“This collaborative achievement with Samsung, HPE and Wind River enables greater consolidation of RAN and AI workloads, lowering power and total cost while speeding innovation,” said Cristina Rodriguez, VP and GM, Network & Edge at Intel.

Industry analysts view the milestone as evidence that virtualised and open network architectures are moving from theory to deployable reality. While broader rollouts will still require careful integration and resilience planning, the demonstration shows that operators can now support cloud-native, AI-ready networks with fewer physical servers.

The launch follows a significant AWS outage in October that disrupted thousands of websites and widely used applications, including Snapchat and Reddit. Analytics firm Parametrix estimated the business impact at between 500 million and 650 million dollars. The new service combines AWS Interconnect Multicloud with Google Cloud’s Cross-Cloud Interconnect to improve interoperability between the two infrastructures. “This collaboration between AWS and Google Cloud represents a fundamental shift in multicloud connectivity,” said Robert Kennedy, vice president of network services at AWS.

Rob Enns, vice president and general manager of cloud networking at Google Cloud, said the initiative is aimed at streamlining how customers move data and applications between platforms. “It is about giving users flexibility and resilience without the complexity of managing multiple separate systems,” he explained. Salesforce is among the early adopters of the approach, according to Google Cloud. The companies expect the multicloud connectivity service to appeal to enterprises that operate with more than one cloud provider for reasons related to redundancy, compliance or operational continuity.

The partnership reflects growing investment in infrastructure that can support high-volume and data-intensive workloads. As more organizations scale up their use of artificial intelligence, moving data reliably between cloud environments is becoming far more critical. The new multicloud connectivity service is meant to help customers of all kinds, from public sector bodies to younger companies, keep steady access to the tools they depend on for their digital transformation work.

• China’s two-year commercial trial signals a coordinated push to bring satellite IoT into mainstream industrial use and strengthen NTN readiness.
• National operators are accelerating deployments as LEO capacity expands, supporting growth in logistics, utilities, maritime and rural connectivity.
• The programme requires participating companies to comply with MIIT regulations governing registration, terminal certification, spectrum allocation, security protocols, and periodic reporting.

China has launched a two-year commercial trial for satellite Internet of Things (IoT) services, a move that signals a clear push to expand low-Earth-orbit (LEO) connectivity. It also aims to bring non-terrestrial IoT into wider use across multiple industries. The programme sets the stage for companies to test satellite-enabled IoT at scale while regulators monitor performance and compliance.

Over the next 24 months, authorised enterprises will be able to launch and verify satellite-based IoT operations in real-world environments spanning smart logistics and transportation, energy and utilities, environmental monitoring, agriculture and forestry, emergency response, maritime operations, and industrial internet use cases. 

Satellite IoT is being framed as a practical add-on to existing cellular networks, particularly for low-bit-rate devices that sit in areas where 4G/5G coverage is patchy or too costly to build out. The move fits with the push toward hybrid terrestrial–satellite standards, and it echoes what is happening in other markets as NTN integration with 5G core networks and NB-IoT-over-satellite pilots move closer to commercial use.

The programme requires participating companies to comply with MIIT regulations governing registration, terminal certification, spectrum allocation, security protocols, and periodic reporting. Meanwhile, China’s national telecom operators are pushing forward with their own satellite IoT efforts, building pilots for logistics tracking, remote utility monitoring, and water-conservancy infrastructure. Additional LEO launches aimed at emergency, maritime, and rural connectivity are contributing to the broader construction of a “space-air-ground” communications architecture, a trend mirrored internationally as constellation capacity grows and competitive pressure increases.

The satellite IoT trial is meant to speed up domestic LEO constellation deployment and help shape hybrid 5G/NTN models for use cases that need constant coverage.

The two-year commercial satellite IoT trials gives vendors, operators, and enterprise users a defined space to test how the technology performs, check security measures, and adjust operational models before any full rollout. If it delivers what policymakers expect, it could open the door to broader availability of low-cost, low-power satellite IoT services and strengthen China’s place in the fast-growing global NTN ecosystem.

With the regulatory steps now moving toward completion, the company has indicated that it will shift immediately into technical rollout activities, preparing its network for a commercial 5G introduction in December. The operator has emphasized that the technology’s impact will not be limited to faster mobile speeds. The company says 5G’s reliability, lower latency and ability to handle large numbers of connected devices will open the door to new digital uses in logistics, healthcare, smart manufacturing and public safety. These advances are expected to support Serbia’s wider digital push and help the country hold its ground in the regional telecom market.

Industry observers note that mid-band and millimeter-wave spectrum is becoming more critical across Europe as data use keeps rising. With streaming, cloud gaming and enterprise digitalization driving heavier traffic, operators are rethinking how they build capacity. Yettel’s move to secure a wider 5G spectrum mix fits the direction many European providers are taking as they prepare networks for future growth and services.

Mike Michel, CEO of Yettel, said: “We’re ready to bring 5G to our customers as soon as we receive the official license. At Yettel, we prioritize maintaining the highest network quality while continually introducing new services to the market. We already offer a wide range of 5G devices, enabling our customers to experience all the benefits of these new technologies immediately. The investment level in spectrum and technology is significant, but 5G is an essential foundation for further growth, and we will launch it in December.”

• Vodacom and Starlink join forces to extend high-speed satellite-backed connectivity and close rural coverage gaps across Africa.
• Vodacom gains rights to resell Starlink equipment and services, adding new enterprise-grade solutions built on combined terrestrial and space-based technologies.
• The partnership supports Vodacom’s Vision 2030, aiming to expand its customer and financial services base through broader, more reliable network reach.

Vodacom Group has signed a new agreement with Starlink, the world’s largest satellite broadband provider, laying the groundwork for a broader push to bring high-speed, low-latency internet to millions of businesses across Africa. The partnership is expected to boost rural coverage and help close long-standing connectivity gaps, creating new openings for economic growth, better access to education, and a wave of innovation across the continent.

Under the Vodacom and Starlink arrangement, Starlink’s satellite backhaul will be incorporated into Vodacom’s mobile network, a move the company says will accelerate coverage expansion and enhance performance, particularly in rural regions. Vodacom will also be able to resell Starlink equipment and services to enterprise customers and small businesses, and it plans to shape its offers around what African markets can afford and what each region needs. The companies highlighted additional offerings developed through extensive client engagement across sectors such as mining, oil & gas, agriculture, tourism, retail and financial services. These include pay-as-you-use backup internet, “100% unbreakable internet,” device-as-a-service models, and branch network pooling, all built using a combination of terrestrial and space-based technologies. Vodacom noted that its existing 4G, 5G, fiber, MPLS, Microwave and GEO Sat capabilities remain central to its operations, and that Starlink’s high-performance internet fits naturally into its broader portfolio of customer-centric connectivity solutions.

The Vodacom and Starlink partnership also reinforces Vodacom’s Vision 2030 ambitions, which target a rise in its customer base to 260 million and an expansion of its financial services users to 120 million within five years.

Commenting on the agreement, Vodacom Group Chief Executive Officer Shameel Joosub said: “We are delighted to collaborate with Starlink, a move that accelerates our mission to connect every African to the internet. Low Earth orbit satellite technology will help bridge the digital divide where traditional infrastructure is not feasible, and this partnership will unlock new possibilities for the unconnected.”

Chad Gibbs, Vice President of Starlink Operations at SpaceX, added: “Starlink is already serving people, businesses, and organizations in 25 African countries. By collaborating with Vodacom, Starlink can deliver reliable, high-speed connectivity to even more customers, transforming lives and communities across the continent.”

The agreement, finalized on November 5, 2025, aims to guide the future of 6G network research and move real-world innovations closer to deployment. The partnership builds on Nokia and KDDI’s long-running collaboration, drawing on each company’s strengths, KDDI Research’s advanced communications R&D and Nokia Bell Labs’ long-standing leadership in telecom innovation.

Together, the companies are working on two main areas of 6G network research. One focuses on mMIMO energy efficiency, with teams developing new ways to cut base-station power use while improving communication performance in the proposed 6G spectrum. The second centers on distributed programmable core network services, which aim to build mobile core technologies capable of maintaining continuous communication even during infrastructure failures or natural disasters. Their initial work on mMIMO energy efficiency will be demonstrated at the Brooklyn 6G Summit taking place from November 5 to 7.

“Tackling the inherent challenges in a new generation of networking requires close collaboration in the industry. Working side by side, KDDI Research and Nokia Bell Labs can advance the state of the art in networking thanks to different perspectives on the problems and possible solutions. Ultimately, the joint outcomes will make 6G a more resilient, efficient and intelligent technology.” said Peter Vetter, President, Core Research, Bell Labs, Nokia.

“Through our strategic and close collaboration with Nokia Bell Labs, we aim to accelerate R&D initiatives and further strengthen the ‘Power to Connect’ toward 6G. We strive to continuously deliver new value to our customers and make meaningful contributions to societal progress,” added Satoshi Konishi, President and CEO, KDDI Research.

The tender centers on modern architecture principles, using open-radio access network (Open RAN) architecture and 5G Standalone (5G SA) deployment. This setup is meant to ensure different vendors’ equipment can work together, strengthen network security, and protect Costa Rica’s telecommunications infrastructure from becoming outdated by separating access systems from traditional proprietary models.

ICE said its tender drew strong interest from major global telecommunications companies. Bidders for the wireless access and mobile core network segments (Lots 1, 2, and 3) include Samsung Electronics, Huawei Technologies, Nokia, and a consortium led by Ericsson. Meanwhile, companies such as Ribbon Communications, SISAP Infosec, GBM, Coasin, and IT Servicios de Infocomunicación joined the competition for the backhaul-component lots (Lots 4, 5, and 6), alongside teams linked to Ericsson and Huawei. The company said this level of participation demonstrated strong international confidence in Costa Rica’s direction for technological advancement.

According to ICE’s Telecommunications Manager, Leda Acevedo, the organization remains focused on ensuring a fair and transparent tender evaluation process. She stated that the final selection would be guided by what best aligns with Costa Rica’s long-term development priorities. ICE teams are now going through the bids in detail, reviewing technical designs, financial stability, and legal compliance. The company has said it is focused on avoiding vendor lock-in and creating an infrastructure that can evolve over time.

Even with strong interest from global vendors, the project faces several hurdles. Costa Rica’s 5G rollout has been slowed by spectrum licensing issues, creating uncertainty around the schedule. In October 2024, the national regulator, Superintendencia de Telecomunicaciones (SUTEL), reopened the 5G spectrum process after objections from ICE and other stakeholders. Experts have warned that while open-architecture networks offer flexibility, they can also complicate governance and security. This adds another layer of challenge to the rollout.

As the tender evaluation continues, ICE is expected to announce its selected partners in the coming weeks. Decisions on contracts will follow soon after. Contract negotiations will follow soon after. Deployment is set to start shortly afterward, beginning in major urban centers before expanding nationwide. The country’s success in building a resilient, future-ready 5G network will depend on how ICE balances speed with careful review, making every decision crucial.