MWC 2026 Keynote 2: Transforming Tomorrow’s Connected World

Live Streamed on Mon, 2 Mar at 11:15 - 12:45 CET

Visionary voices from around the globe take the stage to reflect on the expanding scope of connectivity, from core networks to cloud platforms to the emerging capabilities that stretch beyond our planet. Join us to explore how the interplay of innovation, leadership and global collaboration can drive meaningful transformation. Discover how bold thinking and shared ambition can build on this momentum and redefine what is possible in an increasingly connected world.

 

If Keynote 1 defined telecom’s strategic inflection point, Keynote 2 expanded its geographic and architectural horizon. This session reframed connectivity not as a terrestrial infrastructure race, but as a multi-layer ecosystem spanning low Earth orbit satellites, cloud-native networks, AI orchestration layers, and sovereign digital frameworks.

From SpaceX’s direct-to-device satellite constellation to Rakuten’s cloud-native architecture, from VEON’s emerging market digitization to Amazon’s regulatory positioning, the keynote made one reality unmistakable:

Connectivity is no longer horizontal infrastructure. It is becoming vertically integrated planetary architecture.

Moderator: Lara Dewar, Chief Marketing Officer, GSMA

Speakers:

  • Gwynne Shotwell – President & COO, SpaceX
  • Michael Nicolls – SVP, Starlink
  • Mickey Mikitani – Chairman & CEO, Rakuten Group
  • Kaan Terzioğlu – CEO, VEON Group
  • Roberto Nobile – CEO, Personal
  • Bumshik Hong – CEO, LG Uplus\
  • Fireside Chat: David Zapolsky – Chief Global Affairs & Legal Officer, Amazon; Óscar López – Minister for Digital and Civil Service Transformation, Spain

The Future of Satellite-to-Mobile with Starlink

Gwynne Shotwell, President & COO, SpaceX and Michael Nicolls, SVP, Starlink

The satellite segment of Keynote 2 marked one of the most technically consequential discussions of MWC 2026. Gwynne Shotwell and Michael Nicolls presented Starlink not as a niche connectivity overlay, but as a foundational extension of global mobile infrastructure.

Shotwell opened by grounding the conversation in first principles. Connectivity, she emphasized, is no longer a luxury service. It is foundational to economic participation, healthcare access, education, emergency response, and national resilience. Yet despite decades of mobile expansion, nearly a third of the global population remains either unconnected or severely underserved. Starlink was built to address that gap.

She described the evolution of the constellation since its initial launches in 2020. In just five years, Starlink has grown into the world’s largest satellite constellation, operating nearly 10,000 satellites in low Earth orbit and delivering hundreds of terabits of global broadband capacity. The service has surpassed 10 million subscribers worldwide, a milestone that underscores both scale and adoption velocity.

However, the keynote’s central focus was not broadband-to-home. It was direct-to-device.

From Broadband to Direct-to-Cell

In 2024, SpaceX began launching its first-generation direct-to-cell constellation, now branded Starlink Mobile. Unlike traditional satellite systems, this architecture is designed to connect directly to standard, unmodified smartphones.

No dish. 
No external antenna.
No hardware modification.

Nicolls explained that this capability represents a structural shift. Satellite communication historically required specialized equipment, limiting adoption. By enabling connectivity directly to everyday mobile devices, Starlink Mobile collapses the boundary between terrestrial cellular networks and orbital infrastructure.

The first-generation constellation—approximately 650 satellites deployed over 18 months—now operates across five continents. It provides text and light data services nearly everywhere in the world and has already demonstrated voice and video capability. Millions of unique users have connected via the system, with millions active monthly and rapid projected growth over the next year.

The constellation operates at roughly 350 kilometers altitude, significantly lower than traditional geostationary satellites. This reduces latency and shortens the signal path between device and satellite. Inter-satellite laser links create a mesh network in space, allowing traffic to be routed globally without relying solely on ground infrastructure.

In effect, Starlink Mobile acts as an orbital RAN extension.

Filling the Gaps in Terrestrial Coverage

Nicolls framed the practical implications.

Approximately 90% of the Earth’s surface remains uncovered by terrestrial mobile connectivity. Even in developed markets, vast geographic regions—mountains, deserts, oceans—remain outside reliable cellular range.

Starlink Mobile fills those gaps.

The service can provide connectivity in traditional dead zones, remote rural areas, maritime corridors, and disaster-affected regions. But the application is not limited to static coverage expansion.

Satellite augmentation also supports:

  • Emergency response when cell towers fail
  • Temporary capacity increases during major events
  • Coverage continuity during infrastructure outages
  • Remote industrial operations
  • Humanitarian and crisis scenarios

Shotwell emphasized that this is about resilience as much as reach. When traditional networks are compromised—whether by natural disaster, conflict, or technical failure—satellite can provide immediate redundancy. Rather than replacing terrestrial networks, Starlink positions itself as complementary infrastructure.

The Telco Partnership Model

A defining element of the presentation was collaboration with mobile network operators. SpaceX is partnering with operators across North America, Latin America, Europe, Asia-Pacific, and Africa. These partnerships allow Starlink Mobile to integrate into existing licensed spectrum environments and customer ecosystems. Under this model:

  • Operators retain customer relationships and billing systems
  • Local spectrum assets remain central
  • Regulatory alignment stays with national carriers
  • Starlink provides orbital augmentation

This cooperative structure reduces regulatory friction and aligns incentives. Satellite connectivity becomes an extension of existing mobile offerings rather than a competitive alternative. Shotwell highlighted that partnerships are expanding rapidly, with operators across multiple continents already integrating Starlink Mobile into their service portfolios.

Second-Generation Constellation: Toward Broadband Capability

Looking ahead, SpaceX is developing a second-generation direct-to-cell constellation that will significantly expand data capacity. The ambition is to move beyond text and light data services toward broadband-level performance on unmodified smartphones. As the constellation scales, Starlink expects to reach hundreds of millions of devices globally. If achieved at scale, this shifts satellite-to-mobile from emergency and rural solution to mainstream augmentation.

The long-term vision is not partial connectivity. It is ubiquitous connectivity.

Emergency Services and Global Impact

Shotwell underscored that connectivity is not merely about entertainment or convenience. When previously unconnected communities gain reliable internet access, the impacts are immediate and measurable:

  • Access to banking and digital finance
  • Telemedicine and healthcare services
  • Online education platforms
  • Disaster alert systems
  • Real-time crisis coordination

Starlink has demonstrated direct-to-device emergency alert capabilities and continues to develop systems designed to provide communication continuity during catastrophic events. Connectivity becomes infrastructure for human safety.

Architectural Implications

The Starlink Mobile system works by integrating direct-to-cell satellites into the broader Starlink broadband constellation. Laser interlinks allow traffic to traverse space before reaching ground stations connected to global internet backbones. This architecture effectively creates a global mesh network in orbit.

The result is a hybrid model:

  • Terrestrial towers handle dense urban capacity.
  • Satellite fills geographic gaps and provides redundancy.

Rather than viewing satellite and cellular networks as separate systems, SpaceX is engineering convergence.

Closing the Connectivity Gap

Shotwell closed by reiterating the mission: close the connectivity gap first through broadband-to-home and now directly to mobile devices. The scale of deployment, speed of rollout, and breadth of partnerships signal that satellite-to-mobile is no longer theoretical. It is operational.

As of MWC 2026, the integration of orbital infrastructure into mainstream mobile ecosystems is underway. The future of connectivity will not be limited to the ground. It will include orbit as a standard layer of the global communications stack.

Cloud-Native Transformation at Scale

Mickey Mikitani, Chairman & CEO, Rakuten Group

Following the satellite-to-mobile discussion, Mickey Mikitani shifted the focus from orbit to architecture. If SpaceX expanded connectivity vertically into space, Rakuten’s story is about transforming connectivity internally — redefining how mobile networks are built, operated, and monetized.

Mikitani positioned Rakuten’s mobile journey as a structural reset rather than an incremental upgrade. When Rakuten entered the telecom market, it did not inherit legacy infrastructure. That absence of legacy became strategic advantage. Instead of layering 5G onto traditional hardware-bound networks, Rakuten built its mobile system as a fully virtualized, cloud-native platform from day one. This decision fundamentally altered its operating model.

From Hardware to Software Infrastructure

Traditional telecom networks evolved through tightly integrated hardware stacks:

  • Proprietary baseband units
  • Vendor-specific RAN deployments
  • Appliance-based core systems
  • Long hardware refresh cycles
  • Multi-year deployment timelines

Rakuten’s approach replaced that paradigm with software-defined infrastructure running on commodity hardware. The network is virtualized end-to-end. Functions that historically required purpose-built appliances now run as software workloads. Orchestration is automated. Deployment is programmatic. The significance of this shift is not merely technical. It is economic.

Software-defined networks can be upgraded continuously. New features can be deployed without physical hardware replacement. Innovation cycles shorten dramatically. Mikitani emphasized that telecom must adopt the agility mindset of internet-native companies. Operators competing in a digital economy cannot afford multi-year transformation timelines. Cloud-native design compresses time-to-market.

Open RAN as Strategic Autonomy

A central element of Rakuten’s architecture is Open RAN. Open RAN is often framed narrowly as vendor diversification. Mikitani framed it more broadly — as strategic autonomy. By disaggregating network components and standardizing interfaces, operators reduce dependence on single vendors and gain flexibility in procurement, integration, and innovation. This modularity has several advantages:

  • Faster vendor substitution
  • Competitive pricing leverage
  • Reduced geopolitical supply chain exposure
  • Easier integration of AI-driven optimization

Open RAN enables optionality. Optionality in telecom infrastructure is rare. Historically, once a vendor was embedded in the RAN, switching costs were enormous. Rakuten’s approach attempts to lower those barriers. This is not just about cost reduction. It is about control.

AI as Operational Core

Mikitani underscored that cloud-native infrastructure naturally enables deeper AI integration. In a fully virtualized network, performance data flows continuously across systems. AI engines can analyze traffic patterns, predict congestion, identify anomalies, and automate remediation. Instead of reactive maintenance, networks become predictive systems. AI-driven operations support:

  • Automated fault detection
  • Dynamic resource allocation
  • Energy optimization
  • Customer experience enhancement
  • Capacity forecasting

This reduces operational complexity and improves margin sustainability — particularly in mature markets where revenue growth remains constrained. AI becomes embedded at the network layer rather than layered on top as an analytics add-on. The network itself becomes intelligent.

Telecom as Platform Ecosystem

Beyond infrastructure, Mikitani framed telecom as a platform business. Rakuten operates across e-commerce, fintech, digital services, and content. The mobile network acts as connective tissue for this broader ecosystem. This integration creates cross-service monetization opportunities. Instead of a single revenue stream from connectivity, the network supports multi-service engagement.

The model mirrors hyperscaler logic:  Infrastructure → Platform → Ecosystem

For telecom operators globally, this represents a strategic fork. Remain a connectivity provider. Or evolve into a digital ecosystem orchestrator.

The latter requires cloud-native architecture, API exposure, and integration readiness. Rakuten’s positioning suggests that telecom must think like a software company to compete effectively.

Capital Efficiency and Long-Term Economics

Critics often question the upfront capital intensity of building fully virtualized networks. Mikitani addressed this implicitly through long-term efficiency logic. While initial transformation may require significant investment, software-defined infrastructure reduces hardware refresh cycles and improves scalability. Over time, this shifts telecom economics toward:

  • Lower incremental upgrade costs
  • Faster innovation monetization
  • Greater operational automation
  • Reduced vendor lock-in premiums

In an industry facing persistent return-on-invested-capital pressure, structural efficiency improvements are not optional. They are survival mechanisms.

Industry Implications

Mikitani’s presence at MWC 2026 signaled that cloud-native telecom is no longer experimental. It is deployable at national scale. The implications extend beyond Rakuten. Operators worldwide face similar structural pressures:

  • Slowing consumer ARPU growth
  • High spectrum acquisition costs
  • Rising energy expenses
  • Increasing AI compute demands
  • Competitive hyperscaler ecosystems

Cloud-native transformation offers one path toward agility and margin defense. However, it also requires organizational change. Software-defined networks demand new skill sets, new operational processes, and cultural adaptation. Telecom transformation is not purely technological. It is institutional.

The Broader Signal

Placed within the context of Keynote 2, Mikitani’s intervention complements the Starlink narrative. Starlink expands the physical boundary of networks. Rakuten rearchitects the internal boundary of networks.

Together, they suggest that telecom’s future is both hybrid and programmable. Connectivity is no longer constrained by geography. And networks are no longer constrained by hardware.

The competitive frontier is shifting toward integration capability — across orbit, cloud, AI, and service ecosystems. Rakuten’s cloud-native model demonstrates that telecom can adapt. The question for the broader industry is speed.

Expanding Digital Inclusion at Scale

Kaan Terzioğlu, Chief Executive Officer, VEON Group

Kaan Terzioğlu brought the conversation back to Earth — specifically, to the markets where connectivity is not yet saturated, and where digital access remains a driver of economic transformation rather than incremental service enhancement. While earlier speakers focused on orbital infrastructure and cloud-native network architecture, Terzioğlu focused on impact. In many of VEON’s operating regions, connectivity is not about marginal ARPU expansion. It is about enabling participation in the modern economy. His remarks centered on a simple premise: digital inclusion is economic infrastructure.

Connectivity as Economic Multiplier

VEON operates across emerging and frontier markets, where mobile connectivity often serves as the primary gateway to financial systems, education platforms, healthcare services, and government programs. Terzioğlu emphasized that when mobile broadband penetration rises, measurable economic outcomes follow:

  • Increased SME formation
  • Greater access to digital finance
  • Expanded online education participation
  • Improved labor mobility
  • Accelerated e-government adoption

In these regions, connectivity is not just consumer convenience. It is foundational access. The expansion of 4G and 5G networks in emerging markets has already reshaped local economies. However, coverage gaps and affordability constraints remain persistent barriers. Terzioğlu positioned the next phase of transformation as a hybrid one — combining terrestrial deployment with complementary technologies, including satellite augmentation, to accelerate inclusion.

Bridging Geographic and Economic Gaps

In many VEON markets, population distribution is uneven, infrastructure investment is capital-intensive, and geographic challenges complicate tower rollout. Hybrid connectivity models offer new pathways. Terzioğlu highlighted that combining terrestrial mobile networks with emerging satellite-to-mobile capabilities can help close coverage gaps more efficiently than relying on traditional rollout alone. The objective is not technological novelty. It is scale.

Scale of access.
Scale of participation.
Scale of economic opportunity.

In emerging markets, the cost of exclusion is high. When individuals lack connectivity, they lack access to digital identity systems, online financial tools, remote work opportunities, and digital marketplaces. Connectivity becomes a lever for macroeconomic development.

Digital Services Integration

Terzioğlu also emphasized the evolution of operators from pure connectivity providers to integrated digital service platforms. In many VEON markets, operators play a central role in:

  • Mobile financial services
  • Super-app ecosystems
  • Digital content distribution
  • SME enablement tools

Telecom infrastructure acts as the base layer for these digital ecosystems. As smartphone penetration increases and data affordability improves, demand shifts from simple voice and messaging toward multi-service engagement. This creates opportunity — but also competitive pressure. Operators must integrate services seamlessly. Customers expect frictionless digital experiences comparable to global platforms. Terzioğlu’s remarks reflected an understanding that connectivity alone is insufficient for long-term value capture. The network must enable a broader service ecosystem.

The Role of Resilience

Emerging markets are often more vulnerable to infrastructure disruption — whether due to natural disasters, geopolitical instability, or energy constraints. Resilience is therefore not optional. Hybrid connectivity models, diversified infrastructure layers, and scalable digital platforms help mitigate systemic risk.

Terzioğlu framed connectivity not just as growth engine, but as stabilizing force. When communications networks remain operational during crises, they preserve access to emergency services, financial transactions, and public coordination. Resilient networks are economic safety nets.

AI and Efficiency in Growth Markets

Although the primary focus was inclusion and expansion, Terzioğlu also acknowledged the role of AI-driven optimization in scaling operations efficiently. Emerging market operators often face capital constraints. AI-enhanced network management and automation reduce operational overhead and improve performance predictability. Automation enables:

  • Smarter traffic management
  • Energy efficiency optimization
  • Predictive maintenance
  • Improved customer support response

Efficiency gains matter disproportionately in high-growth, price-sensitive markets. Operational intelligence supports sustainable expansion.

The Broader Context

Within the broader flow of Keynote 2, Terzioğlu’s contribution reinforced a central theme: connectivity expansion remains unfinished. While developed markets debate monetization models and platform economics, billions of people are still climbing the digital inclusion curve.

The global telecom industry therefore operates on two simultaneous timelines:

  • Optimization and orchestration in saturated markets
  • Expansion and inclusion in emerging markets

Terzioğlu positioned VEON at the intersection of these timelines — deploying advanced technologies while addressing fundamental access challenges.

Strategic Emphasis

His message was pragmatic. The future of connectivity is not defined solely by technical sophistication. It is defined by scale of impact.

  • Satellite-to-mobile integration may extend coverage.
  • Cloud-native networks may accelerate innovation.
  • AI may optimize performance.

But the ultimate measure is whether connectivity enables broader participation in the digital economy. In VEON’s operating regions, the opportunity remains substantial. Connectivity growth translates directly into economic inclusion. And inclusion, in turn, drives national development.

Enterprise Convergence and Infrastructure Integration

Roberto Nobile, Chief Executive Officer, Personal

Roberto Nobile shifted the focus of the session toward enterprise transformation. While earlier discussions centered on coverage expansion and network architecture evolution, Nobile addressed how connectivity is being redefined inside corporate environments. His core message was clear: enterprise customers are no longer purchasing bandwidth. They are purchasing integrated digital capability. The expectations placed on telecom operators have evolved significantly. Enterprises are undergoing digital transformation across operations, supply chains, customer engagement, and workforce management. Connectivity is now embedded in a much broader technology stack.

From Connectivity Supplier to Digital Partner

Nobile emphasized that enterprises increasingly demand integrated solutions rather than isolated network services. The enterprise stack now typically includes:

  • Private 5G networks
  • Cloud integration
  • Edge computing
  • AI-enabled analytics
  • Embedded cybersecurity frameworks

In this environment, operators must operate as system integrators, not simply connectivity providers. The shift is structural.

Previously, enterprise telecom contracts were often transactional — focused on capacity, reliability, and pricing. Today, enterprises expect operators to help architect digital infrastructure that supports automation, data analytics, IoT deployments, and real-time operational intelligence. Connectivity becomes foundational, but not sufficient.

Private Networks and Dedicated Infrastructure

Private 5G networks are increasingly central to enterprise transformation strategies. Nobile highlighted how industries are deploying private networks to support:

  • Industrial automation
  • Logistics optimization
  • Manufacturing robotics
  • Smart facility management
  • Secure operational data flows

These deployments require guaranteed performance, low latency, and secure segmentation — characteristics that differ from traditional public mobile services. Operators capable of delivering managed private infrastructure, integrated with enterprise IT environments, position themselves as long-term digital partners.

Edge and Cloud Integration

Another core theme was convergence between telecom networks and cloud ecosystems. Enterprises increasingly rely on distributed cloud architecture. Applications are deployed across centralized hyperscale environments and localized edge nodes. Telecom infrastructure must integrate seamlessly into that distributed compute model. This convergence supports:

  • Low-latency processing for real-time applications
  • Localized data governance compliance
  • Reduced backhaul congestion
  • Improved application performance predictability

The enterprise market demands orchestration across connectivity and compute layers. Operators that remain siloed from cloud integration risk losing relevance in enterprise transformation budgets.

Security as Embedded Infrastructure

Nobile also addressed the heightened security expectations enterprises now face. As operational systems become connected, cyber risk increases. Enterprises expect network-level security controls integrated into their infrastructure architecture. This includes:

  • Secure access service edge (SASE) integration
  • End-to-end encryption
  • Traffic monitoring and anomaly detection
  • Segmentation for operational technology environments

Security is no longer an add-on. It is core infrastructure. Telecom operators sit at a privileged enforcement layer within enterprise networks. If leveraged effectively, that position can become a differentiator.

The Commercial Model Evolution

The commercial implications are significant. Enterprise clients increasingly seek bundled service agreements that combine:

  • Connectivity
  • Infrastructure management
  • Cloud integration
  • Security services
  • Performance guarantees

Revenue models shift from usage-based billing toward solution-based contracts. This transition requires operators to build consulting, integration, and lifecycle management capabilities. The enterprise market rewards depth, not scale alone.

Closing Emphasis

Nobile’s message was measured but strategic. Connectivity is becoming infrastructure for enterprise modernization. Private networks, edge computing, AI integration, and security convergence are no longer experimental projects. They are budgeted transformation priorities. Telecom operators must evolve accordingly. The enterprise market is not simply another segment. It is the next structural monetization frontier.

Innovation Density in Mature 5G Markets

Bumshik Hong, Chief Executive Officer, LG Uplus

Bumshik Hong brought a different lens to the discussion — one shaped by operating in one of the most advanced mobile markets in the world. While earlier speakers addressed inclusion gaps, orbital expansion, and enterprise convergence, Hong focused on innovation density inside mature 5G environments.

South Korea represents a market where high-speed mobile broadband is already pervasive, device penetration is deep, and consumer expectations are elevated. In such environments, differentiation is no longer achieved through coverage expansion alone. Instead, it emerges from integration, service innovation, and operational intelligence. Hong’s remarks reflected that reality.

Beyond Coverage: Competing on Experience

In saturated 5G markets, the competitive battlefield shifts from infrastructure rollout to experience orchestration. Consumers expect seamless connectivity across devices, applications, and services. They expect consistent performance, low latency, immersive media support, and real-time responsiveness.

Hong emphasized that once baseline network quality is achieved, operators must innovate above the connectivity layer. That includes integrating advanced services into everyday digital life and ensuring that performance remains predictably high even as usage patterns evolve. In mature markets, network reliability is assumed. Differentiation lies in enhancement.

AI as Network Optimizer

A central theme in Hong’s remarks was the integration of artificial intelligence into network operations. AI-driven optimization allows operators to manage traffic dynamically, predict congestion before it occurs, and allocate resources more efficiently. In dense urban environments where network loads fluctuate rapidly, predictive intelligence becomes critical.

AI can analyze real-time data streams to anticipate demand surges, optimize spectrum utilization, and improve service continuity. It also supports anomaly detection, helping identify potential service disruptions before they escalate. For operators in advanced markets, AI is not experimental. It is embedded into daily operations. The network becomes adaptive rather than reactive.

Service Innovation in High-Density Markets

Hong also highlighted the importance of developing service offerings that capitalize on high-capacity 5G infrastructure. In markets like South Korea, advanced mobile gaming, immersive media experiences, real-time video applications, and AI-enhanced consumer services are increasingly common. Such services demand:

  • Ultra-low latency
  • High bandwidth consistency
  • Seamless mobility
  • Strong device interoperability

Delivering these experiences consistently requires tight integration between radio access networks, core infrastructure, and application ecosystems. Infrastructure alone is insufficient. Orchestration is essential.

Energy Efficiency and Operational Sustainability

Another dimension Hong addressed was efficiency. High-density networks consume significant energy. AI-driven optimization helps manage energy usage by dynamically adjusting network resources according to demand patterns.

Energy efficiency is not merely a cost issue. It is also an environmental responsibility. Mature telecom markets face increasing scrutiny regarding sustainability commitments. Intelligent network management contributes to reduced carbon footprints while maintaining service performance. Operational sustainability becomes part of competitive positioning.

Integration With Broader Digital Ecosystems

Hong underscored that telecom operators in advanced markets must integrate seamlessly with broader digital ecosystems. Consumers do not perceive services as isolated verticals. They move fluidly between communication platforms, streaming services, financial applications, and digital identity systems.

Operators must ensure that connectivity enhances — rather than constrains — these experiences. This requires:

  • Strong partnerships with application developers
  • Robust API exposure
  • Secure data management frameworks
  • Interoperable device ecosystems

The network must support a dynamic digital lifestyle.

The Mature Market Challenge

The challenge in mature 5G markets is not technological capability. It is maintaining relevance as hyperscalers and digital platforms expand influence. Hong’s remarks reflected an understanding that operators must move up the value chain through intelligent orchestration, service bundling, and performance reliability. Coverage leadership alone does not sustain competitive advantage.

Innovation density does. In markets where consumers already enjoy high-quality connectivity, the next frontier is delivering intelligent, AI-enhanced experiences that feel seamless and intuitive.

Position Within the Keynote Narrative

Within the broader flow of Keynote 2, Hong’s contribution added balance.

  • Shotwell addressed global reach.
  • Mikitani addressed architectural reinvention.
  • Terzioğlu focused on inclusion and economic acceleration.
  • Nobile highlighted enterprise convergence.

Hong demonstrated what optimization looks like when infrastructure maturity is already achieved. The conversation about the future of connectivity is not singular. It spans orbital extension, software-defined transformation, enterprise integration, inclusion expansion, and AI-driven optimization. Hong’s perspective reinforced that even in the most advanced markets, evolution continues. Connectivity is no longer about building more towers. It is about making existing infrastructure smarter.

Fireside Chat: Governance, Platform Power, and Digital Sovereignty

Moderator: Lara Dewar, Chief Marketing Officer, GSMA
David Zapolsky, Chief Global Affairs & Legal Officer, Amazon
Óscar López, Minister for Digital and Civil Service Transformation, Spain

The fireside conversation brought the session from engineering and infrastructure into governance and policy. After discussions on satellite integration, cloud-native architecture, enterprise transformation, and AI-driven optimization, the focus shifted to regulation, sovereignty, and the balance of power within the digital economy. Lara Dewar guided the discussion toward the intersection of public policy and private innovation — a theme increasingly central to global connectivity.

The Expanding Scope of Digital Infrastructure

David Zapolsky framed digital infrastructure as an interconnected ecosystem rather than isolated layers. Cloud platforms, connectivity providers, satellite systems, and digital services companies are deeply interdependent. Hyperscalers rely on resilient telecom infrastructure to deliver services. Telecom operators depend on cloud ecosystems for scalable compute, AI capabilities, and enterprise solutions. Satellite networks extend reach beyond terrestrial limits.

The boundaries between sectors are increasingly blurred. Zapolsky emphasized collaboration over competition. The growth of cloud services, AI platforms, and digital applications depends on stable connectivity foundations. Conversely, connectivity providers benefit from the innovation velocity of cloud ecosystems. The future of connectivity, in this framing, requires coordinated infrastructure development rather than siloed competition.

Regulatory Evolution in the Digital Era

Óscar López approached the conversation from a governmental perspective. For policymakers, digital infrastructure is no longer purely economic infrastructure. It is strategic national infrastructure. Data governance, AI oversight, cybersecurity resilience, and digital identity systems now fall within sovereign responsibility. Governments must ensure that digital transformation aligns with democratic principles, economic security, and citizen protection.

López emphasized the importance of regulatory frameworks that encourage innovation while maintaining safeguards. The goal is not to slow technological advancement, but to shape it responsibly. As networks expand into orbit and cloud-native architectures distribute compute globally, questions of jurisdiction and accountability become more complex.

  • Where is data processed?
  • Who controls AI models?
  • How are cross-border data flows regulated?

These questions increasingly define digital strategy.

The Sovereignty–Scale Balance

A recurring theme in the discussion was the tension between scale and sovereignty. Global platforms achieve efficiency through scale. Cloud infrastructure benefits from global distribution. Satellite constellations inherently operate across borders.

Yet governments seek to preserve digital autonomy. Balancing these priorities requires cooperation between industry and regulators. López highlighted that Europe, in particular, is navigating this balance carefully — encouraging innovation while safeguarding data protection and competition principles. Zapolsky underscored that predictable regulatory environments are critical for sustained investment. Long-term infrastructure deployment requires stability and clarity. Uncertainty can delay capital allocation.

AI Governance and Responsibility

Artificial intelligence surfaced as another focal point. As AI becomes embedded in networks, cloud services, and consumer platforms, regulatory oversight becomes inevitable. The conversation acknowledged that AI innovation is accelerating rapidly. At the same time, governments are developing frameworks to ensure responsible deployment. This includes considerations around:

  • Transparency
  • Accountability
  • Bias mitigation
  • Security safeguards

The integration of AI into connectivity infrastructure heightens the stakes. Network-level AI influences everything from traffic routing to fraud detection. Governance must evolve alongside capability.

Public–Private Collaboration

Both speakers emphasized collaboration rather than confrontation. Telecom operators, cloud providers, satellite companies, and governments share common objectives: economic growth, digital inclusion, infrastructure resilience, and innovation leadership.

Effective collaboration requires dialogue and mutual understanding of incentives. Governments need innovation to remain competitive. Industry needs regulatory clarity to invest confidently. The fireside tone suggested that sustainable digital expansion depends on partnership rather than polarization.

Position Within the Keynote

This discussion added a critical dimension to the broader narrative of Keynote 2.

  • Satellite-to-mobile expanded physical reach.
  • Cloud-native networks redefined architecture.
  • Enterprise convergence reshaped monetization.
  • AI-enhanced operational intelligence.

The fireside reminded the audience that all of these transformations operate within policy frameworks. Connectivity is no longer neutral infrastructure. It intersects with sovereignty, governance, and global competition. The transformation of tomorrow’s connected world is not only technological. It is institutional.

TeckNexus Strategic View: The Multi-Layer Convergence of Connectivity

MWC 2026 Keynote 2 did not introduce a single dominant technology narrative. Instead, it revealed convergence. Satellite, cloud-native telecom, enterprise digitalization, AI-driven optimization, and sovereign governance are no longer parallel tracks. They are intersecting layers of the same infrastructure evolution. Connectivity is transitioning from a horizontal industry — defined by towers, spectrum, and coverage maps — into a vertically integrated, multi-layer ecosystem.

This keynote illustrated that transformation in real time.

I. Connectivity Becomes Three-Dimensional

For decades, telecom competition revolved around geographic expansion. Operators built towers, acquired spectrum, densified coverage, and improved backhaul. The model was spatially horizontal. The introduction of direct-to-device satellite integration changes that geometry.

Connectivity is no longer confined to terrestrial deployment. It now includes orbital augmentation as a functional layer of the mobile ecosystem. Hybrid architecture — terrestrial plus low Earth orbit — redefines coverage economics and resilience strategy.

This has three implications.

  • First, geographic dead zones become less structurally inevitable.
  • Second, resilience planning expands beyond redundant towers to redundant layers.
  • Third, coverage differentiation compresses as orbital augmentation scales.

The competitive frontier shifts from reach to orchestration.

II. Infrastructure Is Becoming Software-Defined

Rakuten’s cloud-native architecture signals another shift: infrastructure is no longer hardware-bound. The telecom stack is dissolving into software workloads, orchestrated dynamically and optimized through automation. Open RAN disaggregation reduces vendor dependency and increases architectural flexibility. The strategic question is no longer whether networks are virtualized.

It is how quickly operators can transition to programmable infrastructure without destabilizing existing operations. Software-defined networks support faster feature rollout, AI-driven optimization, and integrated enterprise service models. They also introduce new competitive pressures. Hyperscalers operate with similar agility. Telecom must adapt to remain relevant within that ecosystem. The shift from hardware cycles to software cycles accelerates competitive tempo.

III. Enterprise Monetization Is Structural, Not Incremental

The enterprise segment is not a secondary growth channel. It is becoming the primary monetization frontier. Enterprises increasingly require integrated digital infrastructure that combines private connectivity, edge compute, cloud integration, AI analytics, and embedded security. Connectivity alone does not command premium pricing. Integration does. This represents a structural repositioning for telecom operators.

Historically, enterprise revenue centered on connectivity contracts. Today, operators are expected to function as digital transformation partners. The operators that build integration depth — across network, cloud, and security layers — will capture enterprise budgets. Those that remain bandwidth suppliers will see value migrate upward. Enterprise transformation budgets exceed traditional telecom spend categories. The opportunity is significant — but conditional on capability expansion.

IV. AI Is Moving Into the Operating Layer

Artificial intelligence surfaced repeatedly throughout the keynote — not as a peripheral innovation, but as operational logic. AI-driven traffic management, predictive maintenance, anomaly detection, energy optimization, and service automation are becoming embedded into network operations. The consequence is structural efficiency.

Networks transition from reactive systems to adaptive systems. This has two effects.

  • First, it reduces operational cost pressures in both mature and emerging markets.
  • Second, it raises expectations for reliability and performance.

Once networks become intelligent, tolerance for disruption declines. AI integration also creates governance considerations. As networks rely more heavily on automated decision-making, oversight frameworks become more relevant. AI is not simply an enhancement. It is infrastructure control logic.

V. Inclusion and Saturation Exist Simultaneously

One of the most important undercurrents of Keynote 2 was the coexistence of two distinct global realities. In mature markets, operators compete on innovation density, AI optimization, and service bundling. Infrastructure quality is assumed.

In emerging markets, billions remain on the inclusion curve. Connectivity expansion directly correlates with economic participation. The global telecom industry therefore, operates on dual trajectories:

  • Optimization in saturated markets.
  • Expansion in underserved markets.

Hybrid satellite integration accelerates inclusion. Cloud-native architecture enhances efficiency. Enterprise integration drives monetization.

All of these trajectories intersect.

VI. Sovereignty Is Reshaping Infrastructure Strategy

The fireside discussion underscored a final structural force: governance. Digital infrastructure now intersects directly with national policy. Data localization, AI governance, cybersecurity mandates, and cross-border regulatory alignment influence deployment decisions.

Scale drives efficiency. Sovereignty drives control. Balancing these priorities requires collaboration between operators, hyperscalers, satellite providers, and governments. Infrastructure strategy is no longer purely technical. It is geopolitical. Operators must navigate regulatory landscapes while maintaining interoperability and global competitiveness.

The Convergence Model

Taken together, Keynote 2 revealed a five-layer convergence model emerging within telecom:

  • Layer 1: Terrestrial radio access and fiber backhaul
  • Layer 2: Low Earth orbit satellite augmentation
  • Layer 3: Cloud-native core architecture
  • Layer 4: AI-driven operational intelligence
  • Layer 5: Governance and sovereignty alignment

Each layer interacts with the others.

  • Resilience depends on multi-layer redundancy.
  • Monetization depends on integration depth.
  • Efficiency depends on AI orchestration.
  • Expansion depends on hybrid deployment.
  • Stability depends on regulatory clarity.

The industry is not moving toward a single breakthrough technology. It is moving toward systemic integration.

The Strategic Inflection

If Keynote 1 emphasized monetization pressure, trust erosion, and AI acceleration, Keynote 2 extended the frame. Connectivity is no longer defined solely by spectrum and towers. It is defined by:

  • Hybrid architecture
  • Programmable infrastructure
  • Enterprise integration
  • Operational intelligence
  • Sovereign alignment

The competitive landscape is shifting from coverage competition to orchestration competition. Operators that integrate across layers — terrestrial, orbital, cloud, AI, and regulatory — will shape the next decade. Those that remain confined to one layer may find themselves structurally constrained.

Bottom Line

Keynote 2 demonstrated that tomorrow’s connected world will not be built on a single platform or technology. It will be built on convergence.

  • Satellite-to-mobile extends the physical boundary of networks.
  • Cloud-native transformation redefines internal architecture.
  • Enterprise integration reshapes monetization logic.
  • AI embeds intelligence into operations.
  • Policy frameworks influence deployment strategy.

The industry is entering an era where integration capability determines competitiveness. Connectivity is no longer a flat map of coverage. It is a layered, dynamic system. And the operators that master orchestration across those layers will define the architecture of the next decade.

Recent Content

Start: Sep 9, 2026
End: Sep 10, 2026
Venue: Kuala Lumpur, Malaysia
Location: Malaysia
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