Call: 1-877-697-2926

MasOrange to Trial Starlink Direct-to-Cell in Spain

MasOrange, Spain’s leading telecom operator formed by the merger of MásMóvil and Orange Spain, has joined forces with SpaceX’s Starlink to pilot a direct-to-cell satellite communications service. The announcement marks one of the first public European trials of its kind, bringing low-Earth orbit (LEO) satellite connectivity directly to standard mobile phones—no special hardware required.

This initiative positions Spain at the forefront of satellite-driven mobile innovation, aiming to extend reliable coverage into rural, mountainous, and under-connected regions. The move directly addresses persistent coverage gaps, particularly in areas where terrestrial infrastructure proves challenging or cost-prohibitive.

At the core of the project are three high-stakes players. MasOrange—an emerging telecom powerhouse after a $20 billion merger finalized in 2024—provides the national-scale infrastructure and subscriber base. SpaceX, the aerospace company founded by Elon Musk, brings global aerospace manufacturing capabilities. And Starlink, its satellite internet division, contributes a fast-growing LEO constellation that already exceeds 5,500 active satellites in orbit as of June 2024.

MasOrange: A Telco Powerhouse in Spain

The Merger Behind the Name

MasOrange emerged from the merger of two major players in the Spanish telecommunications market: MasMovil and Orange Spain. Approved by the European Commission in early 2024, the union created the nation's largest mobile operator by number of customers, surpassing both Telefónica and Vodafone in total mobile subscriptions. This strategic joint venture combines Orange's extensive infrastructure and brand recognition with MasMovil's agility and pricing strategies, forming a company with complementary strengths across mobile, broadband, and converged services.

Shaping the National Telecom Landscape

The launch of MasOrange marks a realignment in Spain's competitive telecom dynamics. The joint entity controls about 40% of the fixed broadband market and nearly 35% of mobile lines as of Q1 2024, according to the Comisión Nacional de los Mercados y la Competencia (CNMC). By consolidating two of the top four operators, the company now plays a central role in retail and wholesale infrastructure markets. From high-speed fiber-optic broadband to mobile virtual network access, MasOrange influences the pricing structures, service portfolios, and network investments that shape consumer options nationwide.

Driving Innovation Through Technology Pilots

MasOrange has positioned itself not only as a telecom leader in terms of scale but also as an innovation frontrunner. Since the merger, it has accelerated initiatives in 5G rollout, Open RAN architecture, and energy-efficient network design. The company is committing significant R&D funding to next-gen mobile technologies, aligning its roadmap with global trends in edge computing and cloud-native core networks. These strategies are not limited to internal infrastructure development; they also manifest in external partnerships.

The decision to partner with SpaceX for a trial of Starlink's Direct-to-Cell technology reinforces MasOrange's ambition to stay at the forefront of connectivity innovation. This trial is not an experimental tangent—it’s part of a broader strategy to integrate satellite communications into mainstream mobile service delivery, particularly in underserved regions of Spain. Bridging the urban-rural digital divide is no longer limited to fiber rollout; hybrid terrestrial-satellite models are entering the operational roadmap.

Understanding Starlink and SpaceX’s Direct-to-Cell Technology

Starlink’s Expanding Satellite Internet Infrastructure

Starlink operates a low Earth orbit (LEO) satellite constellation designed by SpaceX. As of June 2024, the network comprises over 5,300 satellites, with plans approved by the FCC to launch up to 12,000 and filings submitted for as many as 42,000. These satellites orbit at altitudes between 340 km and 1,200 km, significantly lower than traditional geostationary satellites. This configuration minimizes latency—Starlink users report average latencies between 20 to 40 ms, compared to 600+ ms from geostationary systems.

Each satellite communicates via phased array antennas, dynamically steering beams to ground terminals and, increasingly, to other satellites through laser crosslinks. This laser mesh enables data routing entirely in space, bypassing ground-based bottlenecks and enabling global, near-instant packet delivery.

Direct-to-Cell: Extending Mobile Networks to the Skies

Direct-to-Cell (DtC) operates on a different premise than traditional broadband. Instead of requiring specialized dishes or terminals, DtC satellites connect directly to existing LTE-capable smartphones without user-side hardware changes. Using the 3GPP Release 17 standard for Non-Terrestrial Networks (NTN), these connections emulate a terrestrial cell tower from orbit.

The DtC payloads aboard the Starlink V2 Mini satellites host a software-defined radio stack that supports LTE frequency bands in collaboration with spectrum-holding mobile operators. Each satellite, moving at roughly 7.5 km/s in LEO, continuously hands off its connection between ground users and the next satellite in view, ensuring session continuity and broad coverage.

SpaceX’s Drive Toward Universal Mobile Coverage

SpaceX is not merely launching satellites—it is redefining telecom infrastructure. By embedding mobile connectivity into orbiting platforms, the company bypasses terrestrial infrastructure gaps. DtC capabilities were first tested publicly following the August 2022 partnership announcement between SpaceX and T-Mobile in the U.S., aimed at eliminating dead zones.

In 2023, SpaceX successfully demonstrated sending and receiving text messages on unmodified mobile phones using Starlink satellites. The company plans to expand features incrementally—starting with SMS, followed by voice and limited data services. Starlink’s roadmap suggests eventual LTE-equivalent speeds of up to 7 Mbps per beam, with each satellite supporting multiple beams.

Technical Distinctions from Traditional Mobile Networks

Want to imagine it in action? Picture standing in a mountainous village with no cell service. With DtC, your phone connects to a satellite hundreds of kilometers above, just as it would to a terrestrial cell tower, sending your text message instantly—no infrastructure buildout required.

The MasOrange-Starlink Deal: Laying the Groundwork for Seamless Satellite Coverage

Forging the Partnership: A Strategic Alliance

MasOrange and Starlink have signed a collaborative agreement that initiates the first-ever trial of Starlink’s Direct-to-Cell technology in Spain. This partnership aligns one of Spain’s largest telecom operators with SpaceX’s satellite communication division, establishing a cooperative framework that combines terrestrial cellular infrastructure with low-Earth orbit (LEO) satellites.

The agreement outlines a multi-phase pilot program and knowledge-sharing initiative. Spanish engineers will interface with SpaceX teams to adapt network systems, test standards compatibility, and evaluate end-user experience under real-world conditions.

Timeline and Technical Scope

The collaboration begins in 2024 with technical pilots focusing on foundational integration. Phases include software-and-hardware validation, hybrid network switching tests, and edge-device performance tracking. Valladolid, serving as Spain’s initial trial location, will host these prototypes before national rollout decisions follow in 2025.

Target Outcomes: Extending Reach, Enhancing Resilience

This trial targets three core objectives. First, to extend mobile coverage into remote and underserved rural zones currently lacking 3G and 4G reliability. Second, to enable resilient emergency communication where terrestrial infrastructure is unavailable or compromised. Third, to develop dynamic integration between LEO satellites and nationwide terrestrial networks, allowing continuous user connectivity across infrastructure boundaries.

Starlink’s capacity to deliver narrowband and broadband data directly to standard mobile phones — without specialized hardware — positions the project to impact both consumer and institutional usage scenarios, particularly in transport, agriculture, and civil protection services.

Mutual Value from Cross-Sector Innovation

For MasOrange, this agreement marks a decisive entry into space-enabled telecom innovation. The company diversifies its technology stack while accelerating Spain’s digital inclusion roadmap. In parallel, Starlink benefits from access to a regulated, high-density European market that will validate, iterate, and pressure-test its cellular-layer satellite capabilities.

The trial setting in Spain adds critical European momentum to a global validation effort already underway with partners in the United States, Australia, and Japan.

Choosing Valladolid: A Calculated Decision

Valladolid offers a mix of semi-urban and rural topography, making it ideal for validating coverage transition between terrestrial towers and satellite uplinks. Its telecom infrastructure and logistical accessibility support rapid deployment and adjustment during the pilot. Moreover, its mid-sized population allows for diverse but manageable data collection during the early technical phases.

Valladolid: Strategic Launchpad for Satellite-Mobile Innovation

Why Valladolid Was Chosen as the Pilot Site

MasOrange selected Valladolid as the initial ground for its partnership with Starlink’s Direct-to-Cell trial based on a combination of strategic geography and technical feasibility. Located in the northwestern quadrant of Spain’s central plateau, Valladolid offers a balanced mix of urban infrastructure and rural surroundings, making it an ideal microcosm to test both dense and low-density coverage zones.

The municipality has a population of nearly 300,000 people, according to the Spanish National Statistics Institute (INE), providing a manageable yet meaningful user base for network performance analysis. Additionally, Valladolid’s proximity to Madrid—just over 190 kilometers away—enables technical teams to maintain efficient logistical support throughout the trial.

Robust Infrastructure and Network Readiness

Years of investment in digital transformation have placed Valladolid ahead of many medium-sized Spanish cities in terms of ICT development. The city forms part of the Red Innpulso network, which promotes smart city innovation. Fiber-to-the-home (FTTH) penetration in the region exceeds 90%, based on data from Comisión Nacional de los Mercados y la Competencia (CNMC), enabling effective integration between terrestrial and satellite networks.

Additionally, the nearby presence of technology clusters and local institutions such as the University of Valladolid provides technical human capital that can support the pilot’s implementation. Existing cellular infrastructure by both Orange and MásMóvil—prior to their merger into MasOrange—allows for straightforward testing of signal hand-offs, latency performance, and fallback protocols between cell towers and Starlink satellites.

What This Trial Means for Local Residents

Residents of Valladolid stand to gain early access to connectivity solutions previously unattainable in certain suburban and outlying rural zones. For households in coverage shadows or agricultural areas where mobile signals have been inconsistent, Starlink’s Direct-to-Cell could introduce seamless voice and SMS capabilities regardless of tower availability.

Local businesses, particularly in logistics and precision agriculture, could see immediate advantages. Consistent mobile connectivity in open fields or transit corridors would enable uninterrupted data tracking and real-time communication, reducing operational delays. Schools and public services in underconnected corners of the province may also test new modes of digital inclusion during the pilot period.

Above all, Valladolid’s selection sends a clear message: middle-tier Spanish cities are not being left behind as the country accelerates toward universal digital coverage. Residents become early stakeholders in a national shift that blends low-orbit satellite technology with everyday mobile use.

Behind the Scenes: How the Starlink Direct-to-Cell Trial Works

Satellite Connectivity Built for Mobile Phones

Starlink's Direct-to-Cell technology uses a network of low Earth orbit (LEO) satellites to create cellular coverage that reaches any standard mobile device—no additional hardware or antenna required. The satellites act as orbital cell towers by transmitting on 3GPP-compatible frequencies, specifically on mobile spectrum licensed to MasOrange for the Spanish market. Each satellite is equipped with an advanced eNodeB modem—the same technology embedded in terrestrial cell towers—allowing direct communication with smartphones.

Seamless Integration with LTE and 5G Networks

MasOrange’s terrestrial infrastructure won't be sidelined. Instead, Starlink's space-based connectivity becomes an overlay that complements LTE and 5G availability. When a user moves out of ground coverage, the signal will be picked up by the satellite and routed to the mobile core network via SpaceX’s space-based backhaul. This integrated approach ensures continuity in call and data sessions without user intervention.

Latency, Bandwidth, and Real-Time Accessibility

Direct-to-Cell hinges on low latency and practical bandwidth. Since Starlink satellites orbit at altitudes between 340 and 550 km, latency averages under 50 milliseconds for Direct-to-Cell-enabled messaging functions. Voice and limited data services will roll out in subsequent testing phases. The initial trial in Valladolid will focus on texting, which requires less throughput and minimal real-time response, helping MasOrange and SpaceX gather performance metrics without overwhelming system capacity.

Satellite Frequencies and Via Satellite Integration

This trial doesn’t rely solely on Starlink's existing Ku- and Ka-band capacity. Instead, SpaceX will utilize the licensed 1.9 GHz (PCS) spectrum, assigned to mobile operators, under agreed coordination with MasOrange. The Direct-to-Cell satellites use phased array antennas and beamforming algorithms to dynamically manage signal strength and direct coverage to specific geographies. This enables the network to serve both fixed terrain and moving devices in variable atmospheric conditions.

The trial's orchestration depends on tightly aligned satellite schedules, closely monitored frequency coordination, and adaptive routing logic—each layer designed to mirror terrestrial conditions with orbital precision.

Unlocking New Value: Benefits for Customers and the Spanish Market

Expanded Mobile Coverage Reaching Where Towers Can't

Starlink Direct-to-Cell technology enables MasOrange to offer mobile connectivity in areas where terrestrial networks remain economically or logistically unfeasible. From the rugged mountains of Asturias to the sparsely populated plains of Castilla-La Mancha, satellite-enabled service can fill existing coverage gaps without relying on physical infrastructure.

The Ministry of Economic Affairs and Digital Transformation reports that as of 2023, 3.5% of Spain’s population—over 1.6 million people—lack access to mobile networks offering speeds above 30 Mbps. Direct-to-cell holds immediate potential to bridge this disparity, delivering broadband-level mobile access to marginalized regions.

Robust Emergency Communication in Unpredictable Environments

Natural disasters like wildfires, floods, and storms routinely disrupt terrestrial networks. In 2022 alone, Spain recorded over 50 major wildfire incidents, particularly in regions such as Extremadura, Galicia, and Castilla y León. Starlink's satellite-based approach allows MasOrange to maintain service continuity even when fiber connections are severed or mobile towers go offline.

This resilience becomes more than a technical enhancement—it directly impacts emergency response times and coordination, particularly for isolated rural hospitals, first responders, or evacuation zones.

Seamless User Experience: Connectivity Without Borders

Customers using MasOrange’s network during the Direct-to-Cell trial will benefit from uninterrupted service in areas where dead zones previously existed. Whether hiking in the Sierra Nevada, driving through Aragón’s countryside, or living in a coastal village with patchy 4G access, users can maintain consistent voice, SMS, and eventually data services.

By integrating satellite fallback into mobile devices without requiring new hardware, this solution advances the user experience without adding complexity. Expect fewer dropped calls, consistent message delivery, and dependable coverage in locations previously written off by other carriers.

Preparing the Market for Global Roaming Possibilities

This initiative is not just about solving domestic issues. As Starlink expands its Direct-to-Cell capabilities worldwide, users of MasOrange stand to benefit from satellite-powered roaming. Imagine landing in the Amazon, Trans-Himalayas, or an East African game reserve—and connecting instantly via satellite, no local SIM needed.

In a country like Spain, with nearly 88 million annual tourist arrivals (as reported by INE in 2023) and a growing population of digital nomads, international connectivity enhancements will influence both customer satisfaction and global competitiveness in telecommunications.

Bridging the Connectivity Gap: Satellite Internet and Rural Broadband Access in Spain

Current State of Broadband Access in Rural Spain

Access to high-speed internet in rural Spain remains inconsistent despite years of investment. According to data from Spain’s Ministry of Economic Affairs and Digital Transformation, as of mid-2023, over 85% of the population had access to broadband speeds of at least 100 Mbps. However, this figure drops sharply in rural areas, where only about 63% enjoy such service levels. In sparsely populated regions like Castilla y León or Extremadura, the penetration of ultra-fast broadband is even lower, often limited to towns rather than dispersed rural settlements.

Many of these areas rely on outdated copper networks or basic 4G coverage, which can’t consistently handle modern data demands. This disparity in infrastructure not only limits individual connectivity but also restricts business development, public service delivery, and education.

Government and Telco Efforts to Address the Digital Divide

The Spanish government launched the Plan para la Conectividad y las Infraestructuras Digitales targeting 100% ultrafast broadband coverage by 2025. Backed by EU Next Generation funds, the program allocates over €4 billion to expand fiber and 5G networks, especially in underserved municipalities. Initiatives like UNICO-Banda Ancha and the PEBA-NGA subsidy scheme have accelerated deployments in hard-to-reach areas by offering incentives to telcos willing to extend their networks.

Private operators, including MasOrange, Telefónica, and Vodafone, continue to participate actively in infrastructure rollouts. However, geography, cost, and regulatory complexity slow the pace in remote zones. Fiber deployment in mountainous areas or islands like La Palma can take years and suffer from frequent logistical setbacks.

How Satellite Solutions Like Starlink Complement Terrestrial 5G Rollouts

Starlink's low Earth orbit satellite constellation bypasses many of the physical constraints limiting traditional infrastructure. Unlike fiber, which requires excavation and right-of-way access, or 5G, which must contend with line-of-sight and tower density issues, satellite signals can reach any location with a clear view of the sky.

In areas where installing terrestrial networks is economically unviable, Direct-to-Cell solutions fill a critical gap. For example, Spain has more than 3,000 municipalities with fewer than 1,000 inhabitants. These locales often lack the density to justify a dedicated 5G node or fiber backhaul. Satellite coverage—especially with the plug-and-play capabilities of Direct-to-Cell—instantly extends service without waiting for traditional infrastructure timelines.

This trial with MasOrange introduces a hybrid connectivity model. While fiber and 5G continue expanding across population centers, satellite infrastructure steps in to ensure continuity in low-density regions. The result: a seamless national network architecture that corrects long-standing rural disparities and supports Spain’s strategic vision for digital inclusion.

MasOrange’s Innovation Strategy and Alignment with SpaceX

Shaping the Future Through Strategic Technology Investments

MasOrange doesn’t follow innovation trends—it defines them. The joint venture between MásMóvil and Orange España has strategically positioned itself at the cutting edge of digital infrastructure by consistently investing in emerging technologies. The collaboration with SpaceX is a continuation of a well-established path toward network modernization and market disruption.

Past initiatives underscore this pattern. In the last three years alone, MasOrange has initiated nationwide expansion of fiber-to-the-home (FTTH), pushing ultrafast broadband to over 16 million homes. At the same time, it has tested and commercially launched 5G services using both standalone (SA) and non-standalone (NSA) architectures. These efforts directly contributed to Orange's recognition by Umlaut in 2023 as the operator with the best mobile network in Spain.

From Ground to Orbit: Strategic Sync with SpaceX

SpaceX envisions a decentralized, global internet accessible from any location—landlocked village or open ocean. MasOrange’s decision to trial Direct-to-Cell technology reflects a precise alignment with this vision. The telco sees the shift to satellite-based mobile connectivity not as a contingency but as a logical evolution of its network capabilities.

Rather than waiting for regulatory shifts or market consensus, MasOrange seeks early adoption and practical trials. The Starlink Direct-to-Cell pilot confirms this approach—it’s designed not merely as a technical exercise, but as a move toward truly borderless mobile service.

What does this alignment produce in practice? Faster scaling of next-generation mobility, real-time adaptation of network resources, and reduction in dependency on physical infrastructure rollouts in low-density zones. MasOrange isn’t adjusting to the future—it’s scripting it, in tandem with one of the most disruptive aerospace companies on the planet.

What’s Next: Monitoring the Trial and Future Deployments

Pilot Timeline and Performance Monitoring

The Direct-to-Cell pilot in Valladolid entered its operational phase in early 2024 following initial ground station integration and backend testing in Q4 2023. MasOrange and SpaceX have scheduled the pilot to run through Q3 2024, allowing for seasonal variability in network demands and satellite visibility to be accounted for. Across this period, network engineers will log critical performance data in both urban and rural testing points within Valladolid province.

Tests are structured into three main phases: baseline benchmarking (January–March), mid-term optimization (April–June), and final evaluation (July–September). Each phase will fine-tune latency thresholds, signal handover tolerances, and data integrity checks between terrestrial and satellite relay points.

Key Metrics Under Evaluation

Catalyst for National Expansion

Pending performance benchmarks, MasOrange plans to extend Direct-to-Cell capabilities into other underserved provinces. Segovia, Soria, and Teruel are under consideration for early adoption owing to their topographical challenges and low mobile coverage saturation. Planning documentation from MasOrange’s Q1 strategic review indicates that a national rollout could begin as early as Q1 2025.

Site readiness, spectrum licensing coordination with Spain’s Ministerio de Asuntos Económicos y Transformación Digital, and satellite availability from SpaceX’s orbital deployment schedule will determine the rollout’s pace. Initial deployment waves are expected to target 2G sunset regions where Direct-to-Cell coverage can replace legacy GSM infrastructure.

Broader Implications Across Europe

MasOrange’s moves will put pressure on competing mobile operators in Spain and beyond. Vodafone, Deutsche Telekom, and Orange's subsidiaries in other EU countries are already assessing the feasibility of direct satellite-to-device service following advancements made in the 3GPP Release 17 standard. The Valladolid trial results are likely to influence regulatory and competitive roadmaps, especially as upcoming Low Earth Orbit constellations gain maturity.

Cross-country spectrum harmonization could become a priority at the EU level if Direct-to-Cell proves scalable. The European Commission’s Digital Decade policy already highlights seamless connectivity as a strategic goal, and MasOrange’s trial introduces a tangible path to reach this objective in rural regions without fiber backhauls.

https\:\/\/example\.com\/direct\-to\-cell\-infographic\.png / How Starlink Direct\-to\-Cell Works

A Giant Leap for Spanish Connectivity

The collaboration between MasOrange and Starlink marks a historic turning point in Spanish telecom. By initiating the first Starlink Direct-to-Cell pilot in Valladolid, MasOrange has advanced beyond traditional infrastructure constraints and opened the door to seamless, space-enabled connectivity for millions. This partnership doesn’t just introduce a new service layer—it redefines what’s possible for regional coverage and future mobile access models.

Access to reliable mobile service has remained uneven across Spain’s geography. Large swaths of rural Castilla y León, Galicia, and even parts of Aragón still experience coverage gaps. The kind of low-Earth orbit integration proposed by Starlink's Direct-to-Cell technology offers a solution that doesn’t depend on the installation of terrestrial towers, fiber, or microwave backhaul. Villages that telecommunications once skipped will now be part of the network.

Eva Fernández, CEO of MasOrange, said in a company statement: “This partnership isn’t simply about bringing 5G to new places—it’s about offering equal digital opportunity to every citizen, wherever they live.”

For urban consumers, the MasOrange-Starlink synergy won’t just enhance reliability in tough coverage zones like parking garages or elevators—it could also power future mobility use cases. Think autonomous vehicles, real-time agricultural sensors, or dynamic IoT ecosystems that don’t rely on ground networks.

The trial in Valladolid is more than a localized experiment. It’s a blueprint. Success here will ready the network for expansion and will likely catalyze replicable models across the wider European telecom ecosystem. More pilot cities, revisions to national mobile roaming protocols, and additional spectrum collaborations may soon follow.

David Goldman, senior director of satellite policy at SpaceX, noted during the 2024 Mobile World Congress: “Direct-to-Cell allows a mobile device to stay connected whether it’s in the mountains or in the middle of a city blackout. Spain is ready for this leap.”

How Does Starlink Direct-to-Cell Work?

To understand the broader implications, explore the technical process behind direct-to-device satellite communication:

Infographic: Below is a visual summary of how Starlink Direct-to-Cell operates:

Stay in the Loop

Want to follow the future of mobile connectivity as it unfolds? Subscribe below for updates on MasOrange’s Starlink trial, upcoming Spanish launch zones, and SpaceX’s satellite telecom roadmap.

What happens when a private satellite network fuses with terrestrial telecom strategy? Spain is finding out—and redefining mobile coverage while doing so.