Private Network Check Readiness - TeckNexus Solutions

Vodafone’s First LEO Satellite Video Call Using a Smartphone

Vodafone has completed the world's first satellite-based video call using a standard 4G or 5G smartphone—no special hardware required. This milestone, achieved with AST SpaceMobile, demonstrates the power of direct-to-smartphone satellite connectivity. By 2026, Vodafone plans to roll out this service commercially across Europe, bridging mobile coverage gaps in rural and remote regions. Learn how this technology is set to redefine mobile broadband and global communication.
Vodafone’s First LEO Satellite Video Call Using a Smartphone
Image Credit: Vodafone
Vodafone has achieved a significant milestone by completing the world’s first satellite-based video call using a standard 4G or 5G smartphone. The call, made from a remote area with no prior mobile coverage, demonstrates the potential of direct-to-smartphone satellite connectivity. This technology, developed in partnership with AST SpaceMobile, is set to roll out commercially in Europe by late 2025 and 2026.

Unlike traditional satellite phones that require special hardware, Vodafone’s service allows users to make calls, browse the internet, and send messages with their existing smartphones. The initiative aims to eliminate mobile coverage gaps, providing connectivity in remote and rural areas, including mountains and oceans.

How Vodafone’s Satellite Video Call Worked—A European First


Vodafone engineer Rowan Chesmer made the historic space-to-mobile video call from a mountainous location in Wales—an area that has never had mobile broadband coverage. The call was received by Margherita Della Valle, Vodafone Group Chief Executive, at the company’s space-to-land gateway in Newbury, UK.

This call marked a European first in satellite-to-smartphone communications. Unlike other satellite services that focus on emergency messaging, Vodafone’s solution delivers a full mobile broadband experience with speeds reaching up to 120 Mbps.

Astronaut Tim Peake, who was present at the event, emphasized the importance of communication in remote locations. Having spent six months aboard the International Space Station, he understands the need for seamless global connectivity.

How Vodafone’s Direct-to-Smartphone Satellite Network Operates

Vodafone’s direct-to-smartphone satellite service is powered by AST SpaceMobile’s BlueBird satellites, which operate in low Earth orbit (LEO). The space-to-land gateway connects these satellites to Vodafone’s terrestrial mobile network, ensuring seamless handovers between satellite and ground-based connectivity.

Key Advantages of Vodafone’s Satellite Network:

  • No special hardware required – Works with any standard 4G or 5G smartphone.
  • Full mobile broadband experience – Supports video calls, browsing, and messaging, unlike most existing satellite connectivity services that are limited to SMS and emergency alerts.
  • Expands Vodafone’s network coverage – Helps close connectivity gaps in rural, mountainous, and offshore regions.
  • Seamless integration – Functions as an extension of Vodafone’s existing mobile network, automatically switching between satellite and terrestrial signals.

Vodafone’s Roadmap for Expanding Satellite-to-Mobile Coverage

Vodafone is set to launch commercial services in Europe by late 2025 or early 2026. This move aligns with a broader industry trend, as competitors like AT&T, Verizon, and T-Mobile are also working on similar satellite-to-smartphone connectivity solutions in the United States.

In the U.S., AST SpaceMobile has received FCC approval to test its satellite coverage for AT&T, with full deployment expected after the European rollout. Meanwhile, SpaceX’s Starlink has also demonstrated satellite-based mobile communication but primarily focuses on text messaging rather than full broadband services.

Vodafone’s solution sets itself apart by delivering a high-speed broadband experience that doesn’t require specialized satellite phones. This makes it a more accessible and cost-effective alternative for users in remote locations.

Bridging the Digital Divide with Satellite Connectivity

The ability to provide direct-to-device satellite connectivity could be a game changer for regions with limited infrastructure.

Vodafone’s Chief Executive, Margherita Della Valle, highlighted how this technology will help connect underserved populations, ensuring that families, businesses, and emergency responders can stay connected.

Potential Applications of Vodafone’s Satellite Service:

  • Emergency Connectivity – Immediate access to communication services in disaster-hit areas or regions without existing infrastructure.
  • Rural and Remote Access – Providing mobile broadband to communities in isolated areas such as mountains, deserts, or offshore locations.
  • Maritime and Aviation Connectivity – Improving communication for ships, aircraft, and offshore workers.
  • Resilient Network Infrastructure – Strengthening mobile networks by offloading traffic in high-demand areas.

Vodafone’s Historic Legacy in Mobile Innovation

This breakthrough comes 40 years after Vodafone made the UK’s first-ever mobile phone call on January 1, 1985. Just as that call marked the beginning of the mobile era, today’s space-based video call signals the next step in global connectivity.

As Vodafone prepares for the full commercial launch of its satellite service, it continues to drive innovation in mobile communications, ensuring that no location is beyond reach.

Looking Ahead: What’s Next for Direct-to-Smartphone Satellites?

While Vodafone has not yet announced pricing details, the successful video call demonstrates the viability of satellite-powered mobile broadband. As the technology matures, direct-to-smartphone satellite services are expected to become a standard feature in global mobile networks.

With competitors like AT&T, Verizon, and T-Mobile working on similar services, the race to close mobile coverage gaps is heating up. Vodafone’s early success in Europe positions it as a leader in direct-to-smartphone satellite connectivity, paving the way for universal mobile coverage.

Final Thoughts

Vodafone’s historic space video call proves that seamless, high-speed mobile broadband via satellite is not just a concept but a reality. By 2026, millions of users across Europe and beyond could have access to continuous mobile connectivity, regardless of their location. This innovation has the potential to transform global communication, ensuring that no one is left without a connection—whether in the mountains, at sea, or in rural communities worldwide.


Recent Content

Automotive digitization now hinges on 5G’s ability to deliver reliable, low-latency, and scalable connectivity that 4G/LTE cannot sustain for safety-critical use cases. Advanced driver assistance, cooperative perception, and remote operations require millisecond-class response and deterministic reliability across dense traffic conditions. 5G Standalone (SA) with Ultra-Reliable Low-Latency Communications (URLLC), improved positioning, and enhanced uplink meets these thresholds, enabling vehicles and infrastructure to exchange time-sensitive data continuously. This is the foundation for C-V2X, high-fidelity telematics, and closed-loop control that 4G/LTE struggles to support consistently. 5G enables dynamic traffic orchestration, energy-aware routing for EVs, and advanced safety services that can reduce incidents and congestion.
Google will pay a US$35.8 million (A$55 million) penalty and change how it structures Android default search agreements with Australian carriers and OEMs. The Australian Competition and Consumer Commission (ACCC) alleged that Googles contracts with Telstra and Optus from December 2019 to March 2021 blocked rival search engines on carrier-sold Android devices via platform-wide default settings and revenue-sharing incentives. Google admitted the conduct likely lessened competition and agreed to court-enforceable undertakings to remove restrictions that mandated Google Search as the exclusive, out-of-the-box option across search access points (browser defaults, widgets, and in-phone settings).
The 4.44.94 GHz range offers the cleanest mix of technical performance, policy feasibility, and global alignment to move the U.S. ahead in 6G. Midband is where 6G will scale, and 4 GHz sits in the sweet spot. A contiguous 500 MHz block supports wide channels (100 MHz+), strong uplink, and macro coverage comparable to C-Band, but with more spectrum headroom. That translates into better spectral efficiency and a lower total cost per bit for nationwide deployments while still enabling dense enterprise and edge use cases.
Palo Alto Networks PAN-OS 12.1 Orion steps into this gap with a quantum-ready roadmap, a unified multicloud security fabric, expanded AI-driven protections and a new generation of next-generation firewalls (NGFWs) designed for data centers, branches and industrial edge. The release also pushes management into a single operational plane via Strata Cloud Manager, targeting lower operating cost and faster incident response. PAN-OS 12.1 automatically discovers workloads, applications, AI assets and data flows across public cloud and hybrid environments to eliminate blind spots. It continuously assesses posture, flags misconfigurations and exposures in real time and deploys protections in one click across AWS, Azure and Google Cloud.
Beijing’s first World Humanoid Robot Games is more than a spectacle. It is a live systems trial for embodied AI, connectivity, and edge operations at scale. Over three days at the Beijing National Speed Skating Oval, more than 500 humanoid robots from roughly 280 teams representing 16 countries are competing in 26 events that span athletics and applied tasks, from soccer and boxing to medicine sorting and venue cleanup. The games double as a staging ground for 5G-Advanced (5G-A) capabilities designed for uplink-intensive, low-latency, high-reliability robotics traffic. Indoors, a digital system with 300 MHz of spectrum delivers multi-Gbps peaks and sustains uplink above 100 Mbps.
stc 5G powered the Esports World Cup with 1,295 antennas and 285 MHz spectrum, delivering broadcast-grade uplink, low latency, and reliable performance.
Whitepaper
Telecom networks are facing unprecedented complexity with 5G, IoT, and cloud services. Traditional service assurance methods are becoming obsolete, making AI-driven, real-time analytics essential for competitive advantage. This independent industry whitepaper explores how DPUs, GPUs, and Generative AI (GenAI) are enabling predictive automation, reducing operational costs, and improving service quality....
Whitepaper
Explore the collaboration between Purdue Research Foundation, Purdue University, Ericsson, and Saab at the Aviation Innovation Hub. Discover how private 5G networks, real-time analytics, and sustainable innovations are shaping the "Airport of the Future" for a smarter, safer, and greener aviation industry....
Article & Insights
This article explores the deployment of 5G NR Transparent Non-Terrestrial Networks (NTNs), detailing the architecture's advantages and challenges. It highlights how this "bent-pipe" NTN approach integrates ground-based gNodeB components with NGSO satellite constellations to expand global connectivity. Key challenges like moving beam management, interference mitigation, and latency are discussed, underscoring...

Download Magazine

With Subscription

Subscribe To Our Newsletter

Private Network Awards 2025 - TeckNexus
Scroll to Top

Private Network Awards

Recognizing excellence in 5G, LTE, CBRS, and connected industries. Nominate your project and gain industry-wide recognition.
Early Bird Deadline: Sept 5, 2025 | Final Deadline: Sept 30, 2025