Next-generation optical ground station for fast and secure connectivity ready to begin operations in Chile, with ESA support

Publication date

10 Mar 2026

A new optical ground station established by SSC Space under the NODES contract with the European Space Agency (ESA), and with support from the Swedish National Space Agency has passed site acceptance testing and is ready for operations in Santiago, Chile. The new optical ground station further aligns with ESA’s goal to develop fast and secure satellite communications.

Top view of the SSC Space Optical ground station in Santiago, Chile. Imaged credit: SSC Space

This achievement is the result of close collaboration between Sweden’s SSC Space, France’s Safran Space and ESA under the Agency’s Optical and Quantum Communications – ScyLight programme. Manufactured by Safran Space, this new optical ground station will be part of SSC Space’s optical ground network service, offering free-space laser communications with bi-directional capabilities that will enable two-way links between satellites and the ground for a variety of in-orbit missions. The optical ground station will also support Consultative Committee for Space Data Systems (CCSDS) and Space Domain Awareness (SDA) standards through integrated modems for additional compatibility.

The optical link capabilities of this new station are faster and more secure than traditional radio frequency (RF) satellite communication systems. Instead of being broadcast, satellite data can be transmitted through a laser beam at exponentially faster speeds with nearly no loss in quality; SSC Space’s ground station is capable of data rates of up to 10 gigabit per second – or a tenfold increase over the average speed for RF transmissions. This is particularly important for time-sensitive applications, such as disaster response, which require complete and actionable data sets quickly after they area collected in orbit.

Because the transmission of data through narrow, direct optical links is inherently more difficult to intercept and interfere with than traditional RF links. In addition, by bypassing the RF spectrum entirely, this optical communications system does not require licensing, allowing operators to avoid lengthy regulatory bottlenecks.

SSC Space Optical ground station in Santiago, Chile. Image credit: SSC Space

SSC Space’s optical ground station is housed in a 100-hectare site protected by the Andes foothills. It runs on locally generated solar power provided by a 624-panel solar array capable of 350-kilowatt hour, reducing its carbon emissions by eight percent. The station joins another installation that started testing in 2025 in Western Australia, inaugurating a network of optical ground stations supporting direct-to-Earth laser links. The development of SSC Space’s network is underpinned by ESA’s Optical and Quantum Communications – ScyLight programme, which focuses on the development of optical ground station networks to complement traditional RF capabilities.

SSC Space Optical ground station in Santiago, Chile. Image credit: SSC Space

“At ESA, we’re working with our partners to showcase the ‘Made in Europe’ innovations that will provide connectivity to our Member States that’s faster, more secure and more resilient than ever before,” said Laurent Jaffart, Director of ESA Resilience, Navigation and Connectivity. “Our Optical and Quantum Communications – ScyLight programme is an essential tool to keeping our partners at the leading edge of the global satellite communications market, and this partnership with SSC Space shows just how we’re delivering connectivity solutions beyond Europe and Canada.”

“The station in Santiago is not just another node – it’s a leap forward. We’re moving satellite communications into a new era of speed, security, and resilience. As part of the NODES network, this station brings us closer to fulfilling tomorrow’s mission needs, with interference-resistant transmission capable of meeting heavy data demand,” says Hanna Sundberg, Optical Programme Manager at SSC Space.

ESA’s flagship optical communications project awards Mynaric with contract to develop technology for its Demonstration System

Publication date

04 Mar 2026

The European Space Agency (ESA) has awarded German optical communications company Mynaric with a contract to build a laser communications Demonstration System for its High Throughput Optical Network (HydRON) project. Mynaric will help to develop the technology necessary for in-orbit demonstrations of a European secure laser communications network, a crucial step to enabling further research into high-speed optical links such as the ESA Specifications for Terabit/sec Optical Links (ESTOL).

HydRON optical communication for broadband in space. Image credit: European Space Agency

The HydRON project aims to bolster the resilience of European communications infrastructure by deploying a high capacity, secure and interoperable optical data relay network across low and medium Earth orbits. This focus on optical communications falls under the umbrella of the larger Optical & Quantum Communications – ScyLight programme line of ESA’s Advanced Research in Telecommunications Systems (ARTES), alongside projects to develop, demonstrate and implement quantum technologies for satellite communications.

HydRON addresses the long-term need expressed by ESA’s Member States to develop, implement and operate a secure space communications infrastructure capable of meeting the growing demand for larger volumes of space data at speeds edging ever closer to real time. Optical links have the potential to meet all these requirements: by virtue of functioning through direct line of sight, laser communications not only enable consistent gigabit speed data transfers – orders of magnitude faster than traditional RF communications – but are also inherently more difficult to intercept or interfere with.

HydRON’s Element 3 focuses on demonstrating the applications of this technology within the user segment by creating a testing environment in real operating conditions. Within this framework, Mynaric will contribute laser communications terminals to the Element 3 Demonstration System. These terminals will enable in-orbit testing and validation of service concepts and mission architectures for future commercial and institutional use cases aboard maritime and airborne platforms.

What’s more, the Demonstration System will build on the work carried out under HydRON Element 2 to demonstrate interoperability across multiple orbital regimes and potential international partner networks. Indeed, Mynaric was previously awarded a contract to provide laser communications terminals for both ground and space segments of the network comprising Element 2. This element will aim to establish a satellite collector in low Earth orbit, using optical technology to connect space communications networks spread across several layers of orbits.

The Demonstration System is a stepping stone towards the development of technologies crucial to ESA’s roadmap for an interoperable, high-speed space communications infrastructure. In particular, ESTOL will leverage the in-orbit demonstration capabilities of HydRON Element 3 to test high-data-rate optical links – towards a capacity of terabit per second – to support the implementation and deployment of future optical satellite networks.

“With HydRON, we’re aiming for a world-first optical network that allows for fast, terabit-per-second capacity communications with no interference. The project will offer a scalable capacity that will allow for reliable and seamless global connectivity, designed to benefit even the most remote of locations,” said Laurent Jaffart, Director of Resilience, Navigation and Connectivity at ESA. “In the current geopolitical climate, resilient communications are more important than ever, and with Mynaric, we’re taking the next step in delivering an infrastructure that promotes interoperability, reliability and security for a wide range of satellite communication services.”  

“The HydRON Demonstration System provides a unique opportunity to test and refine laser communications technologies in an operational network environment,” said Joachim Horwath, Chief Technology Officer at Mynaric. “Through these demonstrations, we can further mature our technology, address interoperability requirements, and continue expanding our product portfolio to meet the evolving needs of multi-orbit and multi-mission space networks.”

“The selection of Mynaric for the HydRON User Segment activities reflects ESA’s confidence in our technological expertise and our ability to execute on complex optical communications programs,” said Andreas Reif, Chief Restructuring Officer of Mynaric. “It represents an important milestone as we continue to strengthen the company, expand our role within Europe’s space infrastructure, and position Mynaric for sustainable growth as a key contributor to future European and global space and defense networks.”

Mynaric’s work on the HydRON Element 3 Demonstration System will contribute to setting the stage for a resilient and interoperable European space communications infrastructure capable of supporting a wide breadth of commercial and institutional mission concepts.

While the implementation of the HydRON Demonstration System proceeds apace, ESA is also preparing the next evolutionary phase of HydRON within the Optical & Quantum Communications – ScyLight programme line. Leveraging the inherent resilience of optical communications, including their low probability of detection and interception (LPD/LPI) characteristics, ESA is exploring the technical opportunities they offer for airborne platforms (HAPS and aircraft), maritime users, as well as deep‑space communications.

ESA joins the O-RAN ALLIANCE to refine seamless satellite-to-smartphone connectivity

Publication date

04 Mar 2026

The European Space Agency (ESA) has announced that it has joined the O-RAN ALLIANCE to help develop ties between mobile operators and satellite network operators. ESA’s participation will boost space segment engagement with mobile network operators and facilitate the integration of satellite communications technologies and non-terrestrial networks (NTN) into future O-RAN standards.

Artist's illustration of satellite and terrestrial networks.
Artist’s illustration of satellite and terrestrial networks. Image credit: Shutterstock

This move is coherent with the emphasis placed by ESA’s Member States on the development of 5G and 6G technologies and integrated terrestrial/non-terrestrial networks (TN/NTN). Indeed, the Space for 5G/6G and Sustainable Connectivity programme line of the Advanced Research in Telecommunications Systems (ARTES) programme was fully funded at the Council meeting at Ministerial level 2025 (CM25), reflecting the continued trust placed by ESA’s Member States in its mission to deliver the benefits of space communications technologies for its citizens.

ESA’s membership to the O-RAN ALLIANCE adds to a worldwide community of mobile network operators, vendors, and research, academic and government institutions, pooling deep practical know-how and technical insight. The ALLIANCE aims to transform the design and deployment of radio access networks (RAN), on which mobile telephony and connectivity rely. By promoting innovation throughout the telecommunications ecosystem, the ALLIANCE aims to enable standardised, open and interoperable interfaces and intelligent RAN functions across vendors, reducing dependency on proprietary solutions.

ESA is uniquely positioned to bridge the ALLIANCE’s existing community with Space Network Operators (SNO) and facilitate knowledge exchange and collaboration. Through ESA’s membership, SNOs will be able to work with the Agency to take an active contributor role to defining the operational requirements of the space segment and solving the technical challenges of merging the two network ecosystems.

In the view of accelerating this process and strengthening cooperation between the space and terrestrial ecosystems, ESA will join the O-RAN ALLIANCE’s work on NTN and will help to engage key stakeholders by leading a group of NTN companies working to interact with O-RAN. ESA and other NTN companies have already engaged with O-RAN in a  workshop that took place at the O-RAN ALLIANCE Face-to-Face meetings in Rome in February 2026.

In addition, ESA will be providing its technical expertise working with both technological ecosystems, as well as its 5G/6G Hub facilities at ESA’s European Centre for Space Applications and Telecommunications (ECSAT) site at the Harwell Science and Innovation Campus, to support testing and validation capabilities for O-RAN NTN implementation.

“Joining the O-RAN ALLIANCE is a major step towards fleshing out the integration of TN/NTN,” said Antonio Franchi, Head of ESA’s Space for 5G/6G & Sustainable Connectivity programme. “We will work together to define the standards that will steer the worldwide deployment of these next-gen networks for the benefit of our Member States’ citizens. At the same time, we are helping our satellite network operators become recognised as global leaders in the matter and fostering a strong ecosystem that will support their commercial success.”

“ESA’s participation in the O-RAN ALLIANCE reflects the strategic importance of embedding Non-Terrestrial Networks within open RAN architectures,” said Angelos Goulianos, 5G/6G Systems Engineer at the European Space Agency.  “As 5G evolves towards 6G, space–terrestrial integration must be addressed at system level to ensure interoperable and resilient global connectivity. Through focused programme activities, coordinated industrial engagement, and access to ESA testing facilities and validation environments, ESA supports technology evolution and product readiness, strengthening European competitiveness towards the integration of terrestrial and non-terrestrial networks”

ESA and GSMA Foundry open new round of Innovation Challenges for 5G/6G connectivity via satellite at Mobile World Congress Barcelona 2026

Publication date

02 Mar 2026

The European Space Agency (ESA), in partnership with the GSMA Foundry has announced a new round of Innovation Challenges to fast-track technology and product developments that will advance networks blending terrestrial telecom infrastructure with satellite communications at Mobile World Congress (MWC) Barcelona 2026.

Laurent Jaffart, Director of Resilience, Navigation and Connectivity at MWC Barcelona 2026.
Laurent Jaffart, Director of Resilience, Navigation and Connectivity at MWC Barcelona 2026. Image credit: European Space Agency

For the past three years, the Innovation Challenges have been jointly defined by ESA and GSMA Foundry. Their goal is to help European industry scale innovations that will accelerate the delivery of ubiquitous global connectivity through the seamless integration of satellite and terrestrial assets. This year, new Challenge categories were unveiled across four strategic pillars, designed to advance technological developments pivotal to the commercialisation of such hybrid networks:

  • AI x NTN: Integrating Artificial Intelligence with the emerging trend of Non-Terrestrial Networks will allow next-generation mobile connectivity to benefit from nearly ubiquitous and continuous coverage by orchestrating traffic and dynamic spectrum through satellite networks on multiple orbits.
  • Direct-to-Device (D2D): On the ground, consumer and commercial users will rely on standardised and globally accessible satellite connectivity directly to consumer smartphones and Internet-of-Things (IoT) devices.
  • 5G and 6G Hubs: The convergence of standards-based mobile connectivity and satellite communications will be advanced through targeted exchanges and collaborative testbeds to help operators and developers to create the next generation of hybrid network infrastructure.
  • 6G innovation: Focusing on early-stage 6G technologies, such as edge intelligence and advanced IoT by emphasising areas where satellite-terrestrial convergence will play a crucial role. 

The 2026 edition of the Innovation Challenges announced at MWC Barcelona 2026 is the third round in an ongoing partnership between ESA and the GSMA Foundry inaugurated in 2024. Successful applications selected by ESA and its National Delegations are invited by the GSMA Foundry to showcase their achievements at the MWC Barcelona conference. These live project demonstration contribute to increasing their visibility, as well as their opportunities for collaboration with leading organisations in the telecommunications and space sectors. Furthermore, successful applicants are directed to relevant ESA funding mechanisms and programmatic support to fast-track the development and commercialisation of their project.

ESA and GSMA Foundry at MWC Barcelona 2026.
ESA and GSMA Foundry at MWC Barcelona 2026. Image credit: European Space Agency

Successful submissions originating from the ESA Member States that have subscribed to the Space to 5G/6G and Sustainable Connectivity programme line of the Advanced Research in Telecommunications Systems (ARTES) programme during the ESA Council at Ministerial Level 2025 (CM25) will be able to apply for funding from a dedicated investment of up to €100 million put forward to support innovation.

This year, the five winners of the 2025 edition of the Innovation Challenges will present their innovations in live demonstrations at the New Frontiers area of Hall 6 at MWC Barcelona 2026, with support from Accedo, Autodiscovery, AWTG, Celeste, Filtronic, Keysight & Sateliot, Lasting Software, MediaTek & Rohde & Schwarz, Microamp, MinWave Technologies, Nextworks, Nokia, OQ Technology, Photon Industries and Qoherent.  

“Our Member States’ unwavering support in our programmes, particularly during the ESA Council at Ministerial Level (CM25), has made this collaboration with GSMA Foundry possible,” said Laurent Jaffart, Director of Resilience, Navigation and Connectivity at ESA. “At Mobile World Congress, we’re collectively marking a pivotal moment for the convergence of Europe’s space and telecommunication sectors. By offering funding access for AI, NTN, and D2D, we are not just developing technology; we are preparing for the seamless, global 6G infrastructure of tomorrow.” 

“By combining the reach of the mobile industry with ESA’s space expertise, we are unlocking a new era of connectivity. This funding and our showcase demonstrate that hybrid networks are no longer a concept, they are a commercial reality,” Alex Sinclair, Chief Technology Officer at GSMA, said “The collaborative breakthroughs you see today signal a step-change for digital transformation, making seamless and universal connectivity possible even in the most remote regions. Together, we are driving forward innovation that will empower businesses, revolutionise industries, and bring transformative benefits to society as a whole.”  

The New Frontiers stage at MWC Barcelona 2026. Image credit: European Space Agency

The up to €100 million investment put forward by ESA’s Members States at CM25 is part of their subscription to the Agency’s Space for 5G/6G and Sustainable Connectivity. Under this programme line, ESA’s aim is to support industry in integrating satellite communications with the connectivity currently enabled by terrestrial networks. The potential benefits of this convergence are far-reaching: mobile and Internet-of-Things connectivity could become consistently available by seamlessly switching from terrestrial to non-terrestrial networks. This ubiquitous connectivity will help bridge the digital divide by improving commercial and consumer applications, for example with access to emergency services and telemedicine, even in remote locations.

Applicants for the 2026 ESA and GSMA Foundry Challenges are now able to submit their projects to be considered for funding and support, as well as the opportunity to showcase their innovation at MWC Barcelona 2027.

ESA, Airbus, TESAT and TNO set new record for fast and secure optical communications from geostationary orbit

Publication date

26 Feb 2026

The European Space Agency (ESA), alongside Europe’s Airbus Defence and Space, the Netherlands Organisation for Applied Scientific Research (TNO), and TESAT, have successful demonstrated laser communications between an aircraft and a geostationary satellite over 36,000 kilometres away.

Test aircraft fitted with UltraAir terminal on the runway. Image credit: Airbus Defence and Space

The development is supported by ESA’s Optical and Quantum Communications – ScyLight programme, within the Advanced Research in Telecommunications Systems (ARTES) programme. ScyLight addresses the development, demonstration and utilisation of innovative optical and quantum technologies for satellite communications through system studies and market analyses in partnership with Industry. Fulfilling this mandate, UltraAir’s technology paves the way for secure, gigabit per second–speed communications with low probability of interference or interception.

In a series of flight tests from the Nîmes Airport in France, the jet aircraft equipped with Airbus’ UltraAir laser communication terminal established and maintained a secure laser link with its counterpart in geostationary orbit. On the aircraft, the UltraAir terminal’s mechanical and optical control technology – needed to achieve a stable laser link – was developed by TNO, while its free-space optical link was provided by Airbus subsidiary, TESAT.

Together, these advancements allowed UltraAir to connect with a TDP–1, a testbed for the implementation of optical data links equipped onboard the Alphasat satellite. The TDP-1 Laser Communication Terminal is owned by the German Aerospace Center (DLR) and is operated by TESAT, in collaboration with ESA.

The Alphasat telecom satellite. Image credit: European Space Agency. Image credit: ESA-S. Corvaja

Optical data links have the potential to enable satellites to rapidly and securely transmit complete data sets in a single burst, a significant improvement over legacy Radio frequency (RF) systems. The UltraAir demonstration flights tested acquisition and tracking abilities for optical links from a moving platform – rather than a static ground station – and established a seamless performance: a bit error free, coherent data rate of 2.6 gigabit per second that remained uninterrupted for several minutes.

This advancement has both civilian and defence applications, providing a secure alternative to RF satellite communications. RF has historically been the backbone of satellite communications, but it can be intercepted, jammed and disrupted by user proliferation and adverse weather – decreasing the integrity and security of data transmissions. In defence, laser communications could help overcome the challenge posed by clouds in multidomain operations and make it harder to intercept communications. In civilian applications, it could enable high–speed data connections with mobile platforms such as passenger airliners, cars and ships to keep passengers connected.

Alphasat TDP-1 Optical Communication Terminal
Alphasat TDP1 Optical Communication Terminal. Image credit: TESAT, DLR

“This achievement demonstrates how optical communications can transform secure connectivity for our Member States. Particularly by working to resolve the technical challenges that come with establishing fast laser communications, capable of evading interference and detection in demanding conditions,” said Laurent Jaffart, Director of Resilience, Navigation and Connectivity at ESA. “Collaboration drives innovation, and this milestone will strategically deliver benefits to future missions, where speed and security of data transmission is paramount. For Europe and beyond.”

“Establishing laser links between moving targets at this distance is technically very challenging. Continuous movements, platform vibrations and atmospheric disturbances require extreme precision,” said François Lombard, Head of Connected Intelligence at Airbus Defence and Space. “This milestone is a further development of our long successful laser communication history; it opens the door to a new era of laser satellite communications to meet defence and commercial needs in the next decades.”

“This breakthrough proves that our industry strengthens Europe’s security and its autonomy by leading strategic technology in the field of secure laser communications,” said Kees Buijsrogge, Director of Space at TNO.

“Optical communications between airborne users and satellite networks, like ESA’s High-thRoughput Optical Network (HydRON), are high on ESA’s agenda,” said Harald Hauschildt, Head of ESA’s Optical and Quantum Communication Office. “High-data rate, low-latency links that connect High-Altitude Pseudo Satellites (HAPS) and aircraft are equally demanded for commercial and resilience driven applications.”

The project was co-funded by Airbus and TNO, with support from the Netherlands Space Office (NSO) and the German Aerospace Center (DLR) as part of ESA’s Optical and Quantum Communications – ScyLight programme.

Finnish tech company showcases ESA-supported embedded fabric antenna capable of GEO satellite connectivity

Publication date

25 Feb 2026

A prototype of the fabric antenna. Credit: Stealthcase

WEARABLE ANTENNAS ON MOUNTAINTOPS

In an advance for innovative internet–of–things satellite connectivity, Stealthcase, a Finnish company successfully demonstrated connectivity with satellites in geostationary (GEO) orbit. This was achieved using a wearable textile antenna initially developed under the European Space Agency’s Advanced Research in Telecommunications Systems (ARTES) programme. The demonstration was conducted in real world conditions, with the fabric antenna maintaining a stable connection to satellites 35,000 km away. This experiment showcases the potential of new materials solutions as the adoption of non–terrestrial–network and internet–of–things expands.

The real–world test was held at Halti, a fell at the Norway–Finland border; two teams of hikers wearing jackets lined with Stealthcase’s textile antenna – produced in collaboration with the eponymous Halti clothing brand – tested the connectivity by exchanging messages as one group climbed, and the other stayed at lower altitudes. The fabric antenna, incorporated directly into the hiker’s jackets, maintained a strong signal connection with satellites in geostationary orbit, even in expected blind spots, such as the low–altitude area in the shadow of the mountain.

The test team wearing the textile-antenna-equipped jackets. Imaged credit: Teemu Jaakkola, Radientum

THE CHALLENGE: SIZE VS PERFORMANCE VS RUGGEDNESS

Antennas require a specific size relative to the wavelength they operate on to function optimally. Reducing their size to fit them on compact and handheld devices therefore incurs a trade–off in performance – and a commensurate increase in price. Concurrently, textile antennas thus far have been limited by existing manufacturing techniques and materials, restricting performance and making them ill–suited for daily use.

COMBINING INNOVATIONS

Stealthcase’s approach blends innovative laser processing techniques with groundbreaking antenna technology to overcome this challenge – bringing together ingenious manufacturing with ESA–supported research into antenna technology.

Leveraging the production techniques developed to process coated glass into energy–efficient windows that also let through signals, the Company was able to ablate conductive fabrics into a flexible fabric antenna. The antenna technology itself builds on prior work started under the ARTES programme to create an L–band satellite phone antenna capable of communicating with satellites in low Earth orbit (LEO).

“You can build something in a lab, write a paper and be done with your project. We want to build something that works, something that lasts,”

Juha Lilja, CTO at Stealthcase

BUILDING A RUGGED PRODUCT

The novel production method allowed Stealthcase to overcome a significant obstacle to the usability of textile antennas – weathering real life wear and tear. Fragile coaxial soldering and conductive adhesives having proved unreliable, the Company patented an impact–tolerant RF interface, integrating circuit boards directly with conductive fabrics. This elegant solution enables a new approach to the traditional trade–off for antennas: by building them directly into the fabric with no wires or snappable parts, the antennas can grow as big as the surface of the object they are sown into.

REAL–WORLD PERFORMACE

Stealthcase’s technology merges RF circuitry with conductive fabrics, enabling customisation to different frequency bands – from VHF up to GHz frequencies. By turning the entire fabric’s surface area into an antenna, the Company is able to

adapt the LEO antenna technology developed with ESA for GEO communications, maximising both power and range to operate on S–band.

During tests, the wearable fabric antenna performed as well as – and sometimes better – than smartphone antennas. The textile satellite transceiver achieved low variation, low loss signal, with as much as ten times less interference than phones. Its Specific Absorption Rate (SAR) was measured by Radientum at 0.15 Watt per kilogram at 868 Mega Hertz ISM bandwidth 20 decibel-milliwatts continuous wave transmission power with 10 grams tissue averaging.

In real conditions, the performance speaks for itself: The fully integrated wearable satellite messenger in the Halti jacket provided two–way connectivity through a GEO satellite link.

A diagram indicating the connection angle of the GEO satellite. Image credit: Stealthcase

MADE–TO–ORDER CONNECTIVITY

Stealthcase’s manufacturing process makes this innovative satellite communication solution highly customisable and affordable. By adapting its laser–based processes, the Company can produce textile antennas and soft, conformal components in a scalable and repeatable manner.

The immediate applications for embedded satellite communications can help improve safety for emergency services, first responders and remote workers by replacing bulky equipment with seamless, accessible connectivity where no terrestrial network exists. This solution also meets with emergent trends in IoT applications, making its resilient, customisable design an enabler of innovation for future applications.

“Turning clothes, life rafts, and more into antennas makes sure we can keep people connected when they need it the most,” said Hoda Nematollahi, Antenna Engineer at ESA. “Stealthcase’s work is a great example of the unexpected solutions and innovations that come out of ESA-supported research to enable new businesses and applications.”

Greece’s Advanced Laser Satellite Communications test campaign to launch with ESA support  

Publication date

13 Feb 2026

PeakSat, OptiSat and ERMIS-3 undergoing integration testing
PeakSat, OptiSat and ERMIS-3 undergoing integration testing. Image credit: National and Kapodistrian University of Athens

The European Space Agency (ESA) is supporting an extensive test campaign for optical laser terminals orchestrated by a broad coalition of Greek aerospace and academic partners under the Greek Connectivity Programme. Launching with four CubeSat missions in the first half of 2026, this campaign will aim to validate next-generation laser communication terminals in support of Greece’s expanding Connectivity and Secure Communications Programme.

The missions, operated by Planetek Hellas, EMTech Space, the Aristotle University of Thessaloniki, and the National and Kapodistrian University of Athens will conduct in-orbit-demonstrations of three different laser payload designs. The optical terminals will use laser light for high-bandwidth, secure links between the satellites and ground stations, potentially exceeding 1Gbps data rates. This technology represents a step change from traditional radio frequency communications, which are vulnerable to interference, provide much lower data rates, and require licensing.

OptiSat undergoing testing of it laser communications terminal payload
OptiSat undergoing testing of it laser communications terminal payload. Image credit: Planetek Hellas

OptiSat, led by Planetek Hellas, will host a TESAT SCOT20 laser communication terminal payload designed to demonstrate secure, high-rate laser links from small satellites in Low-Earth Orbit (LEO). It was delivered, accepted and integrated with the 6U OptiSat satellite in August 2025 ahead of testing and launch preparations.

Hellenic Space Dawn comprises of two 8U satellites, managed by EMTech Space. The satellites are equipped with CubeCAT laser communication terminals from AAC Clyde Space. The mission will validate robust optical links, offering significant improvements over conventional radio frequency systems for transmission speeds and resistance to interference. This mission will also carry high-resolution cameras with the intention of leveraging optical links to enable low-latency support for applications such as cartography and land-use monitoring.

PeakSat undergoing pre-flight tests
PeakSat undergoing pre-flight tests. Image credit: Aristotle University of Thessaloniki

PeakSat is a 3U CubeSat developed by the Aristotle University of Thessaloniki. It will use the Astrolight ATLAS-1 laser communication terminal to test space-to-ground optical links with upgraded Greek optical ground stations. This will establish real-world performance metrics across a variety of atmospheric and operational conditions.

ERMIS-3 undergoing pre-flight preparations
ERMIS-3 undergoing pre-flight preparations. Image credit: ERMIS consortium

ERMIS-3 is a 6U satellite and a cornerstone mission of the Greek Connectivity Programme. It was built by the ERMIS consortium, led by the National and Kapodistrian University of Athens (NKUA), and features an Astrolight ATLAS-1laser communication terminal. While the ERMIS-1 and ERMIS-2 missions focus on 5G Internet of Things non-terrestrial-network connectivity, ERMIS-3 will focus on high-capacity and secure space-to-ground optical links. In particular, it will emphasise precise pointing, acquisition and tracking (PAT) and operational robustness. ERMIS-3 plays a key role in validating Astrolight’s technology for future operational and constellation-level applications. ERMIS-3 also features a hyperspectral camera and will aim to demonstrate rapid transmission of hyperspectral imagery from space via optical links, for applications such as precision agriculture.

The CubeSats are part the Greek Connectivity Programme, implemented by ESA on behalf on the Greek Government’s Ministry of Digital Governance. Together with recent advances in the work on the Hellenic Assembly, Integration and Testing Facility (HAITF), these missions are part of a push to build up the country’s ability to design, build, test and operate satellites.

“This test campaign is a concerted effort to deliver top-of-the-line laser communications capabilities for Greece and advance its place as a fully-fledged player in Europe’s space ecosystem,” said Frederic Rouesnel, Greek National Telecommunications Satellites Programme Manager at the European Space Agency. “Mastering laser communications on compact satellites is a bold step towards next-gen constellation applications for the Greek Connectivity Programme.”

“PeakSat’s launch with Transporter-16 marks a significant milestone for SpaceDot, Aristotle University of Thessaloniki, and Prisma Electronics. The mission will demonstrate in-orbit optical communications with the Holomondas Optical Ground Station, developed at AUTH with the Laboratory of Theoretical Mechanics and Astronomy. Delivered end-to-end by student engineers and researchers, PeakSat shows how effective industry–academia collaboration can translate ambitious research goals into flight-ready capability,” said Panagiotis Vamvakas, PeakSat Project Manager at the Aristotle University of Thessaloniki. “With Astrolight’s ATLAS-1 optical terminal and key subsystems developed in-house – including the on-board computer and the communications board – PeakSat is ready to begin its operational phase in orbit.”

The state-of-the-art laser communications testing capabilities are central to Greece’s space strategy, enabling secure connectivity and high-speed data transfer for scientific, governmental and commercial applications.

Greek Connectivity Programme implemented by ESA proceeds with satellite commissioning and launches

Publication date

13 Feb 2026

The MICE-1 and PHASMA Greek CubeSat missions supported by the European Space Agency (ESA) have begun their in-orbit activities, a key milestone in their launch and early operations phase.

The two missions were launched into Sun Synchronous Orbit on 28 November 2025 aboard SpaceX’s Transporter-15 rideshare mission from Vandenberg Space Force Base, USA. Joining DUTHSat-2 in orbit, MICE-1 and PHASMA are part of the Greek National Small Satellite Programme implemented by ESA on behalf of the Hellenic Ministry of Digital Governance. The three missions are part of a larger endeavour to launch a total of seven Greek missions, which will culminate with four additional CubeSat missions in 2026.

The Greek IOD/IOV CubeSat programme falls under the National Recovery and Resilience Plan ‘Greece 2.0’ funded by the Recovery and Resilience Facility (RRF), a core programme of the European Union’s NextGenerationEU. The RRF aims to strengthen Greece’s technological capabilities in areas such as secure connectivity and Earth observation, while fostering the country’s presence in the global space community.

MICE-1 and PHASMA are the latest addition to this effort. The satellites are operated by PRISMA Electronics and the Libre Space Foundation respectively. During the critical launch and operations phase, both teams work to verify spacecraft health, gradually activating onboard systems. Following launch, the operators successfully established contact with all spacecrafts and verified their response to commands – enabling the teams to safely progress through the commissioning of key functions and transition towards routine operations.

An artist's render of the PHASMA constellation satellites flying in formation
An artist’s rendering of the PHASMA spacecrafts’ in-flight configuration. Image credit: Libre Space Foundation

PHASMA is composed of two satellites, LAMARR and DIRAC, equipped with a SatNOGS-COMMS transceiver and a payload antenna used to monitor radio frequency activity in UHF and S-bands before sending the measurements to the ground stations. By combining measurements from the two satellites with their orbital positioning, operators will be able to determine the location of the signals, particularly whether they are originating from Earth or from space. With this information, the Libre Space Foundation team will be able to quantify global spectrum usage and identify potential sources of interference or violations.

MICE-1 being integrated with its deployment system ahead of launch
MICE-1 integrated with its deployer ahead of the launch. Image credit: Exolaunch

The Maritime Identification and Communication systEm-1 (MICE-1), developed by Prisma Electronics S.A. with the support of the Democritus University of Thrace, is a 3U CubeSat focused on enhancing maritime tracking activities in the Mediterranean Sea.  MICE-1 hosts an antenna and receiver to track Automated Identification System (AIS) signals broadcast by seafaring vessels, extending maritime tracking coverage into remote areas. In addition, the mission establishes communication with ships equipped with PRISMA Electronics’ LAROS system. LAROS supports the diagnosis and early warning for structural, environmental and energy footprint assessment of maritime assets.

The remaining four ESA-supported missions of the seven  planned since  2023, are planned to be launched in 2026: ERMIS (National and Kapodistrian University of Athens), OptiSat (Planetek Hellas), PeakSat (Aristotle University of Thessaloniki) and Hellenic Space Dawn (EMTech SPACE). Together, the seven missions will contribute to expanding Greece’s space ambitions with practical know-how in satellite building, launch and operations to take on a growing place in the European space ecosystem.

“ESA and the Hellenic Ministry for Digital Governance are building a bold foundation for Greece’s future in space,” said Frederic Rouesnel, Greek National Telecom Satellites Programme Manager at the European Space Agency. “Each mission in the programme is another milestone in the new space race, expanding Greece’s ability to design, assemble, test, operate and leverage satellites – both independently and in collaboration with the rest of the European space ecosystem. We will continue building up speed towards this ambitious future in space in the months to come.”

ESA and University of Glasgow demonstrate end-to-end medical visit with satellite-powered remote medicine

Publication date

20 Jan 2026

Consulting dentist performing the remote dental inspection from the 5G/6G Hub in ESA’s ECSAT. Image credit: European Space Agency

The European Space Agency (ESA) and the University of Glasgow successfully performed a remote dental inspection over satellite signal using the pop—up 5G network developed by ESA’s 5G REMOTE project. This experiment showcases the benefits of satellite communications for telemedicine – enabling healthcare professionals to engage and even physically interact with patients from hundreds of miles away.

This simulation was conducted in a partnership between ESA Connectivity and Secure Communications, and the Glasgow Next—Generation (GXG) testbed at the University of Glasgow. The experiment was funded under ESA’s Space for 5G/6G & Sustainable Connectivity programme within the Advanced Research in Telecommunications Systems (ARTES) programme, with support from the UK Space Agency.

The test team at ESA’s ECSAT in Harwell. Image credit: European Space Agency

The test demonstrated a complete, end—to—end remote patient experience. The user equipment located in the 5G/6G Hub at ESA’s European Centre for Space Applications and Telecommunications (ECSAT) site at the Harwell Science and Innovation Campus connected through a OneWeb satellite backhaul to the University of Glasgow’s 5G pop—network. This pop—up network enabled the team to connect to a robotic arm located at the University of Glasgow’s Loch Lomond facility, using a 5G edge breakout to optimize user plane traffic. Through this remotely controlled robotic arm, the doctor at ESA ECSAT was able to perform a dental examination of the simulated patient at Loch Lomond. The Space for 5G/6G team then dispatched a drone to deliver medication to the patient, all the while monitoring and tracking its payload over a 5G—enabled Long—Range Wide Area Network (LoRaWAN).

This seamless experience — blending terrestrial and non—terrestrial networks with robotic systems and drones while leveraging edge computing capabilities — highlights the transformative potential of integrated terrestrial and non—terrestrial connectivity for secluded areas. Where terrestrial networks are not economically viable or practical due to geographical or demographic constraints, hybrid 5G and satellite—enabled connectivity can bridge the gap and enable advanced telemedicine services. By integrating terrestrial and non—terrestrial networks, new and faster communications standards being developed by industry will help to enable stable and continuous connections worldwide.

The robotic arm and simulated patient at University of Glasgow’s Loch Lomond facility. Image credit: University of Glasgow

Leveraging the potential of ubiquitous signal coverage afforded by integrated terrestrial and non—terrestrial networks, the 5G REMOTE project combines satellite connectivity with a portable 5G pop—up network that can be rapidly deployed in remote locations where only satellite coverage can reach. This hybrid solution supports critical services, such as telemedicine, by enabling new robotic and unmanned solutions that extend the reach and effectiveness of healthcare providers. For emergency situations, this technology can help provide critical care, even in geographically isolated and otherwise hard—to—reach locations. The technology can also reduce cost by removing transportation from the equation.

“This kind of reliable and flexible connectivity has potentially transformative applications for improving the wellbeing of millions of people,” said Antonio Franchi, Head of ESA’s Space for 5G/6G & Sustainable Connectivity programme. “We are combining satellite communications technology with new advances in mobile signals and robotics to unlock the full power of telemedicine and help to overcome the digital divide.”

 “Access to healthcare should not depend on postcode or proximity to a major hospital. Our team’s work with ESA demonstrates a practical pathway to bring specialist assessment and timely intervention closer to remote and rural communities,” said Professor Muhammad Imran, Head of James Watt School of Engineering at the University of Glasgow. “This was enabled by using integrated 5G and satellite connectivity (terrestrial and non—terrestrial networks) to support real—time interaction, remote examination and delivery of essentials when every minute matters.”

Infrastructure and Clean Room works on Hellenic Assembly Integration & Testing Facility nearing completion with support from ESA

Publication date

21 Dec 2025

The facility’s core capabilities will be enabled by thermal vacuum chambers (TVAC), one of which is seen here during the Manufacturing Review in Italy prior to the factory acceptance test. Image credit: Hellenic Aerospace Industry S.A.

Civil and structural work has been completed on the Hellenic Assembly, Integration and Testing Facility (HAITF), implemented by ESA Connectivity and Secure Communications in collaboration with the Hellenic Aerospace Industry S.A. (HAI) on behalf of the Hellenic Government. This milestone comes after the successful launches for the Greek Satellite Connectivity Programme on Transporter-15 and puts the facility on track for its commissioning and acceptance, with operational target by the second quarter of 2026.

The infrastructure that will house the brand-new facility has been completed to the rigorous specifications of satellite Assembly, Integration and Testing (AIT) activities, with support from the main subcontractor, BCT Group. The AIT facility’s spatial configuration and structure have been designed to support the demanding operational requirements of satellite assembly, with purpose-built floors, load-bearing structures and overhead cranes. Furthermore, the room partitions, finishes, interfaces, systems & utility networks for the environmental controls constituting the ISO 8-compliant cleanroom have also been installed. In the coming weeks, installation of the remaining lighting, electrical distribution, and grounding infrastructure will proceed at pace to bring the cleanroom to operational standards.

IMV Corporation’s shaker system successfully passed the Factory Acceptance Stage in November 2025, prior to shipment to Greece. Image credit: Hellenic Aerospace Industry S.A.

This Hellenic AIT facility is being built to further support the role of Greece in the European space landscape. The HAITF will boost the design and manufacture of the next generation of Greek satellites, from subsystem integration to environmental qualification. The facility’s core capabilities will be enabled by two thermal vacuum chambers (TVAC) provided by Angelantoni Test Technologies, and a 125kN-rated Vibration Test System (shaker) provided by the IMV Corporation. Highlighting the rapid progress of development of the facility, IMV Corporation’s shaker system successfully passed its Factory Acceptance Stage in November 2025, validating its performance within HAITF’s strict specification requirements. Both TVAC and shaker components are expected to be installed in February 2026.

As part of the National Recovery and Resilience Plan “Greece 2.0”, the Hellenic AIT facility project is funded by the European Union through the Recovery and Resilience Facility (RRF) and implemented by ESA on behalf of the Greek Ministry of Digital Governance. The HAITF project was launched in November 2023 with the objective to design, build, and operate a fully functional Assembly, Integration and Testing infrastructure at HAI’s site in Schimatari. The implementation began in early 2025, targeting full installation by the first half of 2026, with site acceptance tests scheduled for no earlier than March 2026. The timeline demonstrates the momentum of the programme towards delivering modern high-performance facilities supporting advanced AIT capabilities for the Greek space industry.

“2025 has counted milestone after milestone for the Greek Connectivity Programme,” said Frédéric Rouesnel, Greek Connectivity RRF Project Manager at ESA’s Connectivity and Secure Communications. “The completion of the building housing the brand-new Hellenic AIT facility will boost Greece’s role in the European space landscape and open the doors for talent and expertise to grow locally with new jobs and projects throughout the value chain. Already, HAITF has shown Greece’s expertise to develop and produce highly rated facilities to enable  its growing role in the end-to-end European industrial resilience, strategic autonomy, collaboration and know-how.”