Satrec Initiative and Hanwha Systems Pioneer the Future of Earth Observation with Ultra-High-Resolution 10-Centimeter Optical Satellites

PARIS — In a strategic push to capture a commanding share of the rapidly evolving global Earth observation market, South Korean aerospace powerhouse Hanwha Systems and its subsidiary, Satrec Initiative, are aggressively advancing plans to deploy a groundbreaking constellation of ultra-high-resolution optical and synthetic-aperture-radar (SAR) satellites. Speaking at the World Space Business Week conference in Paris, Eugene Kim, executive vice president of Satrec Initiative, detailed the company’s ambitious roadmap to manufacture and launch a fleet of advanced spacecraft capable of delivering unprecedented 10-centimeter-class optical imagery.
This next-generation optical constellation is designed to seamlessly integrate with Hanwha’s previously announced 64-satellite SAR constellation. Together, the multi-sensor network aims to revolutionize the defense, intelligence, and commercial geospatial markets by providing high-frequency, all-weather monitoring and sub-decimeter optical clarity on a global scale. As Earth imaging pioneers race to push the boundaries of spatial resolution, the South Korean conglomerate is positioning itself at the absolute forefront of space-based intelligence capabilities.
The Evolution of Earth Observation and the Push for Sub-Decimeter Resolution
The commercial and defense markets for Earth observation data have undergone a seismic shift over the past decade. Historically, resolution capabilities measured in meters were considered standard, but advancements in optics, sensor design, and platform stability have rapidly driven industry benchmarks down to the sub-meter level. Today, leading commercial imagery providers routinely operate satellites capable of capturing 30-centimeter to 50-centimeter data.

However, the threshold is once again dropping. Satrec Initiative already boasts sophisticated 25-centimeter optical imaging capabilities via its SpaceEye-T satellite, which launched in 2025 and has quickly gained traction among international customers, including European lessees seeking top-tier spatial fidelity. Despite these achievements, market demand for hyper-detailed intelligence—particularly for military targeting, border security, urban planning, and precision change-detection—has accelerated the push toward 10-centimeter and 20-centimeter resolution classes.
Global competitors are actively moving in a similar direction. Major aerospace entities such as Airbus are currently developing next-generation spacecraft like the Pléiades Neo Next series, targeting 20-centimeter imagery by 2028. Concurrently, commercial operators like Vantor are expanding their Vantage smallsat fleets to enhance revisit rates, while ImageSat International (ISI) recently introduced its advanced EROS-NOVA system to capture 25-centimeter native resolution imagery. By jumping directly to a 10-centimeter optical class, Satrec Initiative and Hanwha are leapfrogging intermediate milestones to establish an unassailable competitive advantage in the high-end intelligence sector.
Overcoming Orbital Challenges: The Very Low Earth Orbit (VLEO) Strategy
Achieving 10-centimeter-class optical resolution from space is an extraordinary engineering feat. To resolve objects as small as 10 centimeters on the Earth’s surface—such as vehicle license plates or specific infrastructure components—spacecraft must operate much closer to the planet than traditional Earth-observation platforms. Consequently, Hanwha’s upcoming optical satellites are designed to operate in very low Earth orbit (VLEO), maintaining operational altitudes well below 400 kilometers.
While VLEO operations yield breathtakingly sharp imagery, they present severe engineering hurdles. Spacecraft flying at these low altitudes encounter significantly higher levels of atmospheric drag and are exposed to corrosive atomic-oxygen, which rapidly degrades exterior materials, solar arrays, and optical coatings. Managing orbital decay requires sophisticated propulsion systems and constant station-keeping maneuvers, consuming valuable fuel supplies and complicating mission lifespans.

Recognizing these risks, Hanwha has mapped out a meticulous, step-by-step flight test campaign. According to corporate disclosures, the company will initiate its VLEO deployment strategy by launching a pathfinder test satellite into a safer, higher orbit near 500 kilometers. Engineers will then incrementally lower the spacecraft’s altitude over time, gathering critical empirical data regarding atmospheric drag, thermal cycling, and atomic-oxygen interactions. This measured approach will ensure that the final architecture of the operational 10-centimeter-class satellites is robust enough to endure the harsh VLEO environment.
Synergy with the 64-Satellite SAR Constellation
The optical satellites will not operate in a vacuum. They form a critical component of Hanwha Systems’ broader space strategy, anchored by a massive 64-satellite synthetic-aperture-radar (SAR) constellation announced earlier this year. Designed to achieve a staggering 30-minute revisit rate globally by the year 2031, the SAR network provides the distinct advantage of all-weather, day-and-night imaging capabilities, penetrating cloud cover and darkness that optical sensors cannot pierce.
By coupling Hanwha’s ultra-high-resolution SAR capabilities with Satrec Initiative’s upcoming 10-centimeter electro-optical spacecraft, the consolidated network will offer customers a comprehensive fusion of radar and optical data. Eugene Kim emphasized the transformative potential of this dual-sensor approach during his briefing in Paris.
"Together with ultra-high-resolution SAR and ultra-high-resolution electro-optical, the constellation is expected to open up new opportunities to provide Satellite as a Service in the defense and intelligence field," Kim stated.

This synergistic model allows military and governmental clients to detect anomalies or movements using the rapid-revisit SAR constellation, and subsequently task the ultra-sharp optical satellites for detailed identification and verification.
Actionable Intelligence Through Artificial Intelligence Integration
Raw imagery alone is often insufficient for modern defense and intelligence agencies swimming in petabytes of remote-sensing data. To maximize the utility of its constellation, Satrec Initiative is leveraging the expertise of its subsidiary, SI Analytics, a specialized firm focused on artificial intelligence-based satellite imagery analysis.
Through automated machine learning algorithms and computer vision models, SI Analytics can rapidly process incoming data streams from both the SAR and optical constellations. This integration is designed to filter out background noise, automatically identify objects of interest—such as military hardware, naval vessels, or infrastructure damage—and deliver "timely and accurate actionable intelligence" to end-users. In high-stakes defense scenarios, the speed from image acquisition to tactical comprehension can mean the difference between strategic success and failure.
Broader Industry Implications and the "New Space" Era in Asia

The aggressive expansion by Hanwha Systems and Satrec Initiative underscores a profound transformation in the global space economy. Historically dominated by traditional Western defense primes and governmental agencies, the Earth observation and intelligence markets are increasingly being disrupted by vertically integrated industrial conglomerates based in Asia, the Middle East, and emerging spacefaring nations.
Hanwha’s multi-billion-won investments in aerospace technology reflect South Korea’s national ambition to secure sovereign space capabilities—often referred to as space sovereignty—ensuring that the nation is not reliant on foreign commercial data providers for critical national security and environmental monitoring needs. By packaging these capabilities into a scalable "Satellite as a Service" (SaaS) business model, the company is simultaneously positioning itself to capture lucrative export markets among allied nations seeking turn-key defense intelligence solutions.
As the constellation development advances toward its 2031 completion timeline for the SAR network, the integration of 10-centimeter VLEO optical platforms will undoubtedly raise the bar for the entire remote-sensing industry. Competitors across North America and Europe will be closely monitoring Hanwha’s incremental flight tests and technological breakthroughs, recognizing that the future of Earth observation belongs to those who can successfully tame the complexities of very low Earth orbit while harnessing artificial intelligence to deliver instant, crystal-clear insights from the stars.







