Sceye

In 2025 alone, wildfires consumed 390 million hectares of land globally – an area nine times the size of California and nearly 90% of the entire European Union. The quantifiable damage is staggering: a single fire complex in Los Angeles County displaced 200,000 people and inflicted as much as $164 billion in economic losses. Much of the environmental destruction, however, remains impossible to calculate. Vast swaths of damage occur in remote, unmonitored ecosystems, such as central Africa, where wildfires have burned more than a quarter of Angola’s landmass. The blazes often ignite in near-total obscurity, a direct consequence of a massive vacuum in global surveillance. Traditional ground-based detection cannot reach these areas, and standard satellite passes leave massive blind spots, allowing sparks to expand into uncontrollable emergencies.

This critical deficit in atmospheric awareness mirrors a parallel crisis of human isolation on the ground. The digital “coverage gap” leaves 350 million individuals in rural, mountainous, or maritime regions without basic communication, health, or educational resources. Because installing terrestrial towers in harsh terrain is economically unviable, these populations remain outside the reach of modern connectivity. Solving this coverage gap through traditional buildouts would cost an estimated $418 billion, a figure that does not even address the “usage gap,” which leaves over three billion people unable to afford the networks that do reach them.

Where geography renders physical infrastructure unviable, strategic vulnerabilities inevitably multiply. Across the world’s borders and maritime corridors, sovereign security and essential utilities remain dangerously exposed. Modern society relies on highly concentrated, vulnerable networks; when subsea fiber-optic cables are severed with no warning in the Red Sea or the Baltic, international data highways instantly fracture. Similarly, across millions of square miles of open ocean, illicit trafficking and illegal fishing fleets routinely evade detection, slipping through the blind windows between satellite passes.

Global networks rely heavily on space-based satellites as a catch-all solution for everything from fire tracking and internet delivery to border surveillance, critical infrastructure tracking, and maritime threat detection. But capturing real-time, actionable data from orbit encounters hard physical limits. Satellites in low-Earth orbit (LEO) sit roughly 350 kilometers above the surface and move at about 17,000 mph, meaning they capture only fleeting snapshots of any given location. Geostationary (GEO) satellites solve the persistence problem by holding a fixed position, but their altitude of roughly 35,000 kilometers creates significant free-space path loss, higher latency, and lower-resolution imagery. Weather in the lower atmosphere, including clouds, rain, and snow, can also disrupt data transmission between the ground and orbit.

The world needs an infrastructure layer that combines the wide-area vantage point of space with the high resolution and powerful signal strength delivered closer to the ground.

The solution to these disparate global crises lies exactly twelve miles overhead. Humans have been exploring the stratosphere’s potential for over a century. 

French meteorologist Léon Teisserenc de Bort discovered the layer in 1902 using unmanned weather balloons affixed with meteorographs. He shocked the scientific community by proving that atmospheric temperatures level off precisely at the boundary of this upper layer. The discovery immediately revealed the stratosphere’s capacity to serve as an elite observatory for data-gathering and monitoring. In 1931, Belgian physicist Auguste Piccard launched the first manned venture into the zone, ascending to 51,775 feet in a pressurized aluminum gondola of his own design. “My aim,” he said, “is not to beat records … but to open up a new zone for scientific research and air navigation.”

His words proved prescient. Just four years later, a manned balloon flight captured the earliest images of the Earth’s curvature.

In 1957, as part of the International Geophysical Year, scientists established a global network of ground-based ozone measurement stations, providing the first coordinated view of stratospheric dynamics. Nearly three decades later, the British Antarctic Survey leveraged its findings to expose a shocking 50 percent plunge in ozone levels above Halley Bay, sounding an urgent planetary alarm. The revelation galvanized an immediate diplomatic response; in 1987, nations signed the Montreal Protocol, phasing out the production of ozone-depleting chemicals in what remains one of the great examples of global cooperation.

With few exceptions, stratospheric balloons have been our primary source of information on everything from cosmic rays to climate change. The field advanced dramatically in 1924 with the radiosonde, a small, lightweight instrument that tracked atmospheric conditions and transmitted data via radio signals, eliminating manual retrieval. Today, meteorologists launch around 1,800 weather balloons daily. 

The military took note, as well. Shortly after World War II, the US Air Force and CIA commissioned Lockheed to design a data-gathering aircraft that could reach 70,000 feet – above the range of Soviet jets, missiles, and radar – and stay there for 12 to 14 hours. In 1955, fresh from Lockheed’s famous “Skunk Works” division, the U-2 aircraft took off for its first test run. Armed with an array of cameras and sensors, the aircraft has operated for more than 70 years, undergoing several fleet refreshes over its lifespan.

More recently, the telecommunications sector has turned its attention skyward. Existing terrestrial infrastructure already brings a remarkable 96% of the world’s population within range of a mobile signal (though accessibility is still limited by the usage gap). But the remaining 4% represents a massive population; they live in isolated mountain ranges, dense jungles, or maritime regions where harsh terrain blocks traditional coverage and sparse populations make tower construction and maintenance commercially untenable. Ultimately, a society increasingly dependent on digital connectivity risks leaving these underserved communities entirely behind. While satellites bridge some gaps, their extreme distance weakens transmission signals as they travel, drastically diluting the reliability of the network they provide.

Here again, the stratosphere holds incredible promise. But despite the myriad breakthroughs it’s afforded, its full potential remains locked behind a single engineering problem: stasis. Weather balloons capture vital data but inevitably pop; advanced spy planes offer unrivaled clarity but must eventually land; in order to provide uninterrupted last-mile telecommunications to isolated populations, aircraft must remain anchored over a single coordinate. Solving these challenges requires a platform that can survive the harsh physical realities of the upper atmosphere and hold its ground indefinitely. 

To transform the stratosphere from a fleeting vantage point into permanent infrastructure, the global aerospace industry has long pursued High-Altitude Platform Stations (HAPS) – unmanned craft designed to maintain a fixed coordinate while carrying heavy payloads for monitoring and connectivity.

But sustaining a continuous presence hinges on solving a complicated environmental equation. A successful platform must withstand 100 km/h winds, survive intense solar radiation, endure 100°C day-to-night temperature swings, and generate enough independent power to run for months at a time. Over the last two decades, the world’s largest technology and aerospace companies have spent billions trying to operate in this zone, only to expose a fundamental mismatch between traditional vehicle designs and stratospheric physics.

Historically, engineers have modified three standard vehicle types to conquer this layer: fixed-wing drones, unpowered balloons, and traditional airships. Each collapsed against a different limit.

The payload problem. Fixed-wing solar drones rely entirely on sunlight to stay airborne, a constraint that demands extraordinary lightness. Facebook pursued this path with its Aquila project, but strict weight restrictions left the aircraft virtually no capacity to carry heavy equipment; it shuttered the program in 2018 after just two test launches. Even Airbus’s record-breaking Zephyr drone illustrates this severe constraint. Weighing just 70 kilograms, it carries a mere five-kilogram payload, falling far short of working infrastructure demands. 

The steering problem. To bypass these weight limitations, other engineers turned to heavy, unpowered balloons that can lift substantial payloads by relying on buoyancy. Alphabet’s Google Loon project famously attempted this approach to extend LTE networks across rural Kenya. Though the project achieved notable technical milestones, including a single balloon remaining aloft for 312 consecutive days, the lack of onboard engines meant the vessels could only steer by drifting with shifting wind layers. This made consistent coverage impossible, and the massive operational cost of constantly cycling new balloons into the network forced Alphabet to shut Loon down in 2021.

The durability problem. Traditional airships seemingly offer the ideal middle ground, combining heavy payload capacity with natural buoyancy. But to achieve stability, a massive hull must stand anchored against punishing environmental stressors that erode structural integrity, all while retaining helium through months of UV exposure and pressure swings. It’s a fundamental design barrier that has grounded the concept for decades.  

Mikkel Vestergaard Frandsen looked at the stratosphere and saw what a generation of engineers had missed: not an aerospace problem, but a materials problem.

Frandsen had spent more than three decades delivering global health solutions through his family’s company, Vestergaard. Founded by his grandfather in Denmark in 1957, the business originated as a commercial textile and uniform manufacturer. When Frandsen took the reins in the 1990s, he phased out the uniform line completely, dismantling a stable corporate baseline to rebuild the company around a single conviction: that fabric could save lives.

Vestergaard delivered. In 1999, the newly oriented company released PermaNet, a category-defining, long-lasting insecticidal canopy. The product quickly became a cornerstone of one of the largest public health campaigns in history — a decade-long, multibillion-dollar effort to end malaria deaths in Africa that distributed over two billion nets and saved the lives of more than seven million children. Among the campaign’s chief architects was Helena Managing Partner Protik Basu; the collaboration marked the beginning of a working relationship that has now spanned more than two decades. In 2023, Vestergaard distributed its one billionth net.

A second public health intervention had been gestating even longer. In 1994, the Carter Center approached the company to help combat Guinea worm disease, a parasitic illness spread through contaminated drinking water. Vestergaard developed a rugged mesh filter that could strain the larvae from open water sources, then distributed more than 40 million units to endemic communities. The impact was historic. The campaign systematically dismantled the disease, collapsing cases from 3.5 million across 21 countries in 1986 to just 15 isolated cases in four countries by the end of 2021. Today, Guinea worm is poised to become the first disease in human history to be entirely eradicated without the use of a medical vaccine.

The work pointed Vestergaard toward a broader filtration challenge. In 2005, the company released LifeStraw, a portable purifier that draws contaminated water through hollow-fiber membranes whose microscopic pores block pathogens by size – without the use of chemicals or electricity that standard filtration systems rely on. The device won Time’s Best Invention award that year and entered the permanent collection of the Museum of Modern Art. Tens of millions of units have since been deployed in schools, clinics, and crisis zones around the world.

Frandsen had a name for the model: “humanitarian entrepreneurship“. Design products for the developing world or for urgent human need, then reinvest the profits into the next innovation, continuing the cycle. Under his leadership, Vestergaard’s profits grew fifty-fold, and its products have protected hundreds of millions of people.

In 2014, Frandsen founded Sceye. 

The stratosphere was new territory, but the logic was familiar: identify a critical challenge and answer it through material innovation. Skyward, Frandsen sensed the potential to scale humanitarian interventions to a global population.

A Sceye HAPS is 270 feet long and looks as if it’s been encased entirely in burnished silver. It flies at altitudes between 60,000 and 65,000 feet – above weather, above air traffic, inside the thin, wind-swept layer of upper air. It is best understood as a rebuttal, component by component, to the physics that defeated every craft that came before.

Its proprietary Sceye Skin, which comprises the airship’s hull, is the company’s foundational invention and the clearest inheritance of Frandsen’s career in textiles. It is five times stronger per unit mass than conventional HAPS materials, 1,500 times more gas-tight, and can withstand the intense ultraviolet and ozone exposure that degrades ordinary fabrics at altitude. 

Across the top of the hull runs a second innovation: a membrane of gallium arsenide and gallium selenide solar cells. By day, the array powers the airship’s systems while charging an onboard battery stack; by night, those batteries drive the electric, tail-mounted propeller that holds the ship in position against stratospheric winds.

Together, Sceye Skin and the solar array unlock a third breakthrough: capacity. With a payload of up to 250 kilograms, (roughly 25 to 50 times more than any competing stratospheric platform), a single Sceye HAPS can host heavy telecommunications hardware and a full suite of sensing equipment. That lift is what turns the platform from a scientific instrument into viable infrastructure.

SceyeCELL, the platform’s stratospheric antenna, operates on the same low- and mid-band frequencies used by commercial mobile networks. Because the protocols are native, an ordinary smartphone, laptop, or medical device on the ground connects to the airship exactly as it would to a terrestrial tower, no special hardware required. A single platform can replace the coverage of up to 500 ground-based cell towers. Its reach extends beyond remote communities to maritime corridors, where ships depend on satellite links compromised by weather and distance.

These core innovations enable the airship to carry an arsenal of scanners and cameras capable of ongoing, high-resolution surveillance of terrain and critical infrastructure. From its fixed position, the platform can monitor a high-risk forest for the thermal signature of ignition, track the erosion of a pipeline or bridge over time, scan remote borders for security threats, or map emissions in real time. 

And unlike a satellite, the airship returns home between missions. Sceye maintains every platform from the ground, then recovers it, refurbishes it with the latest hardware, and sends it back up, replacing the disposable life cycle of space hardware with a fully reusable asset. 

Sceye’s trajectory from structural concept to flight-proven utility was defined by a rapid, iterative march through aviation milestones.

In 2021, an airship climbing to 64,600 feet became the first of its kind to connect a 4G antenna directly to a standard smartphone on the ground, setting a record for long-range LTE connectivity at 140 kilometers. Shortly after, Sceye partnered with a consortium of New Mexico telecommunications companies and tribal entities, including Sacred Wind Communications, Santa Fe Indian School, and Navajo Technical University, to bridge the digital divide for the Navajo Nation. Flying over a 6,000-square-mile territory, the platform delivered 100 Mbps download speeds directly to homes, schools, and clinics in a region where 60 percent of residents lacked fixed internet access.

The following year, carrying Explorers Club flag #210 – the very flag that had traveled to the bottom of the Mariana Trench, the wreck of the Titanic, and the South Pole – a Sceye airship completed the first full 24-hour diurnal flight in the history of helium platforms. The single day-to-night cycle, powered by on-board batteries, was only a prelude. In 2024, Sceye crossed a defining threshold: closing the power loop by generating and storing enough solar energy to keep the platform aloft through repeated day to night cycles without losing altitude, position, or control.

These historical firsts converged during the grueling 2026 SE-2 mission to Brazil.

By completing the 12-day transit and logging over 88 hours of station-keeping along the way, it conclusively closed the pressure loop, solving the final piece of a dual engineering cycle that had grounded a century of stratospheric ambition.

Helena’s partnership with Sceye, built on a multi-year engagement with Frandsen and close observation of the company’s progression through each phase of technical development, is the culmination of a shared vision. The belief that the stratosphere is not a destination but a foundation. As Sceye advances from historic milestones to operational deployment, Helena is helping carry that vision into the world – extending Frandsen’s model of humanitarian entrepreneurship from lifesaving products on the ground to a network designed to serve billions from above.