Space suddenly looks like a vast construction zone of the near future. Technological progress is fascinating, but in it the cosmic sense of grandeur is being lost
While researching an interesting topic related to the Moon, my path led me in a rather different direction. Still along the same “route,” but with a much gloomier tone. Space—whether the one immediately “beyond the blue sky” or at unimaginable distances—is immensely fascinating to study, but it is sometimes also a form of escapism from events on Earth. It is comforting to think about that infinity which does not care much (or at all) about our problems and the catastrophes we might inflict upon ourselves. Yet that “space as we know it,” the one we sometimes escape into through a mix of imagination and fascination, is actually “disappearing.” How? Because we are arriving. But we are not arriving as explorers, which should be our primary aim—we are arriving as what we have become as a species: exploiters in search of profit. As a result, the topic we are about to address is anything but cosmic escapism, but it is important, and the time has come to open it.
For decades, space in the public imagination was a realm of exploration, scientific discovery, and an almost romantic search for the unknown: telescopes peering into the past of the infinite cosmos, probes landing on distant planets, rare moments when humans leave Earth and step onto another celestial body. That image still exists, but it is no longer complete.
Alongside major scientific projects, another vision of space has been developing quietly. It has nothing to do with discovering new worlds, but with establishing a new system. It is about warehouses in orbit, regular routes between Earth and the Moon, robots working without crews, and cargo that is no longer intended to return. In this context, space is increasingly seen less as a realm of exploration and more as a new logistical frontier.
Technological development is real, impressive, and in many aspects inevitable. At the same time, however, the way space is being organized today increasingly resembles patterns we already know from Earth. Infrastructure, private contracts, control of hubs, commercial deliveries… The vast cosmos, once a symbol of the unlimited, is slowly being drawn into the logic of limitation, ownership, and profit. This is precisely where the story of space logistics begins.
Space as a Network, Not a Field of Exploration
Over the past decade or so, a quiet but fundamental shift has taken place in how space missions are planned. Instead of individual, isolated projects, the focus is increasingly on systems and continuity. Space is no longer treated as a place that is visited occasionally, but as an environment in which a permanent operational presence is being planned.
This is most clearly visible in the changing role of state agencies. NASA, along with other space institutions, is increasingly less likely to develop and manage entire mission chains on its own. Instead, they define goals and purchase services. Cargo transport, lunar landings, resupply of orbital stations, and infrastructure maintenance are more and more often entrusted to private companies through long-term contracts. Programs such as CLPS* clearly show this shift. The agency does not own the spacecraft, does not manage the mission in detail, but pays for delivery to a precisely defined location.
*CLPS (Commercial Lunar Payload Services) is a NASA program launched to deliver scientific and technological payloads to the Moon as quickly and cheaply as possible via private companies, instead of the agency developing and operating spacecraft itself. In this model, NASA acts as a customer—it defines what it wants to send and where it needs to land, while design, launch, landing, and operational risk are assumed by commercial contractors such as Intuitive Machines or Astrobotic. This moves the Moon away from the domain of slow, state-run research missions toward a market of services, contractual deliveries, and commercial logistics—akin to an early phase of “outsourcing” space.
Such an approach has clear operational advantages: faster development, lower costs, greater flexibility, and the ability to repeat missions without constantly redesigning everything from scratch. But the consequence is also a change in the very logic of space activities. Once permanent routes are established between Earth and orbit, and between orbit and the Moon, once regular deliveries and service flights are planned, space begins to function as a network.
Networks, unlike expeditions, have structure. They have hubs—points that must be passed through, places where fuel is replenished, cargo transferred, and flights continue onward. These hubs become critical. Scientific decisions may not be made there, but decisions about movement are. Who has access, who waits, who pays, and under what conditions. It is no exaggeration to say that such a space— even “low” above our planet—suddenly looks like a new zone of exploitation rather than a realm of boundless ideas.
The space of the very near future is beginning to resemble an infrastructure domain. And infrastructure, as history on Earth shows, rarely remains neutral. It very quickly becomes a means of control, negotiation, and interest. This process in space is still at an early stage, but its outlines are already clearly visible.
Orbital Warehouses: Fuel, Servicing, and “Floating” Infrastructure
When people hear “orbital warehouse,” they often imagine something like a hangar. In reality, the first warehouses will not look like buildings, but like highly specialized infrastructure: fuel tanks, service modules, and logistical capsules orbiting Earth and waiting for the next task. Their purpose is not to return, but to make it unnecessary for other systems to constantly return.
The most important commodity in this story is fuel. In this sense, space is actually very simple. Without fuel, there is no maneuvering, no orbit change, no journey to the Moon, no return. That is why the entire new logistics architecture is increasingly organized around the idea of refueling in space as a prerequisite for larger and longer missions. This is why so much attention is being paid to orbital refueling, tanks that can store cryogenic propellants for long periods, and standardized interfaces for replenishment.
Here we see the concrete entry of private actors into a domain that until recently belonged purely to state programs. One example is Orbit Fab, which is developing the concept of orbital “gas stations” and working on a demonstration in which an orbital fuel depot would serve as a source for refueling a satellite in geostationary orbit via a servicing vehicle. Clearly, whoever can refuel a satellite or keep it alive for a few more years gains an advantage measured in money, capacity, and influence.
Another line of development is satellite servicing and life extension. The American corporation Northrop Grumman has already demonstrated commercial docking of a servicing vehicle with an existing satellite in geostationary orbit to extend its operational life. Such “tugs” and service modules are not warehouses in the classic sense, but they are part of the same logic. Instead of discarding and replacing systems, the aim is to create a persistent orbit where things are repaired, refueled, and maintained.
In cislunar space*, this principle makes even more sense. The Lunar Gateway** is planned as a hub that will not be just a “station,” but a place where cargo is delivered, temporarily stored, and redirected. The planned Dragon XL logistics spacecraft is expected to deliver several tons of cargo and remain docked for months, effectively acting as a storage module. The European ESPRIT module is also planned to include systems related to propellant.
*Cislunar space is the region of space that includes Earth, the Moon, and the space between their orbits, encompassing zones dominated by their gravitational interaction.
**The Lunar Gateway is a planned space station in orbit around the Moon, but not in the classical sense familiar from the International Space Station (ISS). It is a much smaller and more flexible structure, placed in a special elliptical orbit that allows frequent connections with both Earth and the lunar surface. Gateway is conceived as a hub: a place where spacecraft meet, where cargo, fuel, and equipment are delivered, where crews will (when that time comes) stay for short periods, and from which missions will be directed toward lunar bases or future flights to Mars. Unlike the ISS, Gateway is not intended to be permanently inhabited, but to function as an operational platform supporting logistics, coordination, and the maintenance of a sustained human presence in cislunar space.
Taken together, all of this creates a new kind of space reality. The first step will not be a “city in orbit,” nor a settlement on the Moon. The first step is something far more mundane: infrastructure that floats, but is built with a very earthly goal—to make movement cheaper, more frequent, and more controllable.
Robots on the Moon: Unloading, Relocation, and Site Preparation Without Humans
If this new space logistics system has a “workforce,” it is not astronauts. It is robots. In the initial phase, the Moon is not being planned as a place where humans live and work, but as a place where basic functionality is first established. This means landing, unloading, moving equipment, installing power systems, and preparing terrain. All of this, to a large extent, must be achievable without humans on site.
Why? Because human presence is expensive, complex, and rare. Every hour of astronaut work on the Moon represents years of preparation, enormous safety requirements, and a long supply chain. A robot, by contrast, can work more slowly, but it can work for long periods without breaks. And most importantly, it can work before humans arrive. That is precisely why systems are now being seriously developed that are not “scientific instruments,” but cargo-handling robots—almost like space cranes.
NASA has already demonstrated one such direction with the LANDO system, an autonomous robotic arm that can identify cargo on a lander, grasp it, and move it onto the surface. This may seem like a modest feat—a box moved a few meters—but on the Moon it represents an entirely new layer of capability. It means a lander can touch down and handle unloading on its own. No crew is needed to “open the doors” and carry equipment out. And once that principle proves reliable, the next step is scaling up: heavier loads, more operations, and more complex assembly of equipment.
Another direction is the development of vehicles and robots capable of moving equipment across the surface. The Artemis program plans to introduce lunar vehicles that will be used to transport crew and equipment. But before that, and in parallel with it, an entire range of autonomous or semi-autonomous machines is being considered to carry out “construction” tasks: relocating modules, laying cables, positioning solar panels, and setting up communication nodes. NASA and its partners have for years been developing concepts such as the ATHLETE robot, a six-legged transporter designed to carry heavy loads across rough terrain. These concepts are not yet standard equipment, but they indicate what is considered necessary for a sustainable presence.
The key framework for all of this is the aforementioned CLPS program. Through it, commercial landers are sent to the Moon carrying instruments, technology demonstrators, and operational equipment. The idea is that through repeated missions, the systems that will later form the backbone of Artemis—and of broader commercial activities—are tested. This work is now accelerating: more precise landings, more reliable communications, greater autonomy, and robots capable of operating without supervision.
Cargo That Leaves Earth Forever
Until now, we have often perceived space missions as journeys with a return. In the logistics phase, however, that pattern changes drastically, because more and more cargo is being sent with the clear intention that it will never return to Earth.
The first reason is simple: it is expensive. Every kilogram that comes back requires additional systems, additional maneuvers, and additional risks. The second reason is even more important. Many things “up there” have greater value if they remain in operation as part of new infrastructure—fuel tanks, service modules, communication nodes, spare parts, and even spacecraft themselves that become “tools” for other missions.
In practice, this means that orbit will increasingly accumulate cargo that is not conceived as “waste,” but as preparation for future flights. A good example is logistics spacecraft planned to dock with Gateway and remain for months as storage space and a supply reserve. This is not a return mission; it is a mobile warehouse circling the Moon and waiting for the next crew arrival or the next cargo flight. We see similar logic in servicing vehicles in geostationary orbit: they dock, stabilize a satellite, extend its life, and move on.
On the surface of the Moon, this trend becomes even clearer. Landers and robots deploy solar panels, batteries, instruments, drills, and vehicles. None of this returns. It becomes a trace of presence, but also a functional base upon which further layers are built. In the best-case scenario, over the years a situation emerges in which part of the supply no longer has to come from Earth, because some things can be produced—or at least maintained—locally.
Whoever Controls the Hubs Controls the Path into Space
Once we accept (because we will have no choice) that space has become a network, we must immediately accept the next point: a network is not neutral. It has points that must be passed through, it has a structure, and it has operators. NASA has built this into the very design of its programs. CLPS is conceived as the purchase of “delivery as a service,” through models in which the contractor is responsible for delivery, while NASA is the customer that orders and selects the payload. This marks a shift from an exploratory endeavor to market infrastructure.
We see the same logic at the lunar level. The Gateway Logistics Services contract is designed as a long-term framework; NASA explicitly speaks about the possibility of ordering missions years in advance, using a model in which supply is ordered as a routine line item, not as some experimental exception.
The clearest signal that we are entering a phase of capitalization is fuel. Demonstrations of satellite refueling in geostationary orbit are planned as early as 2026, including collaborations explicitly targeting military and operational use. At the same time, modules conceived as refueling infrastructure are being developed—clear evidence that the “gas station” is moving from concept to architecture. When fuel becomes a service and storage becomes private property, the question will no longer be whether we can reach the Moon, but under what conditions and at whose discretion.
Here we arrive at an uncomfortable fact. Technology that allows us to send industrial quantities of cargo into orbit—up to 150 tons per flight—goes beyond space exploration. If space is built as a chain of private hubs, warehouses, and services, then the “great cosmos” does not expand toward us as a realm of discovery, but contracts into something we already live with here on Earth. These ambitions turn space into yet another domain to be fenced off, optimized, and monetized. That is why this is only superficially a story about logistics. At its core, it is a story about whether space will remain a place that humbles us with its vastness, or whether Earth—with its habits of exploitation—will turn it into just another industrial zone.
So what do we end up with? Progress? Some will say all of this is fantastic, all these technological achievements. And they are— in their essence, in their operational feasibility— but not in their overarching purpose. Humanity’s fascination with space was, for us, one of the species inhabiting the Blue Planet, a great source of contemplation. Current plans, by contrast, sound as if that “final frontier,” as it was popularly called in Star Trek, is being privatized just like everything else we have already done on Earth. Of course, this is only one dimension—and fortunately not the only one. Vast expanses remain in the realm of exploration and astrophysics, still undiscovered. And yet, we can already feel the collision: a reality in which fascination is measured only in dollars. It is not that we were unaware of this—but now the indicators are so advanced, and so concrete, that it is impossible to ignore them even while meditating on infinity.
About the Author
