Living and working on the Moon becomes reality, not ambition.
En 2026, la humanidad no simplemente regresa a la Luna, sino que comienza a habitarla. La NASA y sus socios privados han trazado un plan de tres fases para establecer una colonia permanente en el Polo Sur lunar, un esfuerzo metódico que reconoce que los grandes saltos civilizatorios no se dan de golpe, sino escalón por escalón. Si el plan prospera, para 2032 habrá seres humanos viviendo en otro mundo, no como exploradores de paso, sino como residentes, marcando el inicio de una nueva relación entre nuestra especie y el cosmos.
- El reloj ya corre: entre septiembre y noviembre de 2026, los primeros robots tocarán suelo lunar para determinar si el sueño de una base permanente es técnicamente viable.
- El mayor enemigo no es el vacío ni la radiación, sino la noche lunar: dos semanas de oscuridad con temperaturas de -120°C que pueden destruir equipos y matar a personas sin la protección adecuada.
- Para 2029, la escala se dispara —más de 60 toneladas de materiales en más de 20 misiones— convirtiendo un sitio de aterrizaje en una infraestructura real capaz de albergar vida humana.
- La apuesta más audaz llega en 2032: capacidad de transporte de 150 toneladas por misión y la promesa de que los habitantes de la base podrán extraer agua, oxígeno y materiales de construcción directamente del suelo lunar.
- Moon Base One no es el destino final; es el laboratorio donde la humanidad aprenderá todo lo que necesita saber para llegar a Marte.
El año 2026 marca el inicio del intento más deliberado de la humanidad por establecerse más allá de la Tierra. La NASA y sus socios privados lanzan Moon Base One, un proyecto de tres fases para convertir el Polo Sur de la Luna en un asentamiento humano funcional. Los primeros robots están programados para aterrizar entre septiembre y noviembre, abriendo una década de trabajo que, si todo sale según lo planeado, culminará con presencia humana sostenida en la superficie lunar en 2032.
La primera fase, de 2026 a 2029, pertenece enteramente a las máquinas. Cerca de 25 lanzamientos entregarán unas cuatro toneladas de carga en la región del cráter Shackleton, cerca del Polo Sur. Allí, drones especializados llamados MoonFall explorarán terrenos demasiado peligrosos para rovers con ruedas, mientras que el rover VIPER buscará depósitos de hielo ocultos en la oscuridad permanente del fondo de los cráteres. Ningún ser humano pisará la Luna en esta etapa: los robots son los pioneros, encargados de confirmar que el sitio puede sostener una base antes de arriesgar vidas.
Cuando las máquinas reporten condiciones viables, la NASA entrará en modo construcción. La segunda fase, entre 2029 y 2032, implica más de 20 aterrizajes para entregar cerca de 60 toneladas de materiales: módulos de habitación, sistemas de energía e infraestructura esencial. El desafío central es la noche lunar, que dura dos semanas y hunde las temperaturas a -120°C. Para superarlo, la agencia desplegará calentadores de radioisótopos —unidades nucleares que generan calor constante sin importar las condiciones externas.
La tercera fase, a partir de 2032, representa el verdadero cambio en la capacidad humana. La capacidad de transporte sube a 150 toneladas por misión, suficiente para sostener no expediciones breves sino una habitación continua. Los residentes de la base procesarán el regolito lunar en materiales de construcción mediante impresión 3D, y extraerán agua y oxígeno directamente de los recursos lunares. La base se volverá progresivamente autosuficiente.
Lo que hace creíble este plan es su estructura escalonada: cada fase construye sobre el conocimiento y la infraestructura de la anterior. Y si Moon Base One logra su objetivo, no será solo un destino en sí mismo, sino el campo de pruebas para la siguiente gran aventura: una misión humana a Marte.
This year, 2026, marks the beginning of humanity's most deliberate attempt to establish a permanent foothold beyond Earth. NASA and its private partners are launching what they call Moon Base One—a three-phase project designed to transform the Moon's South Pole into a functioning human settlement. The first robots are scheduled to land between September and November, marking the start of a decade-long effort that will culminate, if all goes according to plan, in sustained human presence on the lunar surface by 2032.
The initial phase, running from 2026 through 2029, belongs entirely to machines. NASA plans roughly 25 separate launches to deliver approximately four tons of cargo to the Shackleton crater region, a strategically valuable location near the lunar South Pole. The work here is reconnaissance and validation. Specialized drones called MoonFall will scout terrain too treacherous for wheeled rovers, while a rover named VIPER will hunt for ice deposits hidden in the perpetual darkness of crater floors. These early missions serve a single purpose: to confirm that the site can sustain a base and that current technology can survive the lunar environment. No humans will set foot on the Moon during this phase. The robots are the pioneers, testing whether the dream is technically feasible before risking lives.
Once the machines report back that conditions are viable, NASA shifts into construction mode. Phase Two, spanning 2029 to 2032, involves a dramatic escalation in scale. More than 20 separate landings will deliver roughly 60 tons of material—equipment, power systems, habitation modules, and the infrastructure that transforms a landing site into a home. This is when Moon Base One begins to take physical shape. The engineers face one particular challenge that defines lunar survival: the lunar night. For two weeks at a time, temperatures plummet to minus 120 degrees Celsius. To keep equipment and eventually people alive through these extended cold periods, NASA will deploy radioisotope heaters—nuclear units that generate steady warmth regardless of external conditions. It is a solution born of necessity, a way to make the impossible merely difficult.
The third phase, beginning in 2032 and extending indefinitely, represents the true shift in human capability. Transport capacity jumps to 150 tons per mission, enough to support not brief expeditions but continuous habitation. People will live and work on the Moon, not as visitors but as residents. To make this sustainable, NASA plans to implement what scientists call in-situ resource utilization—essentially, living off the land. The lunar regolith, the fine dust covering the surface, can be processed into construction materials using 3D printing technology. Water and oxygen can be extracted directly from lunar resources. Satellite networks will provide communication and navigation. Drones will patrol the surface. The base will become self-sufficient enough to support ongoing operations without constant resupply from Earth.
What makes this plan credible is its methodical structure. Rather than attempting a single heroic leap, NASA has designed a staircase. Each phase builds on the knowledge and infrastructure of the one before it. The robots of 2026 are not a separate venture; they are the foundation for the construction crews of 2029, who in turn prepare the ground for the residents of 2032. The timeline is ambitious but not reckless. And if Moon Base One succeeds in establishing a permanent human presence, it will serve as more than a destination in itself. It will be a proving ground for the technologies and techniques needed for the next great leap—a human mission to Mars, a journey that will require everything learned on the Moon and more.
Citações Notáveis
NASA will begin with a rapid series of robotic missions to explore the South Pole region, test technologies, and prepare for surface operations.— NASA
Living and working on the Moon will become a reality in this stage.— NASA
A Conversa do Hearth Outra perspectiva sobre a história
Why start with robots instead of just sending people immediately?
Because the Moon is unforgiving. You need to know the terrain is stable, that your equipment can survive the cold, that water ice is actually where you think it is. Robots are cheap insurance. They fail, you learn. People fail, you lose people.
What's the biggest obstacle between now and 2032?
The lunar night. Two weeks of minus 120 degrees. Everything freezes. So NASA is betting on radioisotope heaters—essentially tiny nuclear furnaces. It's elegant but it's also the kind of thing that has to work perfectly, every time.
Why the South Pole specifically?
Ice. The craters there stay in shadow permanently, which means water ice can survive on the surface. Water is oxygen, water is fuel, water is drinking water. It's the difference between a base that depends on Earth and one that can sustain itself.
How does in-situ resource utilization actually work?
You take the lunar dust, heat it, process it. You can 3D print building materials from it. You can extract oxygen chemically. It sounds like science fiction, but the chemistry is understood. The challenge is doing it reliably in an environment where everything is hostile.
What happens if something goes wrong in Phase One?
The timeline slips. But the structure doesn't collapse. You run more robotic missions, you gather more data, you solve the problem. That's why they built in flexibility—25 planned launches in Phase One, not five. Redundancy is built in.
Is this really about the Moon, or is it about Mars?
Both. The Moon is the test. Everything you learn about living off-world, about surviving in vacuum and cold and isolation, you'll need for Mars. The Moon is close enough to fail safely.