Space Cloud: An Asteroid-Fed Lattice Habitat That Grows Cell by Cell in Zero GravitySpace Cloud: An Asteroid-Fed Lattice Habitat That Grows Cell by Cell in Zero Gravity

Space Cloud: An Asteroid-Fed Lattice Habitat That Grows Cell by Cell in Zero Gravity

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UNI Editorial published Results under Space Architecture, Space Habitat on

Most speculative space habitats begin with a hull: a sealed vessel shipped from Earth and defended against the void. Space Cloud begins with a supply chain instead. Its premise is that a settlement in orbit should be assembled from what floats nearby, so the asteroid becomes quarry, reservoir and farm in one. The architecture that results is less a building than a growing cluster of cells, each one plugged into a loop of sun, water, oxygen and food, and each one capable of adding a neighbour when the population demands it.

Designed by Beyza Çapal and Sıddıka Kulu, the project was a shortlisted entry in the Origyn competition, which asked participants to imagine life in a place where the usual limits of time and space fall away. The designers answer with a modular system pitched as cost-effective and scalable, one that treats resource management as part of the architectural framework rather than a service bolted on afterward. Their vision of Origyn is labyrinthine and open-ended: automation handles labour, and inhabitants are left free to explore, build and dream.

A Life-Support Loop Drawn as a Single Line

Flow diagram tracing sun, asteroid water and mined material through solar power, electrolysis, hydroponics and 3D-printed shelter toward a single figure
Flow diagram tracing sun, asteroid water and mined material through solar power, electrolysis, hydroponics and 3D-printed shelter toward a single figure

The flow diagram is the project's real site plan. It traces three inputs, the Sun, asteroid water and mined material, through solar power, electrolysis, hydroponics and printed shelter until they converge on a lone human figure. The sequence is rigorous: solar panels supply energy, electrolysis splits harvested water into oxygen for breathing and hydrogen that the designers redirect toward radiation protection, hydroponic systems grow food in nutrient-enriched water, and asteroid material becomes structure. Recycling closes the circuit.

What makes this drawing persuasive is its economy. A by-product such as hydrogen is not waste here but shielding, and water is counted four times over, for drinking, hygiene, agriculture and air. By putting the person at the end of every line, the diagram argues that the habitat is defined by needs before it is defined by form, which is exactly the right order for an environment with no margin for error.

A Truncated-Octahedron Lattice That Expands Without a Boundary

Plan-style drawing of a truncated-octahedron lattice with pink-tinted cells, planted modules and small floating figures in a pale void
Plan-style drawing of a truncated-octahedron lattice with pink-tinted cells, planted modules and small floating figures in a pale void
Two site-plan drawings of clustered honeycomb cells, outlined in black with pink and grey tonal patches across elongated masses
Two site-plan drawings of clustered honeycomb cells, outlined in black with pink and grey tonal patches across elongated masses

The plan-style drawing reveals the geometry underneath the idea: a lattice of truncated octahedrons, a space-filling solid that packs without gaps and lets every cell meet its neighbours on flat faces. Pink-tinted cells, planted modules and tiny floating figures sit in a pale void with no ground line and no edge. Freed from Earth's gravitational constraints, the designers can propose structures that are expansive yet lightweight, and the drawing makes clear that the cluster can keep accreting in any direction.

The two site plans pull back further, showing honeycomb cells gathered into elongated masses, outlined in black and patched with pink and grey tones. Read together, these drawings explain the programme distribution: compact shelter units for two people, each fitted with sleeping units, toilets and cleaning facilities, interspersed with agriculture units and dedicated water and oxygen units that store, treat and supply resources. The tonal patches suggest a mixed fabric rather than zoned districts, a city where food, air and sleep sit side by side and grow together.

Inside the Cells: Vines, Steel Frames and Weightless Bodies

Interior render of a rusted steel tube frame overgrown with leafy vines, with white figures reaching through at dusk
Interior render of a rusted steel tube frame overgrown with leafy vines, with white figures reaching through at dusk
Upward render through faceted polyhedral cells with metal frames, where white weightless figures drift in amber light
Upward render through faceted polyhedral cells with metal frames, where white weightless figures drift in amber light

The interior renders are where the system turns into atmosphere. In the first, a rusted steel tube frame is overgrown with leafy vines while white figures reach through the openings at dusk. The hydroponic agriculture pipes described in the brief read here as a living lining, turning structure into trellis. It is a welcome counterpoint to the sterile white capsules that dominate space imagery, and it hints that the agriculture units double as the habitat's landscape.

The second render looks upward through faceted polyhedral cells framed in metal, with figures drifting in amber light. Without gravity, there is no floor and no ceiling, only a vertical labyrinth that occupants move through freely. This is the Origyn vision made spatial: a maze that evolves with human experience, where the geometry of the lattice becomes the circulation itself and every face of a cell is a potential threshold.

Why This Project Matters

Space Cloud is valuable because it treats architecture and life support as the same problem. The designers do not design a shell and then ask how to feed it; they design a metabolic loop and let the shelter emerge from it, cell by cell, from material mined a short distance away. The choice of a space-filling polyhedral module gives that loop a convincing spatial logic, one where adding capacity is simply adding another cell to the cluster.

The project leaves open questions, from how cells are joined to how the labyrinth is navigated, but its central proposition is sharp. Settlements beyond Earth will likely be built from local resources and grown incrementally, and Çapal and Kulu show what that could feel like from the inside: overgrown, weightless and unfinished by design. For a competition about imagining new origins, that is a fitting place to start.



View the Full Project

About the Designers

Designers: Beyza Çapal, Sıddıka Kulu

Enter a Design Competition on uni.xyz

uni.xyz runs architecture and design competitions year-round that reward proposals with spatial conviction and real site intelligence.

Project credits: SPACE CLOUD by Beyza Çapal, Sıddıka Kulu Origyn (uni.xyz).

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