Magnetic Colony: Sponge-Like Modular Domes for Arctic Self-SufficiencyMagnetic Colony: Sponge-Like Modular Domes for Arctic Self-Sufficiency

Magnetic Colony: Sponge-Like Modular Domes for Arctic Self-Sufficiency

UNI
UNI published Blog under Extreme Architecture, Engineering on

What if the key to surviving the Arctic lay not in fortifying against nature but in mimicking it? The Magnetic Colony borrows its internal logic from the anatomy of a sponge: a porous, cellular structure perforated with transparent openings that pull natural light deep into a thermally insulated core. The result is a fully autonomous settlement concept where 1000 to 1200 people live, grow food, generate power, and manage water without relying on external supply chains.

Designed by Antony Melnikov, the project was shortlisted in the EHC - Arctic competition, which challenges designers to rethink human habitation in extreme polar environments. The proposal clusters three domed blocks into a single colony housing 3000 residential units, supported by wind generators, underground water boreholes, and hyperloop cargo transport. It is equal parts survival kit and spatial manifesto.

Four Zones Stacked Inside a Dome

Section drawing showing the distribution of residential units and public spaces within a domed structure
Section drawing showing the distribution of residential units and public spaces within a domed structure

The section drawing reveals how the colony organizes life vertically across four distinct zones. The first level is the Green Zone, where natural vegetation grows on soil heated by a substructure of regulated pipes. Above it sits an educational and administrative zone containing schools, libraries, and laboratories. The upper floors combine residential, public, and operational functions in a mixed-use arrangement designed for flexibility. Seventy percent of the colony's volume is dedicated to residential use; the remaining thirty percent serves shared public functions.

Each of the 1600 modular units within a single block is organized to support localized public life while accommodating diverse uses. The spatial interlinking between levels is deliberate: it encourages social interaction and allows efficient energy distribution across the dome's height. The central dome's block structure mimics wool-based insulation, reducing heat loss, which is the dominant energy concern in any Arctic settlement.

A Cellular Interior Inspired by Biology

Axonometric diagram depicting the organic cellular interior structure in purple tones
Axonometric diagram depicting the organic cellular interior structure in purple tones

The axonometric diagram strips back the dome's skin to expose its organic cellular interior. Rendered in purple tones, the drawing makes the sponge analogy explicit: irregular voids of varying scale nest within a continuous structural matrix. These voids are not random; they correspond to living units, communal spaces, and light wells that channel daylight from the transparent outer openings inward. The bio-integrated approach blurs the boundary between architectural enclosure and ecological system, treating the building less as a container and more as a living organism with circulatory logic.

Three Blocks, One Colony, Zero Dependence

Plan diagram showing three circular residential blocks arranged in a cluster with wind generators and hyperloop connection
Plan diagram showing three circular residential blocks arranged in a cluster with wind generators and hyperloop connection

Pulled back to the site scale, the plan diagram shows three circular residential blocks arranged in a tight cluster. Wind generators ring the perimeter, supplying clean energy to the settlement, while a hyperloop connection handles cargo transport to maintain logistical independence. Food is cultivated internally within the Green Zone, and water is drawn from underground boreholes. The tripartite arrangement is not arbitrary: it balances structural redundancy with the ability to phase construction over time, allowing the colony to grow incrementally as population or resources shift.

Modular Assembly for Phased Arctic Growth

Diagrams illustrating the supply chain and assembly sequence of the circular modular construction system
Diagrams illustrating the supply chain and assembly sequence of the circular modular construction system

The construction sequence diagrams illustrate how the colony scales. Technical parts form concentric rings that support the central dome of habitation, enabling phased, adaptive development without disrupting existing occupied zones. A modular construction system means components can be prefabricated off-site and assembled in Arctic conditions where traditional building methods face severe limitations. The supply chain diagram tracks this process from material sourcing through assembly, closing the loop on a system designed for long-term resilience.

Scalability is not just a structural convenience here; it is a survival strategy. Arctic conditions change, populations fluctuate, and energy demands shift seasonally. A colony that can add or reconfigure rings without compromising its thermal envelope or social infrastructure has a meaningful advantage over fixed-footprint alternatives.

Why This Project Matters

The Magnetic Colony's strength lies in its refusal to treat the Arctic as a problem to be endured. Instead, Melnikov frames polar habitation as a design opportunity that demands integrated thinking across energy, food production, water sourcing, logistics, and social infrastructure. The sponge metaphor is more than aesthetic: it drives real decisions about light penetration, thermal performance, and spatial variety within a single structural system.

Where many extreme-environment proposals lean on technological spectacle, this project grounds itself in spatial logic. The four-zone stacking, the concentric ring construction, the tripartite site plan: each decision connects back to a clear rationale about how people actually live in isolation. That discipline, applied to one of the planet's most hostile landscapes, makes the Magnetic Colony a compelling entry in the growing conversation about climate-adaptive settlement design.



View the Full Project

About the Designers

Designer: Antony Melnikov

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: Magnetic Colony by Antony Melnikov EHC - Arctic (uni.xyz).

UNI

UNI

Official UNI Account

Share your ideas with the world

Share your ideas with the world

Write about your design process, research, or opinions. Your voice matters in the architecture community.

Comments (0)

No comments yet. Be the first to comment!

Similar Reads

You might also enjoy these articles

publishedBlog13 hours ago
FAAB Wraps a Polish Healthcare Complex in Perforated Metal Inspired by the Sea
publishedBlog13 hours ago
OUJ Rewires a 72-Square-Meter Taipei Apartment for Multigenerational Living After the Pandemic
publishedBlog13 hours ago
Pedevilla Architects Disguise a Five-Story School as a Tyrolean Farmhouse in Kössen
publishedBlog1 day ago
127af Flips a Tiny Bagnolet Rowhouse Upside Down with a Handcrafted Roof Extension

Explore Extreme Architecture Competitions

Discover active competitions in this discipline

UNI
Search in