Space exploration is both a catalyst for knowledge and a driver of innovation. Yet it highlights a central challenge: making extraterrestrial environments habitable. Designing for space requires rethinking the usual architectural references—gravity, atmosphere, climate, day/night cycles, available resources—which are profoundly altered or entirely absent.
Space is an extreme environment governed by radical physical and operational constraints: vacuum, ionizing radiation, extreme temperatures, abrasion and dust, microgravity, isolation, latency, limited logistics, difficult maintenance, and systemic risks. In this context, architecture is not merely a container—it becomes a life-support system.
The expected projects must articulate a coherent spatial and technical proposal integrating long-term safety, health, and performance: pressurized envelopes, radiation shielding, thermal management, atmospheric control, air and humidity quality, redundancy systems, energy, water, waste management, biological cycles, and devices adapted to microgravity uses.
The project must also maintain a strong standard of habitability: rhythms, ergonomics, spatial quality, privacy, sociability, and mental health—placing the human being at the core of a reliable, scalable, and resilient system.