A New World on Another Planet: Human Settlement and Architectural Design on Mars with Artificial Intelligence
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Exploration of living possibilities on different planets, such as the Moon and Mars, has become one of the primary focuses of current scientific and technological research. Humanity's quest to understand the universe, combined with the desire to explore the limits of nature, encourages the development of new approaches that could make life in space possible. In this context, a detailed examination of the physical and chemical properties of planets, an analysis of atmospheric conditions, and the design of sustainable life support systems are among the fundamental elements of these studies.
Space missions, continuously conducted since the 1950s, have deepened humanity's knowledge of the universe, marking significant milestones in the exploration processes of this field. Initially limited to the exploration of Earth's orbit and the goal of reaching the Moon, these endeavors have taken on a much more comprehensive and sophisticated dimension with the rapid advancement of technology. Technological developments in spacecraft and observation systems, the widespread use of artificial intelligence-supported analytical methods, and increasing international cooperation have significantly accelerated progress in space research, allowing for the collection of more detailed and comprehensive data about the depths of the universe. Systematic research aimed at examining the conditions of space has led to large-scale innovations in the fields of science and engineering.
In the context of expanding human habitation, Mars is predicted to be the next target. However, building a sustainable living environment on Mars requires the coordinated and integrated efforts of many disciplines beyond architecture, including engineering, biotechnology, material science, and others.
This article will evaluate possible life scenarios and living conditions on Mars in line with predictions of living in space. It will also comprehensively analyze the architectural and engineering principles when designing human settlements and sustainable living spaces on Mars.
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Yeşil Seri G. It was created by entering the prompt 'A biomimetic Mars settlement that imitates natural organic forms' through artificial intelligence. 2025. Pennsylvania (USA).
Yeşil Seri G. It was created by entering the 'living spaces in the form of radiation-resistant domes made of Martian soil' through artificial intelligence. 2025. Pennsylvania (USA).
Yeşil Seri G. It was created by entering the prompt 'A Mars colony designed with geometric shapes inspired by futuristic architecture' through artificial intelligence. 2025. Pennsylvania (USA).
Yeşil Seri G. It was created by entering the prompt ‘A self-sustaining habitat equipped with a water recycling system and solar panels for a Mars colony.' through artificial intelligence. 2025. Pennsylvania (USA).

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