Background...
Will Langston
Before I start my background, I am
attempting to still understand my question. So here are some possibilities for
what I am thinking of now after meeting with Professor Holland last class
period.
How can the principles of
architectural design, in real and imaginative sciences inform the speculative
application of these principles in outer space environments?
Or
How can designing for environment, social context, and technology, functionality, and spatial qualities in real and
imaginative sciences inform the speculative application of these principles in
outer space environments?
Possible Title: Imagining Frontiers: Architectural Principles in Speculative Outer-Space Exploration
The list of architectural
principles I want to break down is.
Designing for environment,
technology, social context, environment, and functionality.
Background:
In recent years, the field of
architecture has witnessed a growing interest in exploring the intersection of
real-world design principles and speculative imagination, particularly in the
context of space exploration and future habitats. This field seeks to not only
address the practical challenges of architectural design but also to push the
boundaries of creativity and innovation beyond the confines of earthly
constraints.
Context of Design Principles
Architectural design principles
serve as the guiding framework for creating built environments that are
functional, aesthetically pleasing, and responsive to the needs of individuals
and communities. These principles encompass a wide range of considerations,
including environmental effects, technological integration, cultural context,
functionality, and spatial qualities. "The Death and Life of Great
American Cities," Jane Jacobs deeply influenced architectural discourse by
emphasizing the importance of social interactions, diversity, and community in
the design of urban environments. "Living Architecture: How Synthetic
Biology Can Remake Our Cities and Reshape Our Lives," Rachel Armstrong explores
the potential of biological technologies to transform the built environment
into living, responsive systems that adapt to environmental conditions. "The
Stack: On Software and Sovereignty" Benjamin Bratton explores the ways in
which emerging technologies are transforming not only architectural design and
construction but also the broader socio-political and economic systems that
shape our built environment.
Defining Speculative Architecture
This project also ventures into the
realm of speculative architecture. The basic understanding of speculative
design is where imagination knows no bounds and the laws of physics need not
apply. Speculative architecture allows practitioners to explore alternative
visions for the built environment and to engage in broader conversations about
the future of society. “Idea building” by Daniel Brown explores how the abstractness
of the speculative can seemingly help real world practice in a multitude of
ways. “Spatial Blooms” by Perry Kulper and Justin Fogle explores work that dives
into the possibility of inscribing indeterminacy and varied temporal logics,
borrowed from landscape, into architecture. “Space Settlements” by Fred Scharmen dives
into the speculative application of these ideas into an outer space scenario with
various settlements describing how we might live as a civilization In the very distant
future…. Maybe movie or sci-fi speculative application here? Drawing from ideas of literature, film, and
artwork, we can understand how visionary creators have seen architectural
designs in these undefined settings.
Exploring Real-World Precedents
Understanding the real-world
sciences is fundamental for envisioning architectural solutions in outer space
environments. Environmental science, with its exploration of ecosystems and
sustainability, provides insights into creating habitats that minimize
environmental impact and maximize resource efficiency. Materials science is
indispensable for developing spacecraft components and structural materials
that can withstand the harsh conditions of space. Additionally, insights from
human factors and psychology are essential for ensuring that space habitats are
comfortable, safe, and conducive to human well-being. Real world science
example Cassini Saturn orbiter. One of the best outer space explorations ever,
Cassini was able to withstand orbiting Saturn for 13 years before it eventually
broke entering Saturn’s atmosphere. Imagined science example. Examples of space
explorations to the moon, or theoretical psychological tests.
Exploring Imaginative Precedents
The imaginative sciences, including
science fiction literature and film, offer visionary ideas and concepts for
space habitats and extraterrestrial environments. Futurology and speculative
design provide methodologies for envisioning possible futures and prototyping
speculative scenarios that challenge assumptions about space exploration.
Example of Dune city plan design, or Star Wars visions of interplanetary settlements.
Gerard O’Neil’s visions of space settlements. By integrating knowledge from both real-world
and imaginative sciences, architects and designers can develop innovative
proposals that address the unique challenges of designing for outer space while
pushing the boundaries of creativity and imagination.
Anyone That Has Done What I Want to Explore
By synthesizing insights from both real-world precedents and speculative imaginings, this project aims to forge new connections and possibilities in architectural design. Through visualizations and analyses, we seek to envision how core architectural principles such as environment, technology, social context, environment, and functionality might manifest in the context of speculative, outer-space environments. Xin Zhang has proposed speculative designs for lunar habitats. His work explores innovative construction techniques and materials suited for the lunar environment, such as 3D printing with lunar regolith. Hassel Studio has collaborated with NASA on speculative designs for space habitats. Their projects explore concepts such as modular habitats, 3D-printed structures, and biophilic design principles for creating healthy and livable environments in space.
Comments
Post a Comment