2026-09-20T18:06:18Zhttps://dspace.mit.edu/server/oai/requestoai:dspace.mit.edu:1721.1/1409942022-03-04T03:44:18Zcom_1721.1_7582com_1721.1_7581col_1721.1_131022
Oxman, Neri
Smith, Rachel Soo Hoo
Program in Media Arts and Sciences (Massachusetts Institute of Technology)
2022-03-03T19:29:10Z
2022-03-03T19:29:10Z
2021-06
2022-02-27T16:50:38.506Z
https://hdl.handle.net/1721.1/140994
https://orcid.org/0000-0002-8935-634X
Future-facing organizations forecast that our ability to design with biological systems—from genes, to bodies, to biospheres—will play a crucial role in meeting humanity’s goals for both planetary sustainability and long-term space exploration. Our foundational “spaceship” Earth is our only current form of sustained life support, and yet we anticipate that the regenerative functions of our large-scale living systems are failing due to the Anthropocene. Our ability to productively and reciprocally mediate with complex living systems presents an intricate, urgent problem that necessitates hyper-interdisciplinary tools and expertise. While there are growing examples of how engineers and designers have merged the principles of artificial technology with biological processes, even these efforts are dispersed across disparate foci. Thus, there is need for a directive and an enabling structure to organize and assimilate tools and perspectives that guide research at the intersection of living systems and critical technology for the future.
This dissertation establishes the field of Hybrid Living Materials (HLMs) as the study of how to interface human-designed systems with living materials, processes, and environments. In support of this goal, I define a conceptual HLM Framework that provides information-based hierarchical levels for HLM technology development: Materials, Modules, and Systems. To substantiate these level classifications, I present a corpus of projects that demonstrate novel approaches for coupling living systems to material fabrication processes, regulation programs, and architectural-ecosystem designs. Finally, to demonstrate the HLM Framework’s ability to address increasingly complex systems, I detail two “cross-level” research initiatives that integrate emergent phenomena exhibited by model organism groups: social bees and microbes. Results of these investigations produced data-rich, high-throughput, and interlinked tool suites that enable living systems to work in tandem with advanced analytical, computational, experimental, and collaborative technologies for cross-boundary information sharing and generation.
This dissertation contributes a conceptual and practical basis for the cross-disciplinary development of hierarchically complex tools for mediation with living systems. The goal of this work is to shift our perception of technology such that humans and complex living systems may co-author mutually beneficial collaborations for joint survival on Earth and in space.
Ph.D.
Massachusetts Institute of Technology
In Copyright - Educational Use Permitted
Copyright MIT
http://rightsstatements.org/page/InC-EDU/1.0/
HOW TO GROW A SPACESHIP: A Hybrid Living Material (HLM) Framework for Developing Technological Interfaces to Complex Living Systems
Thesis
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Doctoral
Doctor of Philosophy
Publication
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unknown
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<Abstract>Future-facing organizations forecast that our ability to design with biological systems—from genes, to bodies, to biospheres—will play a crucial role in meeting humanity’s goals for both planetary sustainability and long-term space exploration. Our foundational “spaceship” Earth is our only current form of sustained life support, and yet we anticipate that the regenerative functions of our large-scale living systems are failing due to the Anthropocene. Our ability to productively and reciprocally mediate with complex living systems presents an intricate, urgent problem that necessitates hyper-interdisciplinary tools and expertise. While there are growing examples of how engineers and designers have merged the principles of artificial technology with biological processes, even these efforts are dispersed across disparate foci. Thus, there is need for a directive and an enabling structure to organize and assimilate tools and perspectives that guide research at the intersection of living systems and critical technology for the future.
This dissertation establishes the field of Hybrid Living Materials (HLMs) as the study of how to interface human-designed systems with living materials, processes, and environments. In support of this goal, I define a conceptual HLM Framework that provides information-based hierarchical levels for HLM technology development: Materials, Modules, and Systems. To substantiate these level classifications, I present a corpus of projects that demonstrate novel approaches for coupling living systems to material fabrication processes, regulation programs, and architectural-ecosystem designs. Finally, to demonstrate the HLM Framework’s ability to address increasingly complex systems, I detail two “cross-level” research initiatives that integrate emergent phenomena exhibited by model organism groups: social bees and microbes. Results of these investigations produced data-rich, high-throughput, and interlinked tool suites that enable living systems to work in tandem with advanced analytical, computational, experimental, and collaborative technologies for cross-boundary information sharing and generation.
This dissertation contributes a conceptual and practical basis for the cross-disciplinary development of hierarchically complex tools for mediation with living systems. The goal of this work is to shift our perception of technology such that humans and complex living systems may co-author mutually beneficial collaborations for joint survival on Earth and in space.</Abstract>
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