Rain Microbial Ecologies: Integrating Genomic Tools in Biodesign Education for Future Food Strategies

Abstract This paper presents a biodesign pedagogical framework that integrates experiential learning, metagenomic sequencing, and speculative design through the study of London’s rainwater microbiome. While urban systems typically treat rainwater as an inert resource, this research frames it as a dynamic “living medium” hosting diverse microbial life. Utilizing environmental DNA (eDNA) analysis, postgraduate Biodesign students characterized bacterial, fungal, and microalgal taxa, identifying specific potentials for nutrition, biostimulation, and bioremediation. These microbial insights were subsequently applied to the development of regenerative food systems and urban ecological interventions. By positioning rainwater as an active ecological collaborator, the curriculum enabled students to navigate more-than-human agency, ecological uncertainty, and systems thinking through direct experimentation. This study demonstrates how the integration of genomic tools into design education expands ecological literacy and supports multispecies practices. We conclude by analysing the pedagogical process phases and student outcomes, highlighting how rainwater serves as a critical interface between climate futures, urban metabolism, and living design.

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Publication Details

Journal
Research Directions Biotechnology Design
Published
2026-07-16
DOI
https://doi.org/10.1017/s2977905726100432
Primary Topic
Environmental DNA in Biodiversity Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Rain Microbial Ecologies: Integrating Genomic Tools in Biodesign Education for Future Food Strategies

A. Taylor, Jon Flint, N. M. Diniz, L. Archer et al.
Research Directions Biotechnology Design
Environmental DNA in Biodiversity Studies
article

Rain Microbial Ecologies: Integrating Genomic Tools in Biodesign Education for Future Food Strategies

A. Taylor, Jon Flint, N. M. Diniz, L. Archer, D. Q. Zhang
article en

Abstract

Abstract This paper presents a biodesign pedagogical framework that integrates experiential learning, metagenomic sequencing, and speculative design through the study of London’s rainwater microbiome. While urban systems typically treat rainwater as an inert resource, this research frames it as a dynamic “living medium” hosting diverse microbial life. Utilizing environmental DNA (eDNA) analysis, postgraduate Biodesign students characterized bacterial, fungal, and microalgal taxa, identifying specific potentials for nutrition, biostimulation, and bioremediation. These microbial insights were subsequently applied to the development of regenerative food systems and urban ecological interventions. By positioning rainwater as an active ecological collaborator, the curriculum enabled students to navigate more-than-human agency, ecological uncertainty, and systems thinking through direct experimentation. This study demonstrates how the integration of genomic tools into design education expands ecological literacy and supports multispecies practices. We conclude by analysing the pedagogical process phases and student outcomes, highlighting how rainwater serves as a critical interface between climate futures, urban metabolism, and living design.

Research Directions Biotechnology Design
University of Cambridge (GB), UNSW Sydney (AU), University of the Arts London (GB)
University of the Arts London
Quality Education
Openalex Percentile: Top 10%
Environmental DNA in Biodiversity Studies
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