Porous Ecologies: More-than-Human Decay, Moisture, and Microclimate

Abstract Climate change and land-use pressures destabilise invertebrate populations not only at landscape scales but also within the microclimates of soil and near-surface habitats, where small variations in humidity, shade, or airflow can critically affect survival. Existing insect hotel strategies typically rely on structurally stabilised, long-lasting materials and homogeneous cavities, privileging cavity-nesting bees while offering limited support for moisture-dependent decomposers such as litter-dwelling and soil-surface invertebrates that depend on organic substrates and buffered humidity. This paper introduces a multiscale design experiment that explores how designed porosity could engage moisture-dependent invertebrate ecologies. The prototype combines a gyroid-type Triply Periodic Minimal Surface (TPMS) fabricated from post-consumer eggshell waste with a moisture-retentive mycelium material layer, forming a time-evolving porous column. Outcomes from an initial 48-day field deployment are analysed through observations of fungal colonisation, material erosion, and faint scraping marks interpreted as indicators of ecological engagement rather than habitat performance.

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Publication Details

Journal
Research Directions Biotechnology Design
Published
2026-07-28
DOI
https://doi.org/10.1017/s2977905726100754
Primary Topic
Plant and Biological Electrophysiology Studies
Type
article
Field-Weighted Citation Impact
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article

Porous Ecologies: More-than-Human Decay, Moisture, and Microclimate

Vivien Roussel, Adrien Rigobello, Hasti Valipour Goudarzi, Behnaz Khaksar
Research Directions Biotechnology Design
Plant and Biological Electrophysiology Studies
article

Porous Ecologies: More-than-Human Decay, Moisture, and Microclimate

Vivien Roussel, Adrien Rigobello, Hasti Valipour Goudarzi, Behnaz Khaksar
article en

Abstract

Abstract Climate change and land-use pressures destabilise invertebrate populations not only at landscape scales but also within the microclimates of soil and near-surface habitats, where small variations in humidity, shade, or airflow can critically affect survival. Existing insect hotel strategies typically rely on structurally stabilised, long-lasting materials and homogeneous cavities, privileging cavity-nesting bees while offering limited support for moisture-dependent decomposers such as litter-dwelling and soil-surface invertebrates that depend on organic substrates and buffered humidity. This paper introduces a multiscale design experiment that explores how designed porosity could engage moisture-dependent invertebrate ecologies. The prototype combines a gyroid-type Triply Periodic Minimal Surface (TPMS) fabricated from post-consumer eggshell waste with a moisture-retentive mycelium material layer, forming a time-evolving porous column. Outcomes from an initial 48-day field deployment are analysed through observations of fungal colonisation, material erosion, and faint scraping marks interpreted as indicators of ecological engagement rather than habitat performance.

Research Directions Biotechnology Design
Vinci (France) (FR), Technische Universität Berlin (DE), Université de Nîmes (FR), Schools of Visual Arts, The Royal Danish Academy of Fine Arts (DK)
Climate action
Openalex Percentile: Top 10%
Plant and Biological Electrophysiology Studies
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