Design-led comparison of photosynthetic biomineralisation workflows through waste-derived material sample collections for circular product design

Abstract This paper presents an observational comparative study of three photosynthetic biomineralisation workflows: gelatine-based hydrogel, liquid non-gel, and alginate-based hydrogel systems. Each workflow was applied to eleven waste-derived materials across the food, wood, paper, textile, and ceramic waste categories, resulting in three proof-of-concept material sample collections. These collections were used as design research artefacts to compare the fabrication processes and material outcomes of each workflow. The workflows were assessed through five design-led criteria: workflow feasibility, resource inputs, visible cyanobacterial retention, material qualities, and preliminary biomineralisation indicators. Results show distinct trade-offs: the gelatine system offered reliable casting and structural stability; the non-gel system reduced binder use and retained a stronger visible cyanobacterial presence; and the alginate system enabled subsequent cultivation but led to dimensional instability in the resulting samples. Rather than identifying a single optimal fabrication method, the study provides an early basis for adapting photosynthetic biomineralisation workflows for circular product design.

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Publication Details

Journal
Research Directions Biotechnology Design
Published
2026-07-28
DOI
https://doi.org/10.1017/s2977905726100699
Primary Topic
Microbial Applications in Construction Materials
Type
article
Field-Weighted Citation Impact
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article

Design-led comparison of photosynthetic biomineralisation workflows through waste-derived material sample collections for circular product design

Matt Malpass, Carole Collet, Lorraine Archer, Hyejo Shin et al.
Research Directions Biotechnology Design
Microbial Applications in Construction Materials
article

Design-led comparison of photosynthetic biomineralisation workflows through waste-derived material sample collections for circular product design

Matt Malpass, Carole Collet, Lorraine Archer, Hyejo Shin, Alice Taylor
article en

Abstract

Abstract This paper presents an observational comparative study of three photosynthetic biomineralisation workflows: gelatine-based hydrogel, liquid non-gel, and alginate-based hydrogel systems. Each workflow was applied to eleven waste-derived materials across the food, wood, paper, textile, and ceramic waste categories, resulting in three proof-of-concept material sample collections. These collections were used as design research artefacts to compare the fabrication processes and material outcomes of each workflow. The workflows were assessed through five design-led criteria: workflow feasibility, resource inputs, visible cyanobacterial retention, material qualities, and preliminary biomineralisation indicators. Results show distinct trade-offs: the gelatine system offered reliable casting and structural stability; the non-gel system reduced binder use and retained a stronger visible cyanobacterial presence; and the alginate system enabled subsequent cultivation but led to dimensional instability in the resulting samples. Rather than identifying a single optimal fabrication method, the study provides an early basis for adapting photosynthetic biomineralisation workflows for circular product design.

Research Directions Biotechnology Design
University of the Arts London (GB)
Openalex Percentile: Top 14%
Microbial Applications in Construction Materials
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