Aug 2026· Research Directions: Biotechnology Design· Vol 4· 0 citations
Abstract
As architecture engages with regenerative and circular systems, photosynthetic microorganisms such as cyanobacteria and microalgae are emerging as agents of biotechnological transformation. Microbial biocementation offers a pathway to couple carbon fixation with biological mineral formation, providing an alternative to carbon-intensive construction. However, translating laboratory-scale advances into architectural practice remains constrained by challenges of scale, long-term durability, environmental robustness, and fabrication integration. This paper presents three studies investigating biodesign approaches for implementing photosynthetic living materials in architecture on the formulation, biofabrication, and infrastructural scale. The first proposes a material workflow that supports long-term microbial viability by developing tailored formulations and encapsulation strategies. The second establishes a design-led fabrication workflow with microbe-based materials. The third examines on-site cultivation under variable environmental conditions and introduces a concept of “living building material agriculture” for industry-oriented cultivation. Collectively, these approaches bridge laboratory biology and architectural production toward a scalable framework for photosynthetically mediated construction systems.
Precision microalgae is proposed as a conceptual framework that integrates reactor engineering and cell physiology with three operational pillars: real-time monitoring, predictive modeling, and adaptive control to connect currently fragmented technological and biological advances within a common framework for managing...
Darissa Alves Dutra, R. L. S. Machado, M. Deprá et al.· Bioengineering· 0 citations
Engineered living materials integrated with photosynthetic microalgae represent an attractive exploration for sustainable biomanufacturing, as these systems couple light-driven biomass production and CO2 assimilation. However, the translation of these systems toward next-stage applications remains largely constrained b...
Hai Liu, Ning Ding, Min-Wen Jiang et al.· Bioresource Technology· 0 citations
This review critically evaluates mycelium-based biocomposites, with particular emphasis on the relationships between fungal biosynthesis, substrate transformation, processing strategies, and resulting material properties.
The Hong Phong Nguyen, L. Thompson, Mostafa Nikzad et al.· Molecules· 0 citations
Microorganisms, endowed with extraordinary metabolic versatility and environmental adaptability, represent a transformative frontier for addressing global sustainability imperatives. Engineering microbial systems through regulatory network rewiring and synthetic biology-driven functional augmentation substantially ampl...
Microalgae have long been considered promising platforms for producing biochemicals and supporting environmental applications. Realizing this potential will require turning microalgal species into predictable and reusable engineering platforms. However, it remains challenging to engineer such evolutionarily diverse, co...
Microalgae represent a crucial, multifunctional microbial cell factory platform for renewable energy and climate change mitigation. Their notably high lipid content (often exceeding 70% DCW) and rapid growth rates, which significantly surpass those of traditional terrestrial crops, making them an ideal feedstock for di...
Rehab H. Mahmoud, Hassan M. M. Mustafa, I. Kamika et al.· Microbial Cell Factories· 0 citations
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