Engineering Microbial Cell Factories: Advances in Material Systems and Biomanufacturing Technologies

doi:10.19586/j.2095-2341.2026.0069

Current Biotechnology ›› 2026, Vol. 16 ›› Issue (3): 574-584.DOI: 10.19586/j.2095-2341.2026.0069

• Special Forum on Microbial Cell Factory • Previous Articles Next Articles

Engineering Microbial Cell Factories: Advances in Material Systems and Biomanufacturing Technologies

Wenzhu WEI¹(), Sen PANG¹, Xiaoli HUANG², Jian WANG¹, Xing FAN¹, Siyan CHEN³, Yujian CHEN¹, Jian JIAO³()

^1.Beijing Zhongjian Academy of Building Research Co. ，Ltd. ，Beijing 100076，China
^2.School of Civil and Transportation Engineering，Hebei University of Technology，Tianjin 300401，China
^3.Faculty of Biomedical Sciences，Beijing City University，Beijing 100083，China

Received:2026-03-19 Accepted:2026-05-07 Online:2026-05-25 Published:2026-07-14
Contact: Jian JIAO

Abstract

Abstract:

Architectural microorganisms offer a novel pathway for the low-carbon transformation of the construction industry. This paper systematically reviewed the engineering development of architectural microbial cell factories， focusing on durable chassis cells like Sporosarcina pasteurii and Bacillus spp. adapted to extreme environments. Through metabolic engineering and synthetic biology tools， directional enhancement of mineralization efficiency and interfacial bonding stability is achieved. A factory architecture comprising modular reactors， resource-oriented supply， and closed-loop waste recycling was proposed， exploring technical routes for localized production using industrial solid waste. Finally， by analyzing applications in crack repair， geotechnical reinforcement， and bio-material preparation， the current bottlenecks were summarized， and "design-on-demand" biomanufacturing was envisioned. This study provides a theoretical basis and technical reference for green building materials and their engineering applications.

Key words: architectural microorganisms, cell factory, chassis cells, synthetic biology, microbially induced calcium carbonate precipitation, resource utilization

CLC Number:

Q291

Wenzhu WEI, Sen PANG, Xiaoli HUANG, Jian WANG, Xing FAN, Siyan CHEN, Yujian CHEN, Jian JIAO. Engineering Microbial Cell Factories: Advances in Material Systems and Biomanufacturing Technologies[J]. Current Biotechnology, 2026, 16(3): 574-584.

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Figures/Tables 4

References 63

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作用类型	核心机理	关键影响因素
酶促矿化	脲酶分解尿素产生CO₃^2-，与Ca²⁺生成CaCO₃	脲酶活性、菌浓度、钙离子浓度
颗粒胶结	碳酸钙晶体填充孔隙、黏接颗粒	颗粒级配、孔隙率、注浆方式
结构强化	提高土体/基材抗压、抗剪、密实度	反应时间、pH、温度

作用类型	核心机理	关键影响因素
酶促矿化	脲酶分解尿素产生CO₃^2-，与Ca²⁺生成CaCO₃	脲酶活性、菌浓度、钙离子浓度
颗粒胶结	碳酸钙晶体填充孔隙、黏接颗粒	颗粒级配、孔隙率、注浆方式
结构强化	提高土体/基材抗压、抗剪、密实度	反应时间、pH、温度

岩土类型	典型强化效果
黄土	无侧限抗压强度提升，稳定性增强^[17]
西南粉土	力学性能提升，微观结构致密化^[22]
海涂盐渍土	胶结改性，耐盐性能优化^[23]
海相淤泥	固化体强度提升，含水率降低^[21]

岩土类型	典型强化效果
黄土	无侧限抗压强度提升，稳定性增强^[17]
西南粉土	力学性能提升，微观结构致密化^[22]
海涂盐渍土	胶结改性，耐盐性能优化^[23]
海相淤泥	固化体强度提升，含水率降低^[21]

Engineering Microbial Cell Factories: Advances in Material Systems and Biomanufacturing Technologies

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