About the project
The production of concrete accounts for more than 5% of global anthropogenic CO2 emissions, and new, disruptive technology in the field is needed to make a large-scale impact. Among the alternative avenues currently pursued is the use of naturally occurring mineral-microbe interactions in the production of construction materials. Integrated efforts across multiple disciplines, including biotechnology, nanotechnology, mathematics, geochemistry, process engineering, techno-economics, and social sciences will make it possible to pave the way for a more sustainable production of concrete for construction purposes in the bioeconomy era.
The idea of BioZEment originates from the Research Council of Norway's first Idélab "Towards the Zero Emission Society" (2014). Our basic concept is to employ bacteria to produce acid to partially dissolve crushed limestone, and subsequently induce an increase in pH by biocatalysis to initiate re-precipitation of calcium carbonate to bind sand grains together, forming a solid, concrete-like construction material. Experimental results from the Idélab project indicate the overall feasibility of the BioZEment concept. However, in order to elevate the current technological achievements to the next level, an in-depth systems-scale understanding at different levels will be necessary to guide further development of the concept. To that purpose, the BioZEment consortium will team up with additional partners at IRIS and NTNU, forming BioZEment 2.0, to expand its theoretical and predictive capabilities in the fields of systems biology and bio-geochemical process modelling. This is essential to guide the BioZEment process towards commercial large-scale applications.
- Anja Røyne; Yi Jing Phua; Simone Balzer Le; Ina Grosås Eikjeland; Kjell Domaas Josefsen; Sidsel Markussen; Anders Myhr; Harald Throne-Holst; Pawel Sikorski & Alexander Wentzel (2019). Towards a low CO2 emission building material employing bacterial metabolism (1/2): The bacterial system and prototype production. PLOS ONE. ISSN 1932-6203. 14
- Anders Myhr; Frida Røyne; Andreas Saur Brandtsegg; Catho Bjerkseter; Harald Throne-Holst; Anita Borch; Alexander Wentzel & Anja Røyne (2019). Towards a low CO2 emission building material employing bacterial metabolism (2/2): Prospects for global warming potential reduction in the concrete industry. PLOS ONE. ISSN 1932-6203. 14
- Yi Jing Phua & Anja Røyne (2018). Bio-cementation through controlled dissolution and recrystallization of calcium carbonate. Construction and Building Materials. ISSN 0950-0618. 167, s 657- 668
- Anja Røyne; Yi Jing Phua; Ina Grosås Eikjeland; Alexander Wentzel; Simone Balzer Le; Kjell Domaas Josefsen; Sidsel Markussen; Anders Myhr; Andreas Saur Brandtsegg; Cato Bjerkeseter; Harald Throne-Holst; Anita Borch; Pawel Sikorski & Frida Røyne (2018). BioZEment 2.0: Towards a low CO2 emission building material employing bacterial metabolism.
- Anja Røyne; Yi Jing Phua; Ina Grosås Eikjeland; Simone Balzer Le; Sidsel Markussen; Kjell Domaas Josefsen & Alexander Wentzel (2017). Concrete production through microbially induced dissolution and re-precipitation of limestone.
- Frida Røyne (2017). Life Cycle Assessment of BioZEment – concrete production based on bacteria.
- Anja Røyne; Yi Jing Phua; Anita Borch; Harald Throne-Holst; Kjell Domaas Josefsen; Simone Balzer Le; Sidsel Markussen; Alexander Wentzel; Anders Myhr; Frida Røyne & Pawel Sikorski (2017). Kunsten å arbeide tverrfaglig. Forskerforum. ISSN 0800-1715. 4
- Harald Throne-Holst (2016). Tacit ethics and responsible research and innovation.
- Anita Borch & Harald Throne-Holst (2016). The explicit and tacit ethics of RRI practices.
- Yi Jing Phua & Anja Røyne (2016). Morphology and Polymorphism of Calcium Carbonate Precipitated from Different Calcium Sources via Enzyme Induced Carbonate Precipitation.
- Harald Throne-Holst (2016). RRI.
- Harald Throne-Holst & Anita Borch (2014). Tacit ethics as a new mode of laboratory engagement.