Ingmar Hans Riedel-Kruse

This study shows Methanosarcina acetivorans can convert acetate to ethanol and methane, producing 40% ethanol from acetate, more than from methane or with a modified Mcr.

This paper engineers methyl-coenzyme M reductase (Mcr) to enhance methane and carbon dioxide capture by identifying beneficial substitutions that improve biofilm growth and methane capture.

The paper enhances reverse methanogenesis by silencing the native Mcr gene in engineered archaea to boost methane conversion into ethanol and acetate.

This paper demonstrates how synthetic adhesins and rheological perturbations can tune the viscoelasticity and structure of engineered living materials made from bacteria.

This paper applies delay differential equations to model biological network motifs, finding simplifications and insights into dynamics with delays.

This paper introduces a programming paradigm and toolkit for real-time interaction with remote living matter, enabling users to create scientific applications and games with minimal biology knowledge.

This paper introduces a genetically encoded adhesion toolbox in E. coli to program multicellular morphologies and patterns through modular cell-cell adhesion.

This paper introduces Biofilm Lithography, a method to create high-resolution structured biofilms using optogenetic adhesin expression, achieving spatial resolution down to 25 micrometers.

The paper develops two models to explain how stem cell scaling occurs during organ resizing in Drosophila midgut by linking commitment rate to stem cell proportion.

The paper describes an online biology cloud lab that enables scalable, inquiry-based science learning with real experiments, demonstrating its robustness and alignment with NGSS standards.