Abstract The use of CO2 as a carbon source in biorefinery is of great interest, but the low solubility of CO2 in water and the lack of efficient CO2 assimilation pathways are challenges to overcome. Formic acid (FA), which can be easily produced from CO2 and more conveniently stored and transported than CO2, is an attractive CO2‐equivalent carbon source as it can be assimilated more efficiently than CO2 by microorganisms and also provides reducing power. Although there are native formatotrophs, they grow slowly and are difficult to metabolically engineer due to the lack of genetic manipulation tools. Thus, much effort is exerted to develop efficient FA assimilation pathways and synthetic microorganisms capable of growing solely on FA (and C...
Methanol and formate are attractive microbial feedstocks as they can be sustainably produced from CO...
Decoupling biorefineries from land use and agriculture is a major challenge. As formate can be produ...
Endowing biotechnological platform organisms with new carbon assimilation pathways is a key challeng...
There has been much effort exerted to reduce one carbon (C1) gas emission to address climate change....
Engineering a biotechnological microorganism for growth on one-carbon (C1) intermediates, produced f...
One-carbon (C1) feedstocks can provide a vital link between cheap and sustainable abiotic resources ...
Direct biocatalytic conversion of CO2 to formic acid is an attractive means of reversibly storing en...
International audienceThe reductive glycine pathway was described as the most energetically favorabl...
Recently, several formate dehydrogenases have been reported to be able to catalyze the reduction of ...
The generation of formate from CO2 provides a method for sequestration of this greenhouse gas as wel...
The biological conversion of CO2 and H2 into formate offers a sustainable route to a valuable commod...
Background: Formate converted from CO2 reduction has great potential as a sustainable feedstock for ...
Metabolite concentrations, fluxes, and free energies constitute the basis for understanding and cont...
The conversion of carbon dioxide to formate is a fundamental step for building C1 chemical platforms...
Acetogenic bacteria are already established as biocatalysts for production of high-value compounds f...
Methanol and formate are attractive microbial feedstocks as they can be sustainably produced from CO...
Decoupling biorefineries from land use and agriculture is a major challenge. As formate can be produ...
Endowing biotechnological platform organisms with new carbon assimilation pathways is a key challeng...
There has been much effort exerted to reduce one carbon (C1) gas emission to address climate change....
Engineering a biotechnological microorganism for growth on one-carbon (C1) intermediates, produced f...
One-carbon (C1) feedstocks can provide a vital link between cheap and sustainable abiotic resources ...
Direct biocatalytic conversion of CO2 to formic acid is an attractive means of reversibly storing en...
International audienceThe reductive glycine pathway was described as the most energetically favorabl...
Recently, several formate dehydrogenases have been reported to be able to catalyze the reduction of ...
The generation of formate from CO2 provides a method for sequestration of this greenhouse gas as wel...
The biological conversion of CO2 and H2 into formate offers a sustainable route to a valuable commod...
Background: Formate converted from CO2 reduction has great potential as a sustainable feedstock for ...
Metabolite concentrations, fluxes, and free energies constitute the basis for understanding and cont...
The conversion of carbon dioxide to formate is a fundamental step for building C1 chemical platforms...
Acetogenic bacteria are already established as biocatalysts for production of high-value compounds f...
Methanol and formate are attractive microbial feedstocks as they can be sustainably produced from CO...
Decoupling biorefineries from land use and agriculture is a major challenge. As formate can be produ...
Endowing biotechnological platform organisms with new carbon assimilation pathways is a key challeng...