In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems such regulatory mechanisms are underdeveloped. We now report how a substrate of a chemical reaction induces the formation of its own catalyst from a dynamic molecular network. After complete conversion of the substrate, the network disassembles the catalyst. These results open up new opportunities for controlling catalysis in synthetic chemical systems.</p
Nature has proven to be a great source of inspiration for scientific research and technological inno...
International audienceThe present article discusses the possibility that catalysed chemical networks...
Dissipative self-assembly processes in Nature rely on chemical fuels that activate proteins for asse...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
Signal transduction in living systems is the conversion of information into a chemical change, and i...
Life as we know it is based on complex networks of biochemical reactions that constantly interact wi...
Until very recently, synthetic chemistry has focussed on the creation of chemical entities with desi...
Life as we know it is based on complex networks of biochemical reactions that constantly interact wi...
Nature has proven to be a great source of inspiration for scientific research and technological inno...
Signal transduction mechanisms are key to living systems. Cells respond to signals by changing catal...
The entire research described in this thesis is part of the larger field of Systems Chemistry. This ...
Nature has proven to be a great source of inspiration for scientific research and technological inno...
International audienceThe present article discusses the possibility that catalysed chemical networks...
Dissipative self-assembly processes in Nature rely on chemical fuels that activate proteins for asse...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
In biology enzyme concentrations are continuously regulated, yet for synthetic catalytic systems suc...
Signal transduction in living systems is the conversion of information into a chemical change, and i...
Life as we know it is based on complex networks of biochemical reactions that constantly interact wi...
Until very recently, synthetic chemistry has focussed on the creation of chemical entities with desi...
Life as we know it is based on complex networks of biochemical reactions that constantly interact wi...
Nature has proven to be a great source of inspiration for scientific research and technological inno...
Signal transduction mechanisms are key to living systems. Cells respond to signals by changing catal...
The entire research described in this thesis is part of the larger field of Systems Chemistry. This ...
Nature has proven to be a great source of inspiration for scientific research and technological inno...
International audienceThe present article discusses the possibility that catalysed chemical networks...
Dissipative self-assembly processes in Nature rely on chemical fuels that activate proteins for asse...