Carbodiimide-fueled reaction cycles

In 2017, the Boekhoven Lab described the first example of a carbodiimide-fueled reaction cycle that we used to regulate molecular self-assembly (1). Practically simultaneously, the group of Scott Hartley published work using the same reaction cycle.(2)

The reaction cycles are versatile—it can regulate the supramolecular behavior of many different carboxylates.
It is simple—most laboratories have the needed ingredients: MES buffer, EDC, and a carboxylic acid.

As a result, the carbodiimide-driven reaction cycle and variations of it have been used by many other research teams worldwide to regulate self-assembly, phase separation, ratchets, motors, and many other supramolecular systems. Below, we curate a database with all the work using the carbodiimide-fueled reaction cycle and variations of it.

Feel free to contact us, if there is work missing.

References

1. M. Tena-Solsona, B. Rieß, R. K. Grötsch, F. C. Löhrer, C. Wanzke, B. Käsdorf, A. R. Bausch, P. Müller-Buschbaum, O. Lieleg, J. Boekhoven, Nature Communications 20178, 15895.

2. L. S. Kariyawasam, C. S. Hartley, J. Am. Chem. Soc. 2017, 139, 11949–11955.

Manuscripts that use carbodiimide fueled reaction cycles

AuthorsPITitleJournalYearTopic
Wang, G. Nan, M. et al.LiuRecent progress of fuel-driven temporary materialsAuthorea2023Materials
Rajawasam, C. Tran, C. et al.Hartley, KonkolewiczChemically Fueled Reinforcement of Polymer MaterialsJACS2023Materials
Kriebisch, B. Kriebisch, C. et al.BoekhovenTuning the Kinetic Trapping in Chemically Fueled Self‐AssemblyChemSystemsChem2023Materials
Kriebisch, C. Burger, L. et al.BoekhovenTemplate-based information transfer in chemically fueled dynamic combinatorial librar-iesResearch Square2023Dynamic combinatorial library
Chen, X. Würbser, M. et al.BoekhovenChemically Fueled Supramolecular MaterialsAccounts of Materials Research2023Materials
Chen, X. Stasi, M. et al.BoekhovenA Carbodiimide-Fueled Reaction Cycle That Forms Transient 5 (4 H)-OxazolonesJACS2023New reaction cycle
Englert, A. Vogel, J. et al.von DeliusA Ribonucleotide↔ Phosphoramidate Reaction Network Optimized by Computer-Aided DesignJACS2022New reaction cycle
Xu, H. Bai, S. et al.WangBioinspired Self-Resettable Hydrogel Actuators Powered by a Chemical FuelACS Applied Materials & Interfaces2022Materials
Zong, Z. Zhang, Q. et al.QuDynamic Timing Control of Molecular Photoluminescent SystemsChemistry–A European Journal2022Materials
Borsley, S. Leigh, D. et al.LeighTuning the force, speed, and efficiency of an autonomous chemically fueled information ratchetJACS2022Ratchet, pumps, and motors
Borsley, S. Leigh, D. et al.LeighChemical fuels for molecular machineryNature Chemistry2022Ratchet, pumps, and motors
Borsley, S. Kreidt, E. et al.LeighAutonomous fuelled directional rotation about a covalent single bondNature2022Ratchet, pumps, and motors
Hossain, M. Jayalath, I. et al.HartleyCarbodiimide-Induced Formation of Transient Polyether Cages ChemSystemsChem2022Cages
Mondal, A. Toyoda, R. et al.FeringaChemically driven rotatory molecular machinesAngewandte Chemie2022Ratchet, pumps, and motors
Mo, K. Zhang, Y. et al.FeringaIntrinsically unidirectional chemically fuelled rotary molecular motorsNature2022Ratchet, pumps, and motors
Del Giudice, D. Spatola, E. et al.Di StefanoDissipative Dynamic Libraries (DDLs) and Dissipative Dynamic Combinatorial Chemistry (DDCC)ChemSystemsChem2022Dynamic combinatorial library
Benny, R. Sahoo, D. et al.DeRecent Advances in Fuel‐Driven Molecular Switches and MachinesChemistryOpen2022Ratchet, pumps, and motors
Donau, C. Boekhoven, J. et al.BoekhovenThe chemistry of chemically fueled dropletsTrends in Chemistry2022Synthetic cells
Stasi, M. Monferrer, A. et al.BoekhovenRegulating DNA-Hybridization Using a Chemically Fueled Reaction CycleJACS2022DNA nanotechnology
Donau, C. Späth, F. et al.BoekhovenPhase Transitions in Chemically Fueled, Multiphase Complex Coacervate DropletsAngewandte Chemie2022Synthetic cells
Bergmann, A. Donau, C. et al.BoekhovenEvolution and Single‐Droplet Analysis of Fuel‐Driven Compartments by Droplet‐Based MicrofluidicsAngewandte Chemie2022Methods
Schwarz, P. Tena-Solsona, M. et al.BoekhovenCarbodiimide-fueled catalytic reaction cycles to regulate supramolecular processesChemical Comms.2022Materials
Schnitter, F. Rieß, B. et al.BoekhovenMemory, switches, and an OR-port through bistability in chemically fueled crystalsNature Comms.2022Materials
Rodon-Fores, J. Würbser, M. et al.BoekhovenA chemically fueled supramolecular glue for self-healing gelsChemical Science2022Materials
Yao, Z. Kuang, Y. et al.ArdoñaCarbodiimide-fueled assembly of π-conjugated peptides regulated by electrostatic interactionsChemSystemsChem2022Materials
Panja, S. Adams, D. et al.AdamsChemical crosslinking in ‘reactive’multicomponent gelsChemical Comms.2022Materials
Lang, X. Thumu, U. et al.ZhaoChemical fuel-driven transient polymeric micelle nanoreactors toward reversible trapping and reaction accelerationChemical Comms.2021Materials
Heckel, J. Loescher, S. et al.WaltherChemically fueled volume phase transition of polyacid microgelsAngewandte Chemie2021Materials
Heckel, J. Batti, F. et al.WaltherSpinodal decomposition of chemically fueled polymer solutionsSoft Matter2021Materials
Wang, Q. Qi, Z. et al.QuOut‐of‐equilibrium supramolecular self‐assembling systems driven by chemical fuelAggregate2021Materials
Niebuur, B. Hegels, H. et al.Papdakis, BoekhovenDroplet Formation by Chemically Fueled Self-Assembly: The Role of Precursor HydrophobicityJ. Phys. Chem. B.2021Synthetic cells
M. Ha , S. Nader, et al.Michaelis, BoekhovenRacing Towards Fast and Effective 17O Isotopic Labeling and NMR Spectroscopy of N-formyl-MLF-OH and Associated Building BlocksJ. Phys. Chem. B2021Methods
Borsley, S. Leigh, D. et al.LeighA doubly kinetically-gated information ratchet autonomously driven by carbodiimide hydrationJACS2021Ratchet, pumps, and motors
Dodo, O. Petit, L. et al.Hartley, KonkolewiczTailoring lifetimes and properties of carbodiimide-fueled covalently cross-linked polymer networksMacromolecules2021Materials
Jayalath, I. Gerken, M. et al.HartleySubstituent effects on transient, carbodiimide-induced geometry changes in diphenic acidsJ. Organic Chemistry2021Design rules
Kariyawasam, L. Hossain, M. et al.HartleyThe transient covalent bond in abiotic nonequilibrium systemsAngewandte Chemie2021Design rules
Mondal, S. Haldar, D. et al.HaldarA transient non-covalent hydrogel by a supramolecular gelator with dynamic covalent bondsNew Journal of Chemistry2021Materials
Schnitter, F. Boekhoven, J. et al.BoekhovenA method to quench carbodiimide‐fueled self‐assemblyChemSystemsChem2021Methods
Schnitter, F. Bergmann, A. et al.BoekhovenSynthesis and characterization of chemically fueled supramolecular materials driven by carbodiimide-based fuelsNature Protocols2021Methods
Würbser, M. Schwarz, P. et al.BoekhovenChemically Fueled Block Copolymer Self‐Assembly into Transient NanoreactorsChemSystemsChem2021Materials
Dai, K. Tena-Solsona, M. et al.BoekhovenMorphological transitions in chemically fueled self-assemblyNanoscale2021Materials
Schwarz, P. Tebcharani, L. et al.BoekhovenChemically fueled materials with a self-immolative mechanism: transient materials with a fast on/off responseChemical Science2021Materials
Späth, F. Donau, C. et al.BoekhovenMolecular design of chemically fueled peptide–polyelectrolyte coacervate-based assembliesJACS2021Materials
Schwarz, P. Laha, S. et al.BoekhovenParasitic behavior in competing chemically fueled reaction cyclesChemical Science2021Materials
Kriebisch, C. Bergmann, A. et al.BoekhovenFuel-driven dynamic combinatorial librariesJACS2021Dynamic combinatorial library
Kretschmer, M. Winkeljann, B. et al.BoekhovenViscoelastic behavior of chemically fueled supramolecular Materials under load and influence of reaction side productsComms. Materials2021Materials
Cheng, M. Qian, C. et al.WangWritable and self-erasable hydrogel based on dissipative assembly process from multiple carboxyl tetraphenylethylene derivativeACS Materials Letters2020Materials
Wang, G. Liu, S. et al.LiuStrategies to construct a chemical‐fuel‐driven self‐assemblyChemSystemsChem2020Design rules
Jayalath, I. Wang, H. et al.HartleyChemically fueled transient geometry changes in diphenic acidsOrganic Letters2020Design rules
Hossain, M. Atkinson, J. et al.HartleyDissipative assembly of macrocycles comprising multiple transient bondsAngewandte Chemie2020Materials
Leng, Z. Peng, F. et al.HaoChemical‐fuel‐driven assembly in macromolecular science: Recent advances and challengesChemPlusChem2020Materials
Kriebisch, B. Jussupow, A. et al.BoekhovenReciprocal coupling in chemically fueled assembly: a reaction cycle regulates self-assembly and vice versaJACS2020Materials
Dai, K. Fores, J. et al.BoekhovenRegulating chemically fueled peptide assemblies by molecular designJACS2020Design rules
Rieß, B. Grötsch, R. et al.BoekhovenThe design of dissipative molecular assemblies driven by chemical reaction cyclesChem2020Design rules
Wanzke, C. Jussupow, A. et al.BoekhovenDynamic vesicles formed by dissipative self‐assemblyChemSystemsChem2020Materials
Tena-Solsona, M. Janssen, J. et al.BoekhovenKinetic Control over droplet ripening in fuel-driven active emulsionsChemSystemsChem2020Synthetic cells
Donau, C. Späth, F. et al.BoekhovenActive coacervate droplets as a model for membraneless organelles and a platform towards synthetic lifeNature Comms.2020Synthetic cells
Panja, S. Dietrich, B. et al.AdamsChemically Fuelled Self‐Regulating Gel‐to‐Gel TransitionChemSystemsChem2020Materials
Zhang, B. Jayalath, I. et al.Konkolewicz, HartleyChemically fueled covalent crosslinking of polymer materialsChemical Comms.2019Materials
Kariyawasam, L. Kron, J. et al.HartleyStructure–property effects in the generation of transient aqueous benzoic acid anhydrides by carbodiimide fuelsJ. Organic Chemistry2019Design rules
Bal, S. Das, K. et al.DasChemically fueled dissipative self‐assembly that exploits cooperative catalysisAngewandte Chemie2019Materials
Grötsch, R. Wanzke, C. et al.BoekhovenPathway dependence in the fuel-driven dissipative self-assembly of nanoparticlesJACS2019Materials
Rieß, B. Wanzke, C. et al.BoekhovenDissipative assemblies that inhibit their deactivationSoft Matter2018Materials
Rieß, B. Boekhoven, J. et al.BoekhovenApplications of dissipative supramolecular materials with a tunable lifetimeChemNanoMat2018Materials
Grötsch, R. Angı, A. et al.BoekhovenDissipative Self‐Assembly of Photoluminescent Silicon NanocrystalsAngewandte Chemie2018Materials
Tena-Solsona, M. Wanzke, C. et al.BoekhovenSelf-selection of dissipative assemblies driven by primitive chemical reaction networksNature Comms.2018Dynamic combinatorial library
Grötsch, R. Boekhoven, J. et al.BoekhovenUnique properties of supramolecular biomaterials through nonequilibrium self-assemblySelf-assembling Biomaterials2018Materials
Kariyawasam, L. Hartley, C. S. et al.HartleyDissipative assembly of aqueous carboxylic acid anhydrides fueled by carbodiimidesJACS2017Materials
Tena-Solsona, M. Rieß, B. et al.BoekhovenNon-equilibrium dissipative supramolecular materials with a tunable lifetimeNature Comms.2017Materials