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Isotropic proton conduction in an anisotropic crystal: the role of molecular rotational dynamics in imidazolium dihydrogen phosphate

Shun Dekura, Motohiro Mizuno, Hatsumi Mori

2025Chemical Science5 citationsDOIOpen Access PDF

Abstract

anions, effectively connects the proton conduction pathways, resulting in isotropic conductivity despite the anisotropic hydrogen-bond network. These findings demonstrate that the cooperative rotational dynamics of both acid and base components is a valid strategy for designing high-performance anhydrous proton-conducting materials.

Topics & Concepts

AnhydrousProtonThermal conductionMonoclinic crystal systemAnisotropyIsotropyOrthorhombic crystal systemConductivityCrystallographyMaterials scienceChemical physicsChemistryLibration (molecule)CocrystalHydrogen bondIonic conductivityCrystallizationProton transportFast ion conductorMolecular dynamicsRotation around a fixed axisProton conductorPhysical chemistryBase (topology)MoleculeConformational isomerismMolecular physicsMotional narrowingNuclear magnetic resonanceCrystal structureComputational chemistryRotational diffusionFuel Cells and Related MaterialsSolid-state spectroscopy and crystallographyElectrochemical Analysis and Applications
Isotropic proton conduction in an anisotropic crystal: the role of molecular rotational dynamics in imidazolium dihydrogen phosphate | Litcius