Highly defective ultra-small tetravalent MOF nanocrystals

The size and defects in crystalline inorganic materials are of importance in many applications, particularly catalysis, as it often results in enhanced/emerging properties. So far, applying the strategy of modulation chemistry has been unable to afford high-quality functional Metal–Organic Framework...

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Published in:Nature communications 2024-04, Vol.15 (1), p.3434-3434, Article 3434
Main Authors: Dai, Shan, Simms, Charlotte, Patriarche, Gilles, Daturi, Marco, Tissot, Antoine, Parac-Vogt, Tatjana N., Serre, Christian
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Language:English
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147/137
639/638/298/921
639/638/77/887
639/925/357/354
Catalysis
Catalysts
Chemical Sciences
Crystal defects
Crystallization
Crystals
Design defects
Humanities and Social Sciences
Hydrolysis
Inorganic materials
Metal-organic frameworks
multidisciplinary
Nanocrystals
Nanoparticles
Peptides
Science
Science (multidisciplinary)
Zirconium
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Simms, Charlotte
Patriarche, Gilles
Daturi, Marco
Tissot, Antoine
Parac-Vogt, Tatjana N.
Serre, Christian
description The size and defects in crystalline inorganic materials are of importance in many applications, particularly catalysis, as it often results in enhanced/emerging properties. So far, applying the strategy of modulation chemistry has been unable to afford high-quality functional Metal–Organic Frameworks (MOFs) nanocrystals with minimized size while exhibiting maximized defects. We report here a general sustainable strategy for the design of highly defective and ultra-small tetravalent MOFs (Zr, Hf) crystals (ca. 35% missing linker, 4–6 nm). Advanced characterizations have been performed to shed light on the main factors governing the crystallization mechanism and to identify the nature of the defects. The ultra-small nanoMOFs showed exceptional performance in peptide hydrolysis reaction, including high reactivity, selectivity, diffusion, stability, and show emerging tailorable reactivity and selectivity towards peptide bond formation simply by changing the reaction solvent. Therefore, these highly defective ultra-small M(IV)-MOFs particles open new perspectives for the development of heterogeneous MOF catalysts with dual functions. Crystalline materials’ properties are highly dependent on their size. Here authors report a general synthesis of ultrasmall (4–6 nm) and highly defective Zr/Hf-Metal Organic Frameworks nanoparticles that present enhanced peptide hydrolysis performance.
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subjects 147/137
639/638/298/921
639/638/77/887
639/925/357/354
Catalysis
Catalysts
Chemical Sciences
Crystal defects
Crystallization
Crystals
Design defects
Humanities and Social Sciences
Hydrolysis
Inorganic materials
Metal-organic frameworks
multidisciplinary
Nanocrystals
Nanoparticles
Peptides
Science
Science (multidisciplinary)
Zirconium
title Highly defective ultra-small tetravalent MOF nanocrystals
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