Detail View

Biomimetic Liquid-Sieving through Covalent Molecular Meshes
Citations

WEB OF SCIENCE

Citations

SCOPUS

Metadata Downloads

Title
Biomimetic Liquid-Sieving through Covalent Molecular Meshes
Issued Date
2016-11-08
Citation
Byeon, Minseon. (2016-11-08). Biomimetic Liquid-Sieving through Covalent Molecular Meshes. Chemistry of Materials, 28(21), 8044–8050. doi: 10.1021/acs.chemmater.6b03884
Type
Article
Keywords
AQUAPORINBiological CellsBiomimeticsCARBON NANOTUBESCHANNELSCytologyGlucoseHydrogen StorageLayer by LayerLiquidsMASS-TRANSPORTMemBRANESMesh GenerationMolecular NetworksMolecular PoresMoleculesNanoporous SubstrateORGANIC FRAMEWORKSPorous MaterialsProteinsProton TransportSeparationSMALL MOLECULESTransmembrane PressuresWATER DESALINATIONWater Molecule
ISSN
0897-4756
Abstract
The porin pores of biological cell membranes enable molecules to be sieved out selectively while water molecules traverse the channel in a single file. Imitating this streaming mechanism is a promising way to create artificial liquid-sieving membranes, but ultrathin molecular pores need to be produced in a large membrane format to be functional under high transmembrane pressures. Here we show that a membrane composed of a covalent molecular mesh can filter mixtures of small molecules in a liquid by the porin-like mechanism. Tetrahedral network formers are polymerized layer-by-layer on a nanoporous substrate to yield a thin layer of a covalent molecular network containing an array of molecular meshes grown by a pore-limited mechanism. Each of the meshes exhibits high water permeability, estimated to be greater than 2500 Lm-2 h-1. Glucose or larger molecules are selectively sieved out while the solvent and solutes smaller than glucose traverse the mesh. © 2016 American Chemical Society.
URI
http://hdl.handle.net/20.500.11750/2152
DOI
10.1021/acs.chemmater.6b03884
Publisher
American Chemical Society
Show Full Item Record

File Downloads

  • There are no files associated with this item.

공유

qrcode
공유하기

Related Researcher

장윤희
Jang, Yun Hee장윤희

Department of Energy Science and Engineering

read more

Total Views & Downloads