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Critical Knowledge Gaps in Mass Transport through Single-Digit Nanopores: A Review and Perspective

Authors :
Massachusetts Institute of Technology. Department of Chemical Engineering
Massachusetts Institute of Technology. Department of Mathematics
Faucher, Samuel
Aluru, Narayana
Bazant, Martin Z
Blankschtein, Daniel
Brozena, Alexandra H
Cumings, John
Pedro de Souza, J
Elimelech, Menachem
Epsztein, Razi
Fourkas, John T
Rajan, Ananth Govind
Kulik, Heather J
Levy, Amir
Majumdar, Arun
Martin, Charles
McEldrew, Michael
Misra, Rahul Prasanna
Noy, Aleksandr
Pham, Tuan Anh
Reed, Mark
Schwegler, Eric
Siwy, Zuzanna
Wang, YuHuang
Strano, Michael
Massachusetts Institute of Technology. Department of Chemical Engineering
Massachusetts Institute of Technology. Department of Mathematics
Faucher, Samuel
Aluru, Narayana
Bazant, Martin Z
Blankschtein, Daniel
Brozena, Alexandra H
Cumings, John
Pedro de Souza, J
Elimelech, Menachem
Epsztein, Razi
Fourkas, John T
Rajan, Ananth Govind
Kulik, Heather J
Levy, Amir
Majumdar, Arun
Martin, Charles
McEldrew, Michael
Misra, Rahul Prasanna
Noy, Aleksandr
Pham, Tuan Anh
Reed, Mark
Schwegler, Eric
Siwy, Zuzanna
Wang, YuHuang
Strano, Michael
Source :
ACS
Publication Year :
2021

Abstract

Copyright © 2019 American Chemical Society. Not all nanopores are created equal. By definition, nanopores have characteristic diameters or conduit widths between ∼1 and 100 nm. However, the narrowest of such pores, perhaps best called Single Digit Nanopores (SDNs) and defined as those with regular diameters less than 10 nm, have only recently been accessible experimentally for precision transport measurements. This Review summarizes recent experiments on pores in this size range that yield surprising results, pointing toward extraordinary transport efficiencies and selectivities for SDN systems. These studies have identified critical gaps in our understanding of nanoscale hydrodynamics, molecular sieving, fluidic structure, and thermodynamics. These knowledge gaps are, in turn, an opportunity to discover and understand fundamentally new mechanisms of molecular and ionic transport at the nanometer scale that may inspire a host of new technologies, from novel membranes for separations and water purification to new gas-permeable materials and energy storage devices. Here we highlight seven critical knowledge gaps in the study of SDNs and identify the need for new approaches to address these topics.

Details

Database :
OAIster
Journal :
ACS
Notes :
application/pdf, English
Publication Type :
Electronic Resource
Accession number :
edsoai.on1286400319
Document Type :
Electronic Resource