Single-molecule trapping and measurement in solution

Trapping of a single molecule in the fluid phase was realized decades following developments in the gas-phase, because in some ways the solution phase posed a greater challenge. The key issues have since been addressed by several different means; techniques to confine nanometer scale entities in sol...

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Main Authors: Bespalova, M, Mahanta, S, Krishnan, M
Format: Journal article
Language:English
Published: Elsevier 2019
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author Bespalova, M
Mahanta, S
Krishnan, M
author_facet Bespalova, M
Mahanta, S
Krishnan, M
author_sort Bespalova, M
collection OXFORD
description Trapping of a single molecule in the fluid phase was realized decades following developments in the gas-phase, because in some ways the solution phase posed a greater challenge. The key issues have since been addressed by several different means; techniques to confine nanometer scale entities in solution now abound and are gaining traction in a variety of single molecule studies. Available methods range from pure physical entrapment of a molecule on the one hand to electrokinetic and optical techniques, and approaches that exploit thermodynamic principles on the other. Some trapping techniques have also opened up new avenues to highly precise, accurate measurements of molecular physical properties in solution.
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spelling oxford-uuid:22c23384-f2ba-4e0a-a145-279fa43a90de2022-03-26T11:40:28ZSingle-molecule trapping and measurement in solutionJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:22c23384-f2ba-4e0a-a145-279fa43a90deEnglishSymplectic Elements at OxfordElsevier2019Bespalova, MMahanta, SKrishnan, MTrapping of a single molecule in the fluid phase was realized decades following developments in the gas-phase, because in some ways the solution phase posed a greater challenge. The key issues have since been addressed by several different means; techniques to confine nanometer scale entities in solution now abound and are gaining traction in a variety of single molecule studies. Available methods range from pure physical entrapment of a molecule on the one hand to electrokinetic and optical techniques, and approaches that exploit thermodynamic principles on the other. Some trapping techniques have also opened up new avenues to highly precise, accurate measurements of molecular physical properties in solution.
spellingShingle Bespalova, M
Mahanta, S
Krishnan, M
Single-molecule trapping and measurement in solution
title Single-molecule trapping and measurement in solution
title_full Single-molecule trapping and measurement in solution
title_fullStr Single-molecule trapping and measurement in solution
title_full_unstemmed Single-molecule trapping and measurement in solution
title_short Single-molecule trapping and measurement in solution
title_sort single molecule trapping and measurement in solution
work_keys_str_mv AT bespalovam singlemoleculetrappingandmeasurementinsolution
AT mahantas singlemoleculetrappingandmeasurementinsolution
AT krishnanm singlemoleculetrappingandmeasurementinsolution