Ring polymers in confined geometries

The investigation of a dilute solution of phantom ideal ring polymers and ring polymers with excluded volume interactions (EVI) in a good solvent confined in a slit geometry of two parallel repulsive walls and in a solution of colloidal particles of big size was performed. Taking into account the co...

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Main Authors: Z. Usatenko, J. Halun, P. Kuterba
Format: Article
Language:English
Published: Institute for Condensed Matter Physics 2016-12-01
Series:Condensed Matter Physics
Subjects:
Online Access:http://dx.doi.org/10.5488/CMP.19.43602
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spelling doaj-212c1bdaff8e40dd9e59dc37b2afb5092020-11-24T22:43:30ZengInstitute for Condensed Matter PhysicsCondensed Matter Physics1607-324X2016-12-011944360210.5488/CMP.19.43602Ring polymers in confined geometriesZ. UsatenkoJ. HalunP. KuterbaThe investigation of a dilute solution of phantom ideal ring polymers and ring polymers with excluded volume interactions (EVI) in a good solvent confined in a slit geometry of two parallel repulsive walls and in a solution of colloidal particles of big size was performed. Taking into account the correspondence between the field theoretical φ4 O(n)-vector model in the limit n→ 0 and the behaviour of long-flexible polymers in a good solvent, the correspondent depletion forces and the forces which exert phantom ideal ring polymers and ring polymers with EVI on the walls were obtained in the framework of the massive field theory approach at fixed space dimensions d=3 up to one-loop order. Besides, taking into account the Derjaguin approximation, the depletion forces between big colloidal particle and a wall and in the case of two big colloidal particles were calculated. The obtained results indicate that phantom ideal ring polymers and ring polymers with EVI due to the complexity of chain topology and for entropical reasons demonstrate a completely different behaviour in confined geometries compared with linear polymers.http://dx.doi.org/10.5488/CMP.19.43602colloidal systemscritical phenomenapolymersphase transitions
collection DOAJ
language English
format Article
sources DOAJ
author Z. Usatenko
J. Halun
P. Kuterba
spellingShingle Z. Usatenko
J. Halun
P. Kuterba
Ring polymers in confined geometries
Condensed Matter Physics
colloidal systems
critical phenomena
polymers
phase transitions
author_facet Z. Usatenko
J. Halun
P. Kuterba
author_sort Z. Usatenko
title Ring polymers in confined geometries
title_short Ring polymers in confined geometries
title_full Ring polymers in confined geometries
title_fullStr Ring polymers in confined geometries
title_full_unstemmed Ring polymers in confined geometries
title_sort ring polymers in confined geometries
publisher Institute for Condensed Matter Physics
series Condensed Matter Physics
issn 1607-324X
publishDate 2016-12-01
description The investigation of a dilute solution of phantom ideal ring polymers and ring polymers with excluded volume interactions (EVI) in a good solvent confined in a slit geometry of two parallel repulsive walls and in a solution of colloidal particles of big size was performed. Taking into account the correspondence between the field theoretical φ4 O(n)-vector model in the limit n→ 0 and the behaviour of long-flexible polymers in a good solvent, the correspondent depletion forces and the forces which exert phantom ideal ring polymers and ring polymers with EVI on the walls were obtained in the framework of the massive field theory approach at fixed space dimensions d=3 up to one-loop order. Besides, taking into account the Derjaguin approximation, the depletion forces between big colloidal particle and a wall and in the case of two big colloidal particles were calculated. The obtained results indicate that phantom ideal ring polymers and ring polymers with EVI due to the complexity of chain topology and for entropical reasons demonstrate a completely different behaviour in confined geometries compared with linear polymers.
topic colloidal systems
critical phenomena
polymers
phase transitions
url http://dx.doi.org/10.5488/CMP.19.43602
work_keys_str_mv AT zusatenko ringpolymersinconfinedgeometries
AT jhalun ringpolymersinconfinedgeometries
AT pkuterba ringpolymersinconfinedgeometries
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