On the Diffusion Mechanism in Melts of Condensation and Non-Condensation Polymers at High Temperatures

On the Diffusion Mechanism in Melts of Condensation and Non-Condensation Polymers at High Temperatures

Stoyko Fakirov

Contact

On the Diffusion Mechanism in Melts of Condensation and Non-Condensation Polymers at High Temperatures

Article Fingerprint

ReserarchID

3O789

On the Diffusion Mechanism in Melts of Condensation and Non-Condensation Polymers at High Temperatures Banner

AI TAKEAWAY

Connecting with the Eternal Ground

Abstract

As recently assumed (DOI:10

References

121 Cites in Article

Reference Format

Y Frenkel (1946). Kinetic Theory of Liquids.
De Gennes,P (1971). Reptation of a Polymer Chain in the Presence of Fixed Obstacles.
M Doi,S Edwards The theory of polymer dynamics.
J Klein (1979). The self-diffusion of polymers.
Stoyko Fakirov (2017). Fundamentals of Polymer Science for Engineers.
M Rubinstein (1986). Reptation Model of Entangled Polymers.
Ludwik Leibler,Michael Rubinstein,Ralph Colby (1991). Dynamics of reversible networks.
L Leibler,M Rubinstein,R Colby (1993). Dynamics of telechelic ionomers. Can polymers diffuse large distances without relaxing stress?.
Armand Adjari,Françoise Brochard-Wyart,Pierre-Gilles De Gennes,Ludwik Leibler,Jean-Louis Viovy,Michael Rubinstein (1994). Slippage of an entangled polymer melt on a grafted surface.
A Semenov,M Rubinstein (1998). Dynamics of strongly entangled polymer systems: activated reptation.
N Shusharina,E Zhulina,A Dobrynin,M Rubinstein (2005). Scaling Theory of Diblock Polyampholyte Solutions.
Evgeny Stukalin,Li-Heng Cai,N Kumar,Ludwik Leibler,Michael Rubinstein (2013). Self-Healing of Unentangled Polymer Networks with Reversible Bonds.
Jagannathan Kalathi,Sanat Kumar,Michael Rubinstein,Gary Grest (2014). Rouse mode analysis of chain relaxation in polymer nanocomposites.
Ting Ge,Jagannathan Kalathi,Jonathan Halverson,Gary Grest,Michael Rubinstein (2017). Nanoparticle Motion in Entangled Melts of Linear and Nonconcatenated Ring Polymers.
Ting Ge,Gary Grest,Michael Rubinstein (2018). Nanorheology of Entangled Polymer Melts.
Ralm Ricarte,François Tournilhac,Ludwik Leibler (2019). Phase Separation and Self-Assembly in Vitrimers: Hierarchical Morphology of Molten and Semicrystalline Polyethylene/Dioxaborolane Maleimide Systems.
C Bartels,B Crist (1984). Self-Diffusion Coefficient in Melts of Linear Polymers: Chain Length and Temperature Dependence for Hydrogenated Polybutadiene.
R Bachus,R Kimmich (1983). Molecular weight and temperature dependence of self-diffusion coefficients in polyethylene and polystyrene melts investigated using a modified n.m.r. field-gradient technique.
Matthew Tirrell (1984). Polymer Self-Diffusion in Entangled Systems.
Craig Bartels,Buckley Crist,Lewis Fetters,William Graessley (1986). Self-diffusion in branched polymer melts.
R Reis,J Vladimir Oliveira,R Nobrega (2001). DIFFUSION COEFFICIENTS IN POLYMER-SOLVENT SYSTEMS FOR HIGHLY CONCENTRATED POLYMER SOLUTIONS.
Von Seggern,J Klotz,S Cantow,H.-J (1991). Reptation and constraint release in linear polymer melts. An experimental study.
E Patton,J Wesson,M Rubinstein,J Wilson,L Oppenheimer (1989). Scaling properties of branched polyesters.
T Mcleish (2002). Tube theory of entangled polymer dynamics.
Rae Robertson,Douglas Smith (2007). Strong effects of molecular topology on diffusion of entangled DNA molecules.
Maram Abadi,Maged Serag,Satoshi Habuchi (2018). Entangled polymer dynamics beyond reptation.
M Rubinstein,R Colby (2003). Polymer Physics.
T Cosgrove,P Griffiths,J Hollingshurst,R Richards,J Semlyen (1992). Self-diffusion and spin-spin relaxation in cyclic and linear polydimethylsiloxane melts.
Satoshi Habuchi,Norihiro Satoh,Takuya Yamamoto,Yasuyuki Tezuka,Martin Vacha (2010). Multimode Diffusion of Ring Polymer Molecules Revealed by a Single‐Molecule Study.
M Kapnistos,M Lang,D Vlassopoulos,W Pyckhout-Hintzen,D Richter,D Cho,T Chang,M Rubinstein (2008). Unexpected power-law stress relaxation of entangled ring polymers.
Rossana Pasquino,Thodoris Vasilakopoulos,Youn Jeong,Hyojoon Lee,Simon Rogers,George Sakellariou,Jürgen Allgaier,Atsushi Takano,Ana Brás,Taihyun Chang,Sebastian Gooßen,Wim Pyckhout-Hintzen,Andreas Wischnewski,Nikos Hadjichristidis,Dieter Richter,Michael Rubinstein,Dimitris Vlassopoulos (2013). Viscosity of Ring Polymer Melts.
E Von Meerwall,R Ozisik,W Mattice,P Pfister (2003). Self-diffusion of linear and cyclic alkanes, measured with pulsed-gradient spin-echo nuclear magnetic resonance.
Scott Brown,Grzegorz Szamel (1998). Computer simulation study of the structure and dynamics of ring polymers.
Shang Reigh,Do Yoon (2013). Concentration Dependence of Ring Polymer Conformations from Monte Carlo Simulations.
Jonathan Halverson,Won Lee,Gary Grest,Alexander Grosberg,Kurt Kremer (2011). Molecular dynamics simulation study of nonconcatenated ring polymers in a melt. II. Dynamics.
Jacques Roovers (2013). OVERVIEW ON PHYSICAL PROPERTIES OF CYCLIC POLYMERS.
S Honda,T Yamamoto,Y Tezuka (2010). Topologydirected control on thermal stability: micelles formed from linear and cyclized amphiphilic block copolymers.
Satoshi Honda,Takuya Yamamoto,Yasuyuki Tezuka (2013). Tuneable enhancement of the salt and thermal stability of polymeric micelles by cyclized amphiphiles.
Mingjiang Zhong,Rui Wang,Ken Kawamoto,Bradley Olsen,Jeremiah Johnson (2016). Quantifying the impact of molecular defects on polymer network elasticity.
Jacob Klein (1986). Dynamics of entangled linear, branched, and cyclic polymers.
Tom Mcleish (2002). Polymers Without Beginning or End.
Tom Mcleish (2008). Floored by the rings.
P Mills,J Mayer,E Kramer,G Hadziioannou,P Lutz,C Strazielle,P Rempp,A Kovacs (1987). Diffusion of polymer rings in linear polymer matrices.
Yong-Biao Yang,Zhao-Yan Sun,Cui-Liu Fu,Li-Jia An,Zhen-Gang Wang (2010). Monte Carlo simulation of a single ring among linear chains: Structural and dynamic heterogeneity.
Maram Abadi,Maged Serag,Satoshi Habuchi (2015). Single-Molecule Imaging Reveals Topology Dependent Mutual Relaxation of Polymer Chains.
Kahyun Hur,Cheol Jeong,Roland Winkler,Naida Lacevic,Richard Gee,Do Yoon (2011). Chain Dynamics of Ring and Linear Polyethylene Melts from Molecular Dynamics Simulations.
J Klein (1978). Evidence for reptation in an entangled polymer melt.
L Leger,H Hervet,F Rondelez (1981). Reptation in entangled polymer solutions by forced Rayleigh light scattering.
Ernst Von Meerwall,Eric Amis,John Ferry (1985). Self-diffusion in solutions of polystyrene in tetrahydrofuran: comparison of concentration dependences of the diffusion coefficients of polymer, solvent, and a ternary probe component.
Thomas Perkins,Douglas Smith,Steven Chu (1994). Direct Observation of Tube-Like Motion of a Single Polymer Chain.
J Kas,H Strey,E Sackmann (1994). Direct imaging of reptation for semiflexible actin-filaments.
Masoumeh Keshavarz,Hans Engelkamp,Jialiang Xu,Els Braeken,Matthijs Otten,Hiroshi Uji-I,Erik Schwartz,Matthieu Koepf,Anja Vananroye,Jan Vermant,Roeland Nolte,Frans De Schryver,Jan Maan,Johan Hofkens,Peter Christianen,Alan Rowan (2016). Nanoscale Study of Polymer Dynamics.
S Fakirov (2019). Condensation Polymers: Their Chemical Peculiarities Offer Great Opportunities.
H Kriecheldorf (2014). Polycondensation.
P Flory (1953). Principles of Polymer Chemistry.
C Papaspyridis,S Vouyiouka (2009). Solid State Polymerization.
Stamatina Vouyiouka,Pavlos Theodoulou,Antonia Symeonidou,Constantine Papaspyrides,Rudolf Pfaendner (2013). Solid state polymerization of poly(lactic acid): Some fundamental parameters.
Izabela Steinborn-Rogulska,Gabriel Rokicki (2013). Solid-state polycondensation (SSP) as a method to obtain high molecular weight polymers. Part I. Parameters influencing the SSP process.
Nejib Kasmi,Mustapha Majdoub,George Papageorgiou,Dimitris Achilias,Dimitrios Bikiaris (2017). Solid-State Polymerization of Poly(ethylene furanoate) Biobased Polyester, I: Effect of Catalyst Type on Molecular Weight Increase.
H Kriecheldorf (2014). Solid State Polycondensation.
Luis Mendes,Isaac Mallet,Sibele Cestari,Frederico Dias,Patricia Pereira (2014). Solid state polymerization of pet/pc extruded blend: effect of reaction temperature on thermal, morphological and viscosity properties.
Michael Dr�scher,Friedrich Georg Schmidt (1981). The kinetics of the ester-interchange reaction of poly(ethylene terephthalate).
Roland Geyer,Jenna Jambeck,Kara Law (2017). Production, use, and fate of all plastics ever made.
S Fakirov (1990). Solid state reactions in linear polycondensates.
S Knigth (2008). Plastic: the elephant in the room.
S Fakirov (2012). The Concept of Micro- or Nanofibrils Reinforced Polymer-Polymer Composites.
Stoyko Fakirov (2013). Nano-/microfibrillar polymer–polymer and single polymer composites: The converting instead of adding concept.
Roger Porter,Li-Hui Wang (1992). Compatibility and transesterification in binary polymer blends.
M Xanthos,H Warth (1999). Effects of Transreactions on the Compatibility and Miscibility of Blends of Condensation Polymers.
Ming Zhang,Min Rong (2011). Self‐Healing Polymers and Polymer Composites.
B Blaiszik,S Kramer,L,B Olugebefola,S Moore,J Sottos,N White,S (2010). Self-Healing Polymers and Composites.
Y Yuan,T Yin,M Rong,M Zhang (2008). Self healing in polymers and polymer composites. Concepts, realization and outlook: A review.
T Mauldin,M Kessler (2010). Self-healing polymers and composites.
Ying Yang,Marek Urban (2013). Self-healing polymeric materials.
Margaret Scheiner,Tarik Dickens,Okenwa Okoli (2015). Progress towards self-healing polymers for composite structural applications.
G Li,H Meng (2015). Overview of crack self-healing.
Iee Hia,Vahdat Vahedi,Pooria Pasbakhsh (2016). Self-Healing Polymer Composites: Prospects, Challenges, and Applications.
Yunseon Heo,Mohammad Malakooti,Henry Sodano (2016). Self-healing polymers and composites for extreme environments.
Swapan Ghosh (2009). Self‐Healing Materials: Fundamentals, Design Strategies, and Applications.
Keletso Mphahlele,Suprakas Ray,Andrei Kolesnikov (2017). Self-Healing Polymeric Composite Material Design, Failure Analysis and Future Outlook: A Review.
Ying Yang,Xiaochu Ding,Marek Urban (2015). Chemical and physical aspects of self-healing materials.
Firas Awaja (2016). Autohesion of polymers.
S Voyutskii (1963). High Polymers. Vol. XII: Analytical Chemistry of Polymers, Parts II and III. Gordon M. Kline, Editor. New York, Interscience Division, John Wiley & Sons, 1962.
Richard Wool (2008). Self-healing materials: a review.
A Volynskii,N Bakeev (2009). Healing of interfacial surfaces in polymer systems.
Lucas De Espinosa,Gina Fiore,Christoph Weder,E Johan Foster,Yoan Simon (2015). Healable supramolecular polymer solids.
S Fakirov (1984). Chemical healing in poly(ethylene terephthalate).
Stoyko Fakirov (1984). Effect of the temperature on the chemical healing of poly(ethylene terephthalate).
Xander Hillewaere,Filip Du Prez (2015). Fifteen chemistries for autonomous external self-healing polymers and composites.
S Fakirov (1985). Polymer author index volume 26 1985.
Nadka Avrarmova,Stoyko Fakirov (1990). Study of the healing process in native cellulose.
N Avramova,S Fakirov (1991). Liquid crystalline polymer laminates.
S Fakirov,N Avramova (1987). Chemical healing in partially cross‐linked polyamides.
Tamio Arakawa,Fumio Nagatoshi,Naoki Arai (1968). Thermal analysis of drawn nylon 6.
B Wunderlich (1976). Unknown Title.
Nadka Avramova (1993). Study of the healing process of polymers with different chemical structure and chain mobility.
J Kugler,J Gilmer,D Wiswe,H Zachmann,K Hahn,E Fischer (1987). Study of Transesterification in Poly(ethylene terephthalate) by Small-Angle Neutron Scattering.
S Fakirov (1999). Transreactions in Condensation Polymers.
T Serhatkulu,I Bahar,B Erman,S Fakirov,M Evstatiev,D Sapundjieva (1995). Dynamic mechanical study of amorphous phases in poly(ethylene terephthalate)/nylon-6 blends.
S Fakirov,M Evstatiev,J Schultz (1993). Microfibrillar reinforced composite from drawn poly(ethylene terephthalate)/nylon-6 blend.
M Evstatiev,N Nikolov,S Fakirov (1996). Morphology of microfibrillar reinforced composites PET/PA 6 blend.
S Fakirov,M Evstatievm (1994). Microfibrillar reinforced composites -new materials from polymer blends.
R Lenz,J Jin,K Feichtinger (1983). Crystallizationinduced reactions of copolymers: 6. Reorganization of polyesters in the liquid crystal state.
J Devaux (1999). Model Studies of Transreactions in Condensation Polymers.
A Muhlebach,James Economy,R Johnson,T Karis,J Lyerla (1990). Direct evidence for transesterification and randomization in a mixture of homopolyesters of poly(4-hydroxybenzoic acid) and poly(6-hydroxy-2-naphthoic acid) above 450.degree..
S Fakirov,Z Denchev (1999). Sequential Reordering in Condensation Copolymers.
Z Denchev,S Fakirov,M Sarkissova,F Yilmaz (1996). Sequential reordering in condensation copolymers. 2. Melting-and crystallization-induced sequential reordering in miscible poly(butylene terephthalate)/ polyarilate blends.
S Fakirov,A Apostolov,C Fakirov (1992). Long spacing in polyblock poly(ether ester) s -origin and peculiarities.
S Fakirov,M Sarkissova,Z Denchev (1996). Sequential reordering in condensation copolymers. 1. Meltingand crystallization-induced sequential reordering in immiscible blends of poly(ethylene terephthalate) with polycarbonate or polyarylate.
S Fakirov,M Sarkissova,Z Denchev (1996). Sequential reordering in condensation copolymers. 3. Miscibility-induced sequential reordering in random Year 2021.
Z Denchev,A Duchesne,M Stamm,S Fakirov,Z Denchev,A Bojkova,A Duchesne,H Hoecker,H Keul,S Fakirov (1998). Sequential reordering in condensation polymers, 5. Preparation and characterization of copolymers via transesterification of a polycaprolactone/poly(2,2-dimethyltrimethylene carbonate) blend.
F Calleja,S Fakirov,H Zachmann (1999). Effect of Transreactions and Additional Condensation on Structure Formation and Properties of Condensation Polymers.
J Youk,W Jo (2001). Origin of miscibility-induced sequential reordering and crystallization-induced sequential reordering in binary copolyesters: A Monte Carlo simulation.
C Pigot,F Dumur (2019). Recent Advances of Hierarchical and Sequential Growth of Macromolecular Organic Structures on Surface.
W Carothers (1929). Studies on polymerization and ring formation.
H Kricheldorf,Z Denchev (1999). Interchange Reactions in Condensation Polymers and Their Analysis by NMR Spectroscopy.
K Mcalea,J Schultz,K Gardner,G Wignall (1985). Molecular dimensions in poly(ethylene terephthalate) by small-angle neutron scattering.
J Gilmer,D Wiswe,H.-G Zachmann,J Kugler,E Fischer (1986). Changes in molecular conformations in poly(ethylene terephthalate) produced by crystallization and drawing as determined by neutron scattering.
H Benoit,E Fischer,H Zachmann (1989). Interpretation of neutron scattering results during transesterification reactions.
S Fakirov (2019). Editorial corner -a personal view: The 'reptation model' and the melts of condensation polymers.
Argyrios Karatrantos,Russell Composto,Karen Winey,Martin Kröger,Nigel Clarke (2019). Modeling of Entangled Polymer Diffusion in Melts and Nanocomposites: A Review.

Download References

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Stoyko Fakirov. 2021. \u201cOn the Diffusion Mechanism in Melts of Condensation and Non-Condensation Polymers at High Temperatures\u201d. Global Journal of Research in Engineering - A : Mechanical & Mechanics GJRE-A Volume 21 (GJRE Volume 21 Issue A2).

More Citation Formats

Select Citation Style:

Download Citation

GJRE Volume 21 Issue A2

Explore Journals Explore Volume Read This Issue

Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

Keywords

Not Found

Classification

GJRE-A Classification FOR Code: 091399

Submission ReceivedApril 12, 2021
Peer Review Double Blind
Handling Editor
Accepted April 30, 2021
Published May 15, 2021

Version of record

v1.2

Issue date

September 15, 2021

Language

Experiance in AR

Explore published articles in an immersive Augmented Reality environment. Our platform converts research papers into interactive 3D books, allowing readers to view and interact with content using AR and VR compatible devices.

View in VR

Read in 3D

Your published article is automatically converted into a realistic 3D book. Flip through pages and read research papers in a more engaging and interactive format.

View in 3D

Article Matrices

Total Views: 2261

Total Downloads: 944

2026 Trends

Our website is actively being updated, and changes may occur frequently. Please clear your browser cache if needed. For feedback or error reporting, please email [email protected]