Polymorph selection during melt crystallization of the isotactic polybutene-1 homopolymer depending on the melt state and crystallization pressure

This work investigated the crystalline forms obtained from melt crystallization in the isotactic polybutene-1 (iPB-1) homopolymer via manipulation of the temperature at which samples were melted ( T melt ) and crystallization pressure ( P cry ). Unlike the results under atmospheric conditions where...

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Veröffentlicht in:Soft matter 2020-01, Vol.16 (39), p.974-982
Hauptverfasser: Dong, Beibei, Yang, Xiaokang, Ji, Youxin, Su, Fengmei, Shao, Chunguang, Liu, Chuntai
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container_issue 39
container_start_page 974
container_title Soft matter
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creator Dong, Beibei
Yang, Xiaokang
Ji, Youxin
Su, Fengmei
Shao, Chunguang
Liu, Chuntai
description This work investigated the crystalline forms obtained from melt crystallization in the isotactic polybutene-1 (iPB-1) homopolymer via manipulation of the temperature at which samples were melted ( T melt ) and crystallization pressure ( P cry ). Unlike the results under atmospheric conditions where the molten sample crystallized into the pure form II and the crystallization temperature and kinetics were affected obviously by T melt , the melted sample crystallized into forms II or I′ under high pressure, depending on T melt and P cry . The content of form I′ decreases with increasing T melt or decreasing P cry . Meanwhile, the critical pressure for the formation of pure form I′ increases with increasing T melt . The formation of form I′ is attributed to the memory effect of the melt which preserved some ordered sequence of crystal and the high pressure ( P cry ) which suppressed the nucleation and growth of the kinetically favored form II, which results in the formation of form I'. In addition, the melt crystallized form II transforms to form I under high pressure conditions; thus forms I, I′ and II are observed. The relative contents of the three crystalline forms on samples for different T melt and P cry are obtained in this work. The result shows that the crystalline forms in melt crystallization of iPB-1 can be customized by regulating the melt state and crystallization conditions. This work investigated the crystalline forms obtained from melt crystallization in the isotactic polybutene-1 (iPB-1) homopolymer via manipulation of the temperature at which samples were melted ( T melt ) and crystallization pressure ( P cry ).
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Unlike the results under atmospheric conditions where the molten sample crystallized into the pure form II and the crystallization temperature and kinetics were affected obviously by T melt , the melted sample crystallized into forms II or I′ under high pressure, depending on T melt and P cry . The content of form I′ decreases with increasing T melt or decreasing P cry . Meanwhile, the critical pressure for the formation of pure form I′ increases with increasing T melt . The formation of form I′ is attributed to the memory effect of the melt which preserved some ordered sequence of crystal and the high pressure ( P cry ) which suppressed the nucleation and growth of the kinetically favored form II, which results in the formation of form I'. In addition, the melt crystallized form II transforms to form I under high pressure conditions; thus forms I, I′ and II are observed. The relative contents of the three crystalline forms on samples for different T melt and P cry are obtained in this work. The result shows that the crystalline forms in melt crystallization of iPB-1 can be customized by regulating the melt state and crystallization conditions. 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Unlike the results under atmospheric conditions where the molten sample crystallized into the pure form II and the crystallization temperature and kinetics were affected obviously by T melt , the melted sample crystallized into forms II or I′ under high pressure, depending on T melt and P cry . The content of form I′ decreases with increasing T melt or decreasing P cry . Meanwhile, the critical pressure for the formation of pure form I′ increases with increasing T melt . The formation of form I′ is attributed to the memory effect of the melt which preserved some ordered sequence of crystal and the high pressure ( P cry ) which suppressed the nucleation and growth of the kinetically favored form II, which results in the formation of form I'. In addition, the melt crystallized form II transforms to form I under high pressure conditions; thus forms I, I′ and II are observed. The relative contents of the three crystalline forms on samples for different T melt and P cry are obtained in this work. The result shows that the crystalline forms in melt crystallization of iPB-1 can be customized by regulating the melt state and crystallization conditions. 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Unlike the results under atmospheric conditions where the molten sample crystallized into the pure form II and the crystallization temperature and kinetics were affected obviously by T melt , the melted sample crystallized into forms II or I′ under high pressure, depending on T melt and P cry . The content of form I′ decreases with increasing T melt or decreasing P cry . Meanwhile, the critical pressure for the formation of pure form I′ increases with increasing T melt . The formation of form I′ is attributed to the memory effect of the melt which preserved some ordered sequence of crystal and the high pressure ( P cry ) which suppressed the nucleation and growth of the kinetically favored form II, which results in the formation of form I'. In addition, the melt crystallized form II transforms to form I under high pressure conditions; thus forms I, I′ and II are observed. The relative contents of the three crystalline forms on samples for different T melt and P cry are obtained in this work. The result shows that the crystalline forms in melt crystallization of iPB-1 can be customized by regulating the melt state and crystallization conditions. This work investigated the crystalline forms obtained from melt crystallization in the isotactic polybutene-1 (iPB-1) homopolymer via manipulation of the temperature at which samples were melted ( T melt ) and crystallization pressure ( P cry ).</abstract><cop>CAMBRIDGE</cop><pub>Royal Soc Chemistry</pub><pmid>32909580</pmid><doi>10.1039/d0sm01231a</doi><tpages>9</tpages><orcidid>https://orcid.org/0000-0002-7124-0269</orcidid></addata></record>
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subjects Atmospheric conditions
Chemistry
Chemistry, Physical
Critical pressure
Crystal structure
Crystallinity
Crystallization
High pressure
Isotacticity
Materials Science
Materials Science, Multidisciplinary
Nucleation
Physical Sciences
Physics
Physics, Multidisciplinary
Polybutenes
Polymer Science
Pressure
Science & Technology
Technology
Temperature
title Polymorph selection during melt crystallization of the isotactic polybutene-1 homopolymer depending on the melt state and crystallization pressure
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