Polyester Stereocomplexes Beyond PLA: Could Synthetic Opportunities Revolutionize Established Material Blending?
This review summarizes the current literature regarding stereocomplexation of different polyesters based on α‐ as well as β‐hydroxy acids beyond the well‐known poly(lactic acid). Representing the initial step toward stereocomplexation, synthetic approaches needed to obtain and analyze isotactic poly...
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Published in | Macromolecular rapid communications. Vol. 41; no. 1; pp. e1900560 - n/a |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
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01.01.2020
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Abstract | This review summarizes the current literature regarding stereocomplexation of different polyesters based on α‐ as well as β‐hydroxy acids beyond the well‐known poly(lactic acid). Representing the initial step toward stereocomplexation, synthetic approaches needed to obtain and analyze isotactic polyesters are summarized. The basic technologies for the preparation and characterization of the respective stereocomplexes (SCs) are described, and published material properties are related to the structure of the respective polyesters. The variety of available SC materials is very limited despite the multiple options provided by state‐of‐the‐art stereoselective monomer synthesis and polymerization methods. A combination of knowledge from the three scientific areas (i.e., organic chemistry, synthetic macromolecular chemistry, and materials science) thus has enormous potential to create novel materials with additional features enabled by the introduction of functional moieties to such materials besides the adjustment of thermal as well as mechanical properties.
This review provides an overview of polyester stereocomplexes reported to date, complemented by the methods for preparation as well as for analysis. To encourage the scientific community to further exploit the range of functional monomers and polymers available for this purpose, synthetic methods are discussed, pointing out promising opportunities that have not yet been considered for stereocomplexation. |
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AbstractList | This review summarizes the current literature regarding stereocomplexation of different polyesters based on α‐ as well as β‐hydroxy acids beyond the well‐known poly(lactic acid). Representing the initial step toward stereocomplexation, synthetic approaches needed to obtain and analyze isotactic polyesters are summarized. The basic technologies for the preparation and characterization of the respective stereocomplexes (SCs) are described, and published material properties are related to the structure of the respective polyesters. The variety of available SC materials is very limited despite the multiple options provided by state‐of‐the‐art stereoselective monomer synthesis and polymerization methods. A combination of knowledge from the three scientific areas (i.e., organic chemistry, synthetic macromolecular chemistry, and materials science) thus has enormous potential to create novel materials with additional features enabled by the introduction of functional moieties to such materials besides the adjustment of thermal as well as mechanical properties. This review summarizes the current literature regarding stereocomplexation of different polyesters based on α- as well as β-hydroxy acids beyond the well-known poly(lactic acid). Representing the initial step toward stereocomplexation, synthetic approaches needed to obtain and analyze isotactic polyesters are summarized. The basic technologies for the preparation and characterization of the respective stereocomplexes (SCs) are described, and published material properties are related to the structure of the respective polyesters. The variety of available SC materials is very limited despite the multiple options provided by state-of-the-art stereoselective monomer synthesis and polymerization methods. A combination of knowledge from the three scientific areas (i.e., organic chemistry, synthetic macromolecular chemistry, and materials science) thus has enormous potential to create novel materials with additional features enabled by the introduction of functional moieties to such materials besides the adjustment of thermal as well as mechanical properties.This review summarizes the current literature regarding stereocomplexation of different polyesters based on α- as well as β-hydroxy acids beyond the well-known poly(lactic acid). Representing the initial step toward stereocomplexation, synthetic approaches needed to obtain and analyze isotactic polyesters are summarized. The basic technologies for the preparation and characterization of the respective stereocomplexes (SCs) are described, and published material properties are related to the structure of the respective polyesters. The variety of available SC materials is very limited despite the multiple options provided by state-of-the-art stereoselective monomer synthesis and polymerization methods. A combination of knowledge from the three scientific areas (i.e., organic chemistry, synthetic macromolecular chemistry, and materials science) thus has enormous potential to create novel materials with additional features enabled by the introduction of functional moieties to such materials besides the adjustment of thermal as well as mechanical properties. This review summarizes the current literature regarding stereocomplexation of different polyesters based on α‐ as well as β‐hydroxy acids beyond the well‐known poly(lactic acid). Representing the initial step toward stereocomplexation, synthetic approaches needed to obtain and analyze isotactic polyesters are summarized. The basic technologies for the preparation and characterization of the respective stereocomplexes (SCs) are described, and published material properties are related to the structure of the respective polyesters. The variety of available SC materials is very limited despite the multiple options provided by state‐of‐the‐art stereoselective monomer synthesis and polymerization methods. A combination of knowledge from the three scientific areas (i.e., organic chemistry, synthetic macromolecular chemistry, and materials science) thus has enormous potential to create novel materials with additional features enabled by the introduction of functional moieties to such materials besides the adjustment of thermal as well as mechanical properties. This review provides an overview of polyester stereocomplexes reported to date, complemented by the methods for preparation as well as for analysis. To encourage the scientific community to further exploit the range of functional monomers and polymers available for this purpose, synthetic methods are discussed, pointing out promising opportunities that have not yet been considered for stereocomplexation. |
Author | Alex, Julien Weber, Christine Schubert, Ulrich S. Bandelli, Damiano |
Author_xml | – sequence: 1 givenname: Damiano surname: Bandelli fullname: Bandelli, Damiano organization: Friedrich Schiller University Jena – sequence: 2 givenname: Julien surname: Alex fullname: Alex, Julien organization: Friedrich Schiller University Jena – sequence: 3 givenname: Christine surname: Weber fullname: Weber, Christine organization: Friedrich Schiller University Jena – sequence: 4 givenname: Ulrich S. surname: Schubert fullname: Schubert, Ulrich S. email: ulrich.schubert@uni-jena.de organization: Friedrich Schiller University Jena |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/31793732$$D View this record in MEDLINE/PubMed |
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Keywords | poly(β-hydroxyacid)s stereocomplexes polyesters ring-opening polymerization poly(α-hydroxyacid)s |
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Snippet | This review summarizes the current literature regarding stereocomplexation of different polyesters based on α‐ as well as β‐hydroxy acids beyond the well‐known... This review summarizes the current literature regarding stereocomplexation of different polyesters based on α- as well as β-hydroxy acids beyond the well-known... |
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SubjectTerms | Biocompatible Materials - chemistry Chemical synthesis Cycloaddition Reaction Hydroxy acids Hydroxy Acids - chemistry Literature reviews Macromolecules Material properties Materials science Mechanical properties Organic chemistry poly(α‐hydroxyacid)s poly(β‐hydroxyacid)s Polyester resins Polyesters Polyesters - chemical synthesis Polyesters - chemistry Polylactic acid Polymerization ring‐opening polymerization Stereocomplexes Stereoisomerism Stereoselectivity |
Title | Polyester Stereocomplexes Beyond PLA: Could Synthetic Opportunities Revolutionize Established Material Blending? |
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