Structures and properties of side-chain liquid crystalline polynorbornenes containing an amide group: hydrogen bonding interactions and spacer length effects

To investigate the structure-property relationship of side-chain liquid crystalline (LC) polymers with specific interactions, we synthesized a series of polynorbornene derivatives bearing benzanilide side-chains (denoted as P8- n , where n represents the number of methylene units in the spacer, and...

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Published inPolymer chemistry Vol. 11; no. 29; pp. 4749 - 4759
Main Authors Shi, Dong, Chang, Wen-Ying, Ren, Xiang-Kui, Yang, Shuang, Chen, Er-Qiang
Format Journal Article
LanguageEnglish
Published Cambridge Royal Society of Chemistry 07.08.2020
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ISSN1759-9954
1759-9962
DOI10.1039/d0py00586j

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Abstract To investigate the structure-property relationship of side-chain liquid crystalline (LC) polymers with specific interactions, we synthesized a series of polynorbornene derivatives bearing benzanilide side-chains (denoted as P8- n , where n represents the number of methylene units in the spacer, and the number 8 indicates the side-chain tail of the octyl group). For comparison, a reference polynorbornene derivative (denoted as P8-6-E ) was also synthesized by replacing the amide group in the rod-like mesogen with an ester group. It is found that with the polynorbornene main-chain the samples can exhibit rich LC behaviors, different from other benzanilide-containing polymers. P8-2 and P8-4 form a bilayer smectic C (SmC 2 ) phase. On the other hand, with longer spacers, the molecules of P8-8 and P8-10 can pack into a highly ordered structure (denoted as X 1 ). The X 1 phase has an orthorhombic lattice with the side- and main-chains along the c - and b -axes, wherein the side-chains show interdigitated packing with some features of a crystal E (CrE) structure. For P8-6 , some bilayer CrE domains may coexist with X 1 , resulting in a mixed phase of X 1 /E 2 . It is unveiled that the amide group at the center of benzanilide always tends to form hydrogen bonds, leading to the unique molecular packing of P8- n s which is dependent on the size matching between the spacer and tail. Moreover, weakening the hydrogen bonds in P8- n s ( n ≥ 8) could induce a phase transition from X 1 to X 1 /E 2 . Compared with the rather soft and ductile P8-6-E with a smectic B phase, P8- n s show much higher Young's moduli because of the presence of lateral hydrogen bonds. While those with the X 1 phase are brittle, the P8- n s with a SmC 2 structure exhibit better overall mechanical properties, rendering a breaking strain of ∼450%. Side-chain liquid crystalline polynorbornenes based on benzanilide mesogens exhibit rich self-organization behaviours and enhanced mechanical properties owing to the lateral hydrogen bond interaction that can be tuned by the spacer length.
AbstractList To investigate the structure–property relationship of side-chain liquid crystalline (LC) polymers with specific interactions, we synthesized a series of polynorbornene derivatives bearing benzanilide side-chains (denoted as P8-n , where n represents the number of methylene units in the spacer, and the number 8 indicates the side-chain tail of the octyl group). For comparison, a reference polynorbornene derivative (denoted as P8-6-E ) was also synthesized by replacing the amide group in the rod-like mesogen with an ester group. It is found that with the polynorbornene main-chain the samples can exhibit rich LC behaviors, different from other benzanilide-containing polymers. P8-2 and P8-4 form a bilayer smectic C (SmC 2 ) phase. On the other hand, with longer spacers, the molecules of P8-8 and P8-10 can pack into a highly ordered structure (denoted as X 1 ). The X 1 phase has an orthorhombic lattice with the side- and main-chains along the c - and b -axes, wherein the side-chains show interdigitated packing with some features of a crystal E (CrE) structure. For P8-6 , some bilayer CrE domains may coexist with X 1 , resulting in a mixed phase of X 1 /E 2 . It is unveiled that the amide group at the center of benzanilide always tends to form hydrogen bonds, leading to the unique molecular packing of P8-n s which is dependent on the size matching between the spacer and tail. Moreover, weakening the hydrogen bonds in P8-n s ( n ≥ 8) could induce a phase transition from X 1 to X 1 /E 2 . Compared with the rather soft and ductile P8-6-E with a smectic B phase, P8-n s show much higher Young's moduli because of the presence of lateral hydrogen bonds. While those with the X 1 phase are brittle, the P8-n s with a SmC 2 structure exhibit better overall mechanical properties, rendering a breaking strain of ∼450%.
To investigate the structure-property relationship of side-chain liquid crystalline (LC) polymers with specific interactions, we synthesized a series of polynorbornene derivatives bearing benzanilide side-chains (denoted as P8- n , where n represents the number of methylene units in the spacer, and the number 8 indicates the side-chain tail of the octyl group). For comparison, a reference polynorbornene derivative (denoted as P8-6-E ) was also synthesized by replacing the amide group in the rod-like mesogen with an ester group. It is found that with the polynorbornene main-chain the samples can exhibit rich LC behaviors, different from other benzanilide-containing polymers. P8-2 and P8-4 form a bilayer smectic C (SmC 2 ) phase. On the other hand, with longer spacers, the molecules of P8-8 and P8-10 can pack into a highly ordered structure (denoted as X 1 ). The X 1 phase has an orthorhombic lattice with the side- and main-chains along the c - and b -axes, wherein the side-chains show interdigitated packing with some features of a crystal E (CrE) structure. For P8-6 , some bilayer CrE domains may coexist with X 1 , resulting in a mixed phase of X 1 /E 2 . It is unveiled that the amide group at the center of benzanilide always tends to form hydrogen bonds, leading to the unique molecular packing of P8- n s which is dependent on the size matching between the spacer and tail. Moreover, weakening the hydrogen bonds in P8- n s ( n ≥ 8) could induce a phase transition from X 1 to X 1 /E 2 . Compared with the rather soft and ductile P8-6-E with a smectic B phase, P8- n s show much higher Young's moduli because of the presence of lateral hydrogen bonds. While those with the X 1 phase are brittle, the P8- n s with a SmC 2 structure exhibit better overall mechanical properties, rendering a breaking strain of ∼450%. Side-chain liquid crystalline polynorbornenes based on benzanilide mesogens exhibit rich self-organization behaviours and enhanced mechanical properties owing to the lateral hydrogen bond interaction that can be tuned by the spacer length.
To investigate the structure–property relationship of side-chain liquid crystalline (LC) polymers with specific interactions, we synthesized a series of polynorbornene derivatives bearing benzanilide side-chains (denoted as P8-n, where n represents the number of methylene units in the spacer, and the number 8 indicates the side-chain tail of the octyl group). For comparison, a reference polynorbornene derivative (denoted as P8-6-E) was also synthesized by replacing the amide group in the rod-like mesogen with an ester group. It is found that with the polynorbornene main-chain the samples can exhibit rich LC behaviors, different from other benzanilide-containing polymers. P8-2 and P8-4 form a bilayer smectic C (SmC2) phase. On the other hand, with longer spacers, the molecules of P8-8 and P8-10 can pack into a highly ordered structure (denoted as X1). The X1 phase has an orthorhombic lattice with the side- and main-chains along the c- and b-axes, wherein the side-chains show interdigitated packing with some features of a crystal E (CrE) structure. For P8-6, some bilayer CrE domains may coexist with X1, resulting in a mixed phase of X1/E2. It is unveiled that the amide group at the center of benzanilide always tends to form hydrogen bonds, leading to the unique molecular packing of P8-ns which is dependent on the size matching between the spacer and tail. Moreover, weakening the hydrogen bonds in P8-ns (n ≥ 8) could induce a phase transition from X1 to X1/E2. Compared with the rather soft and ductile P8-6-E with a smectic B phase, P8-ns show much higher Young's moduli because of the presence of lateral hydrogen bonds. While those with the X1 phase are brittle, the P8-ns with a SmC2 structure exhibit better overall mechanical properties, rendering a breaking strain of ∼450%.
Author Yang, Shuang
Chang, Wen-Ying
Chen, Er-Qiang
Shi, Dong
Ren, Xiang-Kui
AuthorAffiliation Center for Soft Matter Science and Engineering
Tianjin University
College of Chemistry
Peking University
Beijing National Laboratory for Molecular Sciences
Key Laboratory of Polymer Chemistry and Physics of Ministry of Education
School of Chemical Engineering and Technology
AuthorAffiliation_xml – name: Beijing National Laboratory for Molecular Sciences
– name: Peking University
– name: Tianjin University
– name: Center for Soft Matter Science and Engineering
– name: College of Chemistry
– name: School of Chemical Engineering and Technology
– name: Key Laboratory of Polymer Chemistry and Physics of Ministry of Education
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Snippet To investigate the structure-property relationship of side-chain liquid crystalline (LC) polymers with specific interactions, we synthesized a series of...
To investigate the structure–property relationship of side-chain liquid crystalline (LC) polymers with specific interactions, we synthesized a series of...
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SubjectTerms Bonding strength
Crystal structure
Crystallinity
Hydrogen bonding
Hydrogen bonds
Hydrogen embrittlement
Liquid crystals
Mechanical properties
Modulus of elasticity
NMR
Nuclear magnetic resonance
Orthorhombic lattice
Phase transitions
Polymer chemistry
Polymers
Polynorbornene
Strain
Title Structures and properties of side-chain liquid crystalline polynorbornenes containing an amide group: hydrogen bonding interactions and spacer length effects
URI https://www.proquest.com/docview/2427491856
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