Deshmukh P, S-k A, Gopinadhan M, Osuji CO, Kasi RM (2013a) Hierarchically self-assembled photonic
materials from liquid crystalline random brush copolymers. Macromolecules 46:4558–4566
Deshmukh P, Ahn SK, Ludovic GM, Kasi RM (2013b) Interplay between liquid crystalline order
and microphase segregation on the self-assembly of side-chain liquid crystalline brush block
copolymers. Macromolecules 46:8245–8252
Deshmukh P, Gopinadhan M, Choo Y, Ahn SK, Majewski PW, Yoon YS, Bakajin O, Elimelech M,
Osuji CO, Kasi RM (2014) Molecular Design of Liquid Crystalline Brush-like Block Copolymers for magnetic field directed self-assembly: a platform for functional materials. Macro Lett
3:462–466
Gopinadhan M, Majewski PW, Osuji CO (2010) Facile alignment of amorphous poly(ethylene
oxide) microdomains in a liquid crystalline block copolymer using magnetic fields:toward
ordered electrolyte membranes. Macromolecules 43(7):3286–3293
Gopinadhan M, Deshmukh P, Choo Y, Majewski PW, Bakajin O, Elimelech M, Kasi RM, Osuji CO
(2014) Thermally switchable aligned Nanopores by magnetic-field directed self-assembly of
block copolymers. Adv Mater 26(30):5148–5154
Hamley IW, Castelletto V, Lu ZB, Imrie CT, Itoh T, Al-Hussein M (2004) Interplay between
Smectic ordering and microphase separation in a series of side-group liquid-crystal block
copolymers. Macromolecules 37:4798–4807
Hammond MR, Mezzenga R (2008) Supramolecular routes towards liquid crystalline side-chain
polymers. Soft Matter 4:952–961
He X, Sun W, Yan D, Liang L (2008) Novel ABC 2 -type liquid-crystalline block copolymers with
azobenzene moieties prepared by atom transfer radical polymerization. Eur Polym J 44:42–49
Jia L, Cao A, Levy D, Xu B, Albouy PA, Xing X, Bowick MJ, Li MH (2009) Smectic polymer
vesicles. Soft Matter 5:3446–3451
Lee H, Pietrasik J, Sheiko S, Matyjaszewski K (2010) Stimuli-Responsive Molecular Brushes. Prog
Polym Sci 35:24–44
Li M, Keller P (2006) Artificial muscles based on liquid crystal elastomers. Phil Trans R Soc A
364:2763–2777
Love JA, Morgan JP, Trnka TM, Grubbs RH (2002) A practical and highly active ruthenium-based
catalyst that effects the cross metathesis of acrylonitrile. Angew Chem Int Ed 41:4035–4037
Mahajan LH, Ndaya D, Deshmukh P, Peng X, Gopinadhan M, Osuji CO, Kasi RM (2017) Optically
active elastomers from liquid crystalline comb copolymers with dual physical and chemical
cross-links. Macromolecules 50:5929–5939
Majewski PW, Gopinadhan M, Jang W, Lutkenhaus JL, Osuji CO (2010) Anisotropic ionic
conductivity in block copolymer membranes by magnetic field alignment. J Am Chem Soc
132:17516–17522
Mao G, Ober CK (1997) Block copolymers containing liquid crystalline segments. Acta Polym
48:405–422
Rzayev J (2009) Synthesis of polystyrene-polylactide bottlebrush block copolymers and their melt
self-assembly into large domain nanostructures. Macromolecules 42:2135–2141
Rzayev J (2012) Molecular bottlebrushes: new opportunities in nanomaterials fabrication. J ACS
Macro Lett 1:1146–1149
Schneider A, Zanna J, Yamada M, Finkelmann H, Thomann R (2000) Competition between liquid
crystalline phase symmetry and microphase morphology in a chiral smectic liquid crystallineisotropic block copolymer. Macromolecules 33(3):649–651
Tao YF, Zohar H, Olsen BD, Segalman RA (2007) Hierarchical nanostructure control in rod-coil
block copolymers with magnetic fields. Nano Lett 7:2742–2746
Tenneti K, Chen XF, Li CY, Wan XH, Fan XH, Zhou QF, Rong LX, Hsiao BS (2008) Competition
between liquid crystallinity and block copolymer self-assembly in core-shell rod-coil block
copolymers. Soft Matter 4:458–461
Tenneti K, Chen X, Li CY, Shen Z, Wan X, Fan X, Zhou Q-F, Rong L, Hsiao BS (2009) Influence of
LC content on the phase structures of side-chain liquid crystalline block copolymers with
bent-Core Mesogens. Macromolecules 42:3510–3517
17 New Stimuli-Response Liquid Crystalline Polymer Architectures
491
materials from liquid crystalline random brush copolymers. Macromolecules 46:4558–4566
Deshmukh P, Ahn SK, Ludovic GM, Kasi RM (2013b) Interplay between liquid crystalline order
and microphase segregation on the self-assembly of side-chain liquid crystalline brush block
copolymers. Macromolecules 46:8245–8252
Deshmukh P, Gopinadhan M, Choo Y, Ahn SK, Majewski PW, Yoon YS, Bakajin O, Elimelech M,
Osuji CO, Kasi RM (2014) Molecular Design of Liquid Crystalline Brush-like Block Copolymers for magnetic field directed self-assembly: a platform for functional materials. Macro Lett
3:462–466
Gopinadhan M, Majewski PW, Osuji CO (2010) Facile alignment of amorphous poly(ethylene
oxide) microdomains in a liquid crystalline block copolymer using magnetic fields:toward
ordered electrolyte membranes. Macromolecules 43(7):3286–3293
Gopinadhan M, Deshmukh P, Choo Y, Majewski PW, Bakajin O, Elimelech M, Kasi RM, Osuji CO
(2014) Thermally switchable aligned Nanopores by magnetic-field directed self-assembly of
block copolymers. Adv Mater 26(30):5148–5154
Hamley IW, Castelletto V, Lu ZB, Imrie CT, Itoh T, Al-Hussein M (2004) Interplay between
Smectic ordering and microphase separation in a series of side-group liquid-crystal block
copolymers. Macromolecules 37:4798–4807
Hammond MR, Mezzenga R (2008) Supramolecular routes towards liquid crystalline side-chain
polymers. Soft Matter 4:952–961
He X, Sun W, Yan D, Liang L (2008) Novel ABC 2 -type liquid-crystalline block copolymers with
azobenzene moieties prepared by atom transfer radical polymerization. Eur Polym J 44:42–49
Jia L, Cao A, Levy D, Xu B, Albouy PA, Xing X, Bowick MJ, Li MH (2009) Smectic polymer
vesicles. Soft Matter 5:3446–3451
Lee H, Pietrasik J, Sheiko S, Matyjaszewski K (2010) Stimuli-Responsive Molecular Brushes. Prog
Polym Sci 35:24–44
Li M, Keller P (2006) Artificial muscles based on liquid crystal elastomers. Phil Trans R Soc A
364:2763–2777
Love JA, Morgan JP, Trnka TM, Grubbs RH (2002) A practical and highly active ruthenium-based
catalyst that effects the cross metathesis of acrylonitrile. Angew Chem Int Ed 41:4035–4037
Mahajan LH, Ndaya D, Deshmukh P, Peng X, Gopinadhan M, Osuji CO, Kasi RM (2017) Optically
active elastomers from liquid crystalline comb copolymers with dual physical and chemical
cross-links. Macromolecules 50:5929–5939
Majewski PW, Gopinadhan M, Jang W, Lutkenhaus JL, Osuji CO (2010) Anisotropic ionic
conductivity in block copolymer membranes by magnetic field alignment. J Am Chem Soc
132:17516–17522
Mao G, Ober CK (1997) Block copolymers containing liquid crystalline segments. Acta Polym
48:405–422
Rzayev J (2009) Synthesis of polystyrene-polylactide bottlebrush block copolymers and their melt
self-assembly into large domain nanostructures. Macromolecules 42:2135–2141
Rzayev J (2012) Molecular bottlebrushes: new opportunities in nanomaterials fabrication. J ACS
Macro Lett 1:1146–1149
Schneider A, Zanna J, Yamada M, Finkelmann H, Thomann R (2000) Competition between liquid
crystalline phase symmetry and microphase morphology in a chiral smectic liquid crystallineisotropic block copolymer. Macromolecules 33(3):649–651
Tao YF, Zohar H, Olsen BD, Segalman RA (2007) Hierarchical nanostructure control in rod-coil
block copolymers with magnetic fields. Nano Lett 7:2742–2746
Tenneti K, Chen XF, Li CY, Wan XH, Fan XH, Zhou QF, Rong LX, Hsiao BS (2008) Competition
between liquid crystallinity and block copolymer self-assembly in core-shell rod-coil block
copolymers. Soft Matter 4:458–461
Tenneti K, Chen X, Li CY, Shen Z, Wan X, Fan X, Zhou Q-F, Rong L, Hsiao BS (2009) Influence of
LC content on the phase structures of side-chain liquid crystalline block copolymers with
bent-Core Mesogens. Macromolecules 42:3510–3517
17 New Stimuli-Response Liquid Crystalline Polymer Architectures
491