64. Park HD, Lee WK, Ooya T, Park KD, Kim YH, Yui N (2002) In vitro biocompatibility
assessment of sulfonated polyrotaxanes-immobilized polyurethane surfaces. J Biomed Mater
Res 66A:596–604
65. Park KD, Park HD, Lee HJ, Kim YH, Ooya T, Yui N (2004) Sulfonated poly(ethylene glycol)
containing methacrylate copolymer surfaces, preparation, characterization and in vitro biocompatibility. Macromol Res 12:342–351
66. Ooya T, Eguchi M, Yui N (2003) Supramolecular design for multivalent interaction: high
mobility of maltose groups in polyrotaxanes enhanced binding with concanavalin A. J Am
Chem Soc 125:13016–13017
67. Ooya T, Eguchi M, Yui N (2001) Enhanced accessibility of peptide substrate toward membrane-bound metalloexopeptidase by supramolecular structure of polyrotaxane.
Biomacromolecules 2:200–203
68. Ooya T, Utsunomiya H, Eguchi M, Yui N (2005) Rapid binding of concanavalin A and
maltose-polyrotaxane conjugates due to mobile motion of α-cyclodextrins threaded onto a
poly(ethylene glycol). Bioconjug Chem 16:62–69
69. Ooya T, Choi HS, Yamashita A, Yui N, Sugaya Y, Kano A, Maruyama A, Akita H, Kogure K,
Harashima H (2006) Biocleavable polyrotaxane–plasmid DNA polyplex for enhanced gene
delivery. J Am Chem Soc 128:3852–3853
70. Ooya T, Eguchi M, Yui N (2003) Supramolecular design for multivalent interaction: high
mobility of maltose groups in polyrotaxanes enhanced binding with concanavalin a. J Am
Chem Soc 125:13016–13017
71. Nelson A, Belitsky JM, Vidal S, Joiner CS, Baum LG, Stoddart JF (2004) A self-assembled
multivalent pseudopolyrotaxane for binding galectin-1. J Am Chem Soc 126:11914–11922
72. Ikeda T, Yoshida K, Schneider HJ (1995) Anthryl(alkylamino)cyclodextrin complexes as
chemically switched DNA intercalators. J Am Chem Soc 117:1453–1454
73. Liu Y, Yu L, Chen Y, Zhao YL, Yang H (2007) Construction and DNA condensation of
cyclodextrin-based polypseudorotaxanes with anthryl grafts. J Am Chem Soc 129:10656–10657
74. Ke CF, Hou S, Zhang HY, Liu Y, Yang K, Feng XZ (2007) Controllable DNA condensation
through cucurbit[6]uril in 2D pseudopolyrotaxanes. Chem Commun:3374–3376
75. Liu Y, Wang H, Chen Y, Ke CF, Liu M (2005) Supramolecular aggregates constructed from
gold nanoparticles and L-try-CD polypseudorotaxanes as captors for fullerenes. J Am Chem
Soc 127:657–666
76. Liu Y, Zhao YL, Chen Y, Wang M (2005) Supramolecular assembly of gold nanoparticles
mediated by polypseudorotaxane with thiolated β-Cyclodextrin. Macromol Rapid Commun
26:401–406
77. Solms J, Egli RH (1965) Harze mit Einschlusshohlraumen von cyclodextrin-struktur. Helv
Chim Acta 48:1225–1228
78. Szeman J, Ueda H, Szejtli J, Fenyvesi E, Machida Y, Nagai T (1987) Complexation of several
drugs with water-soluble cyclodextrin polymer. Chem Pharm Bull 35:282–288
79. Fenyvesi E, Ujházy A, Szejtli J, Pütter S, Gan TG (1996) Controlled release of drugs from CD
polymers substituted with ionic groups. J Inclus Phenom Mol 25:185–189
80. Hishiya T, Shibata M, Kakazu M, Asanuma H, Komiyama M (1999) Molecularly imprinted
cyclodextrins as selective receptors for steroids. Macromolecules 32:2265–2269
81. Li D, Ma M (1999) Nanosponges: from inclusion chemistry to water purifying technology.
ChemTech 29:31–37
82. Li D, Ma M (2000) Nanosponges for water purification. Clean Prod Processes 2:112–116
83. Caldera F, Tannous M, Cavalli R, Zanetti M, Trotta F (2017) Evolution of cyclodextrin
nanosponges. Int J Pharm 531:470–479
84. He HM, Chen S, Zhou JZ, Dou Y, Song L, Che L, Zhou X, Chen X, Jia Y, Zhang JX, Li SH, Li
XH (2013) Cyclodextrin-derived pH-responsive nanoparticles for delivery of paclitaxel. Biomaterials 34:5344–5358
85. Daga M, Ullio C, Argenziano M, Dianzani C, Cavalli R, Trotta F, Ferretti C, Zara GP, Gigliotti
CL, Ciamporcero ES, Pettazzoni P, Corti D, Pizzimenti S, Barrera G (2016) GSH-targeted
19 Construction and Applications of Cyclodextrin Polymers in Biology
557
assessment of sulfonated polyrotaxanes-immobilized polyurethane surfaces. J Biomed Mater
Res 66A:596–604
65. Park KD, Park HD, Lee HJ, Kim YH, Ooya T, Yui N (2004) Sulfonated poly(ethylene glycol)
containing methacrylate copolymer surfaces, preparation, characterization and in vitro biocompatibility. Macromol Res 12:342–351
66. Ooya T, Eguchi M, Yui N (2003) Supramolecular design for multivalent interaction: high
mobility of maltose groups in polyrotaxanes enhanced binding with concanavalin A. J Am
Chem Soc 125:13016–13017
67. Ooya T, Eguchi M, Yui N (2001) Enhanced accessibility of peptide substrate toward membrane-bound metalloexopeptidase by supramolecular structure of polyrotaxane.
Biomacromolecules 2:200–203
68. Ooya T, Utsunomiya H, Eguchi M, Yui N (2005) Rapid binding of concanavalin A and
maltose-polyrotaxane conjugates due to mobile motion of α-cyclodextrins threaded onto a
poly(ethylene glycol). Bioconjug Chem 16:62–69
69. Ooya T, Choi HS, Yamashita A, Yui N, Sugaya Y, Kano A, Maruyama A, Akita H, Kogure K,
Harashima H (2006) Biocleavable polyrotaxane–plasmid DNA polyplex for enhanced gene
delivery. J Am Chem Soc 128:3852–3853
70. Ooya T, Eguchi M, Yui N (2003) Supramolecular design for multivalent interaction: high
mobility of maltose groups in polyrotaxanes enhanced binding with concanavalin a. J Am
Chem Soc 125:13016–13017
71. Nelson A, Belitsky JM, Vidal S, Joiner CS, Baum LG, Stoddart JF (2004) A self-assembled
multivalent pseudopolyrotaxane for binding galectin-1. J Am Chem Soc 126:11914–11922
72. Ikeda T, Yoshida K, Schneider HJ (1995) Anthryl(alkylamino)cyclodextrin complexes as
chemically switched DNA intercalators. J Am Chem Soc 117:1453–1454
73. Liu Y, Yu L, Chen Y, Zhao YL, Yang H (2007) Construction and DNA condensation of
cyclodextrin-based polypseudorotaxanes with anthryl grafts. J Am Chem Soc 129:10656–10657
74. Ke CF, Hou S, Zhang HY, Liu Y, Yang K, Feng XZ (2007) Controllable DNA condensation
through cucurbit[6]uril in 2D pseudopolyrotaxanes. Chem Commun:3374–3376
75. Liu Y, Wang H, Chen Y, Ke CF, Liu M (2005) Supramolecular aggregates constructed from
gold nanoparticles and L-try-CD polypseudorotaxanes as captors for fullerenes. J Am Chem
Soc 127:657–666
76. Liu Y, Zhao YL, Chen Y, Wang M (2005) Supramolecular assembly of gold nanoparticles
mediated by polypseudorotaxane with thiolated β-Cyclodextrin. Macromol Rapid Commun
26:401–406
77. Solms J, Egli RH (1965) Harze mit Einschlusshohlraumen von cyclodextrin-struktur. Helv
Chim Acta 48:1225–1228
78. Szeman J, Ueda H, Szejtli J, Fenyvesi E, Machida Y, Nagai T (1987) Complexation of several
drugs with water-soluble cyclodextrin polymer. Chem Pharm Bull 35:282–288
79. Fenyvesi E, Ujházy A, Szejtli J, Pütter S, Gan TG (1996) Controlled release of drugs from CD
polymers substituted with ionic groups. J Inclus Phenom Mol 25:185–189
80. Hishiya T, Shibata M, Kakazu M, Asanuma H, Komiyama M (1999) Molecularly imprinted
cyclodextrins as selective receptors for steroids. Macromolecules 32:2265–2269
81. Li D, Ma M (1999) Nanosponges: from inclusion chemistry to water purifying technology.
ChemTech 29:31–37
82. Li D, Ma M (2000) Nanosponges for water purification. Clean Prod Processes 2:112–116
83. Caldera F, Tannous M, Cavalli R, Zanetti M, Trotta F (2017) Evolution of cyclodextrin
nanosponges. Int J Pharm 531:470–479
84. He HM, Chen S, Zhou JZ, Dou Y, Song L, Che L, Zhou X, Chen X, Jia Y, Zhang JX, Li SH, Li
XH (2013) Cyclodextrin-derived pH-responsive nanoparticles for delivery of paclitaxel. Biomaterials 34:5344–5358
85. Daga M, Ullio C, Argenziano M, Dianzani C, Cavalli R, Trotta F, Ferretti C, Zara GP, Gigliotti
CL, Ciamporcero ES, Pettazzoni P, Corti D, Pizzimenti S, Barrera G (2016) GSH-targeted
19 Construction and Applications of Cyclodextrin Polymers in Biology
557