260
Bacterial Cellulose
Ghasemi-Mobarakeh,.L.,.M..P..Prabhakaran,.M..Morshed,.M..H..Nasr-Esfahani,.and.
S. Ramakrishna..2009..Electrical.stimulation.of.nerve.cells.using.conductive.nanofibrous.scaffolds.for.nerve.tissue.engineering..Tissue Eng. A.15(11):3605–3619.
Gillette,. B.. M.,. J.. A.. Jensen,. B.. X.. Tang,. G.. J.. Yang,. A.. Bazargan-Lari,. M.. Zhong,.
and. S.. K.. Sia.. 2008.. In. situ. collagen. assembly. for. integrating. microfabricated.
three-dimensional.cell-seeded.matrices..Nat. Mater..7(8):636–640.
Gizdavic-Nikolaidis,.M.,.S..Ray,.J..R..Bennett,.A..J..Easteal,.and.R..P..Cooney..2010..
Electrospun. functionalized. polyaniline. copolymer-based. nanofibers. with.
potential.application.in.tissue.engineering..Macromol. Biosci..10(12):1424–1431.
Grande,.C..J.,.F..G..Torres,.C..M..Gomez,.and.M..C..Bano..2009..Nanocomposites.of.
bacterial. cellulose/hydroxyapatite. for. biomedical. applications.. Acta Biomater..
5(5):1605–1615.
Guimard,. N.. K.,. N.. Gomez,. and. C.. E.. Schmidt.. 2007..Conducting.polymers.in.biomedical.engineering..Prog. Polymer Sci..32(8–9):876–921.
Hu,.W..L.,.S..Y..Chen,.Z..H..Yang,.L..T..Liu,.and.H..P..Wang..2011..Flexible.electrically.
conductive.nanocomposite.membrane.based.on.bacterial.cellulose.and.polyaniline..J. Phys. Chem. B.115(26):8453–8457.
Jeong,.S..I.,.I..D..Jun,.M..J..Choi,.Y..C..Nho,.Y..M..Lee,.and.H..Shin..2008..Development.of.
electroactive.and.elastic.nanofibers.that.contain.polyaniline.and.poly(L-lactideco-ε-caprolactone).for.the.control.of.cell.adhesion..Macromol. Biosci..8(7):627–637.
Johnston,.J..H.,.F..M..Kelly,.J..Moraes,.T..Borrmann,.and.D..Flynn..2006..Conducting.polymer.composites.with.cellulose.and.protein.fibres..Curr. Appl. Phys..6(3):587–590.
Joo,. J.,. and.A.. J.. Epstein.. 1994.. Electromagnetic-radiation. shielding. by. intrinsically.
conducting.polymers..Appl. Phys. Lett..65(18):2278–2280.
Kamalesh,.S.,.P..C..Tan,.J..J..Wang,.T..Lee,.E..T..Kang,.and.C..H..Wang..2000..Biocompatibility.
of.electroactive.polymers.in.tissues..J. Biomed. Mater. Res..52(3):467–478.
Karyakin,. A.. A.,. O.. A.. Bobrova,. L.. V.. Luckachova,. and. E.. E.. Karyakina.. 1996..
Potentiometric. biosensors. based. on. polyaniline. semiconductor. films.. Sensor.
Actuat. B Chem..33(1–3):34–38.
Kelly,.F..M.,.J..H..Johnston,.T..Borrmann,.and.M..J..Richardson..2007..Functionalised.
hybrid. materials. of. conducting. polymers. with. individual. fibres. of. cellulose..
Eur. J. Inorg. Chem..2007(35):5571–5577.
Kim,. D.. H.,. M.. Abidian,. and. D.. C.. Martin.. 2004.. Conducting. polymers. grown. in.
hydrogel.scaffolds.coated.on.neural.prosthetic.devices..J. Biomed. Mater. Res. A.
71(4):577–585.
Kopecek,. J.,. and. J..Y..Yang.. 2009.. Peptide-directed. self-assembly. of. hydrogels.. Acta
Biomater..5(3):805–816.
Kweon,.H.,.M..K..Yoo,.I..K..Park,.T..H..Kim,.H..C..Lee,.H..S..Lee,.J..S..Oh,.T..Akaike,.
and.C..S..Cho..2003..A.novel.degradable.polycaprolactone.networks.for.tissue.
engineering..Biomaterials.24(5):801–808.
Lee,. B.-H.,. H.-J.. Kim,. and. H.-S.. Yang.. 2012.. Polymerization. of. aniline. on. bacterial.
cellulose.and.characterization.of.bacterial.cellulose/polyaniline.nanocomposite.
films..Curr. Appl. Phys..12(1):75–80.
Lee,.J..Y.,.C..A..Bashur,.A..S..Goldstein,.and.C..E..Schmidt..2009..Polypyrrole-coated.
electrospun. PLGA. nanofibers. for. neural. tissue. applications.. Biomaterials.
30(26):4325–4335.
Lewis,.T..W.,.L..A..P..Kane-Maguire,.A..S..Hutchison,.G..M..Spinks,.and.G..G..Wallace..
1999.. Development. of. an. all-polymer,. axial. force. electrochemical. actuator..
Synthetic Metals.102(1–3):1317–1318.
Bacterial Cellulose
Ghasemi-Mobarakeh,.L.,.M..P..Prabhakaran,.M..Morshed,.M..H..Nasr-Esfahani,.and.
S. Ramakrishna..2009..Electrical.stimulation.of.nerve.cells.using.conductive.nanofibrous.scaffolds.for.nerve.tissue.engineering..Tissue Eng. A.15(11):3605–3619.
Gillette,. B.. M.,. J.. A.. Jensen,. B.. X.. Tang,. G.. J.. Yang,. A.. Bazargan-Lari,. M.. Zhong,.
and. S.. K.. Sia.. 2008.. In. situ. collagen. assembly. for. integrating. microfabricated.
three-dimensional.cell-seeded.matrices..Nat. Mater..7(8):636–640.
Gizdavic-Nikolaidis,.M.,.S..Ray,.J..R..Bennett,.A..J..Easteal,.and.R..P..Cooney..2010..
Electrospun. functionalized. polyaniline. copolymer-based. nanofibers. with.
potential.application.in.tissue.engineering..Macromol. Biosci..10(12):1424–1431.
Grande,.C..J.,.F..G..Torres,.C..M..Gomez,.and.M..C..Bano..2009..Nanocomposites.of.
bacterial. cellulose/hydroxyapatite. for. biomedical. applications.. Acta Biomater..
5(5):1605–1615.
Guimard,. N.. K.,. N.. Gomez,. and. C.. E.. Schmidt.. 2007..Conducting.polymers.in.biomedical.engineering..Prog. Polymer Sci..32(8–9):876–921.
Hu,.W..L.,.S..Y..Chen,.Z..H..Yang,.L..T..Liu,.and.H..P..Wang..2011..Flexible.electrically.
conductive.nanocomposite.membrane.based.on.bacterial.cellulose.and.polyaniline..J. Phys. Chem. B.115(26):8453–8457.
Jeong,.S..I.,.I..D..Jun,.M..J..Choi,.Y..C..Nho,.Y..M..Lee,.and.H..Shin..2008..Development.of.
electroactive.and.elastic.nanofibers.that.contain.polyaniline.and.poly(L-lactideco-ε-caprolactone).for.the.control.of.cell.adhesion..Macromol. Biosci..8(7):627–637.
Johnston,.J..H.,.F..M..Kelly,.J..Moraes,.T..Borrmann,.and.D..Flynn..2006..Conducting.polymer.composites.with.cellulose.and.protein.fibres..Curr. Appl. Phys..6(3):587–590.
Joo,. J.,. and.A.. J.. Epstein.. 1994.. Electromagnetic-radiation. shielding. by. intrinsically.
conducting.polymers..Appl. Phys. Lett..65(18):2278–2280.
Kamalesh,.S.,.P..C..Tan,.J..J..Wang,.T..Lee,.E..T..Kang,.and.C..H..Wang..2000..Biocompatibility.
of.electroactive.polymers.in.tissues..J. Biomed. Mater. Res..52(3):467–478.
Karyakin,. A.. A.,. O.. A.. Bobrova,. L.. V.. Luckachova,. and. E.. E.. Karyakina.. 1996..
Potentiometric. biosensors. based. on. polyaniline. semiconductor. films.. Sensor.
Actuat. B Chem..33(1–3):34–38.
Kelly,.F..M.,.J..H..Johnston,.T..Borrmann,.and.M..J..Richardson..2007..Functionalised.
hybrid. materials. of. conducting. polymers. with. individual. fibres. of. cellulose..
Eur. J. Inorg. Chem..2007(35):5571–5577.
Kim,. D.. H.,. M.. Abidian,. and. D.. C.. Martin.. 2004.. Conducting. polymers. grown. in.
hydrogel.scaffolds.coated.on.neural.prosthetic.devices..J. Biomed. Mater. Res. A.
71(4):577–585.
Kopecek,. J.,. and. J..Y..Yang.. 2009.. Peptide-directed. self-assembly. of. hydrogels.. Acta
Biomater..5(3):805–816.
Kweon,.H.,.M..K..Yoo,.I..K..Park,.T..H..Kim,.H..C..Lee,.H..S..Lee,.J..S..Oh,.T..Akaike,.
and.C..S..Cho..2003..A.novel.degradable.polycaprolactone.networks.for.tissue.
engineering..Biomaterials.24(5):801–808.
Lee,. B.-H.,. H.-J.. Kim,. and. H.-S.. Yang.. 2012.. Polymerization. of. aniline. on. bacterial.
cellulose.and.characterization.of.bacterial.cellulose/polyaniline.nanocomposite.
films..Curr. Appl. Phys..12(1):75–80.
Lee,.J..Y.,.C..A..Bashur,.A..S..Goldstein,.and.C..E..Schmidt..2009..Polypyrrole-coated.
electrospun. PLGA. nanofibers. for. neural. tissue. applications.. Biomaterials.
30(26):4325–4335.
Lewis,.T..W.,.L..A..P..Kane-Maguire,.A..S..Hutchison,.G..M..Spinks,.and.G..G..Wallace..
1999.. Development. of. an. all-polymer,. axial. force. electrochemical. actuator..
Synthetic Metals.102(1–3):1317–1318.