Bacterial Nanocellulose as a Structured Platform for Conductive Biopolymers 259
Barra,.G..M..O.,.M..E..Leyva,.M..M..Gorelova,.B..G..Soares,.and.M..Sens..2001..X-ray.
photoelectron. spectroscopy. and. electrical. conductivity. of. polyaniline. doped.
with.dodecylbenzenesulfonic.acid.as.a.function.of.the.synthetic.method..J. Appl.
Polym. Sci..80(4):556–565.
Barra,.G..M..O.,.R..R..Matins,.K..A..Kafer,.R..Paniago,.C..T..Vasques,.and.A..T..N..Pires..
2008.. Thermoplastic. elastomer/polyaniline. blends:. evaluation. of. mechanical.
and.electromechanical.properties..Polym. Test..27(7):886–892.
Barud,.H.,.C..Barrios,.T..Regiani,.R..Marques,.M..Verelst,.J..Dexpertghys,.Y..Messaddeq,.
and. S.. Ribeiro.. 2008.. Self-supported. silver. nanoparticles. containing. bacterial.
cellulose.membranes..Mater. Sci. Eng. C.28(4):515–518.
Baughman,. R.. H.. 1996.. Conducting. polymer. artificial. muscles.. Synthetic Metals.
78(3):339–353.
Becerik,.I.,.and.F..Kadirgan..2001..Glucose.sensitivity.of.platinum-based.alloys.incorporated.in.polypyrrole.films.at.neutral.media..Synthetic Metals.124(2–3):379–384.
Bernhard,. W.. 1997.. Scientific. and. commercial. breakthrough. for. organic. metals..
Synthetic Metals.85(1–3):1313–1318.
Bhadra,. S.,. D.. Khastgir,. N.. K.. Singha,. and. J.. H.. Lee.. 2009.. Progress. in. preparation,.
processing.and.applications.of.polyaniline..Prog. Polym. Sci. 34(8):783–810.
Bidez,.P..R.,.3rd,.S..Li,.A..G..Macdiarmid,.E..C..Venancio,.Y..Wei,.and.P..I..Lelkes..2006..
Polyaniline,. an. electroactive. polymer,. supports. adhesion. and. proliferation. of.
cardiac.myoblasts..J. Biomater. Sci. Polym. Ed..17(1–2):199–212.
Bierwolf,.J.,.J..P..Erbes,.S..Deichmann,.C..Stieglitz,.E..Toronyi,.M..Luetgehetmann,.
B.. Nashan,. K.. Feng,. P.. X.. Ma,. and. J.. N.. Pollok.. 2009.. Tissue. engineering. of.
primary. rat. hepatocytes. using. nano-fibrous. 3D. polymeric. scaffolds. for.
application. in. ADME. studies. in. pharmaceutical. research.. Liver Transplant..
15(7):S177–S177.
Cao,. Z.. 2011.. Effect. of. drying. methods. on. structure. and. mechanical. properties. of.
. bacterial.cellulose.films..Adv. Mater. Res..239–242:2667–2670.
Chen,.P.,.Y..S..Yun,.H..Bak,.S..Y..Cho,.and.H..J..Jin..2010..Multiwalled.carbon.nanotubes-embedded. electrospun. bacterial. cellulose. nanofibers.. Mol. Cryst. Liq.
Cryst..519:169–178.
Chung,. S.. E.,. W.. Park,. S.. Shin,. S.. A.. Lee,. and. S.. Kwon.. 2008.. Guided. and. fluidic.
self-assembly.of.microstructures.using.railed.microfluidic.channels..Nat. Mater.
7(7):581–587.
Clasen,.C.,.B..Sultanova,.T..Wilhelms,.P..Heisig,.and.W..M..Kulicke..2006..Effects.of.
different.drying.processes.on.the.material.properties.of.bacterial.cellulose.membranes..Macromol. Symp..244(1):48–58.
Dall’Acqua,. L.,. C.. Tonin,. R.. Peila,. F.. Ferrero,. and. M.. Catellani.. 2004.. Performances.
and. properties. of. intrinsic. conductive. cellulose–polypyrrole. textiles.. Synthetic
Metals.146(2):213–221.
De. Paoli,. M.-A.. 1997.. Conductive. polymer. blends. and. composites.. In:. Organic
conductive molecules and polymers,.ed..H..S..Nalwa..New.York:.John.Wiley.&.Sons.
Fu,.X.,.H..Matsuyama,.M..Teramoto,.and.H..Nagai..2005..Preparation.of.hydrophilic.
poly(vinyl.butyral).hollow.fiber.membrane.via.thermally.induced.phase.separation..Sep. Purif. Technol..45(3):200–207.
Ghasemi-Mobarakeh,. L.,. M.. P.. Prabhakaran,. M.. Morshed,. M.. H.. Nasr-Esfahani,.
H. Baharvand,. S.. Kiani,. S.. Al-Deyab,. and. S.. Ramakrishna.. 2011.. Application.
of. conductive. polymers,. scaffolds. and. electrical. stimulation. for. nerve. tissue.
. engineering..J. Tissue Eng. Regener. Med..5(4):E17–E35.
Barra,.G..M..O.,.M..E..Leyva,.M..M..Gorelova,.B..G..Soares,.and.M..Sens..2001..X-ray.
photoelectron. spectroscopy. and. electrical. conductivity. of. polyaniline. doped.
with.dodecylbenzenesulfonic.acid.as.a.function.of.the.synthetic.method..J. Appl.
Polym. Sci..80(4):556–565.
Barra,.G..M..O.,.R..R..Matins,.K..A..Kafer,.R..Paniago,.C..T..Vasques,.and.A..T..N..Pires..
2008.. Thermoplastic. elastomer/polyaniline. blends:. evaluation. of. mechanical.
and.electromechanical.properties..Polym. Test..27(7):886–892.
Barud,.H.,.C..Barrios,.T..Regiani,.R..Marques,.M..Verelst,.J..Dexpertghys,.Y..Messaddeq,.
and. S.. Ribeiro.. 2008.. Self-supported. silver. nanoparticles. containing. bacterial.
cellulose.membranes..Mater. Sci. Eng. C.28(4):515–518.
Baughman,. R.. H.. 1996.. Conducting. polymer. artificial. muscles.. Synthetic Metals.
78(3):339–353.
Becerik,.I.,.and.F..Kadirgan..2001..Glucose.sensitivity.of.platinum-based.alloys.incorporated.in.polypyrrole.films.at.neutral.media..Synthetic Metals.124(2–3):379–384.
Bernhard,. W.. 1997.. Scientific. and. commercial. breakthrough. for. organic. metals..
Synthetic Metals.85(1–3):1313–1318.
Bhadra,. S.,. D.. Khastgir,. N.. K.. Singha,. and. J.. H.. Lee.. 2009.. Progress. in. preparation,.
processing.and.applications.of.polyaniline..Prog. Polym. Sci. 34(8):783–810.
Bidez,.P..R.,.3rd,.S..Li,.A..G..Macdiarmid,.E..C..Venancio,.Y..Wei,.and.P..I..Lelkes..2006..
Polyaniline,. an. electroactive. polymer,. supports. adhesion. and. proliferation. of.
cardiac.myoblasts..J. Biomater. Sci. Polym. Ed..17(1–2):199–212.
Bierwolf,.J.,.J..P..Erbes,.S..Deichmann,.C..Stieglitz,.E..Toronyi,.M..Luetgehetmann,.
B.. Nashan,. K.. Feng,. P.. X.. Ma,. and. J.. N.. Pollok.. 2009.. Tissue. engineering. of.
primary. rat. hepatocytes. using. nano-fibrous. 3D. polymeric. scaffolds. for.
application. in. ADME. studies. in. pharmaceutical. research.. Liver Transplant..
15(7):S177–S177.
Cao,. Z.. 2011.. Effect. of. drying. methods. on. structure. and. mechanical. properties. of.
. bacterial.cellulose.films..Adv. Mater. Res..239–242:2667–2670.
Chen,.P.,.Y..S..Yun,.H..Bak,.S..Y..Cho,.and.H..J..Jin..2010..Multiwalled.carbon.nanotubes-embedded. electrospun. bacterial. cellulose. nanofibers.. Mol. Cryst. Liq.
Cryst..519:169–178.
Chung,. S.. E.,. W.. Park,. S.. Shin,. S.. A.. Lee,. and. S.. Kwon.. 2008.. Guided. and. fluidic.
self-assembly.of.microstructures.using.railed.microfluidic.channels..Nat. Mater.
7(7):581–587.
Clasen,.C.,.B..Sultanova,.T..Wilhelms,.P..Heisig,.and.W..M..Kulicke..2006..Effects.of.
different.drying.processes.on.the.material.properties.of.bacterial.cellulose.membranes..Macromol. Symp..244(1):48–58.
Dall’Acqua,. L.,. C.. Tonin,. R.. Peila,. F.. Ferrero,. and. M.. Catellani.. 2004.. Performances.
and. properties. of. intrinsic. conductive. cellulose–polypyrrole. textiles.. Synthetic
Metals.146(2):213–221.
De. Paoli,. M.-A.. 1997.. Conductive. polymer. blends. and. composites.. In:. Organic
conductive molecules and polymers,.ed..H..S..Nalwa..New.York:.John.Wiley.&.Sons.
Fu,.X.,.H..Matsuyama,.M..Teramoto,.and.H..Nagai..2005..Preparation.of.hydrophilic.
poly(vinyl.butyral).hollow.fiber.membrane.via.thermally.induced.phase.separation..Sep. Purif. Technol..45(3):200–207.
Ghasemi-Mobarakeh,. L.,. M.. P.. Prabhakaran,. M.. Morshed,. M.. H.. Nasr-Esfahani,.
H. Baharvand,. S.. Kiani,. S.. Al-Deyab,. and. S.. Ramakrishna.. 2011.. Application.
of. conductive. polymers,. scaffolds. and. electrical. stimulation. for. nerve. tissue.
. engineering..J. Tissue Eng. Regener. Med..5(4):E17–E35.