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Li,.M..Y.,.Y..Guo,.Y..Wei,.A..G..MacDiarmid,.and.P..I..Lelkes..2006..Electrospinning.
polyaniline-contained. gelatin. nanofibers. for. tissue. engineering. applications..
Biomaterials.27(13):2705–2715.
Liu,. Y.,. X.. Liu,. J.. Chen,. K.. J.. Gilmore,. and. G.. G.. Wallace.. 2008.. 3D. bio-nanofibrous.
PPy/SIBS.mats.as.platforms.for.cell.culturing..Chem. Commun..2008(32):3729–3731.
Lopes,.J..L.,.J..M..Machado,.L..Castanheira,.P..L..Granja,.F..M..Gama,.F..Dourado,.and.
J.. R.. Gomes.. 2011.. Friction. and. wear. behaviour. of. bacterial. cellulose. against.
articular.cartilage..Wear.271(9–10):2328–2333.
Lu,. H.,. L.. Zhang,. W.. Xing,. H.. Wang,. and. N.. Xu.. 2005.. Preparation. of. TiO 2 . hollow.
fibers.using.poly(vinylidene.fluoride).hollow.fiber.microfiltration.membrane.as.
a.template..Mater. Chem. Phys..94(2–3):322–327.
MacDiarmid,.A..G..2001a..Nobel.lecture:.“Synthetic.metals”:.a.novel.role.for.organic.
polymers..Rev. Mod. Phys..73(3):701–712.
MacDiarmid,. A.. G.. 2001b.. “Synthetic. metals”:. a. novel. role. for. organic. polymers.
(Nobel.lecture)..Angew. Chem. Int. Ed. 40(14):2581–2590.
MacDiarmid,.A..G.,.W..E..Jones,.I..D..Norris,.J..Gao,.A..T..Johnson,.N..J..Pinto,.J..Hone,.
B..Han,.F..K..Ko,.H..Okuzaki,.and.M..Llaguno..2001..Electrostatically-generated.
nanofibers.of.electronic.polymers..Synthetic Metals.119(1–3):27–30.
Maneerung,.T.,.S..Tokura,.and.R..Rujiravanit..2008..Impregnation.of.silver.nanoparticles.into.bacterial.cellulose.for.antimicrobial.wound.dressing..Carbohyd. Polym..
72(1):43–51.
Maria,. L.. C.. D.,. A.. L.. C.. Santos,. P.. C.. Oliveira,. H.. S.. Barud,. Y.. Messaddeq,. and.
S. J. L. Ribeiro.. 2009.. Synthesis. and. characterization. of. silver. nanoparticles.
impregnated.into.bacterial.cellulose..Mater. Lett..63(9–10):797–799.
Marins,.J..A.,.B..G..Soares,.K..Dahmouche,.S..J..L..Ribeiro,.H..Barud,.and.D..Bonemer..
2011.. Structure. and. properties. of. conducting. bacterial. cellulose-polyaniline.
nanocomposites..Cellulose.18(5):1285–1294.
Meyer,. H.,. R.. J.. Nichols,. D.. Schröer,. and. L.. Stamp.. 1994.. The. use. of. conducting.
polymers. and. colloids. in. the. through. hole. plating. of. printed. circuit. boards..
Electrochim. Acta.39(8–9):1325–1338.
Mihranyan,. A.,. L.. Nyholm,. A.. E.. G.. Bennett,. and. M.. Stromme.. 2008.. Novel. high.
specific.surface.area.conducting.paper.material.composed.of.polypyrrole.and.
Cladophora.cellulose..J. Phys. Chem. B.112(39):12249–12255.
Mihranyan,.A.,.and.M..Stromme..2004..Capillary.condensation.of.moisture.in.fractal.
pores.of.native.cellulose.powders..Chem. Phys. Lett..393(4–6):389–392.
Mitragotri,.S.,.and.J..Lahann..2009..Physical.approaches.to.biomaterial.design..Nat.
Mater..8(1):15–23.
Mortimer,. R.. J.,. A.. L.. Dyer,. and. J.. R.. Reynolds.. 2006.. Electrochromic. organic. and.
. polymeric.materials.for.display.applications..Displays.27(1):2–18.
Muller,.D.,.D..O..S..Recouvreux,.F..V..Berti,.L..M..Porto,.G..M..O..Barra,.and.C. R. Rambo..
2010.. Fibroblasts. adhesion. on. polypyrrole. coated. bacterial. cellulose. membranes..Paper.presented.at.the.6th.Latin.American.Congress.of.Artificial.Organs.
and.Biomaterials,.COLAOB.2010,.August.17–27,.Gramado,.Brazil.
Muller,.D.,.C..R..Rambo,.D..O..S..Recouvreux,.L..M..Porto,.and.G..M..O..Barra..2011a..
Chemical. in. situ. polymerization. of. polypyrrole. on. bacterial. cellulose. nanofibers..Synthetic Metals.161(1–2):106–111.
Li,.M..Y.,.Y..Guo,.Y..Wei,.A..G..MacDiarmid,.and.P..I..Lelkes..2006..Electrospinning.
polyaniline-contained. gelatin. nanofibers. for. tissue. engineering. applications..
Biomaterials.27(13):2705–2715.
Liu,. Y.,. X.. Liu,. J.. Chen,. K.. J.. Gilmore,. and. G.. G.. Wallace.. 2008.. 3D. bio-nanofibrous.
PPy/SIBS.mats.as.platforms.for.cell.culturing..Chem. Commun..2008(32):3729–3731.
Lopes,.J..L.,.J..M..Machado,.L..Castanheira,.P..L..Granja,.F..M..Gama,.F..Dourado,.and.
J.. R.. Gomes.. 2011.. Friction. and. wear. behaviour. of. bacterial. cellulose. against.
articular.cartilage..Wear.271(9–10):2328–2333.
Lu,. H.,. L.. Zhang,. W.. Xing,. H.. Wang,. and. N.. Xu.. 2005.. Preparation. of. TiO 2 . hollow.
fibers.using.poly(vinylidene.fluoride).hollow.fiber.microfiltration.membrane.as.
a.template..Mater. Chem. Phys..94(2–3):322–327.
MacDiarmid,.A..G..2001a..Nobel.lecture:.“Synthetic.metals”:.a.novel.role.for.organic.
polymers..Rev. Mod. Phys..73(3):701–712.
MacDiarmid,. A.. G.. 2001b.. “Synthetic. metals”:. a. novel. role. for. organic. polymers.
(Nobel.lecture)..Angew. Chem. Int. Ed. 40(14):2581–2590.
MacDiarmid,.A..G.,.W..E..Jones,.I..D..Norris,.J..Gao,.A..T..Johnson,.N..J..Pinto,.J..Hone,.
B..Han,.F..K..Ko,.H..Okuzaki,.and.M..Llaguno..2001..Electrostatically-generated.
nanofibers.of.electronic.polymers..Synthetic Metals.119(1–3):27–30.
Maneerung,.T.,.S..Tokura,.and.R..Rujiravanit..2008..Impregnation.of.silver.nanoparticles.into.bacterial.cellulose.for.antimicrobial.wound.dressing..Carbohyd. Polym..
72(1):43–51.
Maria,. L.. C.. D.,. A.. L.. C.. Santos,. P.. C.. Oliveira,. H.. S.. Barud,. Y.. Messaddeq,. and.
S. J. L. Ribeiro.. 2009.. Synthesis. and. characterization. of. silver. nanoparticles.
impregnated.into.bacterial.cellulose..Mater. Lett..63(9–10):797–799.
Marins,.J..A.,.B..G..Soares,.K..Dahmouche,.S..J..L..Ribeiro,.H..Barud,.and.D..Bonemer..
2011.. Structure. and. properties. of. conducting. bacterial. cellulose-polyaniline.
nanocomposites..Cellulose.18(5):1285–1294.
Meyer,. H.,. R.. J.. Nichols,. D.. Schröer,. and. L.. Stamp.. 1994.. The. use. of. conducting.
polymers. and. colloids. in. the. through. hole. plating. of. printed. circuit. boards..
Electrochim. Acta.39(8–9):1325–1338.
Mihranyan,. A.,. L.. Nyholm,. A.. E.. G.. Bennett,. and. M.. Stromme.. 2008.. Novel. high.
specific.surface.area.conducting.paper.material.composed.of.polypyrrole.and.
Cladophora.cellulose..J. Phys. Chem. B.112(39):12249–12255.
Mihranyan,.A.,.and.M..Stromme..2004..Capillary.condensation.of.moisture.in.fractal.
pores.of.native.cellulose.powders..Chem. Phys. Lett..393(4–6):389–392.
Mitragotri,.S.,.and.J..Lahann..2009..Physical.approaches.to.biomaterial.design..Nat.
Mater..8(1):15–23.
Mortimer,. R.. J.,. A.. L.. Dyer,. and. J.. R.. Reynolds.. 2006.. Electrochromic. organic. and.
. polymeric.materials.for.display.applications..Displays.27(1):2–18.
Muller,.D.,.D..O..S..Recouvreux,.F..V..Berti,.L..M..Porto,.G..M..O..Barra,.and.C. R. Rambo..
2010.. Fibroblasts. adhesion. on. polypyrrole. coated. bacterial. cellulose. membranes..Paper.presented.at.the.6th.Latin.American.Congress.of.Artificial.Organs.
and.Biomaterials,.COLAOB.2010,.August.17–27,.Gramado,.Brazil.
Muller,.D.,.C..R..Rambo,.D..O..S..Recouvreux,.L..M..Porto,.and.G..M..O..Barra..2011a..
Chemical. in. situ. polymerization. of. polypyrrole. on. bacterial. cellulose. nanofibers..Synthetic Metals.161(1–2):106–111.
