215
Bacterial Nanocellulose Biomaterials with Controlled Architecture
Hu,.J.,.and.M..Catchmark..2009..Effect.of.freeze-drying.behavior.on.the.density.and.
structure.of.bacterial.cellulosic.films.by.different.acidic.and.alkaline.treatments..
Paper.presented.at.the.ASABE.Annual.International.Meeting,.June.21–24,.Reno,.
NV..Paper.no..09677.
Hutchens,.S..A.,.R..S..Benson,.B..R..Evans,.C..J..Rawn,.and.H..O’Neill..2009..A.resorbable. calcium-deficient. hydroxyapatite. hydrogel. composite. for. osseous. regeneration..Cellulose.16:887–898.
Klemm,. D.,. D.. Schumann,. F.. Kramer,. N.. Hessler,. M.. Hornung,. H.. P.. Schmauder,.
and. S.. Marsch.. 2006.. Nanocelluloses. as. innovative. polymers. in. research. and.
application..In:.Advances.in.Polymer.Science,.Vol..205,.Polysaccharides.II,.ed..
D. Klemm,.49–96..Heidelberg:.Springer.
Klemm,. D.,. D.. Schumann,. U.. Udhardt,. and. S.. Marsch.. 2001.. Bacterial. synthesized.
. cellulose—artificial.blood.vessels.for.microsurgery..Prog. Polym. Sci..26:1561–1603.
Lo,. H.,. M.. S.. Ponticiello,. and. K.. W.. Leong.. Fabrication. of. controlled. release. biodegradable.foams.by.phase.separation..Tissue Eng..1995.Spring;.1(1):15–28.
healthcare.co.uk/casestudies-files/SXP016-Nielsen_-HB-cellulose-basedwound-dressing-with-po.pdf.
Malm,.C..J.,.B..Risberg,.A..Bodin,.H..Bäckdahl,.B..R..Johansson,.P..Gatenholm,.and.
A..Jeppsson..2012..Small.calibre.biosynthetic.bacterial.cellulose.blood.vessels:.
13-months.patency.in.a.sheep.model..Scand. Cardiovasc. J..46:57–62.
Nam,.Y..S.,.I..J..Yoon,.and.T..G..Park..2000..A.novel.fabrication.method.of.macroporous.
biodegradable.polymer.scaffolds.using.gas.foaming.salt.as.a.porogen.additive..
J. Biomed. Mater. Res..53:1–7.
Petersen,.N.,.and.P..Gatenholm..2011..Bacterial.cellulose-based.materials.and.medical.
devices:.current.state.and.perspectives..Appl. Microbiol. Biotechnol..91:1277–1286.
Pohl,. H.. A.. 1978.. Dielectrphoresis—The Behavior of Neutral Matter in Non-Uniform
Electric Fields..Cambridge:.Cambridge.University.Press.
Putra,. A.,. F.. Furukawa,. A.. Kakugo,. and. J.. P.. Gong.. 2008.. Novel. oriented. bacterial.
. cellulose.gels.on.oxygen-permeable.substrates..Cellulose Commun..15:73–78.
Sano,.M.,.A..Rojas,.P..Gatenholm,.and.R..Davalos..2010..Electromagnetically.controlled.
biological.assembly.of.aligned.bacterial.cellulose.nanofibers..Ann. Biomed. Eng..
38:2475–2484.
Schumann,. D..A.,. J.. Wippermann,. D.. O.. Klemm,. F.. Kramer,. D.. Koth,. H.. Kosmehl,.
T. Wahlers,.and.S..Salehi-Gelani..2009..Artificial.vascular.implants.from.bacterial.
cellulose:.preliminary.results.of.small.arterial.substitutes..Cellulose.16:877–885.
Solchaga,. L.. A.,. J.. E.. Dennis,. V.. M.. Goldberg,. and. A.. Caplan.. 1999.. Hyaluronic.
acid-based. polymers. as. cell. carriers. for. tissue-engineered. repair. of. bone. and.
cartilage..J. Orthop. Res. 17:205–213.
Stevens,. M.. M.,. and. J.. H.. George.. 2005.. Exploring. and. engineering. the. cell. surface.
interface..Science.310:1135–1138.
Stitzel,.J.,.J..Liu,.S..J..Lee,.M..Komura,.N..Levi,.J..Berry,.S..Soker,.G..Lim,.M..Van Dyke,.
R.. Czerw,. J.. Yoo,. and. A.. Atala.. 2006.. Controlled. fabrication. of. a. biological.
. vascular.substitute..Biomaterials 27:1088–1094.
Tandon,.V.,.S..K..Bhagavatula,.W..C..Nelson,.and.B..J..Kirby..2008..Zeta.potential.and.
electroosmotic. mobility. in. microfluidic. devices. fabricated. from. hydrophobic.
polymers:.1..The.origins.of.charge..Electrophoresis 29(5):1092–1101.
Bacterial Nanocellulose Biomaterials with Controlled Architecture
Hu,.J.,.and.M..Catchmark..2009..Effect.of.freeze-drying.behavior.on.the.density.and.
structure.of.bacterial.cellulosic.films.by.different.acidic.and.alkaline.treatments..
Paper.presented.at.the.ASABE.Annual.International.Meeting,.June.21–24,.Reno,.
NV..Paper.no..09677.
Hutchens,.S..A.,.R..S..Benson,.B..R..Evans,.C..J..Rawn,.and.H..O’Neill..2009..A.resorbable. calcium-deficient. hydroxyapatite. hydrogel. composite. for. osseous. regeneration..Cellulose.16:887–898.
Klemm,. D.,. D.. Schumann,. F.. Kramer,. N.. Hessler,. M.. Hornung,. H.. P.. Schmauder,.
and. S.. Marsch.. 2006.. Nanocelluloses. as. innovative. polymers. in. research. and.
application..In:.Advances.in.Polymer.Science,.Vol..205,.Polysaccharides.II,.ed..
D. Klemm,.49–96..Heidelberg:.Springer.
Klemm,. D.,. D.. Schumann,. U.. Udhardt,. and. S.. Marsch.. 2001.. Bacterial. synthesized.
. cellulose—artificial.blood.vessels.for.microsurgery..Prog. Polym. Sci..26:1561–1603.
Lo,. H.,. M.. S.. Ponticiello,. and. K.. W.. Leong.. Fabrication. of. controlled. release. biodegradable.foams.by.phase.separation..Tissue Eng..1995.Spring;.1(1):15–28.
healthcare.co.uk/casestudies-files/SXP016-Nielsen_-HB-cellulose-basedwound-dressing-with-po.pdf.
Malm,.C..J.,.B..Risberg,.A..Bodin,.H..Bäckdahl,.B..R..Johansson,.P..Gatenholm,.and.
A..Jeppsson..2012..Small.calibre.biosynthetic.bacterial.cellulose.blood.vessels:.
13-months.patency.in.a.sheep.model..Scand. Cardiovasc. J..46:57–62.
Nam,.Y..S.,.I..J..Yoon,.and.T..G..Park..2000..A.novel.fabrication.method.of.macroporous.
biodegradable.polymer.scaffolds.using.gas.foaming.salt.as.a.porogen.additive..
J. Biomed. Mater. Res..53:1–7.
Petersen,.N.,.and.P..Gatenholm..2011..Bacterial.cellulose-based.materials.and.medical.
devices:.current.state.and.perspectives..Appl. Microbiol. Biotechnol..91:1277–1286.
Pohl,. H.. A.. 1978.. Dielectrphoresis—The Behavior of Neutral Matter in Non-Uniform
Electric Fields..Cambridge:.Cambridge.University.Press.
Putra,. A.,. F.. Furukawa,. A.. Kakugo,. and. J.. P.. Gong.. 2008.. Novel. oriented. bacterial.
. cellulose.gels.on.oxygen-permeable.substrates..Cellulose Commun..15:73–78.
Sano,.M.,.A..Rojas,.P..Gatenholm,.and.R..Davalos..2010..Electromagnetically.controlled.
biological.assembly.of.aligned.bacterial.cellulose.nanofibers..Ann. Biomed. Eng..
38:2475–2484.
Schumann,. D..A.,. J.. Wippermann,. D.. O.. Klemm,. F.. Kramer,. D.. Koth,. H.. Kosmehl,.
T. Wahlers,.and.S..Salehi-Gelani..2009..Artificial.vascular.implants.from.bacterial.
cellulose:.preliminary.results.of.small.arterial.substitutes..Cellulose.16:877–885.
Solchaga,. L.. A.,. J.. E.. Dennis,. V.. M.. Goldberg,. and. A.. Caplan.. 1999.. Hyaluronic.
acid-based. polymers. as. cell. carriers. for. tissue-engineered. repair. of. bone. and.
cartilage..J. Orthop. Res. 17:205–213.
Stevens,. M.. M.,. and. J.. H.. George.. 2005.. Exploring. and. engineering. the. cell. surface.
interface..Science.310:1135–1138.
Stitzel,.J.,.J..Liu,.S..J..Lee,.M..Komura,.N..Levi,.J..Berry,.S..Soker,.G..Lim,.M..Van Dyke,.
R.. Czerw,. J.. Yoo,. and. A.. Atala.. 2006.. Controlled. fabrication. of. a. biological.
. vascular.substitute..Biomaterials 27:1088–1094.
Tandon,.V.,.S..K..Bhagavatula,.W..C..Nelson,.and.B..J..Kirby..2008..Zeta.potential.and.
electroosmotic. mobility. in. microfluidic. devices. fabricated. from. hydrophobic.
polymers:.1..The.origins.of.charge..Electrophoresis 29(5):1092–1101.