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020 9780123972903|q(electronic book)
020 0123972906|q(electronic book)
020 |z9780123969835
020 |z0123969832
035 (OCoLC)869281815|z(OCoLC)1105195624|z(OCoLC)1105566001
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049 RIDW
050 4 TP248.65.P62|bN38 2014eb
072 7 HEA|x012000|2bisacsh
072 7 HEA|x020000|2bisacsh
072 7 MED|x004000|2bisacsh
072 7 MED|x101000|2bisacsh
072 7 MED|x109000|2bisacsh
072 7 MED|x029000|2bisacsh
072 7 MED|x040000|2bisacsh
072 7 MED|x092000|2bisacsh
082 04 610.28|223
090 TP248.65.P62|bN38 2014eb
245 00 Natural and synthetic biomedical polymers /|cedited by
Sangamesh Kumbar, Cato Laurencin, Meng Deng.
250 First edition.
264 1 Amsterdam ;|aBoston :|bElsevier Science,|c2014.
300 1 online resource
336 text|btxt|2rdacontent
337 computer|bc|2rdamedia
338 online resource|bcr|2rdacarrier
340 |gpolychrome|2rdacc
347 text file|2rdaft
500 Machine generated contents note: Section 1. Synthesis and
Characterization 1.1. Polymer Synthesis: the design and
synthesis of important classes of polymeric biomaterials
involving different monomers will be discussed. 1.2.
Characterization of Polymeric Biomaterials: in vitro and
in vivo characterization of advanced biomaterials, (cell
and tissue interactions with polymeric biomaterials with
various physico-chemical, mechanical properties, surface
and degradation properties Section 2. Currently Used
Materials 2.1. Proteins and poly(amino acids) including
collagen, poly(amino acids), elastin and elastin-like
polypeptides, albumin, and fibrin 2.2. Polysaccharides
including hyaluronic acid, chondroitin sulfate, chitin and
chitosan, and alginic acid 2.3. Poly(a-ester)s including
polylactides, polyglycolide, poly(lactide-co-glycolide),
polycaprolactone, and bacterial polyesters 2.4.
Polyurethanes 2.5. Poly(ester amide) 2.6. Poly(ortho
esters) 2.7. Polyanhydrides 2.8. Poly(propylene fumarate)
2.9. Polyphosphazenes 2.10. Pseudo poly(amino acid)s 2.11.
Polyphosphoester 2.12. Polyacetals 2.13. Poly(ethylene
glycol)-based biomaterials 2.14. Dendrimers 2.15.
Elastomers Section 3. Biomedical Applications of Polymeric
Biomaterials 3.1. Polymeric Biomaterials in Biomedical
Implants 3.2. Polymeric Biomaterials in Drug Delivery 3.3.
Polymeric Biomaterials in Tissue Engineering 3.4.
Polymeric Biomaterials in Medical Diagnostics.
504 Includes bibliographical references and index.
505 00 |gMachine-generated contents note:|g1.1.|tIntroduction /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.2.|tTypes of Polymerizations /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.2.1.|tAddition Polymerization /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.2.2.|tCondensation
Polymerization /|rMahadevappa Y. Kariduraganavar /
|rRavindra R. Kamble /|rArjumand A. Kittur --|g1.2.3.
|tMetathesis Polymerization /|rMahadevappa Y.
Kariduraganavar /|rRavindra R. Kamble /|rArjumand A.
Kittur --|g1.3.|tTechniques of Polymerization /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.3.1.|tSolution Polymerization /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.3.2.|tBulk (Mass)
Polymerization /|rMahadevappa Y. Kariduraganavar /
|rRavindra R. Kamble /|rArjumand A. Kittur --|g1.3.3.
|tSuspension Polymerization /|rMahadevappa Y.
Kariduraganavar /|rRavindra R. Kamble /|rArjumand A.
Kittur --|g1.3.4.|tPrecipitation Polymerization /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.3.5.|tEmulsion Polymerization /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.|tPolymers: Properties,
Synthesis, and Their Biomedical Applications /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.1.|tPolycaprolactone /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.2.|tPolyethylene Glycol /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.3.|tPolyurethane /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.4.|tPolydioxanone or Poly-p-
Dioxanone /|rMahadevappa Y. Kariduraganavar /|rRavindra R.
Kamble /|rArjumand A. Kittur --|g1.4.5.|tPoly(Methyl
Methacrylate) /|rMahadevappa Y. Kariduraganavar /
|rRavindra R. Kamble /|rArjumand A. Kittur --|g1.4.6.
|tPolyglycolic Acid or Polyglycolide /|rMahadevappa Y.
Kariduraganavar /|rRavindra R. Kamble /|rArjumand A.
Kittur --|g1.4.7.|tPolylactic Acid or Polylactide /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.8.|tPolylactic-co-Glycolic
Acid /|rMahadevappa Y. Kariduraganavar /|rRavindra R.
Kamble /|rArjumand A. Kittur --|g1.4.9.
|tPolyhydroxybutyrate /|rMahadevappa Y. Kariduraganavar /
|rRavindra R. Kamble /|rArjumand A. Kittur --|g1.4.10.
|tPolycyanoacrylates /|rMahadevappa Y. Kariduraganavar /
|rRavindra R. Kamble /|rArjumand A. Kittur --|g1.4.11.
|tPolyvinylpyrrolidone /|rMahadevappa Y. Kariduraganavar /
|rRavindra R. Kamble /|rArjumand A. Kittur --|g1.4.12.
|tChitosan /|rMahadevappa Y. Kariduraganavar /|rRavindra
R. Kamble /|rArjumand A. Kittur --|g1.4.13.|tGelatin /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.14.|tCarrageenan /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.15.|tHyaluronic Acid /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.16.|tXanthan Gum /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.17.|tAcacia Gum /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.4.18.|tAlginate /|rMahadevappa
Y. Kariduraganavar /|rRavindra R. Kamble /|rArjumand A.
Kittur --|g1.5.|tProcessing of Polymers for Biomedical
Devices /|rMahadevappa Y. Kariduraganavar /|rRavindra R.
Kamble /|rArjumand A. Kittur --|g1.5.1.|tFabrication of
Polymer Films /|rMahadevappa Y. Kariduraganavar /
|rRavindra R. Kamble /|rArjumand A. Kittur --|g1.5.2.
|tSpinning Industrial Polymers /|rMahadevappa Y.
Kariduraganavar /|rRavindra R. Kamble /|rArjumand A.
Kittur --|g1.5.3.|tFabrication of Shaped Polymer Objects /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.5.4.|tCalendaring /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.6.|tFuture Perspectives /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble /
|rArjumand A. Kittur --|g1.7.|tConclusions /|rMahadevappa
Y. Kariduraganavar /|rRavindra R. Kamble /|rArjumand A.
Kittur --|tAcknowledgments /|rArjumand A. Kittur /
|rMahadevappa Y. Kariduraganavar /|rRavindra R. Kamble --
|tReferences /|rMahadevappa Y. Kariduraganavar /|rRavindra
R. Kamble /|rArjumand A. Kittur --|g2.1.|tIntroduction /
|rSwaminathan Sethuraman /|rMeera Parthasarthy --|g2.2.
|tHierarchical Characterization Approach /|rSwaminathan
Sethuraman /|rMeera Parthasarthy --|g2.3.|tBulk
Characterization /|rSwaminathan Sethuraman /|rMeera
Parthasarthy --|g2.3.1.|tThermal Properties /|rSwaminathan
Sethuraman /|rMeera Parthasarthy --|g2.3.2.|tMechanical
Properties /|rSwaminathan Sethuraman /|rMeera Parthasarthy
--|g2.3.3.|tOptical Properties /|rSwaminathan Sethuraman /
|rMeera Parthasarthy --|g2.3.4.|tElectrical Properties /
|rSwaminathan Sethuraman /|rMeera Parthasarthy --|g2.4.
|tSurface Characterization /|rSwaminathan Sethuraman /
|rMeera Parthasarthy --|g2.4.1.|tMicroscopic
Characterization /|rSwaminathan Sethuraman /|rMeera
Parthasarthy --|g2.4.2.|tSurface Hydrophobicity /
|rSwaminathan Sethuraman /|rMeera Parthasarthy --|g2.4.3.
|tSpectroscopic Characterization /|rSwaminathan Sethuraman
/|rMeera Parthasarthy --|g2.5.|tFuture Prospects /
|rSwaminathan Sethuraman /|rMeera Parthasarthy --
|tReferences /|rSwaminathan Sethuraman /|rMeera
Parthasarthy --|g3.1.|tIntroduction /|rTarun Saxena /
|rChandra M. Valmikinathan /|rLohitash Karumbaiah --|g3.2.
|tFibrin-Based Biomaterials /|rTarun Saxena /|rChandra M.
Valmikinathan /|rLohitash Karumbaiah --|g3.3.|tElastin-
Based Biomaterials /|rTarun Saxena /|rChandra M.
Valmikinathan /|rLohitash Karumbaiah --|g3.4.|tSilk-Based
Biomaterials /|rTarun Saxena /|rChandra M. Valmikinathan /
|rLohitash Karumbaiah --|g3.5.|tCollagen-Based
Biomaterials /|rTarun Saxena /|rChandra M. Valmikinathan /
|rLohitash Karumbaiah --|g3.6.|tPoly(Glutamic Acid)-Based
Biomaterials /|rTarun Saxena /|rChandra M. Valmikinathan /
|rLohitash Karumbaiah --|g3.7.|tCyanophycin and
Poly(Aspartic Acid)-Based Biomaterials /|rTarun Saxena /
|rChandra M. Valmikinathan /|rLohitash Karumbaiah --|g3.8.
|tPoly-L-Lysine-Based Biomaterials /|rTarun Saxena /
|rChandra M. Valmikinathan /|rLohitash Karumbaiah --|g3.9.
|tConclusions and Future Work /|rTarun Saxena /|rChandra
M. Valmikinathan /|rLohitash Karumbaiah --|tReferences /
|rTarun Saxena /|rChandra M. Valmikinathan /|rLohitash
Karumbaiah --|g4.1.|tIntroduction /|rSangamesh G. Kumbar /
|rAhmed A. Nada /|rDaisy M. Ramos /|rAja Aravamudhan --
|g4.2.|tHyaluronic Acid /|rAja Aravamudhan /|rSangamesh G.
Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos --|g4.2.1.
|tChemical Structure, Properties, and Sources /|rAja
Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada /
|rDaisy M. Ramos --|g4.2.2.|tAttempts Made in Tissue
Engineering and Drug Delivery /|rAja Aravamudhan /
|rSangamesh G. Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos -
-|g4.2.3.|tPromises and Challenges with HA /|rAja
Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada /
|rDaisy M. Ramos --|g4.3.|tChondroitin Sulphate /|rAja
Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada /
|rDaisy M. Ramos --|g4.3.1.|tChemical Structure,
Properties, and Sources /|rAja Aravamudhan /|rSangamesh G.
Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos --|g4.3.2.
|tAttempts Made in Tissue Engineering and Drug Delivery /
|rAja Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada
/|rDaisy M. Ramos --|g4.3.3.|tPromises and Challenges with
CS /|rAja Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A.
Nada /|rDaisy M. Ramos --|g4.4.|tChitin and Chitosan /
|rAja Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada
/|rDaisy M. Ramos --|g4.4.1.|tChemical Structure,
Properties, and Sources /|rAja Aravamudhan /|rSangamesh G.
Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos --|g4.4.2.
|tAttempts Made in Tissue Engineering and Drug Delivery /
|rAja Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada
/|rDaisy M. Ramos --|g4.4.3.|tPromises and Challenges with
Chitosan in Tissue Engineering /|rAja Aravamudhan /
|rSangamesh G. Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos -
-|g4.5.|tAlginic Acid /|rAja Aravamudhan /|rSangamesh G.
Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos --|g4.5.1.
|tChemical Structure, Properties, and Sources /|rAja
Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada /
|rDaisy M.
505 00 |rRamos --|g4.5.2.|tAttempts Made in Tissue Engineering
and Drug Delivery /|rAja Aravamudhan /|rSangamesh G.
Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos --|g4.5.3.
|tPromises and Challenges with Alginates in Tissue
Engineering /|rSangamesh G. Kumbar /|rAhmed A. Nada /
|rDaisy M. Ramos /|rAja Aravamudhan --|g4.6.|tCellulose /
|rAja Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada
/|rDaisy M. Ramos --|g4.6.1.|tChemical Structure,
Properties, and Sources /|rAja Aravamudhan /|rSangamesh G.
Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos --|g4.6.2.
|tAttempts Made in Tissue Engineering and Drug Delivery /
|rAja Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada
/|rDaisy M. Ramos --|g4.6.3.|tPromises and Challenges with
Cellulose /|rAja Aravamudhan /|rSangamesh G. Kumbar /
|rAhmed A. Nada /|rDaisy M. Ramos --|g4.7.|tConclusions /
|rAja Aravamudhan /|rSangamesh G. Kumbar /|rAhmed A. Nada
/|rDaisy M. Ramos --|tAcknowledgments /|rAja Aravamudhan /
|rSangamesh G. Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos -
-|tReferences, Contents /|rAja Aravamudhan /|rSangamesh G.
Kumbar /|rAhmed A. Nada /|rDaisy M. Ramos --|g5.1.
|tIntroduction /|rTao Jiang /|rCato T. Laurencin /
|rSangamesh G. Kumbar /|rRoshan James --|g5.2.|tChitosan
Chemistry /|rTao Jiang /|rCato T. Laurencin /|rSangamesh
G. Kumbar /|rRoshan James --|g5.2.1.|tSynthesis /|rTao
Jiang /|rCato T. Laurencin /|rSangamesh G. Kumbar /
|rRoshan James --|g5.2.2.|tModification /|rTao Jiang /
|rCato T. Laurencin /|rSangamesh G. Kumbar /|rRoshan
James.
505 00 |gNote continued:|g5.3.|tChitosan Physics /|rTao Jiang /
|rCato T. Laurencin /|rSangamesh G. Kumbar /|rRoshan James
--|g5.3.1.|tPhysical Properties and Characterization /
|rTao Jiang /|rRoshan James /|rSangamesh G. Kumbar /|rCato
T. Laurencin --|g5.3.2.|tStructure and Property
Relationship /|rTao Jiang /|rRoshan James /|rSangamesh G.
Kumbar /|rCato T. Laurencin --|g5.4.|tBiological
Properties of Chitosan /|rTao Jiang /|rRoshan James /
|rSangamesh G. Kumbar /|rCato T. Laurencin --|g5.4.1.
|tBiodegradability /|rTao Jiang /|rRoshan James /
|rSangamesh G. Kumbar /|rCato T. Laurencin --|g5.4.2.
|tBiocompatibility /|rTao Jiang /|rRoshan James /
|rSangamesh G. Kumbar /|rCato T. Laurencin --|g5.4.3.
|tAnti-Microbial Activity /|rTao Jiang /|rRoshan James /
|rSangamesh G. Kumbar /|rCato T. Laurencin --|g5.5.
|tChitosan Application in Tissue Engineering /|rTao Jiang
/|rRoshan James /|rSangamesh G. Kumbar /|rCato T.
Laurencin --|g5.5.1.|tScaffold Fabrication Techniques /
|rTao Jiang /|rRoshan James /|rSangamesh G. Kumbar /|rCato
T. Laurencin --|g5.5.2.|tChitosan-Based Scaffolds for
Tissue Engineering Applications /|rTao Jiang /|rRoshan
James /|rSangamesh G. Kumbar /|rCato T. Laurencin --|g5.6.
|tChitosan Application in Drug Delivery /|rTao Jiang /
|rRoshan James /|rSangamesh G. Kumbar /|rCato T. Laurencin
--|g5.7.|tConclusions /|rTao Jiang /|rRoshan James /
|rSangamesh G. Kumbar /|rCato T. Laurencin --
|tAcknowledgments /|rTao Jiang /|rRoshan James /
|rSangamesh G. Kumbar /|rCato T. Laurencin --|tReferences
/|rCato T. Laurencin /|rTao Jiang /|rRoshan James /
|rSangamesh G. Kumbar --|g6.1.|tAdvantages of Absorbable
Poly(a-Ester)s /|rKaren Burg --|g6.2.|tPolylactides,
Polyglycolides, and Copolymers Thereof /|rKaren Burg --
|g6.2.1.|tStructure and Characteristics /|rKaren Burg --
|g6.2.2.|tProcessing /|rKaren Burg --|g6.3.|tBacterial and
Other Recombinant Polyesters /|rKaren Burg --|g6.3.1.
|tStructure and Characteristics /|rKaren Burg --|g6.3.2.
|tProcessing /|rKaren Burg --|tReferences /|rKaren Burg --
|g7.1.|tIntroduction /|rNamdev B. Shelke /|rRajaram K.
Nagarale /|rSangamesh G. Kumbar --|g7.2.|tSynthesis and
Characterization /|rNamdev B. Shelke /|rRajaram K.
Nagarale /|rSangamesh G. Kumbar --|g7.2.1.|tSynthesis /
|rNamdev B. Shelke /|rRajaram K. Nagarale /|rSangamesh G.
Kumbar --|g7.2.2.|tCharacterization /|rNamdev B. Shelke /
|rRajaram K. Nagarale /|rSangamesh G. Kumbar --|g7.3.
|tImpact of Composition on Polyurethane Properties /
|rNamdev B. Shelke /|rRajaram K. Nagarale /|rSangamesh G.
Kumbar --|g7.3.1.|tPoly(Ether Urethanes) /|rNamdev B.
Shelke /|rRajaram K. Nagarale /|rSangamesh G. Kumbar --
|g7.3.2.|tPoly(Carbonate Urethanes) /|rNamdev B. Shelke /
|rRajaram K. Nagarale /|rSangamesh G. Kumbar --|g7.3.3.
|tPoly(Ether Ester Urethanes) /|rNamdev B. Shelke /
|rRajaram K. Nagarale /|rSangamesh G. Kumbar --|g7.3.4.
|tPoly(Siloxane Urethanes) /|rNamdev B. Shelke /|rRajaram
K. Nagarale /|rSangamesh G. Kumbar --|g7.3.5.
|tPolyurethane and Natural Polymers /|rNamdev B. Shelke /
|rRajaram K. Nagarale /|rSangamesh G. Kumbar --|g7.3.6.
|tPolyurethane Composites /|rNamdev B. Shelke /|rRajaram
K. Nagarale /|rSangamesh G. Kumbar --|g7.3.7.|tSurface-
Modified Polyurethanes /|rNamdev B. Shelke /|rRajaram K.
Nagarale /|rSangamesh G. Kumbar --|g7.4.|tPhase Separation
Behavior /|rNamdev B. Shelke /|rRajaram K. Nagarale /
|rSangamesh G. Kumbar --|g7.5.|tCalcification /|rNamdev B.
Shelke /|rRajaram K. Nagarale /|rSangamesh G. Kumbar --
|g7.6.|tPolyurethane Applications /|rNamdev B. Shelke /
|rRajaram K. Nagarale /|rSangamesh G. Kumbar --|g7.6.1.
|tDrug Delivery /|rNamdev B. Shelke /|rRajaram K. Nagarale
/|rSangamesh G. Kumbar --|g7.6.2.|tTissue Engineering /
|rNamdev B. Shelke /|rRajaram K. Nagarale /|rSangamesh G.
Kumbar --|g7.6.3.|tPolyurethane Medical Devices /|rNamdev
B. Shelke /|rRajaram K. Nagarale /|rSangamesh G. Kumbar --
|g7.7.|tConclusion /|rRajaram K. Nagarale /|rSangamesh G.
Kumbar /|rNamdev B. Shelke --|tAcknowledgments /|rNamdev
B. Shelke /|rRajaram K. Nagarale /|rSangamesh G. Kumbar --
|tReferences /|rNamdev B. Shelke /|rRajaram K. Nagarale /
|rSangamesh G. Kumbar --|g8.1.|tIntroduction /|rSara K.
Murase /|rJordi Puiggali --|g8.2.|tSynthesis of PEAs /
|rSara K. Murase /|rJordi Puiggali --|g8.3.|tDesign of
PEAs with a Given Microstructure /|rSara K. Murase /
|rJordi Puiggali --|g8.3.1.|tHyperbranched PEAs /|rSara K.
Murase /|rJordi Puiggali --|g8.4.|tLiquid Crystals and
Rigid-Chain PEAs /|rSara K. Murase /|rJordi Puiggali --
|g8.5.|tPEAs from Renewable Sources /|rSara K. Murase /
|rJordi Puiggali --|g8.5.1.|tCarbohydrate Derivatives /
|rSara K. Murase /|rJordi Puiggali --|g8.5.2.|tPEAs from
Vegetable Oils and Fatty Diacids /|rSara K. Murase /
|rJordi Puiggali --|g8.5.3.|tPEAs Derived from a-Amino
Acids and Their Applications in the Biomedical Field /
|rSara K. Murase /|rJordi Puiggali --|g8.6.|tMiscellaneous
Applications of PEAs /|rSara K. Murase /|rJordi Puiggali -
-|g8.6.1.|tScaffolds from Electroactive Samples and
Electrospun Nanofibres /|rSara K. Murase /|rJordi Puiggali
--|g8.6.2.|tHigh-Performance Materials /|rSara K. Murase /
|rJordi Puiggali --|g8.6.3.|tOptical Properties /|rSara K.
Murase /|rJordi Puiggali --|g8.6.4.|tComposites and
Nanocomposites Based on PEAs /|rSara K. Murase /|rJordi
Puiggali --|g8.7.|tConclusions /|rSara K. Murase /|rJordi
Puiggali --|tAcknowledgments /|rSara K. Murase /|rJordi
Puiggali --|tReferences /|rSara K. Murase /|rJordi
Puiggali --|g9.1.|tIntroduction /|rMarkus Heiny /
|rJonathan Johannes Wurth /|rVenkatram Prasad Shastri --
|g9.1.1.|tBackground /|rMarkus Heiny /|rJonathan Johannes
Wurth /|rVenkatram Prasad Shastri --|g9.1.2.
|tBiocompatibility and Biodegradability Aspects /|rMarkus
Heiny /|rJonathan Johannes Wurth /|rVenkatram Prasad
Shastri --|g9.1.3.|tNeed for Functionalization /|rMarkus
Heiny /|rJonathan Johannes Wurth /|rVenkatram Prasad
Shastri --|g9.1.4.|tConcepts of Polymerization and
Functionalization /|rMarkus Heiny /|rJonathan Johannes
Wurth /|rVenkatram Prasad Shastri --|g9.2.|tFunctionalized
Polyesters /|rMarkus Heiny /|rJonathan Johannes Wurth /
|rVenkatram Prasad Shastri --|g9.2.1.|tPolylactide and
Polyglycolide /|rMarkus Heiny /|rJonathan Johannes Wurth /
|rVenkatram Prasad Shastri --|g9.2.2.|tPolycaprolactone /
|rJonathan Johannes Wurth /|rVenkatram Prasad Shastri /
|rMarkus Heiny --|g9.2.3.|tOther Polyesters /|rMarkus
Heiny /|rJonathan Johannes Wurth /|rVenkatram Prasad
Shastri --|tReferences /|rMarkus Heiny /|rJonathan
Johannes Wurth /|rVenkatram Prasad Shastri --|g10.1.
|tHistory of Polyanhydrides /|rMuntimadugu Eameema /
|rLakshmi Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb
--|g10.2.|tProperties of Polyanhydrides /|rMuntimadugu
Eameema /|rLakshmi Sailaja Duvvuri /|rWahid Khan /
|rAbraham J. Domb --|g10.2.1.|tDistinctive Features and
Limitations /|rMuntimadugu Eameema /|rLakshmi Sailaja
Duvvuri /|rWahid Khan /|rAbraham J. Domb --|g10.2.2.
|tThermal Properties /|rMuntimadugu Eameema /|rLakshmi
Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb --
|g10.2.3.|tSolubility /|rMuntimadugu Eameema /|rLakshmi
Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb --
|g10.2.4.|tMechanical Properties /|rMuntimadugu Eameema /
|rLakshmi Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb
--|g10.2.5.|tStability /|rMuntimadugu Eameema /|rLakshmi
Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb --|g10.3.
|tSynthesis of Polyanhydrides /|rMuntimadugu Eameema /
|rLakshmi Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb
--|g10.3.1.|tMelt Condensation /|rMuntimadugu Eameema /
|rLakshmi Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb
--|g10.3.2.|tSolution Polymerization /|rMuntimadugu
Eameema /|rLakshmi Sailaja Duvvuri /|rWahid Khan /
|rAbraham J. Domb --|g10.3.3.|tDehydrative Coupling /
|rMuntimadugu Eameema /|rLakshmi Sailaja Duvvuri /|rWahid
Khan /|rAbraham J. Domb --|g10.3.4.|tRing-Opening
Polymerization /|rMuntimadugu Eameema /|rLakshmi Sailaja
Duvvuri /|rWahid Khan /|rAbraham J. Domb --|g10.4.
|tClasses of Polyanhydrides /|rMuntimadugu Eameema /
|rLakshmi Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb
--|g10.4.1.|tConventional Polyanhydrides /|rMuntimadugu
Eameema /|rLakshmi Sailaja Duvvuri /|rWahid Khan /
|rAbraham J. Domb --|g10.4.2.|tAdvanced Polyanhydrides /
|rMuntimadugu Eameema /|rLakshmi Sailaja Duvvuri /|rWahid
Khan /|rAbraham J. Domb --|g10.5.|tBiodegradability /
|rMuntimadugu Eameema /|rLakshmi Sailaja Duvvuri /|rWahid
Khan /|rAbraham J. Domb --|g10.6.|tBiocompatibility /
|rMuntimadugu Eameema /|rLakshmi Sailaja Duvvuri /|rWahid
Khan /|rAbraham J.
505 00 |tDomb --|g10.7.|tApplications /|rMuntimadugu Eameema /
|rLakshmi Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb
--|g10.7.1.|tDrug Delivery /|rMuntimadugu Eameema /
|rLakshmi Sailaja Duvvuri /|rWahid Khan /|rAbraham J. Domb
--|g10.7.2.|tProgrammable Drug Release /|rLakshmi Sailaja
Duvvuri /|rAbraham J. Domb /|rWahid Khan /|rMuntimadugu
Eameema --|g10.7.3.|tImmunomodulation /|rMuntimadugu
Eameema /|rAbraham J. Domb /|rLakshmi Sailaja Duvvuri /
|rWahid Khan --|g10.7.4.|tProtein Delivery /|rMuntimadugu
Eameema /|rLakshmi Sailaja Duvvuri /|rWahid Khan /
|rAbraham J. Domb --|g10.7.5.|tTissue Engineering /|rWahid
Khan /|rAbraham J. Domb /|rLakshmi Sailaja Duvvuri /
|rMuntimadugu Eameema --|tReferences /|rWahid Khan /
|rLakshmi Sailaja Duvvuri /|rMuntimadugu Eameema /
|rAbraham J. Domb --|g11.1.|tIntroduction /|rRoshan James
/|rMeng Deng /|rSangamesh G. Kumbar /|rCato T. Laurencin -
-|g11.2.|tSynthesis of Polyphosphazenes /|rRoshan James /
|rMeng Deng /|rSangamesh G. Kumbar /|rCato T. Laurencin --
|g11.3.|tBiodegradable Polyphosphazenes /|rRoshan James /
|rCato T. Laurencin /|rSangamesh G. Kumbar /|rMeng Deng --
|g11.3.1.|tDifferent Classes /|rRoshan James /|rCato T.
Laurencin /|rSangamesh G. Kumbar /|rMeng Deng --|g11.3.2.
|tDegradation Mechanisms /|rRoshan James /|rCato T.
Laurencin /|rSangamesh G. Kumbar /|rMeng Deng.
505 00 |gNote continued:|g11.3.3.|tBiocompatibility /|rRoshan
James /|rCato T. Laurencin /|rSangamesh G. Kumbar /|rMeng
Deng --|g11.4.|tApplications of Biodegradable
Polyphosphazenes in Tissue Engineering /|rRoshan James /
|rCato T. Laurencin /|rSangamesh G. Kumbar /|rMeng Deng --
|g11.4.1.|tBone Tissue Regeneration /|rRoshan James /
|rCato T. Laurencin /|rSangamesh G. Kumbar /|rMeng Deng --
|g11.4.2.|tSoft Tissue Regeneration /|rRoshan James /
|rCato T. Laurencin /|rSangamesh G. Kumbar /|rMeng Deng --
|g11.4.3.|tApplications of Biodegradable Polyphosphazenes
in Drug Delivery /|rRoshan James /|rCato T. Laurencin /
|rSangamesh G. Kumbar /|rMeng Deng --|g11.5.|tConclusions
and Future Trends /|rRoshan James /|rCato T. Laurencin /
|rSangamesh G. Kumbar /|rMeng Deng --|tAcknowledgments /
|rRoshan James /|rCato T. Laurencin /|rSangamesh G. Kumbar
/|rMeng Deng --|tReferences /|rRoshan James /|rCato T.
Laurencin /|rSangamesh G. Kumbar /|rMeng Deng --|g12.1.
|tIntroduction /|rWalid P. Qaqish /|rKush N. Shah /|rYang
H. Yun --|g12.2.|tSynthesis of "Pseudo" Poly(Amino Acid) /
|rKush N. Shah /|rYang H. Yun /|rWalid P. Qaqish --|g12.3.
|tEster-Based "Pseudo" Poly(Amino Acids) /|rKush N. Shah /
|rYang H. Yun /|rWalid P. Qaqish --|g12.3.1.|tSynthesis of
Ester-Based "Pseudo" Poly(Amino Acids) /|rKush N. Shah /
|rYang H. Yun /|rWalid P. Qaqish --|g12.3.2.|tApplications
of Ester-Based "Pseudo" Poly(Amino Acids) /|rKush N. Shah
/|rYang H. Yun /|rWalid P. Qaqish --|g12.4.|tAmide-Based
"Pseudo" Poly(Amino Acids) /|rKush N. Shah /|rYang H. Yun
/|rWalid P. Qaqish --|g12.4.1.|tApplications Poly(Amides)
as "Pseudo" Poly(Amino Acids) /|rKush N. Shah /|rYang H.
Yun /|rWalid P. Qaqish --|g12.5.|tCarbonate-Based "Pseudo"
Poly(Amino Acids) /|rKush N. Shah /|rYang H. Yun /|rWalid
P. Qaqish --|g12.5.1.|tSynthesis of Carbonate-Based
"Pseudo" Poly(Amino Acids) /|rKush N. Shah /|rYang H. Yun
/|rWalid P. Qaqish --|g12.5.2.|tApplications of Carbonate-
Based "Pseudo" Poly(Amino Acids) /|rKush N. Shah /|rYang
H. Yun /|rWalid P. Qaqish --|g12.6.|tUrethane-Based
"Pseudo" Poly(Amino Acids) /|rKush N. Shah /|rYang H. Yun
/|rWalid P. Qaqish --|g12.6.1.|tSynthesis of Urethane-
Based "Pseudo" Poly(Amino Acids) /|rKush N. Shah /|rYang
H. Yun /|rWalid P. Qaqish --|g12.6.2.|tApplications of
Urethane-Based "Pseudo" Poly(Amino Acids) /|rKush N. Shah
/|rYang H. Yun /|rWalid P. Qaqish --|g12.7.|tConclusions /
|rKush N. Shah /|rYang H. Yun /|rWalid P. Qaqish --
|tReferences /|rKush N. Shah /|rYang H. Yun /|rWalid P.
Qaqish --|g13.1.|tIntroduction /|rSteve Brocchini /
|rSheiliza Carmali --|g13.2.|tBiomedical Applications /
|rSteve Brocchini /|rSheiliza Carmali --|g13.2.1.|tPolymer
-Drug Conjugates /|rSteve Brocchini /|rSheiliza Carmali --
|g13.2.2.|tParticulate-Associated Systems /|rSteve
Brocchini /|rSheiliza Carmali --|g13.2.3.|tPolymer-
Oligonucleotide Complexes /|rSteve Brocchini /|rSheiliza
Carmali --|g13.2.4.|tHydrogels /|rSteve Brocchini /
|rSheiliza Carmali --|g13.2.5.|tPolyacetals in Tissue
Engineering /|rSteve Brocchini /|rSheiliza Carmali --
|g13.3.|tConclusions /|rSteve Brocchini /|rSheiliza
Carmali --|tAcknowledgments /|rSteve Brocchini /|rSheiliza
Carmali --|tReferences /|rSteve Brocchini /|rSheiliza
Carmali --|g14.1.|tIntroduction /|rJennifer Elisseeff /
|rIwen Wu --|g14.1.1.|tCurrent Clinical Strategies /
|rJennifer Elisseeff /|rIwen Wu --|g14.2.|tBiomaterials /
|rJennifer Elisseeff /|rIwen Wu --|g14.2.1.|tSynthetic
Polymers /|rJennifer Elisseeff /|rIwen Wu --|g14.2.2.
|tNaturally-Derived Scaffolds /|rJennifer Elisseeff /
|rIwen Wu --|g14.2.3.|tExtracellular Matrix-Based
Materials /|rJennifer Elisseeff /|rIwen Wu --|g14.3.|tCell
Sources /|rJennifer Elisseeff /|rIwen Wu --|g14.3.1.
|tCells of Adipose Tissue /|rJennifer Elisseeff /|rIwen Wu
--|g14.3.2.|tAdult Stem Cells /|rJennifer Elisseeff /
|rIwen Wu --|g14.3.3.|tEmbryonic Stem Cells /|rJennifer
Elisseeff /|rIwen Wu --|g14.3.4.|tInduced Pluripotent Stem
Cells /|rJennifer Elisseeff /|rIwen Wu --|g14.4.
|tDiscussion /|rJennifer Elisseeff /|rIwen Wu --
|tReferences /|rJennifer Elisseeff /|rIwen Wu --|g15.1.
|tIntroduction /|rOmathanu Perumal /|rUmesh Gupta --
|g15.2.|tSynthesis and Characterization /|rOmathanu
Perumal /|rUmesh Gupta --|g15.2.1.|tDivergent Approach /
|rOmathanu Perumal /|rUmesh Gupta --|g15.2.2.|tConvergent
Approach /|rOmathanu Perumal /|rUmesh Gupta --|g15.3.
|tDendrimer Types /|rOmathanu Perumal /|rUmesh Gupta --
|g15.3.1.|tPAMAM Dendrimers /|rOmathanu Perumal /|rUmesh
Gupta --|g15.3.2.|tPPI Dendrimers /|rOmathanu Perumal /
|rUmesh Gupta --|g15.3.3.|tCarbohydrate Dendrimers /
|rOmathanu Perumal /|rUmesh Gupta --|g15.3.4.|tTriazine
Dendrimers /|rOmathanu Perumal /|rUmesh Gupta --|g15.3.5.
|tPeptide Dendrimers /|rOmathanu Perumal /|rUmesh Gupta --
|g15.3.6.|tMiscellaneous /|rOmathanu Perumal /|rUmesh
Gupta --|g15.4.|tDrug Loading in Dendrimers /|rOmathanu
Perumal /|rUmesh Gupta --|g15.4.1.|tNon-Covalent
Interactions /|rOmathanu Perumal /|rUmesh Gupta --
|g15.4.2.|tCovalent Interactions /|rOmathanu Perumal /
|rUmesh Gupta --|g15.5.|tBiomedical Applications /
|rOmathanu Perumal /|rUmesh Gupta --|g15.5.1.|tDrug
Delivery Applications /|rOmathanu Perumal /|rUmesh Gupta -
-|g15.5.2.|tGene Delivery /|rOmathanu Perumal /|rUmesh
Gupta --|g15.5.3.|tDiagnostic Applications /|rOmathanu
Perumal /|rUmesh Gupta --|g15.5.4.|tTherapeutic
Applications /|rOmathanu Perumal /|rUmesh Gupta --|g15.6.
|tSummary /|rOmathanu Perumal /|rUmesh Gupta --
|tReferences /|rOmathanu Perumal /|rUmesh Gupta --|g16.1.
|tIntroduction /|rJinshan Guo /|rDianna Y. Nguyen /|rJian
Yang /|rZhiwei Xie /|rXiaochun Bai /|rRichard T. Tran --
|g16.2.|tDesign Strategies of CABEs /|rJinshan Guo /
|rDianna Y. Nguyen /|rRichard T. Tran /|rZhiwei Xie /
|rXiaochun Bai /|rJian Yang --|g16.2.1.|tPoly(Diol
Citrate) Synthesis /|rJinshan Guo /|rDianna Y. Nguyen /
|rJian Yang /|rZhiwei Xie /|rXiaochun Bai /|rRichard T.
Tran --|g16.2.2.|tMolecular Design of CABEs /|rJinshan Guo
/|rDianna Y. Nguyen /|rJian Yang /|rZhiwei Xie /|rXiaochun
Bai /|rRichard T. Tran --|g16.3.|tApplications of CABEs /
|rJinshan Guo /|rDianna Y. Nguyen /|rJian Yang /|rZhiwei
Xie /|rXiaochun Bai /|rRichard T. Tran --|g16.3.1.
|tCardiovascular Applications /|rJinshan Guo /|rDianna Y.
Nguyen /|rJian Yang /|rZhiwei Xie /|rXiaochun Bai /
|rRichard T. Tran --|g16.3.2.|tOrthopaedic Applications /
|rJinshan Guo /|rDianna Y. Nguyen /|rJian Yang /|rZhiwei
Xie /|rXiaochun Bai /|rRichard T. Tran --|g16.3.3.
|tBioimaging and Drug Delivery /|rJinshan Guo /|rDianna Y.
Nguyen /|rJian Yang /|rZhiwei Xie /|rXiaochun Bai /
|rRichard T. Tran --|g16.3.4.|tTissue Bioadhesive /
|rJinshan Guo /|rDianna Y. Nguyen /|rJian Yang /|rZhiwei
Xie /|rXiaochun Bai /|rRichard T. Tran --|g16.3.5.|tOther
Applications /|rJinshan Guo /|rDianna Y. Nguyen /|rJian
Yang /|rZhiwei Xie /|rXiaochun Bai /|rRichard T. Tran --
|g16.4.|tConclusions /|rJinshan Guo /|rDianna Y. Nguyen /
|rJian Yang /|rZhiwei Xie /|rXiaochun Bai /|rRichard T.
Tran --|tAcknowledgments /|rJinshan Guo /|rDianna Y.
Nguyen /|rJian Yang /|rZhiwei Xie /|rXiaochun Bai /
|rRichard T. Tran --|tReferences /|rJinshan Guo /|rDianna
Y. Nguyen /|rJian Yang /|rZhiwei Xie /|rXiaochun Bai /
|rRichard T. Tran --|g17.1.|tIntroduction /|rYong Wang /
|rMark R. Battig --|g17.2.|tBiomaterials /|rYong Wang /
|rMark R. Battig --|g17.3.|tNucleic Acid Aptamers /|rYong
Wang /|rMark R. Battig --|g17.3.1.|tUpstream Selection /
|rYong Wang /|rMark R. Battig --|g17.3.2.|tDownstream
Truncation /|rYong Wang /|rMark R. Battig --|g17.4.
|tDevelopment of Aptamer- Functionalized Biomaterials /
|rYong Wang /|rMark R. Battig --|g17.4.1.|tAptamer-
Functionalized Hydrogels /|rYong Wang /|rMark R. Battig --
|g17.4.2.|tAptamer-Functionalized Coatings /|rYong Wang /
|rMark R. Battig --|g17.4.3.|tAptamer-Functionalized
Nanomaterials /|rYong Wang /|rMark R. Battig --|g17.5.
|tConclusion /|rYong Wang /|rMark R. Battig --
|tAcknowledgement /|rMark R. Battig /|rYong Wang --
|tReferences /|rYong Wang /|rMark R.
505 00 |rBattig --|g18.1.|tIntroduction /|rSwaminathan Sethuraman
/|rAnuradha Subramaniam --|g18.2.|tNon-Degradable Polymers
as Biomaterials /|rSwaminathan Sethuraman /|rAnuradha
Subramaniam --|g18.2.1.|tPoly(Ethylene) /|rSwaminathan
Sethuraman /|rAnuradha Subramaniam --|g18.2.2.
|tPoly(Propylene) /|rSwaminathan Sethuraman /|rAnuradha
Subramaniam --|g18.2.3.|tPoly(Tetrafluoroethylene) /
|rSwaminathan Sethuraman /|rAnuradha Subramaniam --
|g18.2.4.|tPoly(Methyl Methacrylate) /|rSwaminathan
Sethuraman /|rAnuradha Subramaniam --|g18.2.5.
|tPoly(Dimethylsiloxane) /|rSwaminathan Sethuraman /
|rAnuradha Subramaniam --|g18.2.6.|tPolyurethanes /
|rSwaminathan Sethuraman /|rAnuradha Subramaniam --
|g18.2.7.|tPoly(Ethylene Terphthlate) /|rSwaminathan
Sethuraman /|rAnuradha Subramaniam --|g18.2.8.
|tPoly(Sulphone) /|rSwaminathan Sethuraman /|rAnuradha
Subramaniam --|g18.2.9.|tPoly(Ethyleneoxide) /
|rSwaminathan Sethuraman /|rAnuradha Subramaniam --|g18.3.
|tCharacterization /|rSwaminathan Sethuraman /|rAnuradha
Subramaniam --|g18.3.1.|tSurface Characterization /
|rSwaminathan Sethuraman /|rAnuradha Subramaniam --
|g18.3.2.|tBiostability /|rSwaminathan Sethuraman /
|rAnuradha Subramaniam --|g18.4.|tFuture Prospects /
|rSwaminathan Sethuraman /|rAnuradha Subramaniam --
|tReferences /|rSwaminathan Sethuraman /|rAnuradha
Subramaniam --|g19.1.|tIntroduction /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.2.
|tBiocompatibility of Polymeric Prostheses /|rTram T. Dang
/|rAli Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --
|g19.2.1.|tEffects of Implantable Prostheses on Host
Tissues and Immune System /|rAdnan Memic /|rMehdi Nikkhah
/|rTram T. Dang /|rAli Khademhosseini --|g19.2.2.
|tBiochemical Effects of Host Environment on Polymeric
Implants /|rTram T. Dang /|rAli Khademhosseini /|rAdnan
Memic /|rMehdi Nikkhah.
505 00 |gNote continued:|g19.3.|tStructural Compatibility and
Mechanical Durability of Polymeric Prostheses /|rTram T.
Dang /|rAli Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah
--|g19.4.|tApplications of Polymeric Biomaterials in
Implantable Prostheses /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.4.1.
|tCardiovascular Applications /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.4.2.
|tOrthopaedic Applications /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.4.3.
|tOphthalmologic Applications /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.4.4.
|tDental Applications /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.5.
|tEmerging Classes of Polymeric Biomaterials for
Implantable Prostheses /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.5.1.
|tAnti-Fouling Polymeric Coatings /|rTram T. Dang /|rAli
Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah --|g19.5.2.
|tPolymeric Surfaces to Direct Biological Responses /
|rTram T. Dang /|rAli Khademhosseini /|rAdnan Memic /
|rMehdi Nikkhah --|g19.5.3.|tShape-Memory Polymers /|rTram
T. Dang /|rAli Khademhosseini /|rAdnan Memic /|rMehdi
Nikkhah --|g19.6.|tConclusion and Perspectives /|rTram T.
Dang /|rAli Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah
--|tAcknowledgments /|rTram T. Dang /|rAli Khademhosseini
/|rAdnan Memic /|rMehdi Nikkhah --|tReferences /|rTram T.
Dang /|rAli Khademhosseini /|rAdnan Memic /|rMehdi Nikkhah
--|g20.1.|tIntroduction /|rDiane J. Burgess /|rBing Gu --
|g20.2.|tMechanical/Thermal Properties of Polymers /
|rDiane J. Burgess /|rBing Gu --|g20.2.1.|tStress-Strain /
|rDiane J. Burgess /|rBing Gu --|g20.2.2.|tViscoelastic /
|rDiane J. Burgess /|rBing Gu --|g20.2.3.|tDifferential
Scanning Calorimetry /|rDiane J. Burgess /|rBing Gu --
|g20.3.|tSurface and Morphological Characterization of
Polymers /|rDiane J. Burgess /|rBing Gu --|g20.3.1.
|tMorphology /|rDiane J. Burgess /|rBing Gu --|g20.3.2.
|tMolecular Weight and Particle Size /|rDiane J. Burgess /
|rBing Gu --|g20.3.3.|tSurface Characterization /|rDiane
J. Burgess /|rBing Gu --|g20.4.|tBiocompatibility Testing
of Polymeric Materials /|rDiane J. Burgess /|rBing Gu --
|g20.4.1.|tRegulatory Guidelines for Biocompatibility
Testing /|rDiane J. Burgess /|rBing Gu --|g20.4.2.
|tBiodegradable Polymers /|rDiane J. Burgess /|rBing Gu --
|g20.4.3.|tIn Vitro Cytotoxicity Assessment /|rDiane J.
Burgess /|rBing Gu --|g20.4.4.|tIn Vivo Biocompatibility
Evaluation /|rDiane J. Burgess /|rBing Gu --|g20.5.|tIn
Vitro Dissolution Testing Methods for Polymeric
Formulations /|rBing Gu /|rDiane J. Burgess --|g20.5.1.
|tRegulatory Guidelines and In Vitro-In Vivo Correlation /
|rDiane J. Burgess /|rBing Gu --|g20.5.2.|tIn Vitro
Dissolution Testing for Microspheres /|rDiane J. Burgess /
|rBing Gu --|g20.5.3.|tIn Vitro Dissolution Testing for
Nanoparticles /|rDiane J. Burgess /|rBing Gu --|g20.5.4.
|tIn Vitro Dissolution Testing for In Situ Gel
Formulations /|rDiane J. Burgess /|rBing Gu --|g20.6.
|tConclusions /|rDiane J. Burgess /|rBing Gu --
|tReferences /|rDiane J. Burgess /|rBing Gu --|g21.1.
|tIntroduction /|rXiaoyan Tang /|rShalumon Kottappally
Thankappan /|rPaul Lee /|rXiaojun Yu /|rMatthew D. Harmon
/|rKatelyn Tran /|rSahar E. Fard --|g21.2.|tNatural
Polymers in Tissue Engineering and Regenerative Medicine /
|rXiaoyan Tang /|rShalumon Kottappally Thankappan /|rPaul
Lee /|rXiaojun Yu /|rMatthew D. Harmon /|rKatelyn Tran /
|rSahar E. Fard --|g21.2.1.|tProteins as Biomaterials /
|rXiaoyan Tang /|rShalumon Kottappally Thankappan /|rPaul
Lee /|rXiaojun Yu /|rMatthew D. Harmon /|rKatelyn Tran /
|rSahar E. Fard --|g21.2.2.|tPolysaccharides as
Biomaterials /|rXiaoyan Tang /|rShalumon Kottappally
Thankappan /|rPaul Lee /|rXiaojun Yu /|rMatthew D. Harmon
/|rKatelyn Tran /|rSahar E. Fard --|g21.3.|tSynthetic
Polymers in Tissue Engineering and Regenerative Medicine /
|rXiaoyan Tang /|rShalumon Kottappally Thankappan /|rPaul
Lee /|rXiaojun Yu /|rMatthew D. Harmon /|rKatelyn Tran /
|rSahar E. Fard --|g21.3.1.|tPoly(a-Esters) /|rXiaoyan
Tang /|rShalumon Kottappally Thankappan /|rPaul Lee /
|rXiaojun Yu /|rMatthew D. Harmon /|rKatelyn Tran /|rSahar
E. Fard --|g21.3.2.|tPolyurethanes /|rXiaoyan Tang /
|rShalumon Kottappally Thankappan /|rPaul Lee /|rXiaojun
Yu /|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard -
-|g21.3.3.|tPolyphosphazenes /|rXiaoyan Tang /|rShalumon
Kottappally Thankappan /|rPaul Lee /|rXiaojun Yu /
|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard --
|g21.3.4.|tPolyanhydrides /|rXiaoyan Tang /|rShalumon
Kottappally Thankappan /|rPaul Lee /|rXiaojun Yu /
|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard --
|g21.3.5.|tPoly(propylene Fumarate) /|rXiaoyan Tang /
|rShalumon Kottappally Thankappan /|rPaul Lee /|rXiaojun
Yu /|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard -
-|g21.3.6.|tPoly(ethylene Glycol) /|rXiaoyan Tang /
|rShalumon Kottappally Thankappan /|rPaul Lee /|rXiaojun
Yu /|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard -
-|g21.3.7.|tPoly(Ortho Esters) /|rXiaoyan Tang /|rShalumon
Kottappally Thankappan /|rPaul Lee /|rXiaojun Yu /
|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard --
|g21.3.8.|tPolyphosphoesters /|rXiaoyan Tang /|rShalumon
Kottappally Thankappan /|rPaul Lee /|rXiaojun Yu /
|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard --
|g21.3.9.|tPoly(ester Amide)s /|rShalumon Kottappally
Thankappan /|rPaul Lee /|rSahar E. Fard /|rXiaoyan Tang /
|rKatelyn Tran /|rXiaojun Yu /|rMatthew D. Harmon --
|g21.4.|tConclusions /|rXiaoyan Tang /|rShalumon
Kottappally Thankappan /|rPaul Lee /|rXiaojun Yu /
|rMatthew D. Harmon /|rKatelyn Tran /|rSahar E. Fard --
|tAcknowledgments /|rXiaoyan Tang /|rShalumon Kottappally
Thankappan /|rPaul Lee /|rXiaojun Yu /|rMatthew D. Harmon
/|rKatelyn Tran /|rSahar E. Fard --|tReferences /|rXiaoyan
Tang /|rShalumon Kottappally Thankappan /|rPaul Lee /
|rXiaojun Yu /|rMatthew D. Harmon /|rKatelyn Tran /|rSahar
E. Fard --|g22.1.|tIntroduction /|rYuan Yin /|rAnjana Jain
/|rDina Rassias --|g22.2.|tCurrent Standards for Medical
Diagnostics in the CNS /|rYuan Yin /|rAnjana Jain /|rDina
Rassias --|g22.3.|tChallenge of Diagnostics in the CNS /
|rYuan Yin /|rAnjana Jain /|rDina Rassias --|g22.4.
|tPolymeric Nanoparticles /|rYuan Yin /|rAnjana Jain /
|rDina Rassias --|g22.5.|tLipid-Based Nanocarrier
Diagnostic Systems /|rYuan Yin /|rAnjana Jain /|rDina
Rassias --|g22.6.|tDendrimers /|rYuan Yin /|rAnjana Jain /
|rDina Rassias --|g22.7.|tQuantum Dots /|rYuan Yin /
|rAnjana Jain /|rDina Rassias --|g22.8.|tMicrobubbles /
|rYuan Yin /|rAnjana Jain /|rDina Rassias --|g22.9.
|tBiosensors /|rYuan Yin /|rAnjana Jain /|rDina Rassias --
|g22.10.|tToxicity /|rYuan Yin /|rAnjana Jain /|rDina
Rassias --|g22.11.|tTheranostics /|rYuan Yin /|rAnjana
Jain /|rDina Rassias --|g22.12.|tConclusion and Future
Opportunities /|rYuan Yin /|rAnjana Jain /|rDina Rassias -
-|tReferences /|rDina Rassias /|rYuan Yin /|rAnjana Jain -
-|g23.1.|tIntroduction /|rJustin L. Brown /|rBrittany L.
Banik --|g23.1.1.|tNanomedicine /|rJustin L. Brown /
|rBrittany L. Banik --|g23.1.2.|tNatural and Synthetic
Polymers /|rJustin L. Brown /|rBrittany L. Banik --|g23.2.
|tPolymeric Nanomedicine Considerations /|rJustin L. Brown
/|rBrittany L. Banik --|g23.2.1.|tNanoparticles /|rJustin
L. Brown /|rBrittany L. Banik --|g23.2.2.|tNanofibres /
|rJustin L. Brown /|rBrittany L. Banik --|g23.3.
|tPolymeric Nanomedicine Applications /|rJustin L. Brown /
|rBrittany L. Banik --|g23.3.1.|tDrug Delivery /|rJustin
L. Brown /|rBrittany L. Banik --|g23.3.2.|tRegenerative
Medicine /|rBrittany L. Banik /|rJustin L. Brown --
|g23.3.3.|tImaging /|rJustin L. Brown /|rBrittany L. Banik
--|g23.4.|tNanotoxicity and Polymeric Challenges /
|rBrittany L. Banik /|rJustin L. Brown --|g23.5.
|tConclusions /|rBrittany L. Banik /|rJustin L. Brown --
|tReferences /|rJustin L. Brown /|rBrittany L. Banik.
520 "Polymer scientists have made an extensive research for
the development of biodegradable polymers which could find
enormous applications in the area of medical science.
Today, various biopolymers have been prepared and utilized
in different biomedical applications. Despite the apparent
proliferation of biopolymers in medical science, the
Science and Technology of biopolymers is still in its
early stages of development. Tremendous opportunities
exist and will continue to exist for the penetration of
biopolymers in every facet of medical science through
intensive Research and Development. Therefore, this
chapter addresses different polymerization methods and
techniques employed for the preparation of biopolymers. An
emphasis is given to cover the general properties of
biopolymers, synthetic protocols and their biomedical
applications. In order to make the useful biomedical
devices from the polymers to meet the demands of medical
science, various processing techniques employed for the
development of devices have been discussed. Further,
perspectives in this field have been highlighted and at
the end arrived at the conclusions. The relevant
literature was collected from different sources including
Google sites, books and reviews"--|cProvided by publisher.
588 0 Print version record.
590 eBooks on EBSCOhost|bEBSCO eBook Subscription Academic
Collection - North America
650 0 Biopolymers.|0https://id.loc.gov/authorities/subjects/
sh85014255
650 0 Biodegradable plastics.|0https://id.loc.gov/authorities/
subjects/sh2001002928
650 7 Biopolymers.|2fast|0https://id.worldcat.org/fast/832670
650 7 Biodegradable plastics.|2fast|0https://id.worldcat.org/
fast/832000
655 4 Electronic books.
700 1 Kumbar, Sangamesh,|0https://id.loc.gov/authorities/names/
n2014000261|eeditor.
700 1 Laurencin, Cato T.,|0https://id.loc.gov/authorities/names/
n2002156206|eeditor.
700 1 Deng, Meng,|0https://id.loc.gov/authorities/names/
n2014000262|eeditor.
776 08 |iPrint version:|tNatural and synthetic biomedical
polymers.|bFirst edition|z9780123969835|w(DLC) 2014000085
|w(OCoLC)761843497
856 40 |uhttps://rider.idm.oclc.org/login?url=http://
search.ebscohost.com/login.aspx?direct=true&scope=site&
db=nlebk&AN=485106|zOnline eBook via EBSCO. Access
restricted to current Rider University students, faculty,
and staff.
856 42 |3Instructions for reading/downloading the EBSCO version
of this eBook|uhttp://guides.rider.edu/ebooks/ebsco
901 MARCIVE 20231220
948 |d20200122|cEBSCO|tEBSCOebooksacademic NEW 12-21,1-17
11948|lridw
994 92|bRID
