Page 367 - Biodegradable Polyesters
P. 367

Index  345
               – intramolecular ester interchange mechanism poly(L-lactide) (PLA) 74
                  13                           poly(L-lactide-co-D,L-lactide) (PLDLLA) 10
               – ring-opening polymerization  12, 13  poly(L-lactide-co-ϵ-caprolactone)s (PLACLs)
               – surgery implantation  14, 15    138
               – thermal and mechanical properties  13, 14  Poly(MDO-co-MMA-co-DMAEMA.BrC 2 H 5 )
               poly(lactic acid) (PLA) 192       36
               – advantages  109               poly(NIPAAm-co-BMDO) 37
               – α/α’ crystals  111            poly(PEG-b-(BMDO-co-DMAEMA))  36
               – 6-membered cyclic esters 9    poly(propylene alkylanedicarboxylate)
               – applications  11, 12            polyesters
               – biomedical applications  109  – applications  80
               – chemical and physical properties  10, 11  – cold crystallization temperatures 81
               – cold-crystallization vs. melt-crystallization  – crystallization half-times  82
                  116–118                      –DSC traces  81
               – composites 334                – enzymatic hydrolysis  83–85
               – crystallization rates, molar mass influence  – equilibrium melting points 81
                  120, 121                     – esterification modeling, see esterification
               – crystal polymorphism 111         reaction kinetic modeling
               – DSC data  203                 – glass transition temperature 81
               – elongation at break 112, 113  – melt polycondensation method 79
               – food-packaging 12             –melting points 80
               – half-time of crystallization  119  – polycondensation modeling, see
               – isothermal bulk crystallization rates  polycondensation reaction kinetic
                  119–121                         modeling
               – limitations  109, 125         – step reaction kinetic modeling  85–87
               – microbial synthesis 64, 65    – synthesis methods 78
               – microfibrils  223              poly(propylene succinate) (PPSu)
               – non-isothermal bulk crystallization rates  – esterification kinetics, see esterification
                  120, 121                        reaction kinetic modeling
               – nucleation rate  114          – polycondensation kinetics, see
               – onset time of crystal nuclei formation vs.  polycondensation reaction kinetic
                  temperature 115, 117            modeling
               – plasticizers effect  117, 119  poly(propylene terephthalate) (PPT)  75
               – polarizing optical microscopy (POM)  poly(R,S-3-hydroxybutyrate) (a-PHB) 330
                  images  114, 116, 118        poly(trimethylene carbonate) (PTMC)  139
               – publication trend  6          poly(trimethylene carbonate-co-D,L-lactide)
               – ring-opening polymerization  9, 10  random copolymers 139
               – 6-membered cyclic esters 9    poly(ϵ-caprolactone) (PCL) 192
               – spherulite density vs. crystallization  – DSC data  203
                  temperature 114              – XRD analysis  203
               –spherulite growth rates, D-lactic acid  poly[(3-hydroxybutyrate)-co-(3-hydoxy-
                  content influence  122, 123     valerate) (PHBV) 139
               – stereocomplex crystals  123, 124  polybenzoxazine-PU conetworks 146
               – synthetic routes 110          polycaprolactone (PCL) 74
               – thermal analysis data  10     polycondensation reaction kinetic modeling
               – three-phase structure 112–114  – end group analysis  103, 104
               – water vapor permeability  112, 113  – intrinsic viscosity vs. time  102, 103
               – WAXS patterns  112            – kinetic rate constants 103, 105
               – XRD analysis  203             – mathematical model, development of 101,
               – Young’s modulus  112, 113        102
               poly(L-lactic acid) (PLLA)      – reaction scheme  100, 101
               – onset time of crystal nuclei formation vs.  – theoretical simulation curves  102–104
                  temperature 117              poly-D,L-lactide (PDLLA) 10
               – stereocomplex crystals  124   poly-D-lactide (PDLA) 10, 11
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