
Thermal Analysis of Polymeric Materials
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879 |
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diffusion, sliding, in crystals |
488, 489 |
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molecular dynamics simulation |
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527–529, 528, 529 |
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temperature dependence |
530 |
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dilatometer |
291, 296, 297, 407 |
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dilatometry |
77, 77 |
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Avrami analysis by |
272, 273 |
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application of |
298–303, 298–302 |
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principle of |
291–293, 292 |
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diluent method, for determination of |
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heat of fusion |
100, 100, |
715, 715 |
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dipole |
424 |
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diradical 15, 16 |
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dispersion |
28, 28 |
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distillation, steam |
100–101 |
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DMA 79, 412 |
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analysis of data 417–419, 418, 419 |
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application |
419–424, 420–424 |
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comparison, to periodic and non- |
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periodic experiments |
417 |
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with DSC and TMDSC |
418, |
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419, 609, 610, 610 |
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to DETA |
424, 427 |
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defined frequency |
413, 414 |
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energy dissipation |
418, 418 |
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principle and instrumentation |
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412–419, 415 |
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resonant 413, 413 |
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see also: viscoelasticity |
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temperature-modulated |
418, 636, |
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636, 637, 641, 642, 670, 671 |
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torsion pendulum |
413, 413, 414 |
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draw ratio |
32 |
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DSC |
77, 329 |
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applications |
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349–358, 359–354, |
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356–358 |
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baseline, method for heat of fusion |
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determination |
347, 347, |
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348, 348 |
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basic equations for |
346 |
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calibration |
338–340, 339, 340 |
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for heat capacity |
339, 340, 340 |
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for latent heats |
338, 339, 339 |
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for lag |
340, 355, 357, 358 |
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of onset temperatures of melting |
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with heating rate |
357, 358, |
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357, 358 |
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of temperature |
339, 340 |
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standards |
339, 340, 818, 818 |
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comparison, with DMA |
418, 419, |
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609, 610, 610 |
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coupled with TGA 439–443 development from DTA 820–823,
820–822 difference from DTA 821 dual 334, 335
extreme conditions, see: DTA, extreme condition
fingerprinting 350–354, 350–354 glass transition, measurement
354–355
calculation 835, 836, 836 heat capacity measurement
102–104, 103, 349–350 heat-flow-rate equation 835, 836,
835, 836
heat-flux 331–335, 820, 820 modern 332–335, 332, 335
mathematical treatment 340–348,
341–348
conditions for 341, 342
of heat capacity |
345–347, 346 |
of heat of fusion |
347, 348, 347, |
348
steady state 341–343, 341, 343, 841, 841
with temperature gradient 341–343, 341, 343
without temperature gradient 344–348, 344
melting, see: melting, by DSC online baseline correction
831–834, 831–833
power compensation 335–338, 336 principle of operation 337, 338
principle 329
standard, used for TMDSC with sawtooth modulation 837–839, 837–839
signals, standard and modulated
333
steady state 333, 333, 342, 841,
841
temperature gradient 343 DTA, and DTGA, data 439–443,
440–443 difference from DSC 821
early equipment 330, 821, 822 extreme conditions 824–829, 824,
825, 828, 829
fast measurement 826–828 low temperature 824
880 |
Subject Index |
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high temperature and pressure
825
see also: microcalorimetry ICTAC rules 438, 822, 823
fast, melting without reorganization, 268, 269, 612
see also: DSC 79 schematic 820
DTGA 439
Dulong-Petit’s rule 106, 110 dynamic mechanical analysis, see:
DMA
E
ebulliometer 60 Einstein 64
approximation of Cv 111 function 110, 110, 125 temperature 110, 110, 111, 111
elasticity, coefficient, isothermal, see: modulus
energy 578, 579, 579 thermodynamics 579, 579
entropy 579–583, 580 comparison to gas expansion
581, 581
fusion diagram 581–583, 582,
583
rubber, data 580 thermodynamics 580, 580, 581
Hookean 415, 416, 579 perfect 415
Poisson’s ratio 405, 405, 579, 580, 580, 581
see also: viscoelasticity electron, affinity 3
valence 3, 3 electronegativity 3, 3 elements, ancient 72 emanation thermal analysis 79
emulsion polymerization 217, 217 enantiomorph 463
end-group, determination 66 nomenclature 14, 16, 16
end-to-end distance 31, 31 restrictions 33
energy 75, 76, 76 bond 3, 4
table of 324 conservation of 76
density 183 |
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dissipation |
418, 418 |
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free |
91, 92 |
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ionization |
3 |
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level |
106, 107 |
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of atomization, table of |
324 |
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rotational |
37 |
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total |
106, 107 |
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quantum mecanical |
107 |
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entanglement |
33, 37, 572, 573, 573 |
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in gel formation |
231, 570 |
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limit |
192, 193, 576, 577 |
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enthalpy, H |
83, 84 |
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free |
92, 93, 304, 305 |
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at 0 K for polyethylene |
142 |
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close to equilibrium |
146 |
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distribution |
595, 595 |
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of formation, table 323 |
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partial molar, see: chemical |
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potential |
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of formation |
322, 322 |
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reference temperatures for H |
304 |
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see also: heat |
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entropy, S |
91, 91, 92 |
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conformational |
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39 |
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derivation of dS/dt |
814 |
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flux and production |
147, 147, 148, |
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148 |
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of evaporation |
182, 186, 539 |
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of fusion 537–547 |
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conformational, rule of |
544, |
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545 |
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orientational, rule of |
541, 542 |
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tables |
538–545 |
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translational, rule of |
538–541, |
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540 |
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of the liquid at 0 K |
140–142, 141 |
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of mesophase transitions |
554 |
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relationship to disorder |
814 |
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epitaxy |
246, 247, 247 |
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equation, Arrhenius |
263, 263, 817 |
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Avrami |
260–263, 261, 262 |
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derivation |
261 |
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examples |
271–274, 272–274 |
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general |
262 |
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use for lamellar and fibrillar |
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growth |
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263 |
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Barton |
761, 762, 762, 763 |
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Bragg 513, 513, 851 |
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Boltzmann |
94, 814 |
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Couchman |
764, 765 |
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Subject Index |
881 |
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Clausius-Clapeyron 300, 581, 582, 690
Debye, for heat capacity, see: function, Debye
for light scattering |
55 |
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for molar polarizability 426 |
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for viscosity |
64 |
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Einstein, heat capacity, see: |
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function, Einstein |
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mass-energy |
76 |
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viscosity |
64, 65 |
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Flory-Huggins |
VII, 55, 709–711, |
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709–711 |
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Fox 761, 761 |
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Freeman-Carroll |
263 |
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Fourier, of heat flow |
342, 343, |
835, 835, 836
Gibbs, for partial molar quantities
157
Gibbs-Di Marzio 760, 761 Gibbs-Duham 98, 98 Gibbs-Thomson 154, 155 Gordon-Taylor 760, 761 Johnston 762
Maxwell, relation of polarizability and refractive index 424, 808, 809
Nernst-Lindemann 105–106, 105 for organic molecules and
macromolecules 105, 106 Poisson 261, 261
Schneider 761, 761
Tarasov 125, 126 Tool-Narayanaswamy 683 van der Waals 51, 163 van’t Hoff 817
virial 55
Williams-Landel-Ferry 419, 577, 578
Wood 760 equipartition 107 esterification, energetics 201
rate 200
etching, by hydrolysis 236 chemical 191, 192, 236
Euler reciprocity relationship 813 evolved gas analysis 79 expansivity 105, 292
conversion, linear-to-volume 292 linear 292
table of, for solids 295
extensive thermodynamic quantities 75 extension, of flexible macromolecules
580
of rigid macromolecules 405, 479
F
Fahrenheit 281 temperature scale 281
fiber 503–507, 504–507 carbon 235
formation 530–533, 531–533 gel-spun, of polyethylene 569–571,
570, 571, 674–677, 674–677 of PET 409–411, 409–411, 505,
506, 505–507, 534, 535, 535, 677–670, 678, 679
see also: melting, of fibers shish-kebab morphology 503, 504 X-ray diffraction, of PET 504–506,
505–507
of polyethylene 513, 596, 596, 674, 674, 675
fingerprinting of materials by DTA or DSC 350–354, 350–354
flight, random 31, 31–32, 487, 487 Flory 9
flux of extensive thermodynamic quantities 88, 147, 148,
148
fold-length, in crystals 488–493 force-times-length term in enthalpy
expressions 304, 305,
579–582
Fourier series 840, 841, 841 freedom, degree of 106, 112
slowly responding 117 freely-jointed chain, equivalent 47, 48 Freeman-Carroll method 263–264, 263
445, 445
freezing point lowering 58–62, 59, 99,
99, 100, 711, 711 solvents for 60
function, Debye 113
one-dimensional 111, 112, 113,
125
three-dimensional 113, 113, 114
two-dimensional 112, 113 for chalcogenides, 2 and 3
116
882 |
Subject Index |
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Einstein |
110, 110 |
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Gibbs, see: enthalpy, free |
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Langevin 35 |
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of state |
82 |
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partition |
107, 107, 108 |
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Tarasov |
125, 126 |
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fitting to heat capacity 127, |
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127 |
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G |
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gas, law, Boyle’s 81 |
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Gay-Lussac’s |
81, 281, 281 |
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ideal |
36, 51, 81, 163, 581, 581 |
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conditions for the 163 |
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van der Waals’ |
36, 163 |
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kinetics |
81, 163 |
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gel 230–231, 231, 237 gel-permeation chromatography, see:
size exclusion chromatography
Gibbs 92
free energy or function, see: enthalpy, free
glass 6, 7, 165, 167
behavior of 180, 389–391, 391 motion in 572, 573
structure 572, 573 ordering of 592
pressure densified 690, 690 transition, see: transition, glass
glide plane 462, 463, 462 Goodyear 234
grafting 235, 235
gravity, center of 32, 32–33 Gimm’s tetrahedron 5, 5 group theory 460, 848 Gay-Lussac 282
H
heat 76, 81–84, 83 capacity 82, 83
additions scheme 131–133,
132, 133, 139, 140, 145 apparent 355, 356
apparent, contributions to 742 at arrested equilibrium 157 by DSC 349–350
by molecular mechanics calculation on cooling 86
heat, capacity, by TMDSC 364–369,
365–368, 385–388, 385–388 calculation, using the ATHAS
system 121–145, 123,
124–143, 144, 145 comparison to expansivity 303 complex 117–118, 118, 382,
384
crystallinity dependence 118–121, 119–121
determination of Cp Cv 104–106, 105
dissipative 117 equations for 101
for two energy levels 108 for harmonic oscillators 109,
110, 109, 110 imaginary 117
measurement 101–104, 103 missing, in case of symmetric
jump motion 555–558,
556, 557
of a liquid 131–133 of a solid 111–116
of copolymers 139, 768
of homologous series 128–133, 129, 132, 133
of liquid selenium 138–139,
139
of MBPE-9 137–138, 138 heat capacity of solid paraffins
327–329, 327, 328
of polyethylene, large-amplitude motion 136, 136
of polymethionine 136, 137 relation to the thermodynamic
functions 95
of polyoxides 128–131,
129–132
of poly(oxybenzoate-co- oxynaphthoate) 134, 135
of poly(styrene-co-butadiene) 139–140, 140
of polytetrafluoroethylene 134,
134, 135
of starch 142–144, 142, 143 on fast heating 157, 158 quantum mechanics 106–111,
107 thermodynamic theory
104–106
Subject Index |
883 |
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heat, content, see: enthalpy (H) development of the understanding of
71–75, 72
flow rate 147, 342, 343
as an example of a transport process 158, 158
derivation of the equation for 835, 836, 835, 836
difference between reversible and reversing 358
latent 84, 291
measurement of 304, 305, 305 see also: calorimetry
of combustion 309 of formation 322
of fusion, by DSC 355, 356, 356 diluent method 100, 100, 715,
715
of reaction, for organic compounds 323, 324, 324
pump 581
reference temperature for the (enthalpy) 304, 322
specific 82
unit of 304, 305 heating curve 290, 290, 291 helix 463
anticlined 474 axes 463, 464 class of 463, 464 enantiomorphs 463 handedness 463 irrational 463 isoclined 474 lattice 463–468
packing in crystals 471–473, 472 projection 464
Heller 801
Helmholtz free energy, see: energy, free Henry’s law 708, 708
Hildebrand, entropy of mixing of macromolecules 709, 709
hindrance, steric 37, 38
history of, calorimetry 304–307, 305 chemistry 1, 2, 1, 2
covalent structures 9, 10 crystals 165, 166, 455–457, 456 dilatometry 291–293, 293
DSC and DTA 329–331, 330 heat and temperature 71–75, 72 natural polymers 9–10, 11
synthetic polymers 11–12, 12 TGA 429, 429, 430 thermometry 279–283, 280
Hooke’s law 404, 405, 415, 416, 579 hydrodynamics 415
I
ICTAC 77, 78, 331 logo 72, 73, 77, 78
impingement, of crystals 239, 239, 240, 261
lines of 239, 240, 242 induction time 239, 241, 241 infinitesimal changes 75, 76 interference effects 52, 851
International Confederation for Thermal Analysis and Calorimetry, see: ICTAC
international temperature standard, see: ITS 1990
intensive thermodynamic quantities 75 inversion, axes 461, 462, 461
center of 461, 461 ionomer 236, 236 irradiation, with 60Co 234 irreversibility 94
Ising model, 122, 554, 555, 554, 555 isometric crystal, see: crystal, isometric isomer 17, 23
conformational 39 model 122
head-to-head 23 head-to-tail 23 rotational 37–40, 38, 39 positional 23
stereo 23, 848 structural 23
isomorphism, see: crystals, isomorphism
isotacticity 24
ITS 1990 281, 818, 818, 819 IUPAC 13
J
Joule 74
Journal of Thermal Analysis and Calorimetry 77, 331
jump-motion in crystals 555–558, 556,
557
884 |
Subject Index |
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K
Kauzmann paradox 142 Kauzmann temperature 140 Kekulé 9
Kelvin 74 kinetics 189, 817
nonisothermal 263–264, 263 Kossel crystal 249, 250
Kuhn 47
length 47, 48, 48, 49 kurtosis 28, 28
L
Laplacian operator 835 Lavoisier 73
LC, see: liquid, crystal Le Chatelier 330
Legendre transformation 93, 813 length, comparison 293–295, 294, 295
measurement, 291–295, 292–295 by interference microscopy
294, 819 standard 291
krypton-86 819 scale, macroscopic V,
microscopic V, 37 lifetime, determination by TGA
446–449, 447, 449 linearly variable differential
transformer, see: LVDT liquid, definition 164, 165, 575
crystal 167, 169, 170, 171, 172 amphiphilic, block copolymer,
structure of 484, 485, 484, 485, 724, 724, 725
cold crystallization 547, 548 examples 171, 172, 172, 547,
548
glass transition, see: transition, glass
gradual change of order 560 macromolecular 553, 553 nematic 169, 552, 553, 552,
553
nematic, macromolecular 553,
553
nematic, one-phase structure of 553, 553
see also: mesophase
smectic 169, 552, 552, 553,
553
soap, transitions 562, 562 thermotropic 724, 724
glass transition, see: transition, glass phase, see: phase, amorphous
liquidus line 100
Lissajous figure 379, 380, 380, 381, 386, 386, 397, 397
LVDT 294, 295, 295, 407
M
macroconformation 32, 486–489, 487 of molecules in crystals 486–488
macromolecule 6–7, 6 see: polymer
macrophase 162 mass 428, 429 material property 512
Maxwell, model, see: viscoelasticity, models
relations 93, 813 Maxwell-Boltzmann distribution of the
speeds of molecules of a gas
815
mean, arithmetic 28, 28 melting 6, 165
broadening of range of 400, 597 by DSC 339, 355–358, 356–358 by TMDSC 396–401, 397, 399,
401 equilibrium 151 experiments 264–275
free enthalpy diagrams 152–154 kinetics 238
mechanism 538 temperature, change with
crystallization temperature
613, 635, 661–663 extrapolation to equilibrium
154, 155, 537, 660, 661 odd-even effect 327–329, 329, 543,
757
of alkali halides, table of 540, 541,
541
of copolymers 725–758, 734–748,
750–753, 755–758
block 723–725, 747–755, 748,
750–753, 755, 756 alternating 751–754, 751–753
Subject Index |
885 |
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LLDPE 733–742, 735–742 PETcoOB 743, 743, 744 POBcoON 743–747, 744–747 regular 756–758, 757, 758 theory 725–733, 726, 727–733 with long long and short side-
chains 755, 756
of crystals of linear hydrocarbons 542–544, 543
of fibers 672–681, 673–681 of lamellae 148–155, 149, 150
of macromolecules 544–547, 544,
545
of nonspherical motifs 541–542,
542
of PEEK 668–672, 669–672
of polyethylene 611–623, 612, 613,
616–623
of polymers with long side chains 754, 755, 755, 756
of poly(oxymethylene) 666–668,
666, 667
of polypropylenes 644–649,
644–649
of poor crystals 652–654, 652–654 of spherical motifs 538–541,
538–541
of the fold surface of polyethylene 623, 623
of the growth face of polypropylene 646, 647, 647
prediction of 536–547, 537–545 rate 255–256, 256, 268 reorganization during 400, 401,
401
reversible, decoupling of segments of polymer chains 649–651, 651
of poly( -caprolactone) 641–643, 642–644
of polycarbonate 637–639,
637–639
of polynaphthoate 634–637,
635, 636
of poly(oxyethylene) 264–265,
264, 265, 624–627, 624–627 of poly(phenylene oxide)
639–641, 640, 641
of polyterephthalates 628–634,
628–634 reversing, table 650
surface melting 529, 530, 623, 623, 646, 647, 647
under strain 581–583, 582, 583 zero-entropy-production 151, 153,
154, 154 mer 13, 191 mesogen 169
mainand side-chain 26 mesophase 165, 167, 169–175, 547–571
characteristics of the three 171 classes of 165, 166, 551–555,
552–554
cold crystallization 547, 548 examples 561–571, 561–565,
567–571
glass 166, 167, 175, 176 transition, see: transition, glass
gradual change of order 560 motion in 551, 552, 552 summary 572
metal, heavy, density 5 microcalorimeter, based on AFM 269,
270, 331 principle of 829, 829
for small amounts of heat, based on a design of Tian and Calvet 314, 315
data and loss calculation 315–317, 316
microcrystalline powder 236 micrometer screw 293 microphase 162, 167 microscopy, polarizing 850 Miller index 458–460, 459 mirror plane 461, 462 mixing, entropy of 97, 97
free enthalpy of 97 ideal 97, 97
solids, liquids, and gases 96 modulus 404
bulk 404, 404 table 405
comparison to heat capacity 418,
419 complex 418, 418 dynamic 413 shear 404, 404
tensile 404, 404, 405, 406, 406 rubber elastic plateau 406 viscous flow
886 |
Subject Index |
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three-phase model 534, 534 Moiré pattern, optical analog 522,
852–853
molar quantities, partial 98, 98, 712,
712
mole 428
molecular mass, determination, by AFM 67
by boiling point elevation 58–62, 59, 60
by calorimetry 67 by dilatometry 67
by electron microscopy 67 by freezing point lowering
58–62, 59
by light scattering 54, 54 by melt viscosity 67
by membrane osmometry 65 by solution viscosity 63–65
distribution 27, 27–30, 33–37 examples 30
Gaussian 33, 34, 35 number average 29, 29 polydispersity 30
see also: reaction, chain and reaction, step
weight average 29, 30 molecule 2, 2
amphiphilic 170, 563, 563, 724 classification scheme 6–8, 6, 8 pseudo 3
size unit of, compared to the humansize unit V
small, definition 6, 6 structure 3–5
compared to motion V moment 27–28
calculation of 28, 28 monomer 13
motion, compared to structure V molecular, types of 121, 122 large-amplitude 121, 122
N
nanophase 162, 162, 168, 169 NATAS, 77, 77, 331
Natta 209
Nernst 94
network, interpenetrating 26 neural 84, 88, 811–812
Newton 280 Newton’s law 290
normal mode analysis 121, 123, 816 North American Thermal Analysis
Society, see: NATAS nucleation, athermal 241
critical 243, 243
table of dimensions 244 heterogeneous 240, 246–249, 246,
248, 249
homogeneous, 240, 244–246, 244,
245 rate of 244
induction time 238, 241, 241 molecular 253–255, 254, 398
critical length for 254, 255 evidence for 253
observation of 238, 239, 240–242,
241
primary 240, 242–246, 252 thermodynamics of 242, 243
rate, evaluation 240–242, 240 secondary 249–253, 250, 251, 252 tertiary 253
thermal 240 numbers, types of 849
complex 117, 816, 849 rational and irrational 463, 849
O
oligomer 191 properties 192, 193
synthesis 191–192, 192 oscillation, see: vibration osmometry, membrane 65–66, 65
vapor phase 61 Ostwald 664
ripening 664
rule of successive states 564
P
packing fraction 302, 302, 303 of rods 469
in polymer crystals 468–471,
469–472, 474–482 544, 544, 545
partial changes, infinitesimal 75, 76 partition function 107, 107, 108 PC, see: plastic crystal
Subject Index |
887 |
|
Peltier effect 314, 315 permittivity 425
complex 426–428, 427 phase 162
amorphous 165
fraction, rigid, see: RAF model, 573
property, structure sensitive or insensitive 574, 575 structure 572–574, 573, 574
property 574, 575
viscosity 575–578, 575–577 areas of single-component systems
593, 593–597 condensed 167, 177
description V, 162–171, 163, 167, 168, 170, 171, 176–178, 177, 178, 706–709, 708
diagram 706–725, 706–722, 724 by DSC 706, 706, 707
by thermometry 290 eutectic 100, 290, 291
for many polymeric components 718–723, 719–722
irreversible, macromolecule with small molecules 715, 716, 716–717, 720, 722
of block copolymers 723–725,
724
of small molecules 99–101,
100
polymer and low-mass components 714–717, 715,
716
polymer and low-mass homologs 717–723, 717–722
pVT 298–301, 300, 301 thermodynamics 706–708,
706–708
equilibrium, of macromolecules with macromolecules 710, 717, 717, 718
of macromolecules with its homologous oligomers 718–723, 718, 719–722
of macromolecules with small molecules 708, 708, 709–715, 709–715
of small molecules 99–101, 99, 100, 708, 708
modulus for three 534, 534 rule 181, 707
separation, liquid-liquid 712–714,
712–714
sizes 162, 167–169, 168 solid 6, 7, 176
see also: glass or crystal transition, see: transition, phase
pipette 295, 296 plasma V
plastic crystal 167, 170, 170, 171 examples 172–174, 172, 173, 539,
540, 540 see also: mesophase
motion in 551, 552, 552 plastics, 7, 24, 234
colloquialism for the easily shaped polymeric (macromolecular) materials, for details, see: polymer
plateau, rubber-elastic 406, 406 point group 460
mumber of 462 polarization 424, 425, 425 polydispersity 30, 224 polymer 6, 6, 7, 13
branched 24–26, 25, 197, 733–735,
734, 735 brushes 25, 25
characterization of 50–67, 51–57,
58–66 flexible 6
identification, with TGA 439
by DTA, DSC 350, 351, 351 ladder 24–25, 24
living, see: reaction, chain, without termination
molecule, differences to small molecules VI, VII
chain structure, polar and nonpolar 480
macroconformations, linear 486–488, 487
network 24–26, 25, 26 nomenclature, abbreviations 16, 17
copolymers, isomers 22–24,
22, 23 seniority list 14
source based 13–22, 13, 18–21 structure based 13–22, 14, 15,
18–21
888 |
Subject Index |
|
reaction 233–238, 233–237 rigid 6, 7
semicrystalline 488 transitions 536, 537, 537
ultimate strength 533–535, 534,
535
polymerization, degree of 27 emulsion 217, 217
living, see: reaction, chain, without termination
Merrifield method 190–192, 192, 237
of lithium phosphate 201–206,
202–206 see also: reaction
stereo-specific 207, 209 topotactic 510, 511 Ziegler-Natta 209–211, 210, 211
potentiometer 288
production, of extensive thermodynamic quantities 88, 147, 148,
148 sign of 88
properties, colligative 51, 58, 65, 96 prediction of 226, 227
purity analysis 319–320, 320, 321 pycnometer 295, 296, 296 pyrolysis 232
see also: decomposition pyrometer 289, 819 pyrosynthesis by DTA 354, 354
R
radiation, scattering 801–805 electromagnetic 50 electron 66
neutron 66 radius, atomic 3, 302
van der Waals 37, 301, 302 RAF 138, 605, 607–609, 607–609, 693, 694, 694
formation on crystallization 608,
609
disappearance on melting 641, 641 glass transition, see: transition,
glass Raoult’s law 708, 708 Rayleigh 51
ratio 54, 54, 809, 809, 810 derivation 806–810, 807–809
reaction, chain, copolymer 227–229,
227, 228
emulsion polymerization, 217,
|
217 |
|
|
|
|
|
|
|
equilibrium |
|
214, 214, 215 |
||||||
initiation |
208 |
|
|
|||||
kinetics |
|
212–214, 213 |
|
|||||
list of monomers, 212 |
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|||||||
mass average |
225–226, 225, |
|||||||
|
226 |
|
|
|
|
|
|
|
mechanism |
206–212, 207 |
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number and mass fraction |
|
|||||||
|
221–223, 222, 223 |
|
||||||
molar mass fraction |
221–223, |
|||||||
|
222, 223 |
|
|
|
||||
without termination |
215–216, |
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|
216 |
|
|
|
|
|
|
|
chemical, by TMDSC |
402, 403, |
|||||||
|
402, 403 |
|
|
|
||||
interchange, see: transamidation |
||||||||
|
and transesterification |
|
||||||
kinetics, rate equations |
817 |
|
||||||
molecular length dependence in |
||||||||
|
esters |
200 |
|
|
||||
matrix |
218–219, 218 |
|
|
|||||
polymer |
233–238, 233–237 |
|
||||||
ring-chain |
138, 138, 139, 194, 199, |
|||||||
|
199, 219 |
|
|
|
||||
step, aromatic polymers 198 |
|
|||||||
conditions |
198–199, 199 |
|
||||||
copolymer |
229, 230, 230 |
|
||||||
equilibrium |
219 |
|
|
|||||
examples |
196–198, 196–198 |
|||||||
kinetics |
|
200, 200, 201, 201 |
||||||
lithium phosphate |
201–206 |
|||||||
mass average |
224–225, 224 |
|||||||
mechanism |
193–195, 194 |
|||||||
molar mass |
219–221, 221 |
|||||||
number and mass fraction |
220 |
|||||||
polydispersity |
224 |
|
|
|||||
statistics |
195, 196 |
|
|
|||||
poymers, produced via chain |
||||||||
|
reactions |
216 |
|
|
||||
stepwise |
189–193, 190–192 |
|
||||||
recrystallization |
|
655-666, 655–665 |
||||||
relaxation |
159 |
|
|
|
|
|
|
|
time 159–161, 159, 160, 161 |
|
|||||||
Debye |
117, 160 |
|
|
|||||
change with temperature |
685 |
|||||||
process |
|
158–159 |
|
|
|
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see also: |
stress relaxation |
|