378 INDEXBromeliaceae 29bromeliads 30Bryonia 168bud 361axillary 182, 221dormancy 183bundle sheath 26, 26–28, 230, 237C see carbonC 3 cycle 22–23, 23, 26, 29, 237C 4 cycle 26–27, 27, 33, 35, 237, 237C 3 plants 22–24, 26, 28, 28, 29, 35, 37, 38C 4 plants 26, 26–28, 28, 29–30, 35, 37,38, 105, 129Ca 2+ see calcium ionCactaceae 29cacti 95, 96, 347, 362calcium 103, 336ion (Ca 2+ ) 103, 106, 112, 116, 118,199, 263, 295–296channels 199, 295, 360cellular concentration 22, 117,118, 199, 336oscillation 199, 200pumps 117as second messenger 103, 336oxalate 112, 333pectate 103sensitive dye see Fura-2sensitive protein see Cameleonproteincallose 136, 151, 153, 292, 295, 296callus 206, 213, 218, 292cultures 184, 206calmodulin 263, 336Calvin cycle see C 3 cycleCAM see Crassulacean acidmetabolismcambiumactivity 228cork 228, 242development 227fascicular 227interfascicular 227vascular 50, 227–228, 241Cameleon protein 199, 201Camellia sinensis see teacampion 308canola see oilseed rapecapillarity 77, 83, 85, 86Capsella bursa-pastoris see shepherd’spursecarbohydrate 28, 133, 138, 281oxidation 39photosynthetic product 23, 32respiratory substrate 39seed reserve 303see also starch; sugar;polysaccharidecarbon 9–11, 101cycle, in biosphere 9, 10, 22global store 11, 32, 34global turnover 11carbon dioxide (CO 2 ) 9–12concentration 12, 17, 19, 24, 25, 30,32, 36, 234–235, 310, 323diffusion 18–19, 20, 28, 38, 96fixation see photosynthesisradioactive ( 14 CO 2 ) 24, 26, 134carbonate 9, 11, 105carbonic anhydrase 26, 105-carotene 13, 353carotenoid 14, 17, 18, 182, 309, 337absorption spectrum 13carpel 285Casparian strip 74, 74, 75, 110–111castor bean 137, 139, 140, 293, 304catalase 16, 24, 104, 353cationsadsorption 107, 107–108exchange 107in soil 107cavitation 80–85, 84, 349cDNA see DNAcellcultures 163, 189, 206cycle 168, 207–211, 208, 210division 163, 184, 189, 205–206,207, 208, 209, 211, 213, 213,223–224, 227–228, 231,233–234, 239–241, 275,301–302, 308, 311asymmetric 233–234, 241, 292,301elongation 67, 181expansion 104, 163, 207, 213–218,225, 232, 308, 311, 320number 213, 213size 207cell wall 64, 79, 83, 84, 107, 109–110,155, 216, 225, 308, 354composition 103, 104, 105elasticity 215enzymes <strong>of</strong> wall metabolism 218,308, 309extensibility 62, 215, 232growth 214, 214–218, 216ingrowths 143, 301plasticity 215, 217, 309protein in 215secondary 71secondary thickenings 20, 71cellular differentiation 163–164,218–219, 232, 241gradient-dependent 218–219in meristems 224polarity and cell division 218–219position-dependent 218, 224, 226totipotency 206cellulase 214cellulose 215, 218, 295micr<strong>of</strong>ibrils 21, 214, 215, 216CEN (CENTRORADIALIS) gene 283centrifugation 80, 332, 332Cercidium see paloverdecereals 29, 34, 104, 183, 302, 304, 315,336Chamaegigas intrepidus 348chamise 69channels 116, 117ion 22, 118, 199, 232stretch-activated 336water see aquaporinschaperone protein 353, 366chaperonin 139Chara 333, 334, 334chemical potential <strong>of</strong> water (m w ) 96chemiosmosis 15chemotropism 295, 320Chenopodiaceae 29, 144Chenopodium album 230, 230, 246Chenopodium rubrum 273, 274cherry 309chilling injury 355, 357–358chilling stress see stress, lowtemperaturechloride (Cl ) 22, 105, 113, 115, 117,199, 354chlorine 105chlorophyll 14, 16, 25, 31, 33, 104,259, 309absorption spectrum 13, 13, 22, 252synthesis 104, 224, 247, 257chloroplast 18, 22, 24, 26, 26, 41, 104,211, 247, 257, 309, 349, 357, 360division 211–212, 212genome 264movement 338, 339structure 14, 15, 24, 211Cholodny–Went model <strong>of</strong> tropisms325, 326–327, 331chromatid 209
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The Physiology of Flowering PlantsF
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ContentsPrefacepage ixChapter 1 Int
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CONTENTSVIIChapter 10 Photomorphoge
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PrefaceThe history of this book dat
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Chapter 1Introduction1.1 Appreciati
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MOLECULAR BIOLOGY AND PLANT PHYSIOL
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OUTLINE OF THE TEXT 5all organisms
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Part INutrition and transport
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10 FLOW OF ENERGY AND CARBON THROUG
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12 FLOW OF ENERGY AND CARBON THROUG
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14 FLOW OF ENERGY AND CARBON THROUG
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16 FLOW OF ENERGY AND CARBON THROUG
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18 FLOW OF ENERGY AND CARBON THROUG
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20 FLOW OF ENERGY AND CARBON THROUG
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THE FIXATION OF CARBON DIOXIDE 23Fi
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THE FIXATION OF CARBON DIOXIDE 25Fi
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THE FIXATION OF CARBON DIOXIDE 27Fi
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THE FIXATION OF CARBON DIOXIDE 29va
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LIMITING FACTORS FOR PHOTOSYNTHESIS
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THE EFFICIENCY OF ENERGY CONVERSION
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THE EFFICIENCY OF ENERGY CONVERSION
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PHOTOSYNTHESIS AND THE INCREASE IN
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RESPIRATION: THE OXIDATIVE BREAKDOW
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RESPIRATION: THE OXIDATIVE BREAKDOW
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RESPIRATION: THE OXIDATIVE BREAKDOW
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RESPIRATION: THE OXIDATIVE BREAKDOW
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TERMINAL OXIDATION AND OXIDATIVE PH
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ANAEROBIC RESPIRATION 49Table 2.3 T
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ANAEROBIC RESPIRATION 51grass Echin
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RESPIRATION AND PLANT ACTIVITY 53of
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higher rate of ATP synthesis. The r
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RESPIRATION AND PLANT ACTIVITY 57he
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D. D. Lefebvre & D.B. Layzell. Harl
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WATER POTENTIALS OF PLANT CELLS AND
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WATER POTENTIALS OF PLANT CELLS AND
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WATER POTENTIALS OF PLANT CELLS AND
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WATER POTENTIALS OF PLANT CELLS AND
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WATER RELATIONS OF WHOLE PLANTS AND
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lumina of these cells are blocked w
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WATER RELATIONS OF WHOLE PLANTS AND
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WATER RELATIONS OF WHOLE PLANTS AND
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WATER RELATIONS OF WHOLE PLANTS AND
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atmosphere is very humid and water
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WATER RELATIONS OF WHOLE PLANTS AND
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flow. How is this to be reconciled
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THE TRANSPORT OF SOLUTES IN THE XYL
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WATER UPTAKE AND LOSS 87When a soil
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WATER UPTAKE AND LOSS 89Fig:3:12 Th
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WATER UPTAKE AND LOSS 91excluding s
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gives the ‘bloom’ to glaucous l
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WATER CONSERVATION 95much slower wa
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WATER CONSERVATION 97different syst
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Huber, B. (1956). Die Gefäßleitun
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ESSENTIAL ELEMENTS 101pollution of
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used as drugs, e.g. morphine, nicot
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ESSENTIAL ELEMENTS 105oxidoreductio
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ION UPTAKE AND TRANSPORT IN THE PLA
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ION UPTAKE AND TRANSPORT IN THE PLA
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the argument lies in extrapolating
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sp. and Valonia sp. One Nitella cel
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ION UPTAKE AND TRANSPORT IN THE PLA
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ION UPTAKE AND TRANSPORT IN THE PLA
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ION UPTAKE AND TRANSPORT IN THE PLA
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ION UPTAKE AND TRANSPORT IN THE PLA
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NITROGEN ASSIMILATION, FIXATION AND
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NITROGEN ASSIMILATION, FIXATION AND
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NITROGEN ASSIMILATION, FIXATION AND
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In natural habitats, the elements a
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REFERENCES 131Brown, P. H., Bellalo
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Chapter 5Translocation of organicco
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PHLOEM AS THE CHANNEL FOR ORGANIC T
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PHLOEM AS THE CHANNEL FOR ORGANIC T
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THE RATE AND DIRECTION OF TRANSLOCA
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THE RATE AND DIRECTION OF TRANSLOCA
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PHLOEM LOADING AND UNLOADING 143Fig
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PHLOEM LOADING AND UNLOADING 145Apo
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PARTITIONING OF TRANSLOCATE BETWEEN
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THE MECHANISM OF PHLOEM TRANSLOCATI
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The dimensions of transport channel
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THE MECHANISM OF PHLOEM TRANSLOCATI
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THE MECHANISM OF PHLOEM TRANSLOCATI
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REFERENCES 157ReferencesBalachandar
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Chapter 6Growth as a quantitativepr
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GROWTH, DEVELOPMENT AND DIFFERENTIA
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CONDITIONS NECESSARY FOR GROWTH 165
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GROWTH RATES 167Fig: 6:1 The effect
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GROWTH RATES 169generally high rate
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GROWTH RATES 171Area of leaf surfac
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GROWTH RATES 173The smooth growth c
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GROWTH RATES 17524-hour cycle. The
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Chapter 7Plant growth hormones7.1 I
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PLANT GROWTH HORMONES 179The concen
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PLANT GROWTH HORMONES 181system pro
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PLANT GROWTH HORMONES 183growth-pro
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PLANT GROWTH HORMONES 185traditiona
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PLANT GROWTH HORMONES 187plants. Mu
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PLANT GROWTH HORMONES 189molecules
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DETECTION AND QUANTIFICATION OF HOR
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purified hormone. Figure 7.7 shows
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HOW DO PLANT HORMONES CAUSE RESPONS
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HOW DO PLANT HORMONES CAUSE RESPONS
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HOW DO PLANT HORMONES CAUSE RESPONS
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HOW DO PLANT HORMONES CAUSE RESPONS
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REFERENCES 203Lindsey, K. Plant pep
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Chapter 8Cell growth and differenti
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MERISTEMS AND CELL DIVISION 207gene
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MERISTEMS AND CELL DIVISION 209doub
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MITOCHONDRIAL AND PLASTID DIVISION
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CELL EXPANSION: MECHANISM AND CONTR
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CELL EXPANSION: MECHANISM AND CONTR
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CELL EXPANSION: MECHANISM AND CONTR
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REFERENCES 219pteridophytes a polar
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Chapter 9Vegetative development9.1
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THE STRUCTURE AND ACTIVITY OF THE S
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ORGAN FORMATION 225in the clv1 muta
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SECONDARY GROWTH 227developing vasc
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DEVELOPMENT OF THE LEAF 229marginmi
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DEVELOPMENT OF THE LEAF 231plastic
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DEVELOPMENT OF THE LEAF 233ABFig: 9
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DEVELOPMENT OF THE LEAF 235an airti
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DEVELOPMENT OF THE LEAF 237identifi
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THE STRUCTURE AND ACTIVITY OF THE R
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THE STRUCTURE AND ACTIVITY OF THE R
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REFERENCES 243of nitrate-starved Ar
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Sinha, N. (1999). Leaf development
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THE SWITCH FROM ETIOLATED TO DE-ETI
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PHYTOCHROME AND PHOTOMORPHOGENESIS
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PHYTOCHROME AND PHOTOMORPHOGENESIS
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PHYTOCHROME AND PHOTOMORPHOGENESIS
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UV-A/BLUE LIGHT PHOTORECEPTORS (CRY
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UNRAVELLING PHOTOMORPHOGENESIS 257g
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UNRAVELLING PHOTOMORPHOGENESIS 259p
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UNRAVELLING PHOTOMORPHOGENESIS 261A
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PHYTOCHROME SIGNAL TRANSDUCTION 263
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PHYTOCHROME SIGNAL TRANSDUCTION 265
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PHYTOCHROME SIGNAL TRANSDUCTION 267
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Sweere, U., Eichenberg, K., Lohrman
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THE CONTROL OF FLOWERING BY DAYLENG
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THE CONTROL OF FLOWERING BY DAYLENG
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THE CONTROL OF FLOWERING BY DAYLENG
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PLANT SIZE AND FLOWERING 277Again,
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THE REGULATION OF FLORAL INDUCTION
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FLORAL DEVELOPMENT 281which, as the
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FLORAL DEVELOPMENT 283SAM becomes a
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FLORAL DEVELOPMENT 285named NEEDLY,
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A = sepalA = sepalA = sepalB + C =
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activities, leaf-like structures ar
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THE FORMATION OF POLLEN 291Fig: 11:
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THE FORMATION OF THE EMBRYO SAC 293
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POLLINATION 295orchids, the ovule p
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POLLINATION 297mechanism is exhibit
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POLLINATION 299from differences in
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EMBRYO FORMATION 301development of
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SEEDS AND NUTRITION 30311.11.3 Apom
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SEEDS AND NUTRITION 305(e.g. pea, b
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SEEDS AND NUTRITION 307Seeds also c
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FRUIT DEVELOPMENT 309AUXINSGIBBEREL
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SEED DORMANCY 311auxin, cytokinin a
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SEED DORMANCY 313ABALeaching ofABA
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GERMINATION AND THE RESUMPTION OF G
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McDaniel, C. N. & Poethig, R. S. (1
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NASTIC RESPONSES 319Venus flytrap (
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TROPISMS 321positively gravitropic
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TROPISMS 323before resuming horizon
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TROPISMS 325AUnilateral illuminatio
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TROPISMS 327ABUniform illumination
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TROPISMS 329ABsensitivity as much a
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TROPISMS 331accumulates on the late
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TROPISMS 333The role of statolithsT
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TROPISMS 335If the sedimentation of
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TROPISMS 337be a result of cell dam
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TROPISMS 339ADBECTransmission (%)16
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REFERENCES 341be abolished by subse
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Okada, K., Ueda, J., Komaki, M. K.,
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TERMINOLOGY AND CONCEPTS 345situati
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WATER-DEFICIT STRESS 347environment
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WATER-DEFICIT STRESS 349to observed
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WATER-DEFICIT STRESS 351Ψ or Ψ π
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- Page 736: LOW-TEMPERATURE STRESS 357Table 13.
- Page 740: LOW-TEMPERATURE STRESS 359Fig: 13:9
- Page 744: LOW-TEMPERATURE STRESS 361The physi
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- Page 752: HIGH-TEMPERATURE STRESS 365homology
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- Page 760: DEVELOPMENT OF STRESS-RESISTANT CRO
- Page 764: REFERENCES 371Munns, R. Comparative
- Page 768: AppendixA.1 NAMING GENES, PROTEINS
- Page 772: UNITS OF MEASUREMENT 375A.3 PREFIXE
- Page 776: INDEX 377apomixis 303apoplast 72-76
- Page 782: 380 INDEXdevelopmentenvironmental c
- Page 786: 382 INDEXgene (cont.)promoter 147re
- Page 790: 384 INDEXleaf (cont.)cell division
- Page 794: 386 INDEXorganelle division 163, 21
- Page 798: 388 INDEXpotato 143, 213, 298PPP se
- Page 802: 390 INDEXsoil (cont.)sandy 68, 86se
- Page 806: 392 INDEXwater (cont.)deficit stres