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Index a abscisic acid (ABA) 201 Acetobacter 69, 87 actinobacteria 67 active center 32f., 35 acyl homoserine lactone (AHL) 3, 100, 129, 132ff., 137, 139, 144ff. – AHL blockers 146 – AHL synthases 145, 227 Agrobacterium 63ff. agroecosystems 177ff. alkaline phosphatase (ALP) 200 alphaproteobacteria 63ff., 68 aminocyclopropanecarboxylic acid (ACC) 49, 59ff., 75, 216, 273, 297 aminocyclopropanecarboxylic acid (ACC)deaminase 97ff., 215, 273, 297 ammonia 91 amplified rDNA restriction analysis (ARDRA) 84, 199 antibiotic-mediated suppression 214f. antibiotics 138, 273, 275 antifreeze proteins (AFPs) 199ff. arbuscular mycorrhizae 96f., 245ff., 251 arbuscular mycorrhizal associations 246 arbuscular mycorrhizal fungi (AMF) 245ff. arbuscular mycorrhiza-rhizobacteia interactions 247ff. arid soils 268, 271 atomic force microscopy (AFM) 37 autecological biogeography 179 autochthonous microflora 265 autoinducer 129, 132f., 136 autoinducer peptides (AIP) 139 auxin 12, 43, 46ff., 59ff., 92, 185, 201 – biosynthesis 47 Azoarcus 88 Azorhizobium 66 Plant-Bacteria Interactions. Strategies and Techniques to Promote Plant Growth Edited by Iqbal Ahmad, John Pichtel, and Shamsul Hayat Copyright Ó 2008 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim ISBN: 978-3-527-31901-5 Azospirillum 70, 87, 208 – Azospirillum brasilense 20ff., 24, 29ff. Azotobacter 43, 73, 86 b Bacillus 73, 88 – B. cereus 238 – B. pumilus 239ff. bacterial diversity 2, 82ff. bacterialike organisms (BLOs) 249 betaproteobacteria 67 biocontrol 214ff. biodegradation 235ff. biofertilizer 175, 178, 180, 182, 188f. bioluminescence 130ff. biosorption 285 biosurfactants 219, 224f. Bradyrhizobium 66, 95, 172, 269 Burkholderia 67, 88, 134, 139, 249 N-butyryl-homoserine lactone (BHL) 135 c carbon dioxide 165 carbon metabolism 198 catechols 44 cell-to-cell communication 138, 145, 227 cellulase 172 chaperone 121 chelant 9 circular dichroism (CD) 30ff. Citrobacter 70 cobalt 24ff., 32ff., 35 – binding studies 26ff. cold tolerance, mechanism 200 colonization 172ff., 176, 208, 250f., 262 colony forming units (CFUs) 4 community-level physiological profiling (CLPP) 84 j305
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Plant-Bacteria Interactions Edited
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Plant-Bacteria Interactions Strateg
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Contents List of Contributors XIII
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4 A Review on the Taxonomy and Poss
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7.7 Conclusion 147 References 148 C
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12 Practical Applications of Rhizos
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List of Contributors Farah Ahmad De
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S. Hayat Department of Botany Aliga
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Alok Sharma Department of Structura
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2j 1 Ecology, Genetic Diversity and
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10j 1 Ecology, Genetic Diversity an
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2 Physicochemical Approaches to Stu
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2.2 Application of Vibrational Spec
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2.2 Application of Vibrational Spec
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2.3 Application of Nuclear g-Resona
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2.3 Application of Nuclear g-Resona
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Figure 2.5 Comparison of Mössbauer
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2.4 Structural Studies of Glutamine
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experts from chemical and physical
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Lelie, D. (2002) Critical Reviews i
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3 Physiological and Molecular Mecha
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3.2 PGPR Grouped According to Actio
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3.2.1.3 Phosphate-Solubilizing PGPR
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3.2 PGPR Grouped According to Actio
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enefits already mentioned. Using PG
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agricultural and industrial purpose
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33 Gyaneshwar, P., Kumar, G.N., Par
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4 A Review on the Taxonomy and Poss
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Table 4.1 Genera that are named pla
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Desulfovibrio þ þ [13] Aeromonas
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Table 4.2 Taxonomic affiliation of
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4.3 Symbiotic Plant Growth Promotin
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Figure 4.2 (Continued) 4.3 Symbioti
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Methylobacterium This genus is form
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diversity of the cycad cyanobionts,
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4.4 Asymbiotic Plant Growth Promoti
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Beijerinckia and Derxia were to be
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that enables microbiologists and ag
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14 Thaning, C., Welch, C.J., Borowi
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67 Dutta, D. and Gachhui, R. (2007)
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5 Diversity and Potential of Nonsym
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With respect to the latter, bacteri
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Table 5.2 Diversity of diazotrophs.
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5.2 Rhizosphere and Bacterial Diver
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5.3 Asymbiotic Nitrogen Fixation an
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Figure 5.1 Various mechanisms invol
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Table 5.3 (Continued ) Mechanisms O
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5.5 Interaction of Diazotrophic PGP
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contrast to the in planta results,
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ameliorate drought stress effects o
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5.7 Critical Gaps in PGPR Research
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18 Marschner, H. (1995) Mineral Nut
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76 Madiagan, M.T. and Martinko, J.M
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136 Cacciari, I., Lippi, D., Pietro
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auburn.edu/argentina/pdfmanuscripts
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112j 6 Molecular Mechanisms Underpi
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130j 7 Quorum Sensing in Bacteria:
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8 Pseudomonas aurantiaca SR1: Plant
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8.3 Coinoculation Greenhouse Assays
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Table 8.2 Effects of P. aurantiaca
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8.5 Conclusions We have demonstrate
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40 Prinsen, E., van Dongen, W., Esm
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166j 9 Rice-Rhizobia Association: E
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10 Principles, Applications and Fut
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10.2.1 Cytoplasmic Membrane Adaptat
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of carbohydrate metabolism under co
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still viable and showed inhibition
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environmental conditions and a high
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Table 10.2 Examples of free-living
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soils are acidic, especially those
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References 1 Sylvia, D.M., Alagely,
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Environmental Microbiology, 68 (5),
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11 Rhamnolipid-Producing PGPR and T
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11.2 Biocontrolj215 graminis var. t
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11.3 Damping-Off Vegetables are sev
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11.4 Rhamnolipids Microorganisms pr
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Table 11.2 Glycolipids found in the
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Table 11.3 Majorgenesinvolvedintheb
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11.4 Rhamnolipidsj225 showed differ
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11.5 Quorum Sensing in the Rhizosph
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10 Gerhardson, B. (2002) Trends in
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73 Schneider, R.W. (1982) American
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139 Albus, A.M., Pesci, E.C., Runye
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236j 12 Practical Applications of R
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13 Microbial Dynamics in the Mycorr
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fungal infectivity, efficiency and
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The enriched soil microbial communi
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13.2 Rhizosphere and Microorganisms
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11 Smith, S.S. and Read, D.J. (1997
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67 Kapulnik, Y. (1996) Plant Roots:
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14 Salt-Tolerant Rhizobacteria: Pla
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14.2 Diversity of Salt-Tolerant Rhi
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Table 14.1 Diversity of salt-tolera
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in soil was reported in earlier stu
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14.5 Physiological Characterization
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Table 14.3 Biochemical characterist
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Microbial groups that influence pla
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Figure 14.3 Nutrient uptake of whea
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Table 14.10 Effects of PSB R. melil
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Table 14.11 Characteristics of bact
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14 Rainey, P.B. (1999) Environmenta
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Page 598: Applications, 2nd edn,Benjamin- Cum
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Page 648: 306j Index copper 24, 117, 121 cyan
Page 652: 308j Index - action mechanisms 41ff
Page 656: 310j Index x Xanthomonas campestris
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