| Contributing Authors | 6 |
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| Table of Contents | 11 |
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| Preface | 27 |
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| Color Figures | 29 |
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| Acknowledgments | 30 |
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| AGROBACTERIUM: A DISEASE-CAUSING BACTERIUM | 31 |
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| 1 INTRODUCTION | 32 |
| 2 AGROBACTERIUM HOST RANGE | 34 |
| 3 DIVERSITY OF NATURAL ISOLATES | 35 |
| 4 SOURCES OF INFECTION AND CONTROL OF CROWN GALL DISEASE | 42 |
| 5 ACKNOWLEDGEMENTS | 56 |
| 6 REFERENCES | 56 |
| A BRIEF HISTORY OF RESEARCH ON AGROBACTERIUM TUMEFACIENS: 1900-1980s | 77 |
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| 1 INTRODUCTION | 77 |
| 2 AGROBACTERIUM— THE PATHOGEN | 79 |
| 3 A. TUMEFACIENS AS THE VECTOR OF CHOICE FOR PLANT GENETIC ENGINEERING | 89 |
| 4 CONCLUSIONS | 94 |
| 5 ACKNOWLEDGEMENTS | 94 |
| 6 REFERENCES | 95 |
| AGROBACTERIUM AND PLANT BIOTECHNOLOGY | 103 |
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| 1 INTRODUCTION | 104 |
| 2 THE DEVELOPMENT OF AGROBACTERIUM-MEDIATED TRANSFORMATION | 105 |
| 3 APPLICATIONS OF AGROBACTERIUM-MEDIATED TRANSFORMATION | 121 |
| 4 GENE FLOW AND MOLECULAR APPROACHES TO TRANSGENE CONTAINMENT/ MONITORING | 143 |
| 5 GLOBAL STATUS OF AGRICULTURAL BIOTECHNOLOGY AND TECHNOLOGY TRANSFER | 146 |
| 6 ACKNOWLEDGEMENTS | 152 |
| 7 REFERENCES | 152 |
| THE AGROBACTERIUM TUMEFACIENS C58 GENOME | 178 |
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| 1 INTRODUCTION | 179 |
| 2 GENERAL FEATURES OF THE GENOME | 179 |
| 3 THE LINEAR CHROMOSOME | 181 |
| 4 PHYLOGENY AND WHOLE-GENOME COMPARISON | 184 |
| 5 DNA REPLICATION AND THE CELL CYCLE | 185 |
| 6 GENUS-SPECIFIC GENES | 186 |
| 7 PLANT TRANSFORMATION AND TUMORIGENESIS | 187 |
| 8 TRANSPORT | 188 |
| 9 REGULATION | 189 |
| 10 RESPONSE TO PLANT DEFENSES | 191 |
| 11 GENERAL METABOLISM | 192 |
| 12 CONCLUSIONS | 195 |
| 13 ACKNOWLEDGEMENTS | 198 |
| 14 REFERENCES | 198 |
| AGROBACTERIUM— TAXONOMY OF PLANT- PATHOGENIC RHIZOBIUM SPECIES | 211 |
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| 1 INTRODUCTION | 212 |
| 2 HISTORICAL PERSPECTIVE— ORIGINS | 213 |
| 3 AGROBACTERIUM—RHIZOBIUM RELATIONSHIPS | 223 |
| 4 GENOTYPIC RELATIONSHIPS | 224 |
| 5 PLASMID TRANSFER AND GENUS RECLASSIFICATION | 227 |
| 6 DIVERSITY WITHIN RHIZOBIUM | 228 |
| 7 REVISION OF AGROBACTERIUM NOMENCLATURE | 232 |
| 8 RELATIONSHIP OF RHIZOBIUM TO OTHER MEMBERS OF THE RHIZOBIACEAE | 235 |
| 9 OTHER ‘ AGROBACTERIUM’ SPECIES | 236 |
| 10 SUMMARY | 237 |
| 11 ACKNOWLEDGEMENTS | 237 |
| 12 REFERENCES | 238 |
| THE INITIAL STEPS IN AGROBACTERIUM TUMEFACIENS PATHOGENESIS: CHEMICAL BIOLOGY OF HOST RECOGNITION | 249 |
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| 1 INTRODUCTION | 250 |
| 2 SIGNAL DIVERSITY | 251 |
| 3 SIGNAL RECOGNITION, INTEGRATION AND TRANSMISSION | 254 |
| 4 SUMMARY | 264 |
| 5 ACKNOWLEDGEMENTS | 264 |
| 6 REFERENCES | 264 |
| AGROBACTERIUM-HOST ATTACHMENT AND BIOFILM FORMATION | 270 |
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| 1 INTRODUCTION | 271 |
| 2 PRESUMPTIVE ADHERENCE FACTORS | 274 |
| 3 PLANT RECEPTORS RECOGNIZED DURING A. TUMEFACIENS INFECTION | 285 |
| 4 BIOFILM FORMATION BY A. TUMEFACIENS | 286 |
| 5 A MODEL FOR ADHERENCE AND BIOFILM FORMATION | 293 |
| 6 A WIDE RANGE OF SURFACE INTERACTIONS | 294 |
| 7 CONCLUSIONS | 295 |
| 8 ACKNOWLEDGEMENTS | 296 |
| 9 REFERENCES | 296 |
| PRODUCTION OF A MOBILE T-DNA BY AGROBACTERIUM TUMEFACIENS | 305 |
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| 1 INTRODUCTION | 306 |
| 2 A. TUMEFACIENS—NATURE’S GENETIC ENGINEER | 306 |
| 3 INTERKINGDOM GENE TRANSFER | 307 |
| 4 VirD2 INTERACTS WITH HOST PROTEINS | 320 |
| 5 T-DNA INTEGRATION | 323 |
| 6 PLANT GENETIC ENGINEERING | 325 |
| 7 ACKNOWLEDGEMENTS | 327 |
| 8 REFERENCES | 327 |
| TRANSLOCATION OF ONCOGENIC T-DNA AND EFFECTOR PROTEINS TO PLANT CELLS | 340 |
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| 1 INTRODUCTION | 341 |
| 2 A HISTORICAL OVERVIEW | 341 |
| 3 A. TUMEFACIENS VIRB/D4 SECRETION SUBSTRATES | 345 |
| 4 THE VIRB/D4 MACHINE | 351 |
| 5 VIRB/D4 MACHINE ASSEMBLY AND SPATIAL POSITIONING | 358 |
| 6 VIRB/D4 CHANNEL/PILUS ARCHITECTURE | 364 |
| 7 T-DNA TRANSLOCATION ACROSS THE CELL ENVELOPE | 366 |
| 8 THE AGROBACTERIUM – PLANT CELL INTERFACE | 372 |
| 9 SUMMARY AND PERSPECTIVES | 375 |
| 10 ACKNOWLEDGEMENTS | 377 |
| 11 REFERENCES | 377 |
| INTRACELLULAR TRANSPORT OF AGROBACTERIUM T- DNA | 390 |
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| 1 INTRODUCTION | 390 |
| 2 STRUCTURE AND FUNCTION OF THE T-COMPLEX | 392 |
| 3 CYTOPLASMIC TRANSPORT | 397 |
| 4 NUCLEAR IMPORT | 399 |
| 5 INTRANUCLEAR MOVEMENT OF THE T-COMPLEX | 406 |
| 6 FROM THE CYTOPLASM TO THE CHROMATIN: A MODEL FOR T- COMPLEX IMPORT | 407 |
| 7 FUTURE PROSPECTS | 409 |
| 8 ACKNOWLEDGEMENTS | 409 |
| 9 REFERENCES | 410 |
| MECHANISMS OF T-DNA INTEGRATION | 420 |
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| 1 INTRODUCTION | 421 |
| 2 THE T-DNA MOLECULE | 422 |
| 3 PROTEINS INVOLVED IN T-DNA INTEGRATION | 423 |
| 4 GENOMIC ASPECTS OF T-DNA INTEGRATION/ TARGET- SITE SELECTION | 433 |
| 5 MODELS FOR T-DNA INTEGRATION | 445 |
| 6 FUTURE DIRECTIONS | 453 |
| 7 ACKNOWLEDGEMENTS | 454 |
| 8 REFERENCES | 454 |
| AGROBACTERIUM TUMEFACIENS-MEDIATED TRANSFORMATION: PATTERNS OF T- DNA INTEGRATION INTO THE HOST GENOME | 466 |
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| 1 INTRODUCTION | 467 |
| 2 T-DNA INTEGRATION MECHANISM: SUCCESSIVE STEPS LEADING TO STABLE INTEGRATION OF THE T- DNA INTO THE PLANT HOST GENOME | 468 |
| 3 PATTERNS OF T-DNA INTEGRATION INTO THE HOST GENOME | 483 |
| 4 ACKNOWLEDGMENTS | 494 |
| 5 REFERENCES | 494 |
| FUNCTION OF HOST PROTEINS IN THE AGROBACTERIUM- MEDIATED PLANT TRANSFORMATION PROCESS | 507 |
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| 1 INTRODUCTION | 508 |
| 2 A GENETIC BASIS EXISTS FOR HOST SUSCEPTIBILITY TO AGROBACTERIUM-MEDIATED TRANSFORMATION | 509 |
| 3 THE PLANT RESPONSE TO AGROBACTERIUM: STEPS IN THE TRANSFORMATION PROCESS, AND PLANT GENES/ PROTEINS INVOLVED IN EACH OF THESE STEPS | 512 |
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