Sugar Beet
, by Draycott, A. PhilipNote: Supplemental materials are not guaranteed with Rental or Used book purchases.
- ISBN: 9781405119115 | 140511911X
- Cover: Hardcover
- Copyright: 3/10/2006
Sugar beet, alongside sugar cane is the main source of sugar across the world. The crop is grown widely in North America, across Europe, the Russian Federation, Japan and some parts of South America in a multi-billion dollar global industry.This comprehensive book provides full details of all aspects of the crop, including its agronomy, botany, harvesting and processing. Chapters are written by many experts from around the world. It is an essential purchase for anyone involved with the sugar beet crop and the sugar industry.
A. Philip Draycott, formerly of Broom's Barn Research Station, Suffolk. Donald R. Christenson, Professor Emeritus in Crop and Soil Science, Michigan State University.
Contributors | p. xv |
Foreword | p. xvii |
Preface | p. xix |
Acknowledgements | p. xxi |
Introduction | p. 1 |
Origins of crop | p. 1 |
Production | p. 1 |
Crop improvement | p. 2 |
Where grown | p. 2 |
Sugar consumption | p. 4 |
Economics and politics | p. 5 |
World production of sugar from beet and cane | p. 5 |
Sugar beet performance | p. 6 |
Future | p. 7 |
Summary | p. 8 |
References | p. 8 |
Development of Sugar Beet | p. 9 |
Introduction | p. 9 |
Early domestication of beet crops | p. 9 |
Development of sugar beet from fodder beet | p. 11 |
Discovery of sugar in roots of beet | p. 11 |
Re-examination of beets for sugar production | p. 11 |
First beet sugar factory | p. 12 |
Achard's legacy | p. 13 |
Establishment of a global beet sugar industry | p. 14 |
Europe | p. 14 |
North and South America | p. 18 |
Asia and Africa | p. 19 |
Technical development of sugar beet | p. 19 |
Plant breeding and genetics | p. 19 |
Agronomy and plant protection | p. 22 |
Crop mechanization | p. 22 |
Future developments | p. 25 |
References | p. 27 |
Plant Structure and Crop Physiology | p. 30 |
Introduction | p. 30 |
Canopy development and dry matter production | p. 31 |
Leaf canopies and radiation interception | p. 32 |
Factors affecting expansion of leaf area | p. 34 |
Storage root development and sugar accumulation | p. 36 |
Storage root development | p. 36 |
Sugar accumulation | p. 38 |
Nutritional physiology and beet quality | p. 39 |
Nitrogen relations | p. 39 |
Potassium and sodium | p. 40 |
Reproductive development | p. 42 |
Physiological and agronomic aspects of bolting | p. 42 |
Genetic and molecular control of flowering | p. 44 |
Summary | p. 45 |
References | p. 45 |
Genetics and Breeding | p. 50 |
Introduction | p. 50 |
Objectives of sugar beet breeding | p. 50 |
Characters subjected to selection | p. 51 |
Morphological and anatomical characters | p. 51 |
Physiological characters | p. 51 |
Chemical characters | p. 52 |
The inheritance of specific characters | p. 52 |
Growth habit | p. 52 |
Self-incompatibility and self-fertility | p. 53 |
Male sterility | p. 54 |
The monogerm seed character | p. 54 |
Hypocotyl and root colour | p. 55 |
Autotetraploidy in sugar beet | p. 56 |
General features of polyloid sugar beet | p. 56 |
Cytogenetic properties of autotetraploid sugar beet | p. 56 |
Inheritance in autotetraploids | p. 57 |
Genetic background to inbreeding depression and heterosis in autotetraploids | p. 57 |
Response to selection in autotetraploids | p. 58 |
Selection methods | p. 58 |
Mass selection | p. 58 |
Progeny selection and line breeding | p. 59 |
Inbreeding | p. 61 |
Recurrent selection | p. 61 |
Traditional methods of variety development in sugar beet | p. 63 |
Diploid synthetic varieties | p. 63 |
Anisoploid synthetic varieties | p. 64 |
Background to hybrid breeding in sugar beet | p. 64 |
Hybrid breeding methods and development of hybrid varieties | p. 65 |
Development of maintainer lines (O-types) and their male sterile equivalents | p. 65 |
Testing for combining ability and incorporation of selected materials into hybrid varieties | p. 66 |
Kinds of hybrids possible | p. 68 |
Breeding for specific characters | p. 71 |
Bolting resistance | p. 71 |
Technological quality | p. 73 |
Resistance to diseases | p. 74 |
Resistance to pests | p. 77 |
The impact of plant biotechnology on sugar beet breeding | p. 78 |
Molecular markers | p. 78 |
Genomics | p. 79 |
Genetic transformation | p. 80 |
Strategies in a comprehensive hybrid breeding programme with sugar beet | p. 80 |
Short-term varietal production | p. 81 |
Intermediate-term population improvement | p. 81 |
Long-term genetic resources development | p. 82 |
References | p. 83 |
Seed Production and Quality | p. 89 |
Introduction | p. 89 |
Methods of beet seed production | p. 90 |
Transplanting method | p. 90 |
Direct production method | p. 98 |
Flowering, maturation and seed harvest | p. 100 |
Flowering | p. 100 |
Maturation and harvest of sugar beet seed | p. 102 |
Drying and cleaning | p. 105 |
Seed yield and propagation ratios | p. 106 |
Seed processing | p. 106 |
Monogerm seed | p. 107 |
Multigerm seed | p. 109 |
Quality testing | p. 110 |
Laboratory methods | p. 110 |
Field tests | p. 112 |
Seed law requirements | p. 112 |
References | p. 112 |
Soil Tillage and Crop Establishment | p. 114 |
Objectives of tillage | p. 114 |
Primary tillage | p. 114 |
Stubble cultivation | p. 114 |
Mouldboard ploughing | p. 115 |
Reduced tillage | p. 117 |
Secondary tillage, sowing and post-sowing tillage | p. 118 |
Requirements for seed germination and plant emergence | p. 118 |
Objectives of seedbed preparation | p. 119 |
The function of the seedbed | p. 119 |
Techniques and implements for seedbed preparation | p. 121 |
Sowing and placement of seed | p. 122 |
Crust formation and crust breaking | p. 122 |
Adaptation to local conditions | p. 123 |
Mechanical weed control | p. 123 |
Soil compaction | p. 124 |
Factors determining compaction | p. 124 |
Short-term effects of compaction | p. 124 |
Long-term effects of plough-layer compaction | p. 125 |
Subsoil compaction | p. 126 |
Subsoil loosening | p. 127 |
Protection against wind erosion | p. 128 |
References | p. 129 |
Agronomy | p. 134 |
Introduction | p. 134 |
Crop growth | p. 134 |
Patterns during the growing season | p. 134 |
Photosynthesis and growth | p. 138 |
Light interception and yield | p. 141 |
Water use, light intercepted and yield | p. 142 |
Harvest index | p. 144 |
Analysing agronomy in physiological terms | p. 145 |
Assessing light interception | p. 145 |
Sowing date | p. 145 |
Plant establishment and spacing | p. 148 |
Nutrient application | p. 154 |
Harvest date | p. 157 |
Analysing the effects of weeds and virus yellows on growth and yield | p. 159 |
Weeds | p. 159 |
Virus yellows | p. 160 |
Mathematical models and their uses | p. 161 |
References | p. 165 |
Nutrition - Nitrogen | p. 169 |
Importance | p. 169 |
Nitrogen uptake and concentration | p. 170 |
Nitrogen deficiency and its detection | p. 171 |
Effect of nitrogen on germination, emergence and establishment | p. 171 |
Effect of nitrogen on growth and yield | p. 173 |
Growth | p. 173 |
Yield | p. 174 |
Effect of nitrogen on root quality | p. 175 |
Soil supplies of nitrogen | p. 176 |
Effect of organic manures | p. 178 |
Nitrogen recommendations | p. 178 |
Form and application of nitrogen fertilizer | p. 179 |
Form of nitrogen fertilizer | p. 179 |
Application of nitrogen fertilizer | p. 180 |
Interactions with the environment | p. 180 |
Leaching of nitrates | p. 180 |
Ammonia volatilization | p. 181 |
Emission of nitrous oxide | p. 182 |
Summary and conclusions | p. 182 |
References | p. 183 |
Nutrition - Phosphorus, Sulphur, Potassium, Sodium, Calcium, Magnesium and Micronutrients - Liming and Nutrient Deficiencies | p. 185 |
Introduction | p. 185 |
Past reviews | p. 185 |
Importance of nutrition research | p. 185 |
Determining nutrient needs | p. 185 |
Efficient use of nutrients | p. 185 |
Variability of nutrient status of soils | p. 186 |
Phosphorus | p. 186 |
Total phosphorus in soils | p. 187 |
Fate of applied phosphorus | p. 187 |
Available phosphorus in soils | p. 187 |
Mycorrhiza | p. 187 |
Phosphorus in sugar beet | p. 187 |
Response to applied phosphorus | p. 188 |
Time, form and method of application | p. 189 |
Sulphur | p. 189 |
Sulphur in soil | p. 189 |
Sulphur in plants | p. 190 |
Studies measuring yield response from applied sulphur | p. 190 |
Atmospheric deposition | p. 191 |
Potassium | p. 191 |
Potassium in soil | p. 191 |
Potassium in sugar beet | p. 191 |
Response to applied potassium | p. 193 |
Application recommendations based on soil test | p. 193 |
Sodium | p. 194 |
Sodium in soil | p. 194 |
Sodium in sugar beet | p. 194 |
Response to applied sodium | p. 195 |
Predicting sodium need by soil analysis | p. 196 |
Calcium | p. 196 |
Calcium in soil | p. 196 |
Calcium in sugar beet | p. 196 |
Dynamics of calcium in sugar beet | p. 197 |
Cation ratios in soils | p. 197 |
Magnesium | p. 198 |
Magnesium in soil | p. 198 |
Magnesium in sugar beet | p. 198 |
Predicting magnesium needs by soil testing | p. 199 |
Fertilizer sources of magnesium | p. 199 |
Micronutrients or trace elements | p. 199 |
Boron | p. 199 |
Boron in soil | p. 199 |
Additions to soils | p. 200 |
Boron in sugar beet | p. 200 |
Prediction of needs by soil analysis | p. 201 |
Supplying boron to sugar beet | p. 202 |
Residual effects of boron application | p. 202 |
Incidence of boron deficiency | p. 202 |
Manganese | p. 202 |
Manganese in soil | p. 202 |
Manganese in sugar beet | p. 203 |
Manganese deficiency | p. 203 |
Methods of soil analysis and response to manganese | p. 204 |
Correction of deficiency and response to applied manganese | p. 204 |
Copper | p. 204 |
Copper in soil | p. 204 |
Copper in sugar beet plants | p. 205 |
Effects of copper on sugar beet yield | p. 205 |
Zinc | p. 205 |
Zinc in soil | p. 205 |
Zinc in sugar beet | p. 205 |
Field experiments with zinc | p. 206 |
Iron | p. 206 |
Iron in soil | p. 206 |
Iron in plants | p. 206 |
Response to iron in the field | p. 206 |
Chlorine | p. 206 |
Chlorine in soils | p. 206 |
Chlorine in plants | p. 207 |
Molybdenum | p. 207 |
Molybdenum in soils | p. 207 |
Molybdenum in plants | p. 207 |
Response to applied molybdenum | p. 207 |
Soil acidity and liming | p. 208 |
General effects of acidity on plants | p. 208 |
Effects of soil pH on sugar beet | p. 208 |
Optimum pH | p. 208 |
Response to lime | p. 208 |
Liming materials | p. 208 |
Methods of determining lime requirement | p. 209 |
Liming in practice | p. 210 |
Nutrient deficiencies | p. 210 |
Separating deficiencies | p. 210 |
Nitrogen | p. 211 |
Phosphorus | p. 211 |
Potassium | p. 211 |
Sodium | p. 211 |
Magnesium | p. 211 |
Calcium | p. 212 |
Sulphur | p. 212 |
Boron | p. 212 |
Manganese | p. 213 |
Iron | p. 213 |
Zinc | p. 213 |
Copper | p. 214 |
References | p. 214 |
Water Use and Irrigation | p. 221 |
Introduction | p. 221 |
Water as a resource | p. 221 |
The sugar beet crop and water | p. 221 |
Water and physiology | p. 222 |
Defining the water status of plants and soils | p. 222 |
How plants regulate their water economy | p. 223 |
Plant responses to water deficit | p. 226 |
The root system and water uptake | p. 227 |
Water use by sugar beet | p. 228 |
Calculating evapotranspiration | p. 228 |
Rates of water consumption | p. 230 |
Models of crop growth and water use | p. 231 |
Some specific models | p. 232 |
Water use efficiency | p. 232 |
Irrigation management | p. 233 |
Irrigation programming methods | p. 234 |
Irrigation in northern and central European countries | p. 234 |
Irrigation in the Mediterranean area | p. 234 |
Irrigation in arid areas | p. 236 |
Responses to irrigation | p. 236 |
Yield | p. 236 |
Radiation use efficiency | p. 237 |
Harvest index | p. 237 |
Irrigation practices | p. 237 |
First irrigation | p. 237 |
Withdrawal of irrigation before harvest | p. 238 |
Irrigation frequency | p. 238 |
Irrigation methods | p. 239 |
Deficit irrigation | p. 240 |
The crop response factor, K[subscript y] | p. 241 |
Salinity | p. 241 |
Germination and emergence | p. 243 |
Irrigation and other factors | p. 243 |
Crop nutrition | p. 243 |
Plant density | p. 243 |
Pests and diseases | p. 243 |
Harvesting | p. 244 |
Advisory services | p. 244 |
Drought tolerance | p. 244 |
Improving sugar beet drought tolerance through plant breeding | p. 244 |
Describing drought tolerance in multi-environment variety trials | p. 246 |
References | p. 248 |
Virus Diseases | p. 256 |
Rhizomania | p. 256 |
Symptoms and damage | p. 257 |
Development and spread | p. 257 |
Causal agents | p. 258 |
Control | p. 260 |
Other soil-borne viruses | p. 262 |
Beet soil-borne | p. 262 |
Beet soil-borne mosaic | p. 263 |
Beet virus Q | p. 263 |
Beet oak-leaf | p. 264 |
Beet distortion mosaic | p. 264 |
Virus yellows | p. 265 |
Poleroviruses | p. 265 |
Beet yellows | p. 269 |
Other diseases | p. 270 |
Beet cryptic | p. 270 |
Beet curly top | p. 271 |
Beet leaf curl | p. 272 |
Beet mosaic | p. 273 |
Beet savoy | p. 273 |
Beet yellow net | p. 274 |
Beet yellow stunt | p. 275 |
Beet yellow vein | p. 275 |
Cucumber mosaic | p. 276 |
Lettuce infectious yellows | p. 277 |
References | p. 278 |
Fungal and Bacterial Diseases | p. 286 |
Introduction | p. 286 |
Seedling diseases | p. 286 |
Aphanomyces seedling disease | p. 286 |
Pythium damping-off | p. 288 |
Rhizoctonia damping-off | p. 288 |
Phoma seedling disease | p. 289 |
Foliar diseases | p. 290 |
Cercospora leaf spot | p. 290 |
Powdery mildew | p. 292 |
Downy mildew | p. 293 |
Rust | p. 294 |
Ramularia leaf spot | p. 295 |
Phoma leaf spot | p. 296 |
Alternaria leaf spot | p. 296 |
Beet tumour (Urophlyctis) | p. 297 |
Rhizoctonia foliar blight | p. 297 |
Root diseases | p. 297 |
Aphanomyces root rot | p. 297 |
Rhizoctonia root and crown rot | p. 298 |
Violet root rot | p. 299 |
Charcoal rot | p. 300 |
Phymatotrichum root rot | p. 301 |
Phytophthora root rot | p. 301 |
Pythium root rot | p. 302 |
Rhizopus root rot | p. 302 |
Southern sclerotium root rot | p. 302 |
Phoma root rot | p. 303 |
Fusarium root rot | p. 304 |
Fusarium yellows | p. 304 |
Verticillium wilt | p. 305 |
Bacterial diseases | p. 306 |
Beet vascular necrosis and rot | p. 306 |
Bacterial leaf spot | p. 306 |
Crown gall | p. 307 |
Scab | p. 307 |
Yellow wilt | p. 307 |
Latent rosette | p. 308 |
Low sugar syndrome (Basses richesses) | p. 308 |
References | p. 309 |
Pests | p. 316 |
Introduction | p. 316 |
Effects of pests on establishment, growth and yield | p. 318 |
Crop establishment | p. 318 |
Defoliation | p. 320 |
Foliar efficiency | p. 321 |
Root growth | p. 321 |
Disease vectors | p. 323 |
Distribution, biology and pathogenicity of major pests | p. 323 |
Nematodes | p. 323 |
Slugs | p. 327 |
Arthropods | p. 328 |
Vertebrate pests | p. 341 |
Minimizing yield losses caused by pests | p. 342 |
Forecasting | p. 342 |
Crop rotation | p. 344 |
Other cultural control methods | p. 344 |
Resistant sugar beet cultivars | p. 345 |
Resistant catch crops | p. 346 |
Beneficial organisms and biological control | p. 350 |
References | p. 350 |
Weeds and Weed Control | p. 359 |
Introduction | p. 359 |
Weeds | p. 359 |
Distribution and agricultural importance | p. 359 |
Biology of major weeds | p. 359 |
Effect of weeds on wildlife | p. 363 |
Weed competition and the effect of time of removal | p. 364 |
Weed control | p. 366 |
Physical methods | p. 366 |
Chemical methods | p. 368 |
Biological control | p. 377 |
Weed control outside the sugar beet crop | p. 377 |
In the rotation | p. 377 |
In fallow lay-by situations | p. 379 |
Herbicide resistance | p. 379 |
Crop varieties | p. 379 |
Weeds | p. 380 |
Crop injury from herbicides | p. 381 |
References | p. 383 |
Storage | p. 387 |
Introduction | p. 387 |
Respiration | p. 388 |
Carbohydrate impurity formation | p. 392 |
Invert sugars | p. 393 |
Raffinose | p. 394 |
Polysaccharide gums | p. 394 |
Kestoses | p. 395 |
Storage rots | p. 395 |
Crop management and growing conditions | p. 397 |
Reducing mechanical damage | p. 398 |
Storage pile management | p. 400 |
References | p. 403 |
Root Quality and Processing | p. 409 |
Introduction | p. 409 |
Historical overview of beet technical quality | p. 409 |
Concepts of good beet quality | p. 410 |
Quality parameters | p. 412 |
Sugar content | p. 412 |
Major non-sugars | p. 413 |
Reducing sugars | p. 418 |
Betaine | p. 419 |
Raffinose | p. 420 |
Dextran and levan | p. 421 |
Enzymes | p. 422 |
Marc | p. 423 |
Physical properties | p. 424 |
Tare | p. 426 |
Factors influencing quality | p. 428 |
Introduction | p. 428 |
Climate | p. 428 |
Variety | p. 429 |
Fertilizer | p. 429 |
Other agronomic factors | p. 430 |
Harvesting and topping | p. 431 |
Storage | p. 431 |
Factory beet handling | p. 432 |
Evolution of beet quality | p. 432 |
Conclusions | p. 434 |
References | p. 435 |
Co-products | p. 443 |
Introduction | p. 443 |
Sugar beet roots | p. 443 |
Sugar beet tops | p. 443 |
Analysis and feeding value | p. 444 |
Feeding sugar beet tops | p. 444 |
Sugar beet pulp | p. 445 |
Characterization of sugar beet pulp | p. 445 |
Analysis and feeding values of sugar beet pulp | p. 446 |
Feeding sugar beet pulp | p. 448 |
Other uses of sugar beet pulp | p. 450 |
Sugar beet molasses | p. 451 |
Analysis and feeding value of sugar beet molasses | p. 451 |
Feeding levels of sugar beet molasses | p. 452 |
Other uses for sugar beet molasses | p. 453 |
Molassed sugar beet pulp (feed) | p. 454 |
Molassed pressed pulp | p. 455 |
Dried molassed sugar beet feed | p. 455 |
Enhancement of silage | p. 459 |
Beet vinasse | p. 460 |
Concluding remarks | p. 460 |
References | p. 460 |
Index | p. 465 |
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