Agriculture and farming Books

Book SynopsisStephen Spotte, Mote Marine Laboratory, Sarasota, Florida, USA Tarpons arose from an ancient lineage, and just two species exist today, confined to the tropics and subtropics: Megalops atlanticus in the western and eastern Atlantic and Megalops cyprinoides distributed widely across the Indo-West Pacific. The Atlantic tarpon is considered king of the saltwater sport fishes and supports a multi-billion dollar recreational fishery in the U.S. alone. The Pacific tarpon, which is much smaller, is less valued by anglers. Both have limited commercial value but offer considerable potential for future aquaculture because of their hardiness, rapid growth, and ease of adaptation to captivity. This book is the latest and most thorough text on the biology, ecology, and fisheries (sport and commercial) of tarpons. The chapters comprise clear, intricate discourses on such subjects as early development and metamorphosis, population genetics, anatomical and physiological featureTable of ContentsPreface vii Acknowledgements xi Symbols and abbreviations xii 1 Development 1 1.1 Introduction 1 1.2 The tarpon leptocephalus 1 1.3 Staging tarpon ontogeny 4 1.4 Development of Atlantic tarpons 10 1.5 Development of Pacific tarpons 24 1.6 Leptocephalus physiology 33 2 Growth 39 2.1 Introduction 39 2.2 The cube law 40 2.3 Sexually dimorphic growth 41 2.4 Condition 44 2.5 Growth rate 49 2.6 Modeling growth 52 2.7 Tarpon larvae 58 3 Spawning 59 3.1 Introduction 59 3.2 Fecundity and early survival 59 3.3 Where tarpons spawn 64 3.4 When tarpons spawn 68 3.5 Size and age at maturity – Atlantic tarpons 72 3.6 Size and age at maturity – Pacific tarpons 78 4 Recruitment 80 4.1 Introduction 80 4.2 Life in the plankton 80 4.3 Inshore migration 83 4.4 Offshore migration 85 4.5 Mechanisms of recruitment 88 4.6 Factors affecting recruitment 89 5 Breathing and respiration 96 5.1 Introduction 96 5.2 Water-breathing 97 5.3 Air-breathing 100 5.4 Cardiovascular function 108 5.5 Hypoxia 113 5.6 Hypercapnia 125 5.7 Air-breathing as social behavior 126 6 Osmo- and ionoregulation 128 6.1 Introduction 128 6.2 Osmo- and ionoregulation 130 6.3 Ionocytes 132 6.4 Acid-base regulation 136 6.5 Ammonia excretion 137 6.6 Euryhaline transition 141 6.7 Endocrine factors 144 6.8 Eggs and larvae 147 7 Ecology 152 7.1 Introduction 152 7.2 Habitats 152 7.3 Predators of tarpons 159 7.4 Environmental factors affecting survival 162 7.5 Gregariousness 166 7.6 Seasonal movements 167 7.7 Feeding and foods 174 8 Fisheries 186 8.1 Introduction 186 8.2 Recreational fisheries 186 8.3 Handling 190 8.4 Stress effects 195 8.5 Commercial fisheries 211 8.6 Aquaculture 215 8.7 Populations 219 8.8 Final note: whom should we save? 224 Appendices 232 References 286 Index 323

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Book SynopsisProbiotic Dairy Products, 2nd Edition The updated guide to the most current research and developments in probiotic dairy products The thoroughly revised and updated second edition ofProbiotic Dairy Productsreviews the recent advancements in the dairy industry and includes the latest scientific developments in regard to the ''functional'' aspects of dairy and fermented milk products and their ingredients. Since the publication of the first edition of this text, there have been incredible advances in the knowledge and understanding of the human microbiota, mainly due to the development and use of new molecular analysis techniques. This new edition includes information on the newest developments in the field. It offers information on the new omic' technologies that have been used to detect and analyse all the genes, proteins and metabolites of individuals' gut microbiota. The text also includes a description of the history of probiotics and explores tTable of ContentsList of Contributors xi Preface to the Technical Series, Second Edition xv Preface to the Technical Series, First Edition xvii Preface to the Second Edition xix Preface to the First Edition xxi 1 Microbiota of the Human Gut 1H.B. Ghoddusi and L.V. Thomas 1.1 Background 1 1.2 The human GI tract and its microbiota 2 1.3 Functions of the GI microbiota 5 1.4 Influences on the GI tract and its microbiota 7 1.5 Conclusions 9 References 10 2 Probiotics: The First 10 000 Years 17R. Levin 2.1 In the beginning 17 2.2 The intervention of science 19 2.3 A remarkable sequence of important discoveries 20 2.4 Could disinfection be the solution? 21 2.5 On the cusp of a major breakthrough 22 2.6 The urge for progress switches to the USA (1914–1931) 25 2.7 Meanwhile, in Europe 28 2.8 The ultimate breakthrough comes from Japan? 29 2.9 Conclusions 32 Acknowledgements 33 References 33 3 Genomic Characterisation of Starter Cultures and Probiotic Bacteria 37G.E. Felis, S. Torriani, A.B. Florez and B. Mayo 3.1 Introduction 37 3.2 Genome sequencing and comparative genomics: insights into evolution and adaptation to dairy environments 40 3.2.1 Phylum Firmicutes 41 3.2.2 Phylum Actinobacteria 45 3.2.3 Other micro]organisms 46 3.3 Application of genome analysis to LAB and bifidobacteria 47 3.3.1 In silico safety assessment of LAB bifidobacteria 47 3.3.2 Unravelling LAB and bifidobacteria properties 51 3.4 Concluding remarks 56 References 57 4 Production and Maintaining Viability of Probiotic Micro]organisms in Dairy Products 67A.Y. Tamime, M. Saarela, M. Wszolek, H. Ghoddousi, D.M. Linares and N.P. Shah 4.1 Introduction 67 4.2 Probiotic micro]organisms 68 4.2.1 General characteristics 68 4.2.2 Examples of commercial starter culture blends 69 4.3 Economic value 72 4.4 Unfermented probiotic milk 72 4.5 Probiotic fermented milks and beverages 75 4.5.1 Lactic acid fermentations 76 4.5.2 Yeast–lactic acid fermentations 90 4.5.3 Mould–lactic acid fermentations 93 4.5.4 Quality appraisal of probiotic fermented milks 93 4.6 Probiotic cheeses 95 4.6.1 Methods of introduction of probiotics in cheese 95 4.6.2 Probiotic strain selection for cheesemaking 96 4.6.3 Very hard and hard cheese varieties 99 4.6.4 Semi]hard varieties 102 4.6.5 Brined cheeses 103 4.6.6 Soft cheeses 105 4.6.7 Pasta Filata cheeses 108 4.6.8 Miscellaneous cheeses 108 4.7 Probiotic ice cream, frozen desserts and frozen yoghurt 111 4.7.1 Background 111 4.7.2 Ice-cream 111 4.8 Dried probiotic dairy products 112 4.8.1 Introduction 112 4.8.2 Infant formula 113 4.8.3 Dairy]based dried products 114 4.9 Miscellaneous probiotic dairy products 115 4.9.1 Fat]based products 115 4.9.2 Long shelf]life fermented milk drinks or beverages 115 4.9.3 Milk] and water]based cereal puddings 116 4.9.4 Mousses, desserts and spreads 116 4.10 Viability of probiotic micro]organisms 117 4.10.1 Composition of the fermentation medium 118 4.10.2 Viability as affected by oxygen 119 4.11 Approaches to improve the viability of the probiotic micro]organisms in the product 120 4.11.1 Selection of bacterial strain(s) 120 4.11.2 Type of packaging container 120 4.11.3 Rate of inoculation 121 4.11.4 Two]stage fermentation 121 4.11.5 Microencapsulation technique 122 4.11.6 Supplementation of the milk with nutrients 122 4.11.7 The use of oxygen scavengers 124 4.11.8 The addition of cysteine 124 4.12 Future developments and overall conclusions 125 Acknowledgement 126 References 126 5 Current Legislation of Probiotic Products 165M. Hickey 5.1 Introduction and background 165 5.2 The situation in Japan 168 5.2.1 Subsystems of FOSHU 170 5.2.2 Essential elements for obtaining FOSHU approval 172 5.2.3 Features of the new category of foods with function claims 175 5.2.4 Unique features of the Japanese FOSHU system 176 5.3 The legislative situation in the European Union 176 5.3.1 Relevant EU food safety legislation 176 5.3.2 Novel food regulation in the European Union 177 5.3.3 Genetically modified organisms 178 5.3.4 EU food]labelling provisions 178 5.3.5 EU nutrition and health claims 178 5.3.6 Types of health claims 179 5.4 The USA’s legislative situation on probiotics and related health claims 183 5.4.1 Claims and labelling in the USA 184 5.4.2 The role of the Federal Trade Commission (FTC) and legal challenges 187 5.5 The Canadian legislative situation regarding health claims and functional foods 189 5.5.1 Background 189 5.5.2 Health claims on foods in Canada 189 5.5.3 Probiotic claims 190 5.6 Health foods and functional foods in China 191 5.6.1 Introduction 191 5.6.2 Chinese legislative structures 192 5.6.3 The healthy (functional) foods sector in China and its regulation 192 5.6.4 Types of health claims in China and their approval 194 5.6.5 China’s probiotic market size and potential 194 5.7 Codex Alimentarius Commission (CAC) 196 5.7.1 Background 196 5.7.2 Acceptance of Codex standards and their role in the World Trade Organisation (WTO) 197 5.7.3 Codex and food]labelling claims 198 5.7.4 Codex standard for fermented milks 200 5.8 Some conclusions and possible future legislative prospects for probiotics 201 Acknowledgements 202 References 202 6 Enumeration and Identification of Mixed Probiotic and Lactic Acid Bacteria Starter Cultures 207A.Č. Majhenic,̌ P.M. Lorbeg and P. Treven 6.1 Introduction 207 6.2 Classification 207 6.3 Phenotypic methods 208 6.3.1 Differential plating 208 6.3.2 Carbohydrate fermentation]based methods 211 6.3.3 Spectroscopic methods 213 6.3.4 Fluorescence dyes]based methods 216 6.4 Genetic methods 219 6.4.1 Polymerase chain reaction-based methods 219 6.4.2 DNA banding pattern]based methods 224 6.4.3 DNA sequencing]based methods 230 6.4.4 Probe hybridisation methods 235 6.5 Conclusions 237 References 238 7 Prebiotic Ingredients in Probiotic Dairy Products 253X. Wang and R.A. Rastall 7.1 Introduction 253 7.2 Criteria for an ingredient to be classified as a prebiotic 254 7.3 Health benefits of prebiotics and their mechanisms of action 254 7.3.1 Short]chain fatty acids and human metabolism 255 7.3.2 Mineral absorption 256 7.3.3 Energy intake and appetite regulation 256 7.3.4 Lipid metabolism 258 7.3.5 Immune function modulation of prebiotics 258 7.3.6 Colorectal cancer risk and prebiotics 259 7.3.7 Gut permeability 260 7.3.8 Colon motility and faecal bulking with application to constipation 261 7.4 Inulin]type fructans as prebiotics 261 7.4.1 Determination of inulin]type fructans 262 7.4.2 Production of inulin]type fructans 264 7.4.3 Physical and chemical characteristics of inulin]type fructans and application in the food industry 264 7.4.4 Prebiotic effects of inulin]type fructans 265 7.4.5 Health benefits of inulin]type fructans 265 7.5 Galactooligosaccharides as prebiotics 267 7.5.1 Production and determination of galactooligosaccharides 269 7.5.2 Application of galactooligosaccharides in the food industry 269 7.5.3 The prebiotic effect of galactooligosaccharides 269 7.5.4 Infant nutrition and galactooligosaccharides 271 7.5.5 Health benefit of galactooligosaccharides 272 7.6 Resistant starch and other glucose]based non]digestible carbohydrates 276 7.7 Xylooligosaccharides 279 7.8 Other potential prebiotics candidates and summary 279 References 279 8 An Overview of Probiotic Research: Human and Mechanistic Studies 293G. Zoumpopoulou, E. Tsakalidou and L.V. Thomas 8.1 Mechanisms underlying probiotic effects 293 8.1.1 Probiotic effects on the gut microbiota and its metabolites 294 8.1.2 Probiotic immune modulation 295 8.1.3 Probiotic effects on gut barrier function 296 8.1.4 Probiotics and the gut–brain axis 296 8.1.5 Probiotic mechanisms in the urogenital tract 297 8.1.6 Survival of the gut microbiota through the gut 297 8.2 Probiotic human studies: gastrointestinal conditions 297 8.2.1 Inflammatory bowel disease (IBD) 297 8.2.2 Irritable bowel syndrome (IBS) 302 8.2.3 Constipation 303 8.2.4 Diarrhoeal diseases 304 8.2.5 Paediatric conditions 306 8.3 Probiotic research: human studies investigating extra]intestinal conditions 308 8.3.1 Common infectious diseases 309 8.3.2 Allergic diseases 310 8.3.3 Urogenital conditions 313 8.3.4 Obesity]related disease 314 8.3.5 Liver disease 317 8.3.6 Cancer 318 8.3.7 Immune disorders: HIV 319 8.3.8 Trials investigating aspects of the gut–brain axis 320 8.4 Conclusions 321 References 321 9 Production of Vitamins, Exopolysaccharides and Bacteriocins by Probiotic Bacteria 359D.M. Linares, G. Fitzgerald, C. Hill, C. Stanton and P. Ross 9.1 Introduction 359 9.2 Vitamin production by probiotic bacteria 359 9.2.1 Background 359 9.2.2 Folate 360 9.2.3 Vitamin B12 362 9.2.4 Riboflavin and thiamine 363 9.2.5 Vitamin K 364 9.3 Exopolysaccharides (EPS) production by probiotic bacteria 364 9.3.1 Introduction 364 9.3.2 Classification of exopolysaccharides 365 9.3.3 Health benefits of exopolysaccharides 365 9.4 Production of bacteriocins by probiotic cultures 368 9.4.1 Background 368 9.4.2 Production of antimicrobials as a probiotic trait 369 9.4.3 Classification of bacteriocins 369 9.4.4 Antimicrobial potential of Lactobacillus spp. 372 9.4.5 Antimicrobial potential of Bifidobacterium spp. 375 9.4.6 Other lactic acid bacteria species with antimicrobial potential 376 9.5 Overall conclusions 376 Acknowledgements 377 References 377 10 Future Development of Probiotic Dairy Products 389M. Saarela 10.1 Developments in the probiotic field in the European Union (EU) 389 10.2 The current probiotic market and its trends 391 10.3 Recent developments in the probiotic research 392 10.4 Future target areas for research and conclusion 393 References 393 Index 395

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Book SynopsisWater, energy and food are key resources to sustain life, and are the fundamental to national, regional and global economies. These three resources are interlinked in multiple ways, and the term nexus captures the interconnections. The nexus has been discussed, debated, researched, and advocated widely but the focus is often on the pairings of water-energy or water-food or energy-food. To really benefit from the nexus approach in terms of resource use efficiency it is essential to understand, operationalize and practice the nexus of all three resources. As demand for these resources increases worldwide, using them sustainability is a critical concern for scientists and citizens, governments and policy makers. Volume highlights include: Contributions to the global debate on water-energy-food nexus Examples of the nexus approach in practice from different regions of the world Perspectives on the future of the nexus agenda Water-ETable of Contents Contributors vii Preface ix Acronyms and Abbreviations xi Section I: Understanding the Nexus 1 The Need for the Nexus Approach 3P. Abdul Salam, Vishnu Prasad Pandey, Sangam Shrestha, and Anil Kumar Anal 2 Evolution of the Nexus as a Policy and Development Discourse 11Vishnu Prasad Pandey and Sangam Shrestha 3 The Nexus Contribution to Better Water Management and Its Limitations 21Mike Muller 4 Dynamic, Cross]Sectoral Analysis of the Water-Energy-Food Nexus: Investigating an Emerging Paradigm 31Alex Smajgl and John Ward 5 Urban Nexus: An Integrated Approach for the Implementation of the Sustainable Development Goals 43Donovan Storey, Lorenzo Santucci, and Banashri Sinha Section II: Operationalizing the Nexus 6 Modeling the Water]Energy]Food Nexus: A 7]Question Guideline 57Bassel Daher, Rabi H. Mohtar, Sang]Hyun Lee, and Amjad Assi 7 Water]Energy]Food Nexus: Selected Tools and Models in Practice 67Victor R. Shinde 8 Governing for the Nexus: Empirical, Theoretical, and Normative Dimensions 77David Benson, Animesh K. Gain, Josselin Rouillard, and Carlo Giupponi 9 The Role of International Cooperation in Operationalizing the Nexus in Developing Countries: Emerging Lessons of the Nexus Observatory 89Kristin Meyer and Mathew Kurian 10 Water]Energy]Food Security Nexus in the Eastern Nile Basin: Assessing the Potential of Transboundary Regional Cooperation 103Mohammad Al]Saidi, Nadir Ahmed Elagib, Lars Ribbe, Tatjana Schellenberg, Emma Roach, and Deniz Oezhan 11 Energy]Centric Operationalizing of the Nexus in Rural Areas: Cases from South Asia 117Parimita Mohanty and Satwik Patnaik Section III: Nexus in Practice 12 The Water]Energy]Food Nexus from a South African Perspective 129Olusola O. Ololade, Surina Esterhuyse, and Audrey D. Levine 13 Water]Energy]Food Nexus: Examples from the USA 141Soni M. Pradhanang 14 WEF Nexus Cases from California with Climate Change Implication 151Qinqin Liu 15 Water, Energy, and Food Security Nexus in the West Asian Region 163Mohamed Abdel Hamyd Dawoud 16 Assessment of Water, Energy, and Carbon Footprints of Crop Production: A Case Study from Southeast Nepal 181Sangam Shrestha and Saroj Adhikari 17 The Food]Water]Energy Nexus in Modern Rice Cultivation in Bangladesh and Competing Discourses of Rice Research Institutions 191Sophia Barkat and Zachary A. Smith 18 Riverbank Filtration Technology at the Nexus of Water]Energy]Food 207Thomas B. Boving and Kavita Patil Section IV: Future of the Nexus Agenda 19 Water]Energy]Food (WEF) Nexus and Sustainable Development 223Ashim Das Gupta Index 243

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Book SynopsisRanging from biofuels to building materials, and from cosmetics to pharmaceuticals, the list of products that may be manufactured using discards from farming and fishery operations is extensive. Byproducts from Agriculture and Fisheries examines the procedures and technologies involved in this process of reconstitution, taking an environmentally aware approach as it explores the developing role of value-added byproducts in the spheres of food security, waste management, and climate control. An international group of authors contributes engaging and insightful chapters on a wide selection of animal and plant byproducts, discussing the practical business of byproduct recovery within the vital contexts of shifting socio-economic concerns and the emergence of green chemistry. This important text: Covers recent developments, current research, and emerging technologies in the fields of byproduct recovery and utilization Explores potential opportuTable of ContentsList of Contributors ix Preface xv 1 An Introduction to Agricultural and Fishery Wastes 1 Yi Zhang, Jia Zhang, and Benjamin K. Simpson Part I On Animal Byproducts 19 2 Pork Byproducts 21 Cristina Mateus Alfaia, Marta S. Madeira, José Pestana, Diogo Coelho, Paula A. Lopes, Fidel Toldrá, and José A.M. Prates 3 Cattle Byproducts 43 Leticia Mora, Fidel Toldrá-Reig, José A.M. Prates, and Fidel Toldrá 4 Byproducts from Dairy Processing 57 Diana Oliveira, Patrick Fox, and James A.O’Mahony 5 Byproducts from Butter and Cheese Processing 107 Terri D. Boylston 6 Poultry Byproducts 123 Alireza Seidavi, Hossein Zaker-Esteghamati, and Colin G. Scanes 7 Utilization of Egg Byproducts for Food and Biomaterial Applications 147 Apollinaire Tsopmo, Flagot Tsige, and Chibuike C. Udenigwe 8 Egg Processing Discards 169 Justina Amissah 9 Byproducts from Fish Harvesting and Processing 179 Soottawat Benjakul, Thanasak Sae-leaw, and Benjamin K. Simpson 10 Byproducts from Shellfish Harvesting and Processing 219 Sappasith Klomklao, Tanchanok Poonsin, Soottawat Benjakul, and Benjamin K. Simpson 11 Microbial Enzymes from Fish Processing Discards 259 Yi Zhang, Hanny M. Gohou, Sappasith Klomklao, and Benjamin K. Simpson 12 Animal Discards in Livestock Feed Manufacture 275 S.A. Adedokun, B.L. Bryson, O.C. Olojede, and A.E. Dunaway 13 Bioactive Peptides from Fish Collagen Byproducts: A Review 309 Moncef Nasri 14 Bioactive Compounds from Animal Meat Byproducts 335 Leticia Mora, Fidel Toldrá-Reig, Milagro Reig, and Fidel Toldrá Part II On Plant Byproducts 347 15 High-Value Products from Cereal, Nuts, Fruits, and Vegetables Wastes 349 Taiwo O. Akanbi, Kehinde O. Dare, and Alberta N. A. Aryee 16 Advances in Plant-Based Waste-to-Energy Conversion Technologies 369 Hamed M. El-Mashad and Ruihong Zhang 17 Biological and Microbial Technologies for the Transformation of Fruits and Vegetable Wastes 403 Doreen D. Adi, Ibok Oduro, and Benjamin K. Simpson 18 Bioethanol from Waste – Prospects and Challenges of Current and Emerging Technologies 421 Katerina Valta, Christina Papadaskalopoulou, Maria Dimarogona, and Evangelos Topakas 19 Applicability of Agro Waste for Remediation of Chemical Contaminants in Water 457 P. Sivaperumal, K. Kamala, W. Richard Thilagaraj, C. Gopalakrishnan, and R. Rajaram 20 Biopesticides and Biofertilizers: Types, Production, Benefits, and Utilization 479 Lord Abbey, Joel Abbey, Adedayo Leke-Aladekoba, Ekene Mark-Anthony Iheshiulo, and Mercy Ijenyo 21 Valorization of Agricultural Byproducts Through Conversion to Biochar and Bio-Oil 501 Mingxin Guo, Pengli Xiao, and Hong Li 22 Polymers and Adsorbents from Agricultural Waste 523 Sebastian L. Riedel and Christopher Brigham 23 Technologies for Compost Production from Plant Byproducts 545 Grant Clark 24 Utilization of Selected Tropical Crops (Cocoa, Kola Nuts, Sorghum, Millet, and Shea Butter) 563 Gregory Afra Komlaga, Ibok Oduro, and Edna Mireku Essel 25 Economic Value of Agro Waste in Developing Countries 581 Suresh L. Paul and Herman Sahni 26 Energy and Environmental Mitigation Potential of Rice Byproducts 597 Ebenezer Kwofie and M.O. Ngadi 27 Thermochemical Conversion of Lignocellulosic Biomass for the Production of Bioenergy 619 Andrea Kruse 28 Dioxins from Agro Waste Combustion: Evaluation and Management 629 Juan A. Conesa 29 Techno-economic Assessment of Bioenergy from Manure 641 Vasiliki Panaretou, Katerina Valta, Maria Kasidoni, and George Diamantis 30 Fruit, Nut, Cereal, and Vegetable Waste Valorization to Produce Biofuel 665 Isah Shehu, Taiwo O. Akanbi, Victor Wyatt, and Alberta N. A. Aryee 31 Economic Impacts of Value Addition to Agricultural Byproducts 685 Collins Ayoo and Samuel Bonti-Ankomah 32 Constraints to Value Addition to Agricultural Byproducts 699 Collins Ayoo, Samuel Bonti-Ankomah, and Alberta N. A. Aryee Index 713

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Book SynopsisProvides a comprehensive overview of the role of cotton in the economy and cotton production around the world This book offers a complete look at the world's largest fiber crop: cotton. It examines its effect on the global economyits uses and products, harvesting and processing, as well as the major challenges and their solutions, recent trends, and modern technologies involved in worldwide production of cotton. Cotton Production presents recent developments achieved by major cotton producing regions around the world, including China, India, USA, Pakistan, Turkey and Europe, South America, Central Asia, and Australia. In addition to origin and history, it discusses the recent advances in management practices, as well as the agronomic challenges and the solutions in the major cotton producing areas of the world. Keeping a focus on global context, the book provides sufficient details regarding the management of cotton crops. These details are not limited to the choice of cultivar, soiTable of ContentsList of Contributors xvii 1 An Introduction to Global Production Trends and Uses, History and Evolution, and Genetic and Biotechnological Improvements in Cotton 1Khawar Jabran, Sami Ul‐Allah, Bhagirath Singh Chauhan, and Allah Bakhsh 1.1 Introduction 1 1.2 Global Production Trends of Cotton 2 1.3 Uses and Products of Cotton 5 1.4 History and Evolution of Cotton 5 1.5 Genetic Improvement in Cotton 8 1.6 Role of Biotechnology and Genetic Engineering in Improving Cotton 11 1.7 Biotech Cotton Against Biotic and Abiotic Stresses 12 1.8 Biotech Cotton with Enhanced Resistance Against Abiotic Stress 14 1.9 Conclusions 15 References 16 2 Morphology, Physiology and Ecology of Cotton 23Abdul Rehman and Muhammad Farooq 2.1 Introduction 23 2.2 Morphology of Cotton 24 2.3 Temporal Dynamics of Cotton Leaves, Canopies, and Fiber Development 32 2.4 Physiology of Defoliation in Cotton Production 32 2.5 Physiology of Insect‐Cotton Plant Interaction 33 2.6 Effect of Abiotic Stresses on Cotton Physiology 33 2.7 Agronomic Management of Cotton 37 2.8 Organic Cotton Production 38 2.9 Conclusion 39 References 39 3 Water Management in Cotton 47Avishek Datta, Hayat Ullah, Zannatul Ferdous, Raquel Santiago-Arenas, and Ahmed Attia 3.1 Introduction 47 3.2 Water Uptake in Cotton 48 3.3 Germination and Growth of Cotton in Relation to Water Availability 49 3.4 Water Management Methods 51 3.5 Drought Stress in Cotton: Impacts and Management 54 3.6 Conclusions 56 References 56 4 Nutrient Management in Cotton 61Jingxiu Xiao and Xinhua Yin 4.1 Introduction 61 4.2 Nutrient Deficiency Symptoms in Cotton 62 4.3 Diseases and Cotton Nutrition 66 4.4 Macronutrient Management 67 4.5 Micronutrient Management 70 4.6 Drip Irrigation and Cotton Nutrients 72 4.7 Foliar Fertilization 73 4.8 Conclusion 74 References 75 5 Insect Pest Management in Cotton 85Muhammad Razaq, Robert Mensah, and Habib‐ur‐Rehman Athar 5.1 Introduction 85 5.2 Genetically Modified Cotton: Benefits and Threats 87 5.3 Evolution of Resistance to BT Cotton and Management Strategies 88 5.4 Management of Resistance to BT Crops 89 5.5 Sucking Insect Pests 90 5.6 Impact of Genetically Modified Cotton on Sucking Insect Pests and their Management 92 5.7 Chemical Insecticide Use, Modes of Action, and Resistance 93 5.8 Modes of Action of Insecticides Used on Cotton 94 5.9 Modes of Action and Toxicity 94 5.10 Integrated Pest Management 96 5.11 Avoidance of Pests 96 5.12 Sampling and Monitoring Pest Populations for Effective IPM Programs 98 5.13 Conclusions 101 Acknowledgments 102 References 102 6 Weed Management in Cotton 109Nadeem Iqbal, Asad M. Khan, and Bhagirath Singh Chauhan 6.1 Introduction 109 6.2 Weed Flora of Cotton 110 6.3 Impact of Weeds on Cotton 110 6.4 Herbicide‐resistant Weeds 113 6.5 Preventive Weed Management 114 6.6 Cultural Weed Management 115 6.7 Mechanical Weed Management 118 6.8 Chemical Weed Control 118 6.9 Integrated Weed Management in Cotton 121 6.10 Conclusions 122 References 122 7 Integrated Management of Major Fungal, Bacterial, Viral, and Nematode Diseases of Cotton 127Lily L. Pereg and Tamene T. Tolessa 7.1 General Background 127 7.2 Fungal Diseases of Cotton 128 7.3 Bacterial Diseases of Cotton 138 7.4 Viral Diseases of Cotton 138 7.5 Disease Caused by Nematodes 139 7.6 An Overview of Cotton Disease Management 140 7.7 Conclusions 141 References 141 8 Seed Production, Harvesting, and Ginning of Cotton 145Gautam Majumdar, Suman Bala Singh, and Sujeet Kumar Shukla 8.1 Basic Principles for Seed Production in Cotton 145 8.2 Harvesting 152 8.3 Ginning 161 8.4 Conclusions 171 References 172 9 Cotton Production in China 175Mao Shuchun, Li Yabing, Wang Zhanbiao, Zhi Xiaoyu, Li Pengcheng, and Xue Huiyun 9.1 Introduction 175 9.2 The Development of Cotton Production 175 9.3 Division of Cotton‐Producing Regions and Innovation of the Cotton Farming System 177 9.4 Planting Systems 180 9.5 Cotton Varieties and Genetic Modification 180 9.6 Cotton Genetic Modification 181 9.7 Technologies for Cotton Production 182 9.8 Prospects for Further Cotton Production Development 189 9.9 Conclusion 190 References 190 10 Cotton Production in India 193D. Blaise and K. R. Kranthi 10.1 Introduction 193 10.2 History, Importance, Area, and Production 193 10.3 Land Preparation and Planting 196 10.4 Seed Rate and Spacing 197 10.5 Cotton Based Cropping Systems 198 10.6 Major Production Constraints 199 10.7 Fertilizer Management 201 10.8 Cotton Insect Pests in India and Their Management 203 10.9 Cotton Diseases in India and Their Management 206 10.10 Cotton Weeds in India and Their Management 207 10.11 Harvesting and Yields 208 10.12 Processing and Products 209 10.13 Challenges and Opportunities 210 10.14 Conclusions 211 References 212 11 Cotton Production in the United States of America: An Overview 217Tyson B. Raper, Cristiane Pilon, Vijay Singh, John Snider, Scott Stewart, and Seth Byrd 11.1 History, Production Areas, and Yield 217 11.2 Varieties and Genetic Improvement 219 11.3 Cotton Production Methods 223 11.4 Seedbed Preparation 223 11.5 Planting 224 11.6 Early‐Season Management 225 11.7 Mid‐Season Management 226 11.8 Pre‐Harvest 227 11.9 Harvesting 227 11.10 Crop Nutrition and Pest Management 230 11.10.1 Fertilizer 230 11.11 Weed Management 231 11.12 Insect Management 234 11.13 Major Production Constraints 234 11.14 Irrigation Scheduling 238 11.15 Conclusion 241 References 242 12 Cotton Production in Pakistan 249Muhammad Amjad Ali, Jehanzeb Farooq, Asia Batool, Adil Zahoor, Farrukh Azeem, Abid Mahmood, and Khawar Jabran 12.1 Introduction 249 12.2 History, Importance, Area, and Production 250 12.3 Breeding Methods 258 12.4 Land Marks in History of Cotton Breeding in Punjab, Pakistan 260 12.5 Cotton Production Methods 264 12.6 Weeds of Cotton 267 12.7 Cotton Production Constraints in Pakistan 267 12.8 Challenges and Opportunities 269 12.9 Pest Management 270 12.10 Harvesting and Yields 271 12.11 Processing and Products 272 12.12 Conclusions 272 References 273 13 Cotton Production in Brazil and Other South American Countries 277Lucia Vieira Hoffmann, Ivan Bonacic Kresic, Jorge Gabriel Paz, Diego Alberto Bela, Nydia Elisa Tcach, Fernando Mendes Lamas, and Valdinei Sofiatti 13.1 Introduction 277 13.2 History 278 13.3 Varieties and Genetic Improvement 279 13.4 Cotton‐Based Cropping Systems in Brazil and Argentina 282 13.5 Major Production Constraints 285 13.6 Challenges and Opportunities 285 13.7 Harvesting 290 13.8 Processing and Products 291 13.9 Conclusions 291 References 291 14 Cotton Production in Turkey and Europe 297Huseyin Basal, Emine Karademir, Hatice Kubra Goren, Volkan Sezener, Mehmet Nedim Dogan, Ibrahim Gencsoylu, and Oktay Erdogan 14.1 Introduction 297 14.2 History of Cotton Production and Textile Manufacturing in Turkey 298 14.3 Cotton Production in Turkey 299 14.4 Organic Cotton Production in Turkey 300 14.5 Cotton Based Cropping Systems 302 14.6 Varieties and Genetic Improvement 302 14.7 Cotton Production Methods 304 14.8 Major Production Constraints 304 14.9 Challenges and Opportunities 305 14.10 Cotton Diseases and Control 309 14.11 Weed Control in Cotton Production in Turkey 310 14.12 Harvesting and Yield 312 14.13 Cotton Production in Europe 315 14.14 Cotton Production in Spain 316 14.15 Cotton Production in Bulgaria 316 14.16 Conclusions 316 References 317 15 Cotton Production in Central Asia 323Mahsa Pourali Kahriz, Parisa Pourali Kahriz, and Khalid Mahmood Khawar 15.1 Introduction 323 15.2 History, Importance, Area, and Production 324 15.3 Uzbekistan 325 15.4 Cotton Based Cropping Systems 326 15.5 Varieties and Genetic Improvement: Cotton Production Methods 326 15.6 Major Production Constraints 328 15.7 Fertilizer and Pest Management 329 15.8 Processing and Products 331 15.9 Turkmenistan 332 15.10 Tajikistan 332 15.11 Kazakhstan 333 15.12 Kyrgyzstan 334 15.13 Conclusions 335 References 335 16 Cotton Production in Australia 341Parminder Kaur, Tejinder Bhagria, Navneet Kaur Mutti, Abhimanyu Rinwa, Gulshan Mahajan, and Bhagirath Singh Chauhan 16.1 Introduction 341 16.2 History, Importance, Area, and Production 342 16.3 Varieties and Genetic Improvement 343 16.4 Production Technology 344 16.5 Row Spacing and Plant Population 345 16.6 Crop Development 346 16.7 No‐Till Planting of Cotton into Cereal Stubble 346 16.8 Growth Regulators in Cotton Production 346 16.9 Irrigation 347 16.10 Cotton‐based Cropping Systems 348 16.11 Fertilizer Management 349 16.12 Insect‐pest Management 349 16.13 Weed Management 351 16.14 Major Production Constraints 352 16.15 Challenges and Opportunities 353 16.16 Conclusions 355 References 355 17 Cotton Production in Africa 359Khizer Amanet, Emmanuel Obianuju Chiamaka, Gabriel Willie Quansah, Muhammad Mubeen, Hafiz Umar Farid, Rida Akram, and Wajid Nasim 17.1 Introduction 359 17.2 History, Importance, Area, and Production 360 17.3 Cotton Based Cropping System in African Countries 362 17.4 Varieties and Genetic Improvement of Cotton in Africa 363 17.5 Major Production Constraints in Africa 363 17.6 Challenges and Opportunities 366 17.7 Harvesting and Yields 367 17.8 Conclusion 367 References 367 18 Challenges and Opportunities in Cotton Production 371Mahboobeh Mollaee, Ahmadreza Mobli, Navneet Kaur Mutti, Sudheesh Manalil, and Bhagirath Singh Chauhan 18.1 Introduction 371 18.2 GM Cotton 372 18.3 Conservation Agriculture in Cotton 374 18.4 Cotton Production under Salt Stress and Water Logging 375 18.5 Climate Change and Cotton Production 377 18.6 Cotton Hybrids 378 18.7 Cotton Wastes for Energy 379 18.8 Crop Modeling in Cotton 380 18.9 Organic Cotton Production 380 18.10 Conclusions 382 References 383 Index 391

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Book SynopsisThis new approach to insect modeling discusses population dynamics' regularities, control theory, theory of transitions, and describes methods of population dynamics and outbreaks modeling for forest phyllophagous insects and their effects on global climate change. Research in insect population dynamics is important for more reasons than just protecting forest communities. Insect populations are among the main ecological units included in the analysis of stability of ecological systems. Moreover, it is convenient to test new methods of analyzing population and community stability on the insect-related data, as by now ecologists and entomologists have accumulated large amounts of such data. In this book, the authors analyze population dynamics of quite a narrow group of insects forest defoliators. It is hoped that the methods proposed herein for the analysis of population dynamics of these species may be useful and effective for analyzing population dynamics of other animal species Table of ContentsAuthors ix Introduction xi 1 Population Dynamics of Forest Insects: Outbreaks in Forest Ecosystems 1 1.1 Approaches to modeling population dynamics of forest insects 1 1.2 The role of insects in the forest ecosystem 4 1.3 The phenomenological theory of forest insect population dynamics: the principle of stability of flexible ecologicalsystems 10 1.4 Classification of the factors of forest insect population dynamics 12 1.5 Delayed and direct regulation mechanisms 14 2 Ways of Presenting Data on Forest Insect Population Dynamics 17 2.1 Representation of population dynamics data 17 2.2 Presenting the data on forest insect population dynamics through changes in density over time 18 2.3 Presenting the data on populatiozn dynamics as a phase portrait 24 2.4 The probability of the population leaving the stability zone and reaching an outbreak density: a model of a one-dimensional potential well 40 2.5 Presenting the data on forest insect population dynamics as a potential function 47 3 The Effects of Weather Factors on Population Dynamics of Forest Defoliating Insects 53 3.1 The necessary and sufficient weather conditions for the development of outbreaks of defoliating insects in Siberia 53 3.2 Weather influence on the development of the pine looper Bupalus piniarius L. outbreaks 55 3.3 Siberian silk moth Dendrolimus sibiricus Tschetv. population dynamics as related to weather conditions 61 3.4 Synchronization of weather conditions on vast areas as a factor of the occurrence of pan-regional outbreaks 64 4 Spatial and Temporal Coherence of Forest Insect Population Dynamics 79 4.1 Coherence and synchronicity of population dynamics 79 4.2 Spatiotemporal coherence of the population dynamics of defoliating insects in pine forests of Middle Siberia 83 4.3 Spatiotemporal coherence of population dynamics of defoliating insects in the Alps 90 4.4 Global coherence of pine looper population dynamics in Eurasia 94 4.5 Synchronization of the time series of gypsy moth population dynamics in the South Urals 96 5 Interactions Between Phytophagous Insects and Their Natural Enemies and Population Dynamics of Phytophagous Insects During Outbreaks 101 5.1 Entomophagous organisms as a regulating factor in forest insect population dynamics 101 5.2 A “phytophagous – entomophagous insect” model 106 6 Food Consumption by Forest Insects 113 6.1 Energy balance of food consumption by insects: an optimization model 113 6.2 A population-energy model of insect outbreaks 127 7 AR- and ADL-Models of Forest Insect Population Dynamics 139 7.1 An ADL-model (autoregressive distributed lag) of insect population dynamics 139 7.2 A model of population dynamics of the gypsy moth in the South Urals 145 7.3 Modeling population dynamics of the larch bud moth in the Alps 155 7.4 Simulation models of population dynamics of defoliating insects in the Krasnoturansk pine forest 165 7.5 Modeling and predicting population dynamics of the European oak leaf-roller 172 7.6 Gain margin of the AR-models of forest insect population dynamics 176 8 Modeling of Population Dynamics and Outbreaks of Forest Insects as Phase Transitions 183 8.1 Models of phase transitions for describing critical events in complex systems 183 8.2 Population buildup and development of an outbreak of forest insects as a first-order phase transition 185 8.3 Possible mechanisms of the development of forest insect outbreaks 192 8.4 Colonization of the tree stands by forest insects as a second-order phase transition 194 8.5 Risks of elimination of the population from the community 201 9 Forecasting Population Dynamics and Assessing the Risk of Damage to Tree Stands Caused by Outbreaks of Forest Defoliating Insects 207 9.1 Methods of forecasting forest insect population dynamics 207 9.2 Long-term forecast of population dynamics of defoliating insects 217 9.3 Assessment of the maximum risk of damage to tree stands caused by insects 223 9.4 Modeling and forecasting of eastern spruce budworm population dynamics 225 10 Global Warming and Risks of Forest Insect Outbreaks 233 10.1 Climate change and forest insect outbreaks in the Siberian taiga 233 10.2 Stress testing of insect impact on forest ecosystems under different scenarios of climate changes in the Siberian taiga 236 10.3 Risks of outbreaks of forest insect species with the stable type of population dynamics 244 Conclusion 251 References 255 Index 285

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Book SynopsisThe first guide devoted to the functions, structures, and applications of natural hydrocolloids In today's health-conscious climate, the demand for natural food products is growing all the time. Natural hydrocolloids, therefore, have never been more popular. With their thickening, stabilizing, gelling, fat replacing, and binding qualities, these naturally occurring, plant-based polymers can fulfil many of the same functions as commercial ingredients like xanthan, guar, gum Arabic, pectin, and starch. Moreover, certain health benefits have been linked with their often biological active compounds and high-fiber compositions, including potential prebiotic effects and the reduction of blood cholesterol levels. Application of these novel hydrocolloids is, however, still underexplored. Emerging Natural Hydrocolloids aims to remedy this by providing a thorough overview of their structurefunction relationships, rheological aspects, and potential utility in mainlyTable of ContentsAbout the Editor xxi List of Contributors xxiii Preface xxvii 1 Introduction to Emerging Natural Hydrocolloids 1Seyed M.A. Razavi 1.1 Introduction 1 1.2 World Market of Hydrocolloids 2 1.3 Hydrocolloids Classification 4 1.4 Functions of Hydrocolloids 8 1.5 Overview of the Chapters 13 1.6 Conclusion 24 References 25 2 Dilute Solution Properties of Emerging Hydrocolloids 53Ali R. Yousefi and Seyed M.A. Razavi 2.1 Introduction 53 2.2 Partial Specific Volume 54 2.3 Hydrogel Content 55 2.4 Molecular Weight 57 2.5 Intrinsic Viscosity 59 2.6 Coil Overlap Parameter and Molecular Conformation 65 2.7 Chain Flexibility Parameter 67 2.8 Stiffness Parameter 68 2.9 Coil Radius and Volume 69 2.10 Voluminosity and Shape Factor 70 2.11 Hydration Parameter 71 2.12 Conclusion and Future Trends 72 References 73 3 Steady Shear Rheological Properties of Emerging Hydrocolloids 81Fataneh Behrouzian and Seyed M.A. Razavi 3.1 Introduction 81 3.2 Time-Independent Rheological Properties 83 3.3 Time-Dependent Rheological Properties 87 3.4 Yield Stress 92 3.5 Cluster Analysis 94 3.6 Conclusion and Future Trend 97 References 97 4 Transient and Dynamic Rheological Properties of Emerging Hydrocolloids 101Ali Alghooneh and Seyed M.A. Razavi 4.1 Introduction 101 4.2 Viscoelastic Characteristics 103 4.3 Cluster Analysis 125 4.4 Conclusion and Future Trends 129 References 131 5 Hydrocolloids Interaction Elaboration Based on Rheological Properties 135Ali Alghooneh, Fataneh Behrouzian, and Seyed M.A. Razavi 5.1 Introduction 135 5.2 Dilute Regime 136 5.3 Concentrated Regime 137 5.4 Thermodynamic 151 5.5 Miscibility 152 5.6 Conclusions and Future Trends 154 References 154 6 Sage(Salvia macrosiphon) Seed Gum 159Seyed M.A. Razavi, Ali Alghooneh, and Fataneh Behrouzian 6.1 Introduction 159 6.2 Salvia macrosiphon Seed Mucilage 160 6.3 Rheological Properties 163 6.4 Textural Properties 177 6.5 Applications 177 6.6 Summary 179 References 179 7 Balangu (Lallemantia royleana) Seed Gum 183Asad Mohammad Amini 7.1 Introduction 183 7.2 Extraction and Purification 184 7.3 Physicochemical and Structural Properties 185 7.4 Rheological Properties 187 7.5 Functional Properties 194 7.6 Conclusions and Future Trends 199 References 200 8 Qodume Shirazi (Alyssum homolocarpum) Seed Gum 205Arash Koocheki and Mohammad Ali Hesarinejad 8.1 Introduction 205 8.2 Gum Extraction Optimization 205 8.3 Physicochemical Properties 207 8.4 Rheological Properties 209 8.5 Biological Activity 212 8.6 Applications 213 8.7 Conclusion and Future Trends 219 References 219 9 Espina Corona (Gleditsia amorphoides) Seed Gum 225María J. Spotti, Martina Perduca, Paula Loyeau, Amelia Rubiolo, and Carlos Carrara 9.1 Introduction 225 9.2 Purification and Composition 226 9.3 Flow Behavior 227 9.4 Viscoelasticity 231 9.5 Applications of ECG in Colloidal Systems 233 9.6 Conclusions and Future Trends 244 References 245 10 Qodume Shahri (Lepidium perfoliatum) Seed Gum 251Arash Koocheki and Mohammad A. Hesarinejad 10.1 Introduction 251 10.2 Gum Extraction Optimization 252 10.3 Chemical Compositions 253 10.4 Functional Properties 253 10.5 Rheological Properties 253 10.6 Applications 259 10.7 Conclusions and Future Trends 267 References 268 11 Persian Gum (Amygdalus scoparia Spach) 273Soleiman Abbasi 11.1 Botanical Aspects and Importance 273 11.2 General Specifications 275 11.3 Production, Collection, and Processing 277 11.4 Physicochemical Properties 278 11.5 Structural Characteristics 279 11.6 Rheological Properties 284 11.7 Interaction with Other Macromolecules 286 11.8 Surface Activity and Emulsifying Properties 290 11.9 Thermal Characteristics 291 11.10 Potential Applications 291 11.11 Concluding Remarks 292 References 293 12 Gum Tragacanth (Astragalus gummifer Labillardiere) 299Zahra Emam-Djomeh, Morteza Fathi, and Gholamreza Askari 12.1 Introduction 299 12.2 Structure 300 12.3 Thermal Properties 306 12.4 Functional Properties 306 12.5 Biological Activity 312 12.6 Antibacterial Activity 312 12.7 Effect of Pre-treatment on GT: Physicochemical Properties 313 12.8 Food Applications 314 12.9 Conclusions and Future Trends 319 References 320 13 Cashew Tree (Anarcadium occidentale L.) Exudate Gum 327Esther Gyedu-Akoto, FrankM. Amoah, and Ibok Oduro 13.1 Introduction 327 13.2 Cashew Tree Gum 328 13.3 Application of Cashew Gum in Foods 336 13.4 Application of Cashew Gum in the Pharmaceutical Industry 339 13.5 Conclusion 342 13.6 Future Trends 342 References 343 14 Brea Tree (Cercidium praecox) Exudate Gum 347María A. Bertuzzi and Aníbal M. Slavutsky 14.1 Introduction 347 14.2 Physicochemical Characteristics 349 14.3 Functional Properties 352 14.4 Applications 358 14.5 Conclusions 364 14.6 Future Trends 365 Acknowledgments 365 References 366 15 Chubak (Acanthophyllum glandulosum) Root Gum 371Hojjat Karazhiyan 15.1 Introduction 371 15.2 Chubak Root Extract (CRE) 372 15.3 Applications of CRE in Foods 374 15.4 Conclusions and Future Trends 388 References 389 16 Marshmallow (Althaea officinalis) Flower Gum 397Seyedeh Fatemeh Mousavi, Seyed M.A. Razavi, and Arash Koocheki 16.1 Introduction 397 16.2 Extraction Optimization using RSM 398 16.3 Chemical Compositions 407 16.4 FT-IR 408 16.5 Differential Scanning Calorimetry (DSC) 409 16.6 DPPH Radical-Scavenging Activity 409 16.7 Steady Shear Rheological Properties 411 16.8 Intrinsic Viscosity 416 16.9 Conclusions and Future Trends 417 References 418 17 Opuntia ficus-indica Mucilage 425Elnaz Salehi, Zahra Emam-Djomeh, Morteza Fathi, and Gholamreza Askari 17.1 Introduction 425 17.2 Opuntia ficus-indica Plant Parts 428 17.3 Opuntia ficus-indica Mucilage 431 17.4 Food Applications 441 17.5 Conclusion and Future Trends 443 References 444 18 Emerging Technologies for Isolation of Natural Hydrocolloids from Mucilaginous Seeds 451Asgar Farahnaky, Mahsa Majzoobi, and Shaahin Bakhshizadeh-Shirazi 18.1 Introduction 451 18.2 Mucilaginous Seeds 451 18.3 Mucilage Isolation using Conventional Methods 452 18.4 Emerging Mucilage Isolation Technologies 461 18.5 Conclusions and Future Trends 469 References 469 19 Purification and Fractionation of Novel Natural Hydrocolloids 473Somayeh Razmkhah 19.1 Introduction 473 19.2 Purification of New Natural Hydrocolloids 474 19.3 Fractionation of New Natural Hydrocolloids 482 19.4 Conclusions and Future Trends 494 References 496 20 Improving Texture of Foods using Emerging Hydrocolloids 499Ali Rafe 20.1 Introduction 499 20.2 Influence of Hydrocolloids on Food Structure 499 20.3 Textural Attributes 502 20.4 Tribology (Body–Texture Interaction) 506 20.5 Consumer Perceptions of Food Hydrocolloids 510 20.6 Fractal Analysis 511 20.7 Microstructure of BSG 515 20.8 Conclusions and Future Trends 517 References 518 21 New Hydrocolloids in Ice Cream 525Fatemeh Javidi and Seyed M.A. Razavi 21.1 Introduction 525 21.2 New Sources of Hydrocolloids in Ice Cream 526 21.3 Functions of New Hydrocolloids in Ice Cream 530 21.4 Conclusions 541 21.5 Future Trends 542 References 543 22 Novel Hydrocolloids for Future Progress in Nanotechnology 549Sara Naji-Tabasi 22.1 Introduction 549 22.2 Importance of Finding New Material Sources in Nanotechnology 550 22.3 Nanomaterials 550 22.4 Conclusions and Future Trends 563 References 564 23 Edible/Biodegradable Films and Coatings from Natural Hydrocolloids 571Younes Zahedi 23.1 Introduction 571 23.2 Film Preparation 572 23.3 Film Characteristics 573 23.4 Applications 593 23.5 Conclusions and Future Trends 594 References 595 24 Health Aspects of Novel Hydrocolloids 601Jafar M.Milani and Abdolkhalegh Golkar 24.1 Introduction 601 24.2 Health Benefits of Hydrocolloids 602 24.3 Conclusions and Recommendations 614 References 615 Index 623

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Book SynopsisMelding the hands-on experience of producing yogurt and fermented milks over four decades with the latest in scientific research in the dairy industry, editor Chandan and his associate editors have assembled experts worldwide to writeManufacturing Yogurt and Fermented Milks, 2nd Edition.Table of ContentsList of contributors xi Preface to the second edition xiii Preface to the first edition xv PART I BASIC BACKGROUND 1 1 History and consumption trends 3 Ramesh C. Chandan 1.1 Overview of the world dairy industry 3 1.2 Milk production in the USA 3 1.3 Production of dairy foods in the USA 4 1.4 Fermented/cultured dairy products 7 1.5 Occurrence and consumption of fermented milks in various regions 8 1.6 Major commercial fermented milks 11 1.7 Scandinavian fermented milks 15 1.8 Russian and Eastern European fermented milks 16 1.9 Middle Eastern fermented milks 16 1.10 South Asian fermented milks 17 2 Milk composition, physical and processing characteristics 21 Guillaume Brisson and Harjinder Singh 2.1 Introduction 21 2.2 Milk composition 21 2.3 Milk components and processing characteristics 23 2.4 Physicochemical properties of milk 37 3 Regulatory requirements for milk production, transportation and processing 49 Cary P. Frye 3.1 Introduction 49 3.2 From farm to factory 49 3.3 History of milk safety 50 3.4 United States Public Health Grade "A" Milk Safety Program 50 3.5 Inspection of milk safety 51 3.6 Farm requirements 52 3.7 Milk transportation 53 3.8 Processing plant 54 3.9 Hazard Analysis and Critical Control Point System 58 3.10 Standards and regulations 60 3.11 Milk pricing—US Federal Milk Marketing Orders 65 4 Regulations for product standards and labeling 71 Cary P. Frye 4.1 US Code of Federal Regulations 71 4.2 US product standards of identity 71 4.3 Fermented milk and milk products 72 4.4 Stayed provisions 77 4.5 Frozen yogurt 79 4.6 Food additives and packaging 79 4.7 Labeling 80 4.8 Codex Standards and definitions for fermented-milk products 89 5 Principles of dairy processing 95 Arun Kilara 5.1 Introduction 95 5.2 From farm to factory 95 5.3 Storage of raw milk 96 5.4 Overview of processing equipment in a dairy plant 99 5.5 Centrifugal operations 105 5.6 Thermal-processing systems 107 5.7 Homogenization 110 5.8 Membrane technology 111 5.9 Conclusion 113 6 Starter cultures for yogurt and fermented milks 115 Ebenezer R. Vedamuthu 6.1 Introduction 115 6.2 Starter functions 118 6.3 Factors affecting starter performance 120 6.4 Microorganisms used in starters for cultured dairy products 127 6.5 Genus Lactococcus 130 6.6 Comments on Cit + Lactococcus lactis ssp. lactis 136 6.7 Genus Leuconostoc 136 6.8 Genus Streptococcus 138 6.9 Genus Lactobacillus 140 6.10 Genus Bifidobacterium 142 6.11 Starter-culture production 142 6.12 Miscellaneous starters 146 6.13 Literature 146 7 Fermented dairy packaging materials 149 Aaron L. Brody 7.1 Introduction 149 7.2 Fundamentals of packaging 150 7.3 Packaging materials 151 7.4 Interactions between product and packaging 160 7.5 The package in product distribution 162 7.6 Graphic design and assessment 163 7.7 Economics of packaging 164 7.8 Regulation 165 7.9 Packaging and the environment 166 7.10 Packaging for yogurt and fermented dairy products 168 7.11 Future trends 174 8 Milk and milk-based ingredients 177 Isabelle Sodini and Phillip S. Tong 8.1 Introduction 177 8.2 Composition and specifications 177 8.3 Performances in yogurt formulation 178 8.4 Conclusion 189 PART II MANUFACTURE OF YOGURT 193 9 Yogurt: fruit preparations and fl avoring materials 195 Kevin O'Rell and Ramesh C. Chandan 9.1 Introduction 195 9.2 Fruit as a raw material for yogurt preparations 196 9.3 Processing of fruit for use in yogurt fruit preparations 197 9.4 Formulation of fruit preparations 200 9.5 Processing yogurt fruit preparations 209 9.6 Packaging of fruit preparations 213 9.7 Acknowledgment 215 10 Ingredients for yogurt manufacture 217 Ramesh C. Chandan and Kevin O'Rell 10.1 Introduction 217 10.2 Dairy ingredients and their origin 217 10.3 Sweeteners 224 10.4 Stabilizers 233 11 Principles of yogurt processing 239 Ramesh C. Chandan and Kevin O'Rell 11.1 Introduction 239 11.2 Mix preparation 239 11.3 Heat treatment 239 11.4 Homogenization 241 11.5 Yogurt starter 242 11.6 Changes in milk constituents during yogurt production 256 12 Manufacture of various types of yogurt 263 Kevin O'Rell and Ramesh C. Chandan 12.1 Introduction 263 12.2 General manufacturing procedures applicable to all categories 263 12.3 Yogurt types, styles, subcategories and definitions 268 12.4 Market statistics on the yogurt trade 269 12.5 Manufacturing process for major yogurt categories 272 12.6 General manufacturing procedures for major types of yogurt 278 12.7 Post-culturing heat treatment 294 13 Greek-style yogurt and related products 297 Arun Kilara and Ramesh C. Chandan 13.1 Introduction 297 13.2 Greek-style yogurt 299 13.3 Chakka and shrikhand 305 13.4 Quarg and fromage frais 309 13.5 Mishti doi/dahi 315 14 Plant cleaning and sanitization 319 Dennis Bogart 14.1 Introduction 319 14.2 Cleaning 320 14.3 Sanitization 326 14.4 Phage control 328 14.5 A final thought 330 15 Yogurt plant: quality assurance 331 Kevin O'Rell and Ramesh C. Chandan 15.1 Introduction 331 15.2 Regulatory obligations 331 15.3 Quality-control programs 341 15.4 National Yogurt Association criteria for live- and active-culture yogurts 346 15.5 Specification program 348 16 Sensory analysis of yogurt 353 Yonca Karagül-Yüceer and MaryAnne Drake 16.1 Introduction 353 16.2 Sensory-analysis techniques 353 16.3 Sensory analysis of yogurt 359 16.4 Conclusions 364 PART III MANUFACTURE OF FERMENTED MILKS 369 17 Cultured buttermilk 371 Charles H. White 17.1 Introduction 371 17.2 Milk supply 373 17.3 Processing of milk 374 17.4 Buttermilk starter culture 374 17.5 Breaking, cooling, bottling and distribution 376 18 Cultured/sour cream 381 Bill Born 18.1 Early history 381 18.2 Present standards 383 18.3 Sour-cream products 388 19 Other fermented and culture-containing milks 393 Ebenezer R. Vedamuthu 19.1 Introduction 393 19.2 Dahi 395 19.3 Kefir 399 19.4 Koumiss 402 19.5 Acidophilus milk and sweet acidophilus milk 403 19.6 Probiotic milks 406 19.7 Bulgarian milk 407 19.8 Skyr 407 19.9 Viili 408 19.10 Kurut 409 PART IV HEALTH BENEFITS 411 20 Functional foods and disease prevention 413 Ramesh C. Chandan and Nagendra P. Shah 20.1 Introduction 413 20.2 Functional foods 414 20.3 Bioactive dairy ingredients 415 20.4 Milk fat 421 20.5 Probiotics 422 20.6 Fortification 429 20.7 Physiologically active ingredients 429 21 Health benefits of yogurt and fermented milks 433 Nagendra P. Shah 21.1 Introduction 433 21.2 Yogurt and other fermented milks 435 21.3 Health benefits of fermented milks 438 22 Probiotics and fermented milks 451 Nagendra P. Shah 22.1 Introduction 451 22.2 Taxonomy of lactic-acid bacteria 451 22.3 Probiotic bacteria 452 22.4 Selection criteria for probiotics 453 22.5 Health benefits of Lactobacillus acidophilus and bifidobacteria 459 22.6 Conclusion 465 References and further reading 466 Index 469

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Book SynopsisCombining economic theory with the history of technology, Making Tobacco Bright revises several narratives in American history, from colonial staple-crop agriculture to the origins of the tobacco industry to the rise of identity politics in the twentieth century.Trade ReviewA discerning analysis of not only how a commodity-tobacco-was shaped and defined by technology, but also how technology can be influenced by a commodity... This interesting, thorough history will appeal to readers and researchers alike. Highly recommended. Choice Thoroughly researched, engaging, and enjoyable...An excellent first book. -- James C. Giesen Environmental History Strongly argued and deeply researched. -- Evan P. Bennett Agricultural History Hahn has produced an important book, thoroughly researched and persuasively argued, that deserves a wide audience among American historians. Journal of American History Hahn has written an ambitious book that examines how Americans created a commodity whose roots were densely-perhaps inextricably-tangled with those of the growing nation. Her work deserves a broad readership among students of southern agriculture, economic history, and the history of science and technology. -- Max Grivno Journal of Southern History ... Making Tobacco Bright is an impressive book, one that rewrites conventional understandings of tobacco as a crop, a commodity, and a symbol. From Jamestown to contemporary southern fields, Hahn tells an old story in an entirely fresh way. -- Drew A. Swanson Technology and CultureTable of ContentsAcknowledgmentsIntroductionProloguePart I1. Making Tobacco Virginian2. Growing the Business3. Death and TaxesPart II4. Ripeness Is All5. Inventing Tradition6. StabilizationAppendixNotesEssay on SourcesIndex

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Book SynopsisUltimately, he asks whether a distinctive style of rural life exists any longer.Table of ContentsPreface to the Third EditionPreface to the Second EditionPreface to the First Edition1. Rural Europe and Pre-Columbian America2. The Rural Development of English North America3. Maturity and Its Discontents4. Agriculture and Economic Growth in the Young Republic5. Rural Life in the Young Nation6. The Unmaking and Remaking of the Rural South7. Rural America in the Age of Industrialization8. Prosperity and Its Discontents9. From the Best of Times to the Worst10. The New Deal and Rural America11. The Production Revolution and the New Agriculture12. Agriculture and Rural Life in the Twenty-First CenturyNotesSuggestions for Further ReadingIndex

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Book Synopsis

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Book SynopsisUrban gardeners. Native seed-saving collectives. Ecovillage developments. What is the connection between these seemingly disparate groups? The ecological design system of permaculture is the common thread that weaves them into a powerful, potentially revolutionary—or reevolutionary—movement. Permaculture is a philosophy based on common ethics of sustainable cultures throughout history that have designed settlements according to nature''s patterns and lived within its bounds. As a movement that has been building momentum for the past 40 years, it now is taking form as a growing network of sites developed with the intention of regenerating local ecologies and economies. Permaculture strategies can be used by individuals, groups, or nations to address basic human needs such as food, water, energy, and housing. As a species, humans are being called forth to evolve, using our collective intelligence to meet the challenges of the future. Yet if we are to survive our collective planetary crisis, we need to revisit history, integrating successful systems from sustainable cultures. To boldly confront our position on the brink of the earth''s carrying capacity and make changes that incorporate the wisdom of the past is truly revolutionary. Sustainable Revolution features the work of a worldwide network of visionaries, including journalists, activists, indigenous leaders and permaculturists such as David Holmgren, Vandana Shiva, Charles Eisenstein, Starhawk, Erik Assadourian, Victoria Tauli-Corpuz, Albert Bates, and Geoff Lawton. This beautifully photographed collection of profiles, interviews, and essays features 60 innovative community-based projects in diverse climates across the planet. Edited by anthropologist Juliana Birnbaum Fox and award-winning activist filmmaker Louis Fox, it can be read as an informal ethnography of an international culture that is modeling solutions on the cutting edge of social and environmental change. The research presented in the book frames the permaculture movement as a  significant ally to marginalized groups, such as the urban poor and native communities resisting the pressures of globalization. Sustainable Revolution uplifts and inspires with its amazing array of dynamic activists and thriving, vibrant communities.

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Book SynopsisThe Bio-Integrated Farm is a twenty-first-century manual for managing nature’s resources. This groundbreaking book brings “system farming” and permaculture to a whole new level. Author Shawn Jadrnicek presents new insights into permaculture, moving beyond the philosophical foundation to practical advanced designs based on a functional analysis. Holding his designs to a higher standard, Jadrnicek’s components serve at least seven functions (classical permaculture theory only seeks at least two functions). With every additional function a component performs, the design becomes more advanced and saves more energy. A bio-integrated greenhouse, for example, doesn’t just extend the season for growing vegetables; it also serves as a rainwater collector, a pond site, an aquaponics system, and a heat generator. Jadrnicek’s prevalent theme is using water to do the work. Although applicable in many climates, his designs are particularly important for areas coping with water scarcity. Jadrnicek focuses on his experience as farm manager at the Clemson University Student Organic Farm and at his residence in the foothills of the Blue Ridge Mountains. These locations lie at the cooler northern edge of a humid subtropical climate that extends west to the middle of Texas and north along the coast to New Jersey. He has created permaculture patterns ranging from raising transplants and field design to freshwater prawn production and composting. These patterns have simplified the operation of the 125-share CSA farm while reducing reliance on outside resources. In less time than it takes to mow his two-acre homestead, Jadrnicek is building a you-pick fruit farm using permaculture patterns. His landscape requires only the labor of harvesting, and the only outside input he buys is a small amount of chicken feed. By carefully engaging the free forces of nature—water, wind, sunlight, convection, gravity, and decomposition—Jadrnicek creates sustenance without maintenance and transforms waste into valuable farm resources. The Bio-Integrated Farm offers in-depth information about designing and building a wide range of bio-integrated projects including reflecting ponds, water-storage ponds, multipurpose basins, greenhouses, compost heat extraction, pastured chicken systems, aquaculture, hydroponics, hydronic heating, water filtration and aeration, cover cropping, and innovative rainwater-harvesting systems that supply water for drip irrigation and flushing toilets.Trade ReviewPublishers Weekly- "Jadrnicek, a farmer, educator (he teaches at and oversees Clemson University’s organic student farm in the Blue Ridge Mountains), and perpetually tinkering designer and inventor, implements the permaculture principle of 'stacking functions’—'Every component of a design should function in many ways'—and pushes its limits. 'Something very special happens when a component within the design exceeds seven functions,’ he writes. 'Once the odd magic number of seven is breached, the design takes on a life of its own.' With curiosity, imagination, and exuberant obsession, he shares his successful manifestations and ongoing experiments and shows readers how to implement them in their own agricultural pursuits, whether a market farm or steep urban yard. He provides both broad conceptual overviews and comprehensive specifics. Less committed growers may balk at the complexity of these living designs and the basic physics, chemistry, and algebra needed to realize them, but permies and others committed to developing a regenerative agriculture—as well as ambitious weekend gardeners dreaming of an in-town, self-sufficient aquaculture greenhouse—will likely be impatient to try it themselves.”“The Bio-Integrated Farm provides practical solutions for farmers and homesteaders facing the dual challenges of sustainably feeding an expanding global population and building resilience into their systems in response to climate disruption. Shawn Jadrnicek’s designs for greenhouses, irrigation, composting systems, and more are based on the most enduring answer: let’s look to nature. From experience, Jadrnicek knows how to create organic, resilient, and highly productive systems based on creative use of water, solar energy, and other free forces of nature.”--Courtney White, author of Two Percent Solutions for the Planet“The Bio-Integrated Farm is an invaluable resource for market farmers, homesteaders, and serious gardeners who are interested in improving their relationship with the land. Shawn Jadrnicek’s creative use of materials, animals, and space, which he clearly and thoroughly explains in this book, will inspire and teach you how to improve the efficiency and resiliency of your farm or garden. I can’t wait to implement some of Shawn’s designs at my site. While reading through this book, I was reminded of the ancient gardening techniques mentioned in F.H. King’s Farmers of Forty Centuries. Shawn has integrated these simple and effective technologies into his modern-day working farm; his book will allow readers to access some of that ancient wisdom, too.”--Jerome Osentowski, author of The Forest Garden Greenhouse“Harvesting, multiplying, capturing, conveying, sloping, fertilizing, irrigating, heating, cooling… ‘at least seven functions’ is the genius of Shawn Jadrnicek’s stacked systems in The Bio-Integrated Farm. Shawn turns almost everything we think we know about farming on its head, beginning with the notion that the odds are stacked against the small farmer and permaculturist. Instead, he stacks the odds in our favor by requiring every component of a farm to serve at least seven functions. These stacked systems create biological and mechanical efficiencies that maximize production and ecological diversity. While innovators abound in the permaculture world, Shawn is unparalleled in the practicality and detail of his innovative designs. As a connoisseur of college farms, I’ve visited several dozen such operations across the United States, and I have yet to see another academic farm demonstrate the level of careful design and innovation found on the Clemson University Student Organic Farm, one of several permaculture masterworks Shawn has helped create. As much an engineer as he is an ecologist, Shawn teases out nature’s secret systems with a covey of collaborators—students, prawns, soldier flies, chickens, and thermophilic bacteria to name but a few—and he shares all his best designs in this paradigm-altering guide. Be prepared to have your vision of a farm’s limits shattered. Fear not, Shawn shows you how to reassemble those broken pieces into a ‘7-plus mosaic’ that can take any homestead or farm to the next level.”--Philip Ackerman-Leist, professor, Green Mountain College; author of Rebuilding the Foodshed“What is unique about permaculture, at its heart, is integration of elements like fish ponds, greenhouses, chickens, and crops. The Bio-Integrated Farm highlights real-world farm management experiences, including particularly innovative practices such as raising freshwater shrimp in greenhouse tanks that also provide thermal mass. The authors also respect and acknowledge the ancient roots of many of these ideas.”--Eric Toensmeier, author of The Carbon Farming Solution“Nature knows no waste, and cutting-edge farmers should start today to incorporate the bio-integration principles that Shawn Jadrnicek describes in detail in this book. Shawn shares his in-the-field experience using easy-to-understand formulas and charts to encourage the reader to develop a plan and translate project descriptions into hardworking results. I have seen Shawn’s transformational power in person at Clemson University, and his visions are addictive, teaching you not just to think outside the box by harmonizing natural systems but to act outside the box to create inexpensive and highly functional growing environments that are much more profitable and efficient than traditional growing systems. Even at our mushroom farm, we are incorporating Shawn’s design approach with aquaponics, black soldier fly composting, and passive heating. Farmers need all the financial help they can get, and The Bio-Integrated Farm will help readers prevent costly experimental failures. Every farm's needs and layouts are unique, and this book allows the reader to customize and hybridize systems that harness the power of nature to transform ordinary farms into models worthy of world-class learning centers for permaculture.”--Tradd Cotter, author of Organic Mushroom Farming and Mycoremediation“As climate change drives increasingly challenging weather variability and extremes, ecosystem-based strategies such as those presented in The Bio-Integrated Farm will be crucial to successful adaptation efforts. In this practical, clearly written, and beautifully designed book, Shawn Jadrnicek shares his unique ability to conceptualize, design, and manage water for whole-system benefits at multiple scales. A must read for anyone interested in design and management of water systems for resilient homesteads and farms.”--Laura Lengnick, author of Resilient Agriculture“Shawn Jadrnicek has spent the last decade getting his hands dirty and taking risks, experimenting with how to create systems that actually work. The Bio-Integrated Farm covers areas often neglected in the current permaculture literature. Shawn's systems-based designs show permaculture's relevance beyond typical gardening scenarios. He offers a load of detailed practical advice based on personal experience, demonstrating how to make connections that result in greater yields and ease. His zeal for making the most out of the resources on hand has inspired to me to find ways to further integrate my own permaculture homestead!”--Rain Tenaqiya, author of West Coast Food Forestry

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Book Synopsis “Regenerative agriculture is going to be a key phrase in the decades ahead―and this book will get you in on the ground floor, so to speak. Not much could be more important!”―Bill McKibben, author of Falter Wondering what you can do to help address the global climate crisis? Joining the Grassroots Rising ‘Regeneration Revolution’ might be the best first step... Grassroots Rising is a passionate call to action for the global body politic; providing practical solutions for how to survive - and thrive - in catastrophic times. Author Ronnie Cummins educates and inspires citizens worldwide to organise and become active participants in preventing ecological collapse. This book offers a blueprint for building a ‘Regeneration Movement’ based on consumer activism, farmer innovation, political change, and regenerative finance, embodied most recently by the proposed Green New Deal in the US. Using regenerative agriculture practices that restore our agricultural and grazing lands, we can sequester massive amounts of carbon back into the soil. Coupled with an aggressive transition toward renewable energy sources, Cummins argues that we have the power to not only mitigate and slow down climate change, but actually reverse global warming. Grassroots Rising shows us that the solution lies right beneath our feet - and at the end of our forks - through the transformation of food systems around the world.Trade Review“The world is finally waking up to the ecological and climate emergency and the urgent need to realign the economy with the laws of ecology. In Grassroots Rising, tireless activist Ronnie Cummins outlines how we can address the multiple crises of our time by making a transition from industrial agriculture and food systems to a regenerative agriculture that recycles carbon and nitrogen in forests, grasslands, and farms; reverses climate change; creates healthy soils; and halts species extinction and the erosion of biodiversity. This is a book that should be in the hands of every activist working on food and farming, climate change, and the Green New Deal.”—Vandana Shiva, scientist, environmentalist, social activist; author of Earth Democracy, Soil Not Oil, and Stolen Harvest“Regenerative agriculture is going to be a key phrase in the decades ahead—and this book will get you in on the ground floor, so to speak. Not much could be more important!”—Bill McKibben, author of Falter“Grassroots Rising is one of the most important books you will ever read. It shows the existential environmental and health disasters caused by the toxic and degenerative practices of the poison cartels, Big Agriculture, the fossil fuel industries, predator tycoons, and the money manipulators. Most importantly, though, it is a book with good news! It outlines a logical and very achievable pathway for how we can shift from degeneration to regeneration and make this a healthy, fair, prosperous, diverse, democratic, and environmentally robust world for all of us.”—André Leu, former president, International Federation of Organic Agriculture Movements (IFOAM); author of The Myth of Safe Pesticides“Healthy soil, healthy plants, healthy animals, healthy food, healthy people. My friend and fellow activist Ronnie Cummins makes a strong case for how organic and regenerative food, farming, and land use can lead us to a healthier and happier world with a stable climate.”—Dr. Joseph Mercola, founder, Mercola.com“Grassroots Rising is not only a rousing call to action, but a book that also demystifies the confusing rhetoric about carbon that stops many of us from taking action. Ronnie Cummins, with clear and uncomplicated examples, puts the magnifying glass on the Climate Chaos issue, how it’s connected to farming and land use, and shows us exactly what needs to be done to save life on the planet within the next ten years. If you have been confused or depressed about the future, read this book. It’s time to regenerate.”—Zen Honeycutt, Moms Across America“The future doesn’t have to be gloomy. In this upbeat call to action, Ronnie Cummins, longtime campaigner for healthy food and land, guides us on a hopeful and pragmatic journey into the crucial upcoming decade. A Regenerative Economy is not pie-in-the-sky; it can be done. We have all the tools we need. And thanks to leaders such as Ronnie, we know what to do. This book is a must-read!”—Courtney White, author of Grass, Soil, Hope and Two Percent Solutions for the PlanetTable of ContentsIntroduction 1. Rules for Regenerators 2. Regeneration: The Big Picture 3. Regeneration Driver #1: Grassroots Awareness, Political Mobilization, and Marketplace Demand 4. Regeneration Driver #2: Carbon Farming, Reforestation, and Ecosystem Restoration 5. Regeneration Driver #3: Politics and Public Policy 6. Regeneration Driver #4: Commerce and Investment 7. The Global Road to Regeneration 8. Roadmap to Regeneration in the U.S., 2020-2030 Resources Notes Index

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Book SynopsisThis totally revised and updated book provides you the tools needed to craft dairy products. You will learn which ingredients are used for these assorted dairy products and what at-home equipment you will need to get started. You will learn how to clean and care for your equipment, making sure everything remains sanitary. You will learn myriad basic techniques necessary to understand the dairy product process, starting with raw milk and continuing until you make any number of soft, hard, or Italian cheeses. Dozens of top cheese makers and home dairy aficionados were interviewed for this book and provided their experiences.

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Book SynopsisA win-win for Central Asia: give back to nature and do more with less

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