Plant biology Books

Book SynopsisPresents an overview of the Australian taxa, and documents 132 species of Septoria, its telemorph Mycosphaerella and six related genera. This work describes includes a comprehensive introduction to Septoria and its allies, followed by detailed descriptions and illustrations of each taxon.Table of Contents* The first authoritative identification guide to a significant genus of Australian plant-pathogenic fungi; * Detailed descriptions along with high-quality illustrations.

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Book SynopsisThe International Centre for Advanced Mediterranean Agronomic Studies (CIHEAM), established in 1962, is an intergovernmental organization of 13 countries: Albania, Algeria, Egypt, France, Greece, Italy, Lebanon, Malta, Morocco, Portugal, Spain, Tunisia and Turkey.Trade Review`As an additional asset, each of the chapters has been written by renowned specialists with a wide practical experience, giving the book a strong applied bias. This makes the book an invaluable tool for students and professionals in the field of research and practical implementation of integrated crop protection in greenhouses. The editors say:"It is our sincere belief that no text published to date has offered such diverse yet integrated approach to pestand disease control in greenhouse crops. A statement I can fully subscribe to.' Plant Science, 160 (2001)Table of ContentsContributors. Foreword. Preface. Part I: Introduction. 1. Setting the Stage: Characteristics of Protected Cultivation and Tools for Sustainable Crop Protection; M.L. Gullino, et al. Part II: Major Pests and Diseases in Greenhouse Crops. 2. Viral Diseases; E. Moriones, M. Luis-Arteaga. 3. Fungal and Bacterial Diseases; N.E. Malathrakis, D.E. Goumas. 4. Insect and Mite Pests; H.F. Brødsgaard, R. Albajes. 5. Nematodes; S. Verdejo-Lucas. Part III: Tools for IPM in Greenhouses. 6. Principles of Epidemiology, Population Biology, Damage Relationships and Integrated Control of Diseases and Pests; A.J. Dik, R. Albajes. 7. Sampling and Monitoring Pests and Diseases; L. Lapchin, D. Shtienberg. 8. Managing the Greenhouse, Crop and Crop Environment; M.J. Berlinger, et al. 9. Host-Plant Resistance to Pathogens and Arthropod Pests; J. Cuartero, et al. 10. Disinfestation of Soil and Growth Media; E.C. Tjamos, et al. 11. Pesticides in IPM: Selectivity, Side-Effects, Application and Resistance Problems; S. Blümel, et al. 12. Decision Tools for Integrated Pest Management; J.L. Shipp, N.D. Clarke. Part IV: Biological and Microbial Control of Greenhouse Pests and Diseases. IV(A) Biological and Microbial Control of Arthropod Pests. 13. Evaluation and Use of Predators and Parasitoids for Biological Control of Pests in Greenhouses; J.C. van Lenteren, G. Manzaroli. 14. Biological Control of Whiteflies; J.C. vanLenteren, N.A. Martin. 15. Biological Control of Mites; D.A. Griffiths. 16. Biological Control of Aphids; J.M. Rabasse, M.J. van Steenis. 17. Biological Control of Thrips; C. Castañé, et al. 18. Biological Control of Leafminers; J.C. Onillon. 19. Current and Potential Use of Polyphagous Predators; R. Albajes, O. Alomar. 20. Mass Production, Storage, Shipment and Quality Control of Natural Enemies; J.C. van Lenteren, M.G. Tommasini. 21. Microbial Control of Pests in Greenhouses; J.J. Lipa, P.H. Smits. 22. Commercial Aspect of Biological Pest Control in Greenhouses; K.J.F. Bolckmans. IV(B) Biological Control of Diseases. 23. Biological Control of Soilborne Pathogens; D. Funck-Jensen, R.D. Lumsden. 24. Biological Control of Diseases in the Phyllosphere; Y. Elad, et al. 25. Genetic Manipulation for Improvement of Microbial Biocontrol Agents; S.S. Klemsdal, A. Tronsmo. 26. Production and Commercialization of Biocontrol Products; D.R. Fravel, et al. 27. Evaluation of Risks Related to the Release of Biocontrol Agents Active against Plant Pathogens; J.D. Elsas, Q. Migheli. 28. The Role of the Host in Biological Control of Diseases; T.C. Paulitz, A. Matta. Part V: Implementation of IPM: Case Studies. 29. Implementation of IPM: From Research to the Consumer; J.C. Onillon, M.L. Gullino. 30. Tomatoes; R. Gabarra, M. Besri. 31. Cucurbits; P.M.J. Ramakers, T.M. O'Neill. 32. Strawberries; S.

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Book SynopsisThis book brings together twelve chapters on fungal pathogens with the goal of presenting an overview of the current areas of activity and the common themes that pervade research on these important organisms. The timing of the book is appropriate because we have gained sufficient insight from molecular genetic analyses to begin to make some comparisons between different fungal pathogens and to discuss the key advances that have been made. The chapters provide a broad survey of the important topics in fungal pathogenesis including morphogenesis, virulence, avirulence, and signaling. The reader also will fmd clear discussions of parasitism, mutualism, symbiosis, evolution, phylogeny and ecology for those fungi where these issues are especially important. Finally, many of the chapters in this book illustrate the fact that we are on the verge of a revolution in our understanding of fungal pathogens because of the application of genomics to these organisms and their hosts. The fungi includeTrade Review`This book provides a broad spectrum of information. It is of special interest and can indeed be recommended for a readership from senior undergraduates to senior investigators working on fungal plant pathology.' Journal of Plant Physiology, 158:7 (2000) `...the volume can be recommended to the scientific community in plant pathology and especially to those interested in molecular aspects of host-pathogen interactions' Journal of Phytopathology, 149:7/8 (2001)Table of Contents1. Aspergillus Fumigatus; C. D'Enfert. 2. Infection Strategies of Botrytis cinerea and Related Necrotrophic Pathogens; T.W. Prins, et al. 3. Cladosporium fulvum, Cause of Leaf Mould of Tomato; R.P. Oliver, et al. 4. Evolution of Host Specific Virulence in Cochliobolus heterostrophus; B.G. Turgeon, S.-W. Lu. 5. Colletotrichum; M.B. Dickman. 6. Hypovirulence and Chestnut Blight: From the Field to the Laboratory; D.L. Nuss. 7. Insect Pathogenic Fungi: From Genes to Populations; M.J. Bidochka, et al. 8. Pathogenesis and Genome Organization of the Rice Blast Fungus; S. Kang, et al. 9. Phytophthora; S. Kamoun. 10. The Rust Fungi: Cytology, Physiology and Molecular Biology of Infection; M. Hahn. 11. Symbiotic Parasites and Mutualistic Pathogens; C.L. Schardl. 12. Ustilago maydis, the Causative Agent of Corn Smut Disease; R. Kahmann, et al. Index.

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Book SynopsisPersons only develop in relation to environment, much in the same way we develop psychologically in relation to our parents and caregivers. Neither child nor parent is properly conceptualized, modelled, or understood without the inclusion of the other in the map or model of psychological/ecological development. Likewise, we perceive, think, and feel with and not just about environment and material artifacts. The achievement of sustainability then implies making changes to minds that are mediated, extended and distributed across brains, bodies, and the materiality of one's environment. Our inherited world, however broken, guides our individual and collective becoming much as a parent guides the development of a child.The traces of (un-) sustainability perspective refutes the economistic conceptual model whereby rational economic actors are misperceived and misunderstood to have the moral right, if not the duty, to actively participate in the destruction ofTrade Review"This book is a sweeping dance through the patterns of our history, our psychology, and how our ‘environmental-parent relationship’ has led us to an unsustainable world. Revealing how our material disengagement in the social world has led us to this edge, the reader is then shown how to dance more sustainably in the world with new steps to materially re-engage in different ways of relating to and becoming in the world."—Ann Dale, Royal Roads University"I thoroughly enjoyed reading this wide ranging, joyously 'intellectually promiscuous' book, and its weaving together not only of different disciplines but different evolutionary and historical eras, ideas/concepts, and blending real world (often autobiographical) experience and theory. It is not only a refreshing read but a therapeutic one. In our turbulent times of a planetary emergency and political discord Peter Graham has cleared a space for calm reflection and reconnection. And for that we must all be grateful."—John Barry, Queens University BelfastTable of ContentsList of Illustrations – Preface – List of Abbreviations – Situating the Traces of (Un-) Sustainability – Environment as Parent – Mediational Means – Yali’s Question – Mediated (Un-) Sustainability.– Positivism – Capitalism – Situated (Un-) Sustainability – A Map of the Book – References.– The Materially Engaged (Un-) Sustainability Mind – Mediated Action and (Un-) Sustainability – The Materiality of (Un-) Sustainability – Materially Engaged (Un-) Sustainability – Toward a Materially Engaged Partnership Mind – The Traces of Sustainability – Bodies – Tools – Place – Narrative – Process – Agency – Memory – Atmosphere – References– Let’s Go Fishing! – Bodies – Tools – Place – Narratives – Process – Agency – Memory – Atmosphere – Sustainability – References– Economies of Mind – Bodies – Tools – Place – Narratives – Processes – Agency – Memory – Atmospheres – Sustainability – References – Traces of Sociocultural Anxiety – Bodies – Tools – Places – Narratives – Processes – Agency – Memories – Atmospheres – Sustainability – References – The Mowed (Un-) Sustainability Mind – Mowed Lawn – A Naturalized Suburban Garden – Bodies – Tools – Places – Processes – Agency – Memory – Narrative – Atmosphere – References – Tracing the Absences of Sustainability – Bodies – Tools – Process – Agency – Memory – Narrative – Atmosphere – References – Conclusion—Tracing Ahead – Economics – Education – Reforestation – Conclusion – References – Index.

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Book SynopsisThis volume will be the only existing single-authored book offering a science-based breeder''s manual directed at breeding for water-limited environments. Plant breeding is characterized by the need to integrate information from diverse disciplines towards the development and delivery of a product defines as a new cultivar. Conventional breeding draws information from disciplines such as genetics, plant physiology, plant pathology, entomology, food technology and statistics. Plant breeding for water-limited environments and the development of drought resistant crop cultivars is considered as one of the more difficult areas in plant breeding while at the same time it is becoming a very pressing issue. This volume is unique and timely in that it develops realistic solutions and protocols towards the breeding of drought resistant cultivars by integrating knowledge from environmental science, plant physiology, genetics and molecular biology.Table of ContentsTABLE OF CONTENTS Preface 1. The Moisture Environment 1.1. The Palmer drought index 1.2. The crop moisture index 1.3. The conventions of crop water use 2. Plant Water Relations, Plant Stress and Plant Production 2.1. The initiation of plant water deficit 2.2. The soil-plant-atmosphere continuum (SPAC) 2.2.1. The albedo 2.2.2. The water flux 2.2.3. Root resistance 2.2.4. Stem resistance 2.2.5. Leaf resistance (excluding stomata and cuticle) 2.2.6. Stomatal resistance 2.2.7. Cuticular resistance 2.3. Plant size and the development of water deficit 2.4. Plant water status and plant stress 2.4.1. Osmotic adjustment (OA) 2.4.2. Abscisic acid (ABA) 2.5. Growth and water deficit 2.6. Root growth under drought stress 2.7. The formation of yield and drought stress 3. Drought Resistance and its Improvement 3.1. Genetic gains achieved in plant breeding for drought resistance 3.2. Genomics and breeding for drought resistance 3.2.1. Gene expression and gene discovery 3.2.2. Marker-assisted selection (MAS) for drought resistance 3.2.3. Transgenic plants 3.3. Drought resistance in terms of yield 3.3.1. Drought resistance and yield potential: the crossover interaction 3.3.2. The heritability of yield and drought stress 3.3.3. QTLs and yield under drought stress 3.4. Drought resistance in terms of physiology 3.4.1. The disease resistance analogy 3.4.2. The components of drought resistance 3.5. Water-use efficiency (WUE) 3.5.1. Effective use of water (EUW) and not WUE is the important driver of yield under drought stress 3.6. Summary of plant constitutive traits controlling drought resistance 3.7. The drought resistant ideotype 3.7.1. The ideotype with respect to drought stress scenarios 3.7.2. The ideotype with respect to timing of stress 4. Phenotyping and Selection 4.1. The managed stress environment 4.1.1. Site homogeneity 4.1.2. Experiment station faults 4.1.3. Controlling the water regime 4.1.4. Controlling the severity and timing of stress in the field 4.1.5. Managed drought in protected environments 4.2. Protocols for drought resistance 4.2.1. Plant growth and productivity 4.2.2. Plant water status – the expression of dehydration avoidance 4.2.3. Dehydration tolerance 4.3. High throughput commercial phenotyping service 5. Genetic Resources for Drought Resistance 5.1. Cultivated germplasm 5.2. Landraces 5.3. Wild species and crop plant progenitors 5.4. Drought resistant transgenic plants 5.5. Resurrection plants 6. Breeding Considerations and Strategies 7. Epilogue

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Book Synopsis"These books present a comprehensive coverage of issues facing wheat production globally. The authors represent the top scientists involved in the diverse areas that are important for sustainable wheat production and will this book provides an excellent resource for those interested in wheat improvement and production."Dr Hans-Joachim Braun, Director Global Wheat Program and CRP Wheat, International Maize and Wheat Improvement Center (CIMMYT), MexicoWheat is the most widely cultivated cereal in the world and a staple food for around 3 billion people. It has been estimated that demand for wheat could increase by up to 60% by 2050. There is an urgent need to increase yields in the face of such challenges as climate change, threats from pests and diseases and the need to make cultivation more resource-efficient and sustainable.Drawing on an international range of expertise, this collection focuses on ways of improving the cultivation of wheat at each step in the value chain, from breeding to post-harvest storage. Volume 1 reviews research in wheat breeding and quality traits as well as diseases and pests and their management. Chapters in Part 1 review advances in understanding of wheat physiology and genetics and how this has informed developments in breeding, including developing varieties with desirable traits such as drought tolerance. Part 2 discusses aspects of nutritional and processing quality. Chapters in Part 3 cover research on key wheat diseases and their control as well as the management of insect pests and weeds.Achieving sustainable cultivation of wheat Volume 1: Breeding, quality traits, pests and diseases will be a standard reference for cereal scientists in universities, government and other research centres and companies involved in wheat cultivation. It is accompanied by Volume 2 which reviews improvements in cultivation techniques.Trade Review"These books present a comprehensive coverage of issues facing wheat production globally. The authors represent the top scientists involved in the diverse areas that are important for sustainable wheat production and will this book provides an excellent resource for those interested in wheat improvement and production".Dr Hans-Joachim Braun, Director Global Wheat Program and CRP Wheat, International Maize and Wheat Improvement Center (CIMMYT), MexicoTable of ContentsPart 1 Wheat physiology and breeding1.Wheat genetic resources: global conservation and use for the future: P. Bramel, Global Crop Diversity Trust, Germany; 2.Sequencing and assembly of the wheat genome: Kellye Eversole and Jane Rogers, International Wheat Genome Sequencing Consortium, USA; Beat Keller, University of Zurich, Switzerland; Rudi Appels, Murdoch University, Australia; Catherine Feuillet, Bayer Crop Science, USA; 3.Advances in wheat breeding techniques: Alison R. Bentley and Ian Mackay, NIAB, UK; 4.Improving the uptake and assimilation of nitrogen in wheat plants: Jacques Le Gouis, INRA, France and Malcolm Hawkesford, Rothamsted Research, UK; 5.Photosynthetic improvement of wheat plants: Martin A. J. Parry, João Paulo Pennacchi, Luis Robledo-Arratia and Elizabete Carmo-Silva, Lancaster University, UK; and Luis Robledo-Arratia, University of Cambridge, UK; 6.Improving drought and heat tolerance in wheat: Xinguo Mao, Institute of Crop Science, Chinese Academy of Agricultural Sciences, China; Delong Yang, College of Life Science and Technology, Gansu Agricultural University, China; and Ruilian Jing, Institute of Crop Science, Chinese Academy of Agricultural Sciences, China;7.Advances in cold-resistant wheat varieties: D.Z. Skinner, USDA-ARS, USA; Part 2 Wheat nutritional and processing quality; 8.Genetic and other factors affecting wheat quality: A. S. Ross, Oregon State University, USA; 9.Measuring wheat quality: Ian Batey, formerly CSIRO, Australia; 10.The nutritional and nutraceutical value of wheat: Victoria Ndolo and Trust Beta, University of Manitoba, Canada; Part 3 Wheat diseases, pests and weeds11.Wheat diseases: an overview: Albrecht Serfling, Doris Kopahnke, Antje Habekuss, Flutur ë Novakazi and Frank Ordon, Julius Kühn-Institute (JKI), Institute for Resistance Research and Stress Tolerance, Germany; 12.Advances in control of wheat rusts: Z. A. Pretorius, University of the Free State, South Africa; M. Ayliffe, CSIRO Agriculture and Food, Australia; R. L. Bowden, ARS-USDA, USA; L. A. Boyd, National Institute of Agricultural Botany, UK; R. M. DePauw, Advancing Wheat Technologies, Canada; Y. Jin, ARS-USDA Cereal Disease Laboratory, USA; R. E. Knox, Agriculture and Agri-Food Canada; R. A. McIntosh and R. F. Park, University of Sydney, Australia; R. Prins, CenGen and University of the Free State, South Africa; E. S. Lagudah, CSIRO Agriculture and Food, Australia; 13.Advances in control of wheat diseases: Fusarium head blight, wheat blast and powdery mildew: Hermann Buerstmayr, University of Natural Resources and Life Sciences, Austria; Volker Mohler, Bavarian State Research Center for Agriculture, Germany; and Mohan Kohli, Institute of Agricultural Biotechnology, Paraguay; 14.Advances in disease-resistant wheat varieties: James Anderson, University of Minnesota, USA; 15.Recent molecular technologies for tackling wheat diseases: Indu Sharma, Pramod Prasad and Subhash C. Bhardwaj, ICAR-Indian Institute of Wheat and Barley Research, India; 16.Integrated wheat disease management: Stephen N. Wegulo, University of Nebraska-Lincoln, USA; 17.Wheat pests: introduction, rodents and nematodes: Marion O. Harris North Dakota State University, USA; Jens Jacob, Julius Kühn-Institut; Peter Brown, CSIRO, Australia; and Guiping Yan, North Dakota State University, USA; 18.Wheat pests: insects, mites, and prospects for the future: Marion O. Harris and Kirk Anderson, North Dakota State University, USA; Mustapha El-Bouhssini, ICARDA, Morocco; Frank Peairs, Colorado State University, USA; Gary Hein, University of Nebraska, USA; and Steven Xu, USDA-ARS Northern Crops Institute, USA;19.The impact of climate change on wheat insect pests: current knowledge and future trends: Sanford D. Eigenbrode, University of Idaho, USA and Sarina Macfadyen, CSIRO, Australia; 20.Integrated pest management in wheat cultivation: Abie Horrocks and Melanie Davidson, The New Zealand Institute for Plant & Food Research Limited, New Zealand; and Paul Horne and Jessica Page, IPM Technologies Pty Limited, Australia; 21.Integrated weed management in wheat cultivation: K. Neil Harker and John O’Donovan, Agriculture & Agri-Food Canada; and Breanne Tidemann, University of Alberta, Canada;

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Book SynopsisThis collection reviews advances in research on improving barley cultivation across the value chain. Part 1 reviews advances in understanding barley physiology in such areas as plant growth, grain development and plant response to abiotic stress. Chapters also review current developments in exploiting genetic diversity and mapping the barley genome. Building on this foundation, the second part of the book summarises advances in breeding with chapters on breeding trial design as well as advances in molecular breeding techniques such as genome wide association studies (GWAS) and targeted induced lesions in genomes (TILLING). Part 3 looks further along the value chain at ways of optimising cultivation practices. There are chapters on post-harvest storage as well as fungal diseases, weeds and integrated methods for their management. The final part of the book assesses current developments in optimising barley for particular end uses such as malting, brewing and animal feed as well as current research on the nutraceutical properties of barley.Table of ContentsPart 1 Plant physiology and genetics1.Advances in understanding of barley plant physiology: plant development and architecture: Andrea Visioni, International Center for Agricultural Research in the Dry Areas (ICARDA), Morocco; 2.Advances in understanding barley plant physiology: responses to abiotic stress: Alessandro Tondelli, Cristina Crosatti, Stefano Delbono and Luigi Cattivelli, CREA Research Centre for Genomics and Bioinformatics, Italy; 3.Advances in the understanding of barley plant physiology: factors determining grain development, composition and chemistry: Ljudmilla Borisjuk, Hardy Rolletschek and Volodymyr Radchuk, Leibniz Institute of Plant Genetics and Crop Plant Research (IPK), Germany; 4.Exploring barley germplasm for yield improvement under sulphur limiting environments: Tefera Tolera Angessa, Murdoch University, Australia; Kefei Chen, Curtin University, Australia; David Farleigh, Jenifer Bussanich and Lee-Anne McFawn, Department of Primary Industries and Regional Development-Western Australia, Australia; Kevin Whitfield, CSBP Limited, Australia; Brendon Weir, Mullewa, Australia; Steve Cosh, Department of Primary Industries and Regional Development-Western Australia, Australia; Achalu Chimdi, Gudeta Nepir Gurmu and Tadesse Kenea Amentae, Ambo University, Ethiopia; and Chengdao Li, Murdoch University, Australia; 5.Mapping and exploiting the barley genome: techniques for mapping genes and relating them to desirable traits: Hélène Pidon and Nils Stein, Leibniz Institute of Plant Genetics and Crop Plant Research (IPK), Germany; Part 2 Advances in breeding6.Advanced designs for barley breeding experiments: Alison Kelly, Queensland Department of Agriculture and Fisheries and Queensland Alliance for Agriculture and Food Innovation (QAAFI), The University of Queensland, Australia; and Clayton Forknall, Queensland Department of Agriculture and Fisheries, Australia; 7.Advances in molecular breeding techniques for barley: genome-wide association studies (GWAS): W. T. B. Thomas, James Hutton Institute, UK; 8.Advances in molecular breeding techniques for barley: targeted induced local lesions in genomes (TILLING): Serena Rosignoli and Silvio Salvi, University of Bologna, Italy; Part 3 Cultivation techniques, pest and disease management9.Advances in postharvest storage and handling of barley: methods to prevent or reduce mycotoxin contamination: Zhao Jin and Paul Schwarz, North Dakota State University, USA; 10.Fungal diseases affecting barley: Robert S. Brueggeman, Shyam Solanki, Gazala Ameen and Karl Effertz, Washington State University, USA; Roshan Sharma Poudel, North Dakota State University, USA; and Aziz Karakaya, Ankara University, Turkey; 11.Integrated disease management of barley: Adrian C. Newton, James Hutton Institute and SRUC, UK; and Henry E. Creissen, Neil D. Havis, and Fiona J. Burnett, SRUC, UK; 12.Integrated weed management in barley cultivation: Michael Widderick, Queensland Department of Agriculture and Fisheries, Australia; Part 4 Quality13.Developing barley crops for improved malt quality: Glen Fox, University of California–Davis, USA and The University of Queensland, Australia; and Reg Lance, Queensland Department of Agriculture and Fisheries, Australia; 14.Developing barley crops for improved brewing quality: Søren Knudsen, Finn Lok and Ilka Braumann, Carlsberg Research Laboratory, Denmark; 15.Optimising the use of barley as an animal feed: David M. E. Poulsen, Queensland University of Technology, Australia; 16.Nutritional and bioactive compounds in barley: Nancy Ames, Joanne Storsley, Lovemore Malunga and Sijo Joseph Thandapilly, Agriculture and Agri-Food Canada, Canada;

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Book SynopsisThis collection features five peer-reviewed reviews on optimising photosynthesis in crops.The first chapter reviews current understanding of the biochemistry, regulation and limitation of the C3 photosynthesis cycle in crops. It provides detailed discussions on CO2 assimilation in C3 photosynthesis, as well as the carboxylation, reduction and regeneration phases of the C3 cycle.The second chapter considers the recent emergence of using phenotyping techniques to analyse crop functionality and photosynthesis. It reviews the relationship between photosynthesis, crop growth and stress response and explores phenotyping photosynthesis in varying environments.The third chapter discusses the process of modifying mesophyll conductance to optimise photosynthesis in crops. The chapter considers recent research efforts to manipulate the structure and composition of cells walls, membranes and liquid phases to achieve this.The fourth chapter explores improving photosynthesis in rice and details the need to optimise photosynthetic efficiency as a means of boosting yield ceilings in rice production.The final chapter reviews some of the key factors determining photosynthetic performance and explores the options for improving the photosynthetic capacity and efficiency of wheat by selecting for a range of important traits.Table of ContentsChapter 1 - Understanding the biochemistry of C₃ photosynthesis in crop plants: C. A. Raines, A. P. Cavanagh, C. Afamefule, K. Chibani, H. Gherli, P. Lopez, V. Mengin, B. Moreno-García and S. Wall, The University of Essex, UK; 1 Introduction 2 The carboxylation phase 3 The reduction phase 4 The regeneration phase 5 Regulation of the C3 cycle enzymes 6 Approaches to determine which enzymes limit the flow of carbon through the C3 cycle 7 Future opportunities to improve the C3 cycle 8 Where to look for further information 9 References Chapter 2 - Using phenotyping techniques to analyse crop functionality and photosynthesis: Eva Rosenqvist, University of Copenhagen, Denmark; 1 Introduction 2 Understanding photosynthesis and its relationship to crop growth and stress response 3 Phenotyping photosynthesis in varying environmental conditions 4 Using gas exchange to analyse photosynthesis 5 Using porometry and thermal imaging of gs and hyperspectral techniques 6 Using chlorophyll fluorescence 7 Photosynthesis and climate change: accounting for heat stress, drought stress and elevated CO2 8 Case studies 9 Conclusions 10 Where to look for further information 11 References Chapter 3 - Modifying mesophyll conductance to optimise photosynthesis in crops: Coralie E. Salesse-Smith, University of Illinois at Urbana-Champaign, USA; Steven M. Driever, Wageningen University and Research, The Netherlands; and Victoria C. Clarke, The Australian National University, Australia; 1 Introduction 2 Points of resistance to diffusion of CO2 3 The interaction between mesophyll cell anatomy, light and gm 4 Leaf age and gm 5 Cell wall diffusion 6 Cellular membranes and CO2 diffusion 7 Improving gm using aquaporins as CO2 channels 8 CO2 solubility in liquids Chapter 4 - Improving photosynthesis in rice: from small steps to giant leaps: R. F. Sage, University of Toronto, Canada; and Shunsuke Adachi and Tadashi Hirasawa, Tokyo University of Agriculture and Technology, Japan; 1 Introduction 2 Demand functions in C 3 plants: biochemical limitations 3 Supply functions in C 3 plants: diffusion limitations 4 Strategies for improving photosynthetic performance 5 Future trends and conclusion 6 Where to look for further information 7 References Chapter 5 - Photosynthetic improvement of wheat plants: Martin A. J. Parry, João Paulo Pennacchi, Luis Robledo-Arratia and Elizabete Carmo- Silva, Lancaster University, UK; and Luis Robledo-Arratia , University of Cambridge, UK; 1 Introduction 2 Light capture: canopy duration and architecture 3 Spike photosynthesis 4 CO 2 concentration 5 Calvin-Benson and photorespiratory cycles and beyond 6 Conclusion 7 Where to look for further information 8 References

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Book SynopsisThis book reviews recent advances in the application of phenotyping techniques to optimise crop breeding programmes. Chapters discuss the use of phenotyping as a means of improving crop yield, boosting genetic gain and identifying desirable traits in crop roots.

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Book SynopsisEverything you need to know about growing your own cannabis, recipes for marijuana munchies, and a step-by-step guide for 20 innovative ways to roll a joint. Sick of smoking low-grade weed? Fed up of paying increasingly high prices? Well, now it's time to do something about it and grow your own. With just a small investment in some basic equipment and this guide, you'll soon be flipping the bird to your dealer as you spark up some super-strong green you've grown entirely yourself. And what about once you’ve cultivated your first harvest? The second section looks at recipes for cooking with weed – from hash brownies to ganja guacamole – and innovative, fun ways to smoke it. There are 20 different rolling projects to try, like the perfect, simple one-skin spliff for beginners or the more elaborate behemoth that is the The Scorpion.

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Book SynopsisThe succulent species of the families of subclass Rosidae are presented by alphabet of families, genera, and species, with comprehensive listings of synonyms added at all levels. Detailed descriptions are given for all accepted taxa, together with data on the distribution and typification, and references to the most important literature. Where necessary, information on ecology, ethnobotany, history, etc. is added, and in many places, proposed relationships are critically discussed.The volume covers the succulents from the families Anacardiacae, Begoniaceae, Bixaceae, Brassicaceae, Burseraceae, Capparaceae, Caricaceae, Clusiaceae, Cucurbitaceae, Euphorbiaceae, Fabaceae, Francoaceae, Geraniaceae, Malvaceae, Melastomataceae, Meliaceae, Moraceae, Moringaceae, Oxalidaceae, Passifloraceae, Sapindaceae, Tropaeolaceae, Urticaceae, Vitaceae and Zygophyllaceae.Trade Review“... ein eigentlich unentbehrliches Referenzwerk für Botaniker, fortgeschrittene Sukkulentenfreunde und Fachbibliotheken ...” (Detlev Metzing, in: Kakteen und andere Sukkulenten, Jg. 74, Heft 9, September 2023)Table of ContentsAnacardiacae: U. Eggli Begoniaceae: U. Eggli Bixaceae: U. Eggli Brassicaceae: not yet assigned Burseraceae: U. Eggli Capparaceae: U. Eggli Caricaceae: U. Eggli Clusiaceae: U. Eggli Cucurbitaceae: L. E. Newton Euphorbiaceae: S. Carter Fabaceae: not yet assigned Francoaceae: U. Eggli Geraniaceae: U. Meve Malvaceae: C. C. Walker Melastomataceae: U. Eggli Meliaceae: U. Eggli Moraceae: L. E. Newton & al. Moringaceae: U. Eggli Oxalidaceae: C. C. Walker Passifloraceae: W. J. de Wilde ? (unable to contact as of April 2020) Phyllanthaceae: S. Carter Sapindaceae: U. Eggli Tropaeolaceae: U. Eggli Urticaceae: C. C. Walker Vitaceae: L. E. Newton Zygophyllaceae: G. F. Smith & E. Figueiredo

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Book SynopsisHorticulture has remained far behind in understanding of botanical principles. Recent phylogenetic (DNA-based) reorganization of higher plants has revolutionized taxonomic treatments of all biological entities, even when morphology does not completely agree with their organization. This book is an example of applying principals of botanical phylogenetic taxonomy to assemble genera, species, and cultivars of 200 vascular plant families of ferns, gymnosperms, and angiosperms that are cultivated for enhancement of human living space; homes, gardens, and parks. The emphases are on cultivated species but examples of some plants are often shown in the wild and in landscapes. In providing descriptions, it is assumed that students and other interested individuals have no background in general botany (plant characteristics), or nomenclature. Fundamental features of all plant groups discussed are fully illustrated by original watercolor drawings or photographs. Discussion of the families is grounded on recent botanical phylogenetic treatments, which is based on common ancestry (monophyly). Of course, phylogenetic taxonomy is not a new concept, and was originally based on morphological characteristics; it is the DNA-based phylogeny that has revolutionized modern biological classifications. In practical terms, this book represents the horticultural treatment that corresponds to phylogenetic-based botanical taxonomy, to which is added cultigens and cultivated genera and species. Hence, the harmony between horticultural and botanical taxonomy. This book covers phylogenetic-based taxonomy of Ferns, Gymnosperms, and Angiosperms (Monocots). A companion volume covers Angiosperms (Eudicots).Table of ContentsForeword Preface Acknowledgments About The Author Alphabetical List Of Families Table Of Contents Introduction 1. 1. Nomenclature 2. 2. Lycopods And Monilophytes Introduction Lycopodiopsida/Lycophytes Lycopodiaceae Selaginellaceae Isoetaceae Monilophytes (Ferns) Fern Frond Terminology Families Of Extant Ferns Psilotaceae Ophioglossaceae Equisetaceae Osmundaceae Marsiliaceae Cyatheaceae Pteridaceae Dryopteridaceae Polypodiaceae Aspleniaceae Woodsiaceae Blecnaceae Davalliaceae Dicksoniaceae Lomariopsidaceae Lygodiaceae Marattiaceae 3. 3. Gymnosperms Introduction Growth Habits Leaves Duration Of Growth Microstrobilus Megastribilus Families Of Extant Gymnosperms Cycadidae Cycadaceae Cycas Zamiaceae Bowenia Ceratozamia Dioon Encephalartos Lepidozamia Macrozamia Microcycas Stangeria Zamia Ginkgoaceae Gnetaceae Welwitschiaceae Pinitidae (Conifers) Pinaceae Araucariaceae Podocarpaceae Cupressaceae Taxaceae Sciadopityaceae 4. 4. Angiosperms: Flowering Plants Introduction Angiosperm Characteristics Monocotyledons (Monocots) Acoraceae Araceae Alismataceae Dioscoriaceae Taccaceae Velloziaceae Pandanaceae Melianthaceae Alstromeriaceae Colchicaceae Philesiaceae Liliaceae Orchidaceae Iridaceae Asphodelaceae Amaryllidaceae Asparagaceae Arecaceae (= Palmae) Commelinaceae Strelitziaceae Heliconiaceae Musaceae Cannaceae Marantaceae Costaceae Zingiberaceae Haemodoraceae Bromeliaceae Cyperaceae Poaceae (Gramineae) Glossary References Index

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Book SynopsisThis second volume on the topic will be extremely useful for the researchers and postgraduate students working on vegetable crops with a special focus on climate change. Today, the entire world is suffering from global warming and its consequent, climate change. This has emerged as the most prominent global environmental issue and there is an urgent need to mitigate its impact on agriculture. Over the past 20 years South Asia has had a robust economic growth, yet it is home to more than one fourth of the world’s hunger and 40% of the world’s malnourished children and women. Persistent climatic variability, which results in frequent drought and flood, is among the major reasons for this phenomenon. Vegetables are in general more succulent (have 90% water) and more sensitive to climatic vagaries and sudden changes in temperature, as well as irregular precipitation at any phase of crop growing, can affect the normal growth, flowering, pollination, fruit setting, fruit development and fruit ripening which eventually decreases the yield. The irregular precipitation also causes the soil salinity and is a major challenge in many vegetable growing areas. To mitigate the harmful impact of climatic change there is an urgent need to develop adequate adaptation strategies for adverse effect of climate change and preference should be given to the development of heat, cold, drought, flood and salinity stress tolerant genotypes along with climate proofing through conventional and non-conventional breeding techniques, as well as exploiting the beneficial effects of CO2 enhancement on crop growth and yield. Available evidence shows that there is high probability of increase in the frequency and intensity of climate related natural hazards due to climate change and hence increase the potential threat due to climate change related natural disasters in the world. At present protected cultivation and grafted seedlings are also popularizing among vegetable growers because of the huge scope as well as, molecular breeding, emerging insect-pests & diseases and postharvest quality of vegetables under this climate change scenario. Moreover, underexploited vegetables, perennial vegetable and tuber crops have a more tolerant ability to climate vagaries compare to major vegetables which are also discussed in this book.Table of ContentsChapter 1 Advances in research trends in vegetables under a changing climate: A way forward; Shashank Shekhar Solankey, Meenakshi Kumari and Silvana Nicola Chapter 2 Emerging obstacles of vegetable production due to climate change and mitigation strategies; Shirin Akhtar Chapter 3 Impact of climate change on nutraceutical properties of vegetables; Meenakshi Kumari Chapter 4 Nutritional stress management in vegetable crops under changing climate scenario; Bholanath Saha Chapter 5 Impact of climate change on tuber crops production and mitigation strategies; K. Madhusudan Reddy Chapter 6 Impact of climate change on leafy vegetables and mitigation strategies; Menka Pathak Chapter 7 Impact of climate change on perennial vegetable production and mitigation strategies; Rajesh Kumar Chapter 8 Impact of climate change on vegetables seed production and mitigation strategies; Durga Prasad Moharana Chapter 9 Protected cultivation of high-value vegetables crop under changing climate; Rajiv Chapter 10 Impact of climate change on underexploited vegetable crops production and mitigation strategies; R. K. Dubey Chapter 11 Improvement of vegetables through grafting techniques in changing climate scenario; Pankaj Kr. Ray Chapter 12 Improvement of vegetables through molecular breeding in changing climate scenario; Kirti Singh Chapter 13 Kitchen gardening for nutritional security under changing climate; Arindam Nag Chapter 14 Emerging insect-pests of vegetables due to changing climate; Tamogna Saha Chapter 15 Emerging diseases of vegetables due to changing climate; Erayya Chapter 16 Impact of climate change on postharvest quality of vegetables; K. Prasad

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Book SynopsisThis book addresses the theme of what «nature» is and humans’ obligations toward the natural world. It demonstrates that an approach based in metaphysics can help us to understand better what nature is and our obligations to the natural world. Beginning with ideas traced from Aristotle through some of the signifcant figures in European philosophy, the author shows that each living thing is a unique source of value. He then argues that this value puts humans under an obligation and that adopting an attitude of responsibility to living things is an essential part of what it means to be human.Table of ContentsContents: The Heritage of Aristotle: Aristotle’s Biological Teleology - Persevering in Being: Conatus and Dūnamis – Moral Considerability: The Status of Organisms and Ecosystems - Nature, Moral Considerability and Respect - Selves, Conatus and Aristotle – Value and Responsibility: Value, Complexity and Obligation.

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Book SynopsisThis volume is the outcome of a modern phylogenetic analysis of the grass family based on multiple sources of data, in particular molecular systematic studies resulting from a concerted effort by researchers worldwide, including the author. In the classification given here grasses are subdivided into 12 subfamilies with 29 tribes and over 700 genera. The keys and descriptions for the taxa above the rank of genus are hierarchical, i.e. they concentrate upon characters which are deemed to be synapomorphic for the lineages and may be applicable only to their early-diverging taxa.Beyond the treatment of phylogeny and formal taxonomy, the author presents a wide range of information on topics such as the structural characters of grasses, their related functional aspects and particularly corresponding findings from the field of developmental genetics with inclusion of genes and gene products instrumental in the shaping of morphological traits (in which this volume appears unique within this book series); further topics addressed include the contentious time of origin of the family, the emigration of the originally shade-loving grasses out of the forest to form vast grasslands accompanied by the switch of many members to C4 photosynthesis, the impact of herbivores on the silica cycle housed in the grass phytoliths, the reproductive biology of grasses, the domestication of major cereal crops and the affinities of grasses within the newly circumscribed order Poales.This volume provides a comprehensive overview of existing knowledge on the Poaceae (Gramineae), with major implications in terms of key scientific challenges awaiting future research. It certainly will be of interest both for the grass specialist and also the generalist seeking state-of-the-art information on the diversity of grasses, the most ecologically and economically important of the families of flowering plants.Table of ContentsPoaceae – General Information Description of the familyVegetative morphology and anatomy Roots Stems Leaves Morphology and development Leaf epidermis Internal anatomy of leaves Inflorescence structure Transition to flowering Bract formation and inflorescence phyllotaxis Numbers of orders of branching Numbers of branches or spikelets at each order of branching Branch angle Axis elongation Spikelets Disarticulation Flower structure Embryology Ovule Megagametophyte Embryo Endosperm Karyology and genome structure Chromosome number Polyploidy Genome size Genome mapping, sequencing and conservation of gene order GC content Pollen Morphology and anther structure Pollination Pollen transfer Pollen germination and pollen tube growth Fruit and seed Dispersal Unassisted or wind dispersal Dispersal in time: seed dormancy Dispersal by animals Role of the awn Forcible dispersal Phytochemistry Phenolics Derivatives of amino acids (tryptophan, phenylalanine, tyrosine) Terpenoids Chemicals produced by symbionts or pathogens Phytosiderophores Distribution, habitats and conservation Distribution and maintenance of grasslands Distribution of major clades Species diversity Conservation and response to climate change Reproductive systems Unisexual vs. bisexual flowers Self-pollination and self-incompatibility systems Cleistogamy Barriers to interspecific crossing Asexual reproduction Fossil record and dates of diversification Domestication Origins of major cereal crops Morphological changes in domestication Genetic and genomic changes in domestication Affinities Classification of the Poaceae Subdivision of the family Key to the subfamilies I. Subfamily AnomochlooideaeSpikelet clade II. Subfamily PharoideaeBistigmatic clade III. Subfamily PuelioideaeBEP + PACMAD cladesBEP clade Incertae sedis – Streptogyna IV. Subfamily Ehrhartoideae Ehrhartoideae Incertae sedis – Suddia I. Tribe Phyllorachideae II. Tribe Ehrharteae III. Tribe Oryzeae III.1. Subtribe Oryzinae III.2. Subtribe Zizaniinae V. Subfamily Bambusoideae IV. Tribe Arundinarieae Clade I. Bergbambos Clade II. Oldeania Clade III. Chimonocalamus Clade IV. Shibataea Clade V. Phyllostachys Clade VI. Arundinaria Clade VII. Thamnocalamus Clade VIII. “Indocalamus” wilsonii Clade IX. Gaoligongshania Clade X. Indocalamus s.s. Clade XI. “Ampelocalamus” calcareus Clade XII. Kuruna V. Tribe Bambuseae Neotropical clade V.1. Subtribe Chusqueinae V.2. Subtribe Arthrostylidiinae V.3. Subtribe Guaduinae Paleotropical clade V.4. Subtribe Bambusinae V.5. Subtribe Melocanninae V.6. Subtribe Hickeliinae V.7. Subtribe Racemobambosinae VI. Tribe Olyreae VI.1. Subtribe Buergersiochloinae VI.2. Subtribe Parianinae VI.3. Subtribe Olyrinae VI. Subfamily Pooideae VII. Tribe Brachyelytreae VIII. Tribe Nardeae IX. Tribe Phaenospermateae X. Tribe Stipeae XI. Tribe Meliceae XII. Tribe Diarrheneae XIII. Tribe Brachypodieae XIV. Tribe Bromeae XV. Tribe Triticeae XVI. Tribe Poeae Incertae sedis XVI.1. Subtribe Torreyochloinae XVI.2. Subtribe Aveninae XVI.3. Subtribe Phalaridinae XVI.4. Subtribe Anthoxanthinae XVI.5. Subtribe Agrostidinae XVI.6. Subtribe Scolochloinae XVI.7. Subtribe Airinae XVI.8. Subtribe Ammochloinae XVI.9. Subtribe Cynosurinae XVI.10. Subtribe Loliinae XVI.11. Subtribe Dactylidinae XVI.12. Subtribe Parapholiinae XVI.13. Subtribe Sesleriinae XVI.14. Subtribe Coleanthinae XVI.15. Subtribe Poinae PACMAD cladeVII. Subfamily Aristidoideae VIII. Subfamily Panicoideae XVII. Tribe Steyermarkochloeae XVIII. Tribe Tristachyideae XIX. Tribe Chasmanthieae XX. Tribe Gynerieae XXI. Tribe Centotheceae Panicoideae s.s. Panicoideae s.s. incertae sedis XXII. Tribe Andropogoneae XXII.1. Subtribe Arundinellinae Andropogoneae s.s. Andropogoneae s.s. incertae sedis XXII.2. Subtribe Tripsacinae XXII.3. Subtribe Rottboelliinae XXII.4. Subtribe Ischaeminae XXII.5. Subtribe Saccharinae XXII.6. Subtribe Germainiinae XXII.7. Subtribe Andropogoninae XXIII. Tribe Paspaleae XXIII.1. Subtribe Arthropogoninae XXIII.2. Subtribe Otachyriinae XXIII.3. Subtribe Paspalinae XXIV. Tribe Paniceae Incertae sedis XXIV.1. Subtribe Anthephorinae XXIV.2. Subtribe Boivinellinae XXIV.3. Subtribe Neurachninae XXIV.4. Subtribe Cenchrinae XXIV.5. Subtribe Melinidinae XXIV.6. Subtribe Panicinae IX. Subfamily Danthonioideae X. Subfamily Chloridoideae XXV. Tribe Centropodieae Core C4 Chloridoideae, incertae sedis XXVI. Tribe Triraphideae XXVII. Tribe Eragrostideae Incertae sedis XXVII.1. Subtribe Cotteinae XXVII.2. Subtribe Eragrostidinae XXVII.3. Subtribe Uniolinae XXVIII. Tribe Zoysieae XXIX. Tribe Cynodonteae Incertae sedis XXIX.1. Subtribe Boutelouinae XXIX.2. Subtribe Orcuttiinae XXIX.3. Subtribe Gouiniinae XXIX.4. Subtribe Triodiinae XXIX.5. Subtribe Eleusininae XXIX.6. Subtribe Tripogoninae XXIX.7. Subtribe Pappophorinae XI. Subfamily Micrairoideae XII. Subfamily Arundinoideae

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Book SynopsisAquaporins are channel proteins that facilitate the diffusion of water and small uncharged solutes across cellular membranes. Plant aquaporins form a large family of highly divergent proteins that are involved in many different physiological processes. This book will summarize the recent advances regarding plant aquaporins, their phylogeny, structure, substrate specificity, mechanisms of regulation and roles in various important physiological processes related to the control of water flow and small solute distribution at the cell, tissue and plant level in an ever-changing environment.Table of ContentsStructural basis of permeation function of plant aquaporins.- Heteromerization of plant aquaporins.- Plant aquaporin trafficking.- Plant aquaporin post-translational regulation.- Plant aquaporins and cell elongation Aquaporins and root water uptake.- Aquaporins and leaf water relations.- Roles of aquaporins in stomata.- Aquaporins and abiotic stress.- Plant aquaporins and signaling.- Role of aquaporins in maintenance of xylem hydraulic capacity.- Plant aquaporins and CO2.- NIP subfamily.- Plant aquaporins and metalloids.- Plant aquaporins and mycorrhizae: their regulation and involvement in plant physiology and performance.

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Book SynopsisDas Pflanzenwachstum und dessen Grundlage - das Wurzelsystem - nehmen eine zentrale Stellung in terrestrischen Ökosystemen ein. Die Bedeutung der im Wurzel-Boden-Interface ablaufenden komplexen Prozesse für die Pflanzen- und Bodenentwicklung wurde lange Zeit nicht ausreichend erkannt. Dieses Buch leistet einen Beitrag zum besseren Verständnis des Wirkungsgefüges und der Steuermechanismen dieses Systems.Table of ContentsMorphologie, Physiologie und Biochemie der Wurzeln - Pflanzen-Mikroben-Interaktionen - Rhizosphärenprozesse und ihre Beeinflussbarkeit - Zusammensetzung und Funktion wurzelbürtiger C- und N-Verbindungen - Stoffaufnahme, Stoffumsetzung und Stofffestlegung im Wurzelraum

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Book SynopsisGenetically modified organisms (GMO) are traded as staple crops on the world market. The Cartagena Protocol on Biosafety gives sovereign rights to each country to implement its own regulatory regime to protect their landscapes and agricultural heritage. Data on the receiving environment for countries in Africa are limited. How would it be possible to maintain the options of agriculture with or without GMO, and organic farming? Decisions require not only lab-testing of crops but also data on the different agricultural structures, field sizes, and socioeconomic conditions. This book presents an introduction into the topic, experiences from biosafety research executed in the EU and most important, insight into small-scale African agriculture that is of highest relevance for food security of a population majority. The data substantiates, that crop purity as a condition to maintain cultivation options and access export markets require highest attention and solutions that still have to be found.Table of ContentsContents: Risk assessment of genetically modified organisms, maize (Zea mays L.) – Small-scale agriculture – GIS mapping – Gene flow modelling – Crop demography – Socioeconomics of smallholder farming – Accra (Ghana).

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Book SynopsisLeading scholars from various disciplines analyze the relevance of evolutionary theory for future developments, whereby the fields of anthropology, ethics, and theology are considered in particular detail. The main parts of the collection are dedicated to the following three questions: What are the basic principles of evolutionary processes? Is it morally legitimate to influence evolution by means of enhancement technologies? What is the relationship between evolutionary theory and belief in God?Table of ContentsContents: Stefan Lorenz Sorgner/Nikola Grimm: Introduction. Evolution Today – Hille Haker: The Responsible Self. Questions after Darwin – Otfried Höffe: Homo Sapiens, Animal Morabile. A Sketch of a Philosophical Moral Anthropology – Sarah Chan: Enhancement and Evolution – Nikolaus Knoepffler: Ethical Assessment of Human Genetic Enhancement – Stefan Lorenz Sorgner: Evolution, Education, and Genetic Enhancement – Francisco J. Ayala: On the Origins of Modern Science. Copernicus and Darwin – Mikhail Epstein: Technology as a New Theology. From «New Atheism» to Technotheism – Dietmar Mieth: Evolution and the Question of God and Morality. The Debate over Richard Dawkins – Vojin Rakic: Evolutionary Theory Applied to Institutions. The Impact of Europeanization on Higher Education Policies – Michael Leslie: Music and Evolution. DNA and the Evolution of Motifs in Beethovens greatest Piano Work «The Hammerklavier Sonata».

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Book SynopsisAfter two successful meetings on the ecological implications of GM-crop cultivation in 2008 and 2010, the authors felt encouraged to carry out a follow-up conference in 2012. GMLS III highlights recent scientific developments in the analysis of risks in the agricultural use of genetically modified plants. While in some countries a GM-based agriculture has been largely established, other regions of the world continue cultivation of conventional varieties only. This acknowledges a persistent reservation of the public towards GMO products. The overall need of an emphasis in independent studies becomes continuously more obvious. Experts from Europe, United States, Ghana and Argentina report their scientific results and experience with ecological, socio-economical and administrative implications.Table of ContentsContents: Nicola Schoenenberger/Luigi D’Andrea: Subspontaneous glyphosate-tolerant genetically engineered Brassica napus L. along Swiss railways – Frieder Hofmann/Ulrich Schlechtriemen/Ulrike Kuhn/Klaus-Peter Wittich/Wolfgang Koch/Steffi Ober/Rudolf Vögel/Mathias Otto: Variation of maize pollen shedding in North Germany and its relevance for GMO-monitoring – Wieslawa Poplawska/Alina Liersch/Malgorzata Jedryczka/Joannam Kaczmarek/Joanna Wolko/Maria Ogrodowczyk/Iwona Bartkowiak-Broda: Wind-mediated pollen dispersal of oilseed rape - an estimation using pollen traps – Iwona Bartkowiak-Broda/Wieslawa Poplawska/Alina Liersch/Tadeusz Walkowski/Maria Ogrodowczyk: Investigation of oilseed rape gene flow using erucic acid as biochemical marker – Alina Liersch/Joanna Wolko/Wieslawa Poplawska/Krystyna Krotka/Iwona Bartkowiak-Broda: The influence of volunteers and soil seed bank on the quality of oilseed rape seeds – Elena Balducci/Donatella Paffetti/Davide Travaglini/Stefano Biricolti/Francesca Bottalico/Silvia Fiorentini/Anna Buonamici/Francesca Donnarumma/Alessandro Materassi/Gianni Fasano/Lorenzo Chelazzi/Filippo Cimò/Isabella Colombini/Laura Bartalucci/Antonio Perfetti/Olga Mastroianni/Valeria Tomaselli/Simone Gorelli/Francesco Tonazzini/Cristina Vettori: Pollen flow evaluation to implement a Quick Monitoring Index (QMI) – Jana Seeger/Broder Breckling/Juliane Filser: Can dwarfed Oilseed Rape (Brassica napus L.) measure up to tall cultivars? – Cynthia Sagers/Meredith Schafer/Brett Murdoch/Jason Londo/Steven Travers/Peter Van de Water: Domestication, feral species and the importance of industrial agriculture to the future of plant diversity – Frieder Graef/Anne Heyer/Sigrid Ehlert/Ulrich Stachow/Claudia Bethwell/Sarah Effertz/Klaus Henle/Birgit Winkel: Large scale and small scale approaches for assessing potential exposure of habitats and species neighbouring GM plant cultivation – Maren Langhof/Gerhard Rühl: Coexistence in Maize: Efficacy of non-GM border rows in reducing pollen-mediated gene flow – Markus Ernsing/Broder Breckling/Hauke Reuter/Gunther Schmidt: Maize gene flow simulation for intensively used agrarian areas in Lower Saxony (Germany) – Gunther Schmidt/Broder Breckling/Winfried Schröder: Modelling potential maize hybridisation in northern Germany and implementation of a WebGIS application for GMO monitoring issues: Two aspects of the GeneRisk project – Charles Benbrook: Impacts of genetically engineered crops on pesticide use in the U.S. - The first sixteen years – Rosa Binimelis/Angelika Hilbeck/Tamara Lebrecht/Rapahela Vogel/Jack A. Heinemann: Farmer’s choice of seeds in five regions under different levels of seed market concentration and GM crop adoption – Denis W. Aheto/Thomas Bøhn/Broder Breckling/Johnnie Van den Berg/Lim Li Ching/Odd-Gunnar Wikmark: Implications of GM crops in subsistence-based agricultural systems in Africa – Thomas Bøhn/Denis W. Aheto/Felix S. Mwangala/Inger Louise Bones/Christopher Simoloka/Ireen Mbeule/Odd-Gunnar Wikmark/Gunther Schmidt/Ignacio Chapela: Co-existence challenges in small-scale farming when farmers share and save seeds – Andrés Carrasco: Teratogenesis by glyphosate based herbicides and other pesticides. Relationship with the retinoic acid pathway – Robin Mesnage/Steeve Gress/Nicolas Defarge/Gilles-Eric Séralini: Human cell toxicity of pesticides associated to wide scale agricultural GMOs – Miluse Trtikova/Matthias S. Meier/Angelika Hilbeck: Effect of extreme climatic conditions on Bt toxin concentration in transgenic maize – András Székács: Cry1Ab toxin quantification in MON 810 maize – Norman Wagner/Wolfram Reichenbecher/Hanka Teichmann/Beatrix Tappeser/Stefan Lötters: Are frogs and

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Book SynopsisPhospholipidshavelongbeenknownfortheirkeyroleinmaintainingthebilayer structureofmembranesandinphysicallyseparatingthecytosolfromorganelles andtheextracellularspace. Inthepastdecade,acompletelynovelandunexpected functionemerged,full?llingacrucialroleincellsignaling. Itwasthediscoveryin animalcells,thatagonist-activatedcellsurfacereceptorsledtotheactivationofa phospholipase C (PLC), to hydrolyze the minor lipid, phosphatidylinositol 4- bisphosphateintotwosecondmessengers,inositol1,4,5-trisphosphate(InsP)and 3 2+ diacylglycerol(DAG). WhileInsP diffusesintothecytosol,whereitreleasesCa 3 2+ from an intracellular store by activating a ligand-gated Ca -channel, DAG remainsinthemembranetorecruitandactivatemembersoftheproteinkinase Cfamily. Overtheyears,avarietyofotherlipidbased-signalingcascadesweredisc- ered. Theseinclude,phospholipaseA,generatinglyso-phospholipidsandfreefatty acids(tobeconvertedintoprostaglandinsandleukotrienes),phospholipaseD,to generatethelipidsecondmessenger,phosphatidicacid(PA),andphosphoinositide 3-kinase (PI3K), generating a distinct set of polyphosphoinositides (PPI) ph- phorylated at the D3-position of the inositol ring, all with separate signaling functions. Sphingolipids,representinganotherimportantgroupofsignalinglipids, alsocameacross. Themajorityoftheselipid-basedsignalingpathwayshavebeendiscoveredin plantcellstoo. Moreover,theyhavebeenfoundtobeactivatedinresponsetoa widevarietyofbioticandabioticstresssignals,butalsotobebasicallyinvolvedin plantgrowthanddevelopment. Whilemanyoftheenzymes,lipids,andtheirtargets involved arewell conserved, major differences with the mammalian paradigms havealsoemerged. Thisbookhighlightsthecurrentstatusofplantlipidsignaling. Allchaptershave beenwrittenbyexpertsinthe?eldandcoverinformationforbothbeginnersand advancedlipidologists. PartIincludesphospholipases(Chaps. 1-3),partII,lipid kinases (Chaps. 4-7), part III, lipid phosphatases (Chaps. 8-9), part IV, ix x Preface inositolphosphates and PPI metabolism (Chaps. 10-13), part V, PA signaling (Chaps. 14-17),andpartVI,additionallipidsignals,e. g. oxylipins,NAPEand sphingolipids(Chaps18-20). Ithasbeenagreatpleasuretobetheeditorofthis bookandtobeawitnessofthislipid-signalingadventure. Amsterdam,June2009 TeunMunnik Contents PartI Phospholipases PhospholipaseAinPlantSignalTransduction...3 Gu..ntherF. E. Scherer TheEmergingRolesofPhospholipaseCinPlantGrowth andDevelopment...23 PeterE. DowdandSimonGilroy PlantPhospholipaseD...39 WenhuaZhang,XiaoboWan,YueyunHong,WeiqiLi,andXueminWang PartII Kinases Phosphatidylinositol4-PhosphateisRequiredforTip GrowthinArabidopsisthaliana ...65 AmyL. SzumlanskiandErikNielsen PIP-KinasesasKeyRegulatorsofPlantFunction ...79 TillIschebeckandIngoHeilmann PlantPhosphatidylinositol3-Kinase...95 YureeLee,TeunMunnik,andYoungsookLee DiacylglycerolKinase...107 StevenA. AriszandTeunMunnik xi xii Contents PartIII Phosphatases SignalingandthePolyphosphoinositidePhosphatasesfromPlants ...117 GlendaE. Gillaspy PhosphatidicAcidPhosphatasesinSeedPlants...131 YukiNakamuraandHiroyukiOhta PartIV PPIMetabolism InsP inPlantCells ...145 3 YangJuIm,BrianQPhillippy,andImaraYPerera InositolPolyphosphatesandKinases...161 JillStevenson-PaulikandBrianQ. Phillippy PhosphoinositidesandPlantCellWallSynthesis ...175 RuiqinZhong,RyanL. McCarthy,andZheng-HuaYe ImagingLipidsinLivingPlants ...185 JoopE. M. VermeerandTeunMunnik PartV PASignaling PhosphatidicAcid:AnElectrostatic/Hydrogen-BondSwitch?...2 03 EdgarEduardKooijmanandChristaTesterink NitricOxideandPhosphatidicAcidSignalinginPlants...223 AyelenM. Diste'fano,M. LucianaLanteri,ArjentenHave, CarlosGarc?'a-Mata,LorenzoLamattina,andAnaM. Laxalt 3-Phosphoinositide-DependentProteinKinaseisaSwitchboard fromSignalingLipidstoProteinPhosphorylationCascades...243 ChristineZalejskiandLa'szlo'Bo..gre PartVI AdditionalLipidSignals DiacylglycerolPyrophosphate,ANovelPlantSignalingLipid...263 EmmanuelleJeannette,SophieParadis,andChristineZalejski OxylipinSignalingandPlantGrowth...277 AlinaMosblech,IvoFeussner,andIngoHeilmann Contents xiii FattyAcidAmideHydrolaseandtheMetabolismof N-AcylethanolamineLipidMediatorsinPlants...293 KentD. ChapmanandElisonB. Blanca?or SphingolipidSignalinginPlants...307 LouiseV. MichaelsonandJohnathanA. Napier Index ...323 Contributors Steven A. Arisz Section Plant Physiology, Swammerdam Institute for Life Sciences,UniversityofAmsterdam,SciencePark904,NL-1098XH,Amsterdam, TheNetherlands ElisonB. Blanca?or SamuelRobertsNobleFoundation,PlantBiologyDivision, Ardmore,OK73401,USA,eblanca?or@noble.Table of ContentsPhospholipases.- Phospholipase A in Plant Signal Transduction.- The Emerging Roles of Phospholipase C in Plant Growth and Development.- Plant Phospholipase D.- Kinases.- Phosphatidylinositol 4-Phosphate is Required for Tip Growth in Arabidopsis thaliana.- PIP-Kinases as Key Regulators of Plant Function.- Plant Phosphatidylinositol 3-Kinase.- Diacylglycerol Kinase.- Phosphatases.- Signaling and the Polyphosphoinositide Phosphatases from Plants.- Phosphatidic Acid Phosphatases in Seed Plants.- PPI Metabolism.- InsP3 in Plant Cells.- Inositol Polyphosphates and Kinases.- Phosphoinositides and Plant Cell Wall Synthesis.- Imaging Lipids in Living Plants.- PA Signaling.- Phosphatidic Acid: An Electrostatic/Hydrogen-Bond Switch?.- Nitric Oxide and Phosphatidic Acid Signaling in Plants.- 3-Phosphoinositide-Dependent Protein Kinase is a Switchboard from Signaling Lipids to Protein Phosphorylation Cascades.- Diacylglycerol Pyrophosphate, A Novel Plant Signaling Lipid.- Additional Lipid Signals.- Oxylipin Signaling and Plant Growth.- Fatty Acid Amide Hydrolase and the Metabolism of N-Acylethanolamine Lipid Mediators in Plants.- Sphingolipid Signaling in Plants.

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Book SynopsisThis atlas presents anatomical descriptions of the xylem, bark and pith of 264 species belonging to 71 families. It highlights the anatomical diversity of trees, shrubs, dwarf shrubs, woody lianas and several of the prominent perennial herbs from the Eastern Mediterranean region, with a focus on the island of Cyprus. The island’s topography and biogeographic history combine to provide a wide range of habitats and diverse flora including widespread, endemic, and ornamental species.The monograph for each species includes a description of the anatomical structures of the stem and twig xylem and the twig’s bark and pith, as well as color micrographs of double-stained sections of each of these plant parts. These entries are accompanied by a photograph and a brief description of the plant including stem wood density, height, habit, flower, leaf and fruit characteristics, and a map showing its geographic and altitudinal distribution in the region. Xylem descriptions follow the IAWA lists of microscopic features for hardwood and softwood identification. For bark and pith descriptions, a new coding system developed by the authors is applied. Lastly, the work offers a key for wood identification that was developed to differentiate between groups of species by using a small number of features that are unambiguous and clearly visible. The atlas will be a valuable guide for botanists, ecologists, foresters, archeologists, horticulturists and paleobotanists.Trade ReviewFrom the reviews:“This book is intended as an identification manual of the woody (lignified) tissues of both wild and cultivated trees, shrubs, sub-shrubs and climbers from across the Eastern Mediterranean. … a wonderful and rich tool within the overall kit needed to study the remains of wood and other woody plants specific to a region with much diversity and varied archaeological research.” (Danielle de Carle, assemblage, assemblage.group.shef.ac.uk, May, 2014)Table of Contents1. Introduction2. Materials and Methods- Origin of the material studied- Plant material preparation- Wood density3. Definition of Anatomical Features- Xylem- Bark- Pith4. Identification Keys- Wood without vessels- Wood with vessels and included phloem- Wood with vessels and without included phloem5. Anatomical Description of Species- Gymnosperms• Cupressaceae• Pinaceae• Taxaceae- Gnetales• Ephedraceae- Angiosperms Monocotyledonous• Asparagaceae• Graminaceae• Ruscaceae• Smilacaceae- Angiosperms Dicotyledonous• Adoxaceae• Amaranthaceae• Anacardiaceae• Apocynaceae• Aquifoliaceae• Araliaceae• Aristolochiaceae• Asclepiadaceae• Asteraceae• Berberidaceae• Betulaceae• Boraginaceae• Brassicaceae• Buxaceae• Caesalpiniaceae• Cannabaceae• Capparaceae• Caprifoliaceae• Caryophyllaceae• Chenopodiaceae• Cistaceae• Convolvulaceae• Cornaceae• Dipsacaceae• Ebenaceae• Elaeagnaceae• Ericaceae• Euphorbiaceae• Fabaceae• Fagaceae• Frankeniaceae• Hypericaceae• Juglandaceae• Lamiaceae• Lauraceae• Lythraceae• Malvaceae• Mimosaceae• Moraceae• Myrtaceae• Oleaceae• Orobanchaceae• Platanaceae• Plumbaginaceae• Polygonaceae• Ranunculaceae• Rhamnaceae• Rosaceae• Rubiaceae• Rutaceae• Salicaceae• Sapindaceae• Simarubaceae• Solanaceae• Styracaceae• Tamaricaceae• Thymelaeaceae• Ulmaceae• Verbenaceae• Vitaceae• ZygophyllaceaeList of Species and FamiliesReferences

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Book SynopsisThis open-access book provides a comprehensive overview of current methodologies for improving resistance to leaf rust in coffee, one of the world's most important cash crops and beverages. Coffea arabica L. (Arabica) accounts for about 60% of the world's coffee production. Coffee leaf rust (CLR), caused by the fungus Hemileia vastatrix is the major disease affecting Arabica coffee resulting in losses of over $1 billion annually. The geographical distribution of CLR is expanding due to climate change. Moreover, the genetic improvement of Arabica coffee is constrained due to its very narrow genetic base. This protocol book introduces essential concepts of mutation breeding as an efficient tool to increase the genetic diversity of Arabica coffee and presents practical methods on mutation induction and screening for resistance to CLR. Current breeding approaches, challenges and opportunities for Arabica coffee improvement are briefly reviewed and a survey of common coffee diseases with emphasis on CLR is presented. Practical protocols for mutation induction and screening for resistance to CLR are described, including novel methods for single-cell mutagenesis using in vitro cell and tissue culture techniques and for genome-wide screening of induced mutations using genomics tools. Each protocol chapter has an introduction and is supported by example results. Given the impact of recent CLR epidemics on Arabica coffee production in Latin America, the book is intended to serve as a timely reference and guide for students and researchers in the agricultural sciences, plant pathologists and breeders, as well as growers and end-users interested in producing novel coffee genotypes for genetic studies, breeding, and commercial applications.Table of ContentsIntroduction coffee breeding and challenges Choice of materials for mutation induction in arabica coffee Improved in-vitro establishment and germination of Coffea arabica seed Induced mutagenesis in coffee (Coffea arabica L.) using chemical agents Mutation induction using gamma irradiation and high frequency embryogenic callus from coffee (Coffea arabica) Chemical mutagenesis of Coffea arabica mature seed using EMS Physical mutagenesis of coffee seeds In-vitro regeneration of Coffea arabica var. Venecia through somatic embryogenesis Protocol on mutation induction in Coffea arabica using in vivo grafting and cuttings Protocol on mutation induction in coffee using in vitro tissue cultures Screening for resistance to coffee leaf rust Protocol to send samples of coffee leaf rust to CIFC Coffee leaf rust (Hemileia vastatrix) inoculation and evaluation under laboratory conditions Development of a PCR-Based Molecular Detection Technique for the Early Diagnosis of Coffee Leaf Rust Caused by Hemileia vastatrix Protocols for chromosome preparations: molecular cytogenetics and studying genome organization in coffee

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Book SynopsisThis book is a compilation of the most challenging and significant chapters on the diagnosis and management of important bacterial, fungal, viral, viroid, phytoplasma, non parasitic diseases and various physiological disorders, in various crops. The chapters have been contributed by eminent plant pathologists, having wide experience of teaching and research on various crops with different types of diseases, which cause great economic losses. The book would be very useful for students, teachers and researchers of plant pathology.This book highlights recent advances made in the development of new types of resistance in host plants and alternative strategies for managing plant diseases to improve food quality and reduce the negative public health impact associated with plant diseases. Having entered into 21st century advancements in the Diagnosis of Plant Pathogens and Plant Disease Management need to be closely examined and adequately applied, so that newer challenges facing plant pathology could be adequately addressed in attaining food security for the growing population.Substantial advancements have been made in terms of expanding knowledge base of the biology of plant-microbial interactions, disease management strategies and application and practice of Plant Pathology. Application of molecular biology in Plant Pathology has greatly improved our ability to detect plant pathogens and in increasing our understanding, their ecology and epidemiology. Similarly, new technologies and resources have been evolved for the development of sustainable crop protection systems by different control strategies against various pests and pathogens that are important components of the integrated pest management programme. Natural products and chemical compounds discovered as a result of basic research and molecular mechanisms of pathogenesis have led to the development of “biorational” pesticides. Biological control has been found to be the most significant approach to plant health management during the twentieth century and promises using modern biotechnology, to be even more significant in the twenty-first century.Table of Contents1. Commercialization of Microbial Biopesticides for the Management of Pests and Diseases.- 2. Management of Plant Diseases in Organic Agriculture.- 3. Morphological and Molecular Diagnosis of Fusarium sps. Causing Wilt Diseases of Crop Plants.- 4. Damping-off Disease of Seedlings in Solanaceous Vegetables: Current Status and Disease Management.- 5. Downy Mildew of Cucurbits and Their Management.- 6. Current Status of the Diseases of Lentil (Lens culinaris Medik).- 7. Botrytis Grey Mould of Chickpea (Cicer arietinum L.).- 8. Fungal Diseases of Okra (Abelmoschus esculentus L.) and their Integrated Management (IDM).- 9. Sheath Blight Disease of Paddy and their Management.- 10. Diagnosis and Management of Bacterial Plant Diseases.- 11. Recent Developments in Bacterial Blight of Pomegranate and its Management.- 12. Plant Viral Disease Management through Botanicals.- 13. Yellow Vein Mosaic Disease – A New Threat to Mesta (Hibiscus Sp.) Cultivation.- 14. Biology, Epidemiology, and Management of Soybean Mosaic Virus in Soybean (Glycine max (L.) Merrill).- 15. Boerhaavia diffusa, Derived Antiviral : A Novel, Ecofriendly Approach for the Management of Viral Infections.- 16. Nematode Diseases of Crops.- 17. Recent Advances in Diagnosis and Management of Diseases of Vegetable Crops.- 18. Novel Detection Techniques for Plant Pathogens and Their Application in Disease Management.- 19. New Molecular Techniques for Detection and Diagnosis of Plant Pathogens.- 20. Plant Nutrition in Management of Plant Diseases with Special Reference to Wheat.- 21. Nutritional Disorders of Citrus and Their Management.

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Book SynopsisThis book focuses on light-emitting diode (LED) lighting, mainly for the commercial production of horticultural crops in plant factories and greenhouses with controlled environments, giving special attention to: 1) plant growth and development as affected by the light environment; and 2) business and technological opportunities and challenges with regard to LEDs. The book contains more than 30 chapters grouped into seven parts: 1) overview of controlled-environment agriculture and its significance; 2) the effects of ambient light on plant growth and development; 3) optical and physiological characteristics of plant leaves and canopies; 4) greenhouse crop production with supplemental LED lighting; 5) effects of light quality on plant physiology and morphology; 6) current status of commercial plant factories under LED lighting; and 7) basics of LEDs and LED lighting for plant cultivation. LED lighting for urban agriculture in the forthcoming decades will not be just an advanced form of current urban agriculture. It will be largely based on two fields: One is a new paradigm and rapidly advancing concepts, global technologies for LEDs, information and communication technology, renewable energy, and related expertise and their methodologies; the other is basic science and technology that should not change for the next several decades. Consideration should be given now to future urban agriculture based on those two fields. The tremendous potentials of LED lighting for urban agriculture are stimulating many people in various fields including researchers, businesspeople, policy makers, educators, students, community developers, architects, designers, and entrepreneurs. Readers of this book will understand the principle, concept, design, operation, social roles, pros and cons, costs and benefits of LED lighting for urban agriculture, and its possibilities and challenges for solving local as well as global agricultural, environmental, and social issues.Table of ContentsPart 1 Perspective and significance of LED lighting for urban agriculture.- 1. Why LED lighting for Urban Agriculture? (T. Kozai).- 2. Integrated Urban Controlled Environment Agricultural Systems （IUCEAS） (KC Ting, T. Ling and Paul C. Davidson, University of Illinois).- 3. Open-Source Agriculture Initiative - Food for the future? – (Caleb Harper, MIT).-Part 2 Plant growth and development as affected by light.- 4. Some aspects of the light environment (T. Kozai and G. Zhang).- 5. Light acts as a signal for regulation of growth and development (Y. Higuchi and T. Hisamatsu).- 6. Factors affecting flowering seasonality (Y. Higuchi and T. Hisamatsu).- 7. Light environment in plant factory with LED lighting (T. Akiyama and T. Kozai).- Part 3 Optical and physiological characteristics of a plant leaf and a canopy (Editor: K. Fujiwara).- 8. Optical and physiological properties of a leaf (K. Murakami and R. Matsuda).- 9. Optical and physiological properties of a plant canopy (Y. Ibaraki).- 10. Evaluation of spatial light environment and plant canopy structure (Y. Ibaraki).- 11. Lighting efficiency in plant production under artificial lighting and plant growth modeling for evaluating the lighting efficiency (Y. Ibaraki).- 12. Effects of physical environment on photosynthesis, respiration, and transpiration (R. Matsuda).- 13. Air current around single leaves and plant canopies and its effect on transpiration, photosynthesis, and plant organ temperatures (Y. Kitaya).- Appendix: Equations used in Part 3.- Part 4 Greenhouse crop production with supplemental LED lighting (Editor: E. Runkle).- 14. Control of Flowering Using Night-interruption and Day-extension LED Lighting (Q. Meng and E. Runkle.- 15. Control of morphology, quality and economic value by manipulating light quality (blue, red, and far-red light) and daily light integral (DLI) using LEDs (R. Lopez and J. Craver)).- 16. Supplemental intra-canopy lighting with LEDs for fruit vegetables (N. Lu, C. Mitchell, E.Heuvelink, and T. Dueck).- Part 5 Light quality effects on plant physiology and morphology (Editor: T. Kozai).- 17. Effect of Light Quality on Secondary Metabolite Production in Leafy Greens and Seedlings (H. Shimizu).- 18. Induction of plant disease resistance and other physiological responses by green light illumination (R. Kudou and K.Yamamoto).- 19. Light quality effects on intumescence (oedema) on leaves (K. Williams, C.T. Miller and J.K. Craver).- Part 6 Current status of commercial plant factories with LED lighting (T. Kozai).- 20.Business models for plant factories using artificial light (PFALs) in Taiwan (Wei Fang, National Taiwan University).- 21. Current status in Asia, Europe and other regions (E. Hayashi).- 22. Current status in Americas, (C Higgins).- 23.　Economic analysis and market creation for PFALs (E.Hayashi).- 24. Consumer perception and understanding of vegetables produced at plant factories with artificial lighting (Y. Yano, T. Nakamura and A. Maruyama).- Part 7 Basics of LEDs and LED lighting systems for plant cultivation (Editor: K.Fujiwara).- 25. Radiometric, photometric, and photometric quantities and their units (K. Fujiwara).-26. Basics of LEDs for plant cultivation (K. Fujiwara).- 27. Measurement of photometric and radiometric characteristics of LEDs for plant cultivation (E. Goto)).- 28. Configuration, function and operation of LED lighting systems (A. Yano).- 29. Energy balance and energy conversion process of LEDs and LED lighting systems (A. Yano).- 30. Health effects of occupational exposure to LED light: A special reference to plant cultivation works in plant factories (M. Takao).- 31. Moving toward Self-Learning Closed Plant Production Systems (T. Kozai, and K. Fujiwara).

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Book SynopsisThis edited book deals with plant genetic resources and their status, availability, and ecological niche in natural habitat. Usage and conservation practices followed by various tribal communities and their rationale are also discussed in the book. The book explores application of biological tools to conserve plant species and optimization protocols for conservation and elicitation of secondary metabolites and other value addition products. The book is organized into sub-themes covering: (i) Ecological status of plant genetic resources (ii) Traditional ethnobotanical knowledge and conservation practices (iii) Ex-situ conservation practices and bioprospecting Globally, plant genetic resources are deeply rooted in culture and economy. Since the early 1990s, the changing socio-economic situation has increasingly put pressure on plant genetic resources, in some cases leading to a severe loss of their diversity. For this reason, most vulnerable areas at risk of genetic erosion have been demarcated and protected by forest laws and regulations. Therefore, this book brings to light the opinions of leading experts in the area of ecology, conservation biodiversity, ethanobotany, and bioprospecting of plant genetic resources. The book is for use by graduate and advanced undergraduate students and researchers in plant physiology, molecular biology, biochemistry, and agriculture. Additionally, it is extremely useful as a general reference on conservation of flora and large-scale cultivation.Table of ContentsChapter 1. A Checklist of Some Economically Important Philippine Ferns (Eupolypod I).- Chapter 2. On-Farm Conservation of Traditional Rice Varieties in the Provinces of Quirino, Iloilo, Antique and Davao Oriental, Philippines: Drivers and Implications for Policy.- Chapter 3. Recent Developments in Wild Rice Conservation, Research and Use.- Chapter 4. GIS and Its Role in Plant Genetic Resources Use and Conservation.- Chapter 5. Plant Diversity of Mount Makiling Forest Reserve: implications to management and conservation.- Chapter 6. Native/Heirloom Rice in the Cordilleras: Status, Conservation and Utilization.- Chapter 7. Identification and Conservation of Culturally Important Trees Used for Traditional Houses in Ifugao, Philippines.- Chapter 8. Pteridophyte Diversity in the Puerto Princesa Subterranean River National Park (PPSRNP), Palawan Island, Philippines.- Chapter 9. Situating Plant Genetic Resource in the K-12 Curriculum: A Critical Review.- Chapter 10. An Inventory of Commonly Cultivated Plant Species in Permaculture Farms in the Philippines.- Chapter 11. Conservation of Musa Diversity and Germplasm Management at the National Plant Genetic Resources Laboratory in the Philippines.- Chapter 12. Diversity and Management of Indoor Plants at Urban Dwellings in Bangladesh: A Case Study from Halishahar of Chattogram Metropolitan Area.- Chapter 13. Exploration, Identification, Multiplication and Conservation of Rare Foreset Genetic Resources in Chittagong University Campus, Bangladesh.- Chapter 14. The Chemistry of Anti-Diabetic Plants.- Chapter 15. Conservation of Medicinal Plant Genetic Resources in Southern Africa.- Chapter 16. Chloroplast DNA haplotype specific to genetic resources of Dalbergia oliveri in Thailand.- Chapter 17. Status, conservation and sustainability on medicinal plant resources of India.- Chapter 18. Plant genetic resources management in the framework of policy developments.- Chapter 19. Agricultural livelihoods and temporal dynamics of agriculturein peripheral villages of a protected area in South India.- Chapter 20. Conservation of plant genetic resources: A special reference to dye yielding plants.- Chapter 21. Perception of advanced techniques in conservation and utilization of wild genetic resources of rice.- Chapter 22. Conservation and determination of nutritional composition of Mondia whitei in vitro.- Chapter 23. Social Benefits, Development and the Pertinence of Laws: The Case of Commercialization of Plant Genetic Resources in the Global Markets.

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Book SynopsisThis edited book is focusing on the novel and innovative procedures in tissue culture for large scale production of plantation and horticulture crops. It is bringing out a comprehensive collection of information on commercial scale tissue culture with the objective of producing high quality, disease-free and uniform planting material. Developing low cost commercial tissue culture can be one of the best possible way to attain the goal of sustainable agriculture. Tissue culture provides a means for rapid clonal propagation of desired cultivars, and a mechanism for somatic hybridization and in vitro selection of novel genotypes. Application of plant tissue culture technology in horticulture and plantation crops provides an efficient method to improve the quality and nutrition of the crops. This book includes a description of highly efficient, low cost in vitro regeneration protocols of important plantation and horticulture crops with a detailed guideline to establish a commercial plant tissue culture facility including certification, packaging and transportation of plantlets. The book discusses somatic embryogenesis, virus elimination, genetic transformation, protoplast fusion, haploid production, coculture of endophytic fungi, effects of light and ionizing radiation as well as the application of bioreactors. This book is useful for a wide range of readers such as, academicians, students, research scientists, horticulturists, agriculturists, industrial entrepreneurs, and agro-industry employees. Table of ContentsChapter 1. Improved sterilization techniques for successful in vitro micropropagation.- Chapter 2. Selection and preparation of explants for the clonal propagation of horticultural plants in plant factory systems.- Chapter 3. Use of alternative components in cost-effective media for mass production of clonal plants.- Chapter 4. Novel plant growth regulators in in vitro establishment of horticulture and plantation crops.- Chapter 5. Potential role and utilization of Piriformospora indica: fungal endophytes in commercial plant tissue culture.- Chapter 6. Application of biostimulants in establishing and acclimatizing in vitro-raised plants.- Chapter 7. Nanomaterials and plant tissue culture: Developmental path and contradictory facts.- Chapter 8. Somatic embryogenesis in cashew (Anacardium occidentale L.).- Chapter 9. Somatic embryogenesis and plant regeneration in horticultural crops.- Chapter 10. Prospect and commercial production of economically important plant mulberry (Morus sp.) towards the upliftment of rural economy.- Chapter 11. Assessing the genetic stability of in vitro raised plants.- Chapter 12. Improvement of plant survival and expediting acclimatization process.- Chapter 13. Evaluation of genetic stability of in vitro raised orchids using molecular based markers.- Chapter 14. Recent in-vitro propagation advances in Genus Paphiopedilum – Lady Slipper Orchids.

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Book SynopsisThe edited book highlights various emerging Omics tools and techniques that are currently being used in the analysis of responses to different abiotic stress in agronomically important cereals and their applications in enhancing tolerance mechanism. Plants are severely challenged by diverse abiotic stress factors such as low water availability (drought), excess water (flooding/ waterlogging), extremes of temperatures (cold, chilling, frost, and heat), salinity, mineral deficiency, and heavy metal toxicity. Agronomically important cereal crops like Rice, Wheat, Maize, Sorghum, Pearl Millet, Barley, Oats, Rye, Foxtail Millets etc. that are the major sources of food material and nutritional components for human health are mostly exposed to abiotic stresses during the critical phases of flowering and grain yield. Different Omics platforms like genomics, transcriptomics proteomics, metabolomics and phenomics, in conjunction with breeding and transgenic technology, and high throughput technologies like next generation sequencing, epigenomics, genome editing and CRISPR-Cas technology have emerged altogether in understanding abiotic stress response and strengthening defense and tolerance mechanism of different cereals. This book is beneficial to different universities and research institutes working with different cereal crops in the areas of stress physiology, stress-associated genes and proteins, genomics, proteomics, genetic engineering, and other fields of molecular plant physiology. The book can also be used as advanced textbook for the course work of research and master’s level students. It will be of use to people involved in ecological studies and sustainable agriculture. The proposed book bring together the global leaders working on environmental stress in different cereal crops and motivate scientists to explore new horizons in the relevant areas of research.Table of ContentsChapter 1. Morphological, architectural and biochemical modifications of cereal crops during abiotic stress.- Chapter 2. Cereal physiology, flowering and grain yield under salinity and drought stress.- Chapter 3. Physiology, flowering and grain yield under abiotic stress imposed by heavy metals.- Chapter 4. Priming effect in developing abiotic stress tolerance in cereals through metabolome reprograming.- Chapter 5. Understanding abiotic stress tolerance in cereals through genomics and proteomics approaches.- Chapter 6. Metabolome analyses in response to diverse abiotic stress.- Chapter 7. Metabolomic profiling of different cereals during biotic and abiotic stresses.- Chapter 8. Plant breeding strategies for abiotic stress tolerance in cereals.- Chapter 9. Transgenic strategies to develop abiotic stress tolerance in cereals.- Chapter 10. Genetically engineered cereals tolerant to abiotic stress.- Chapter 11. Genome editing and CRISPR-Cas technology for enhancing abiotic stress tolerance in cereals.- Chapter 12. Abiotic stress tolerance in cereals through genome editing.- Chapter 13. Varietal physiology, metabolic regulation and molecular responses of rice genotypes to diverse environmental stresses.- Chapter 14. Breeding and Omics Approaches to Understand Abiotic Stress Response in Rice.- Chapter 15. Genomics and transcriptomics approaches to understand abiotic stress response in rice.- Chapter 16. Biochemical and molecular mechanism of wheat to diverse environmental stresses.- Chapter 17. How microRNAs Regulate Abiotic Stress Tolerance in Wheat? A Snapshot.- Chapter 18. Molecular-genetic studies, breeding and genomics-based approaches to develop abiotic stress tolerance in sorghum.- Chapter 19. MicroRNAs shape the Tolerance Mechanisms against Abiotic Stress in Maize.- Chapter 20. Transcriptome, proteome and metabolome profiling for abiotic stress tolerance in maize and barley.- Chapter 21. Omics tools to understand abiotic stress response and adaptation in rye, oat and barley.- Chapter 22. Genomic tools and proteomic determinants for abiotic stress tolerance in pearl millet (Pennisetum glaucum) and foxtail millet (Setaria italica L.).- Chapter 23. Advancement in Omics Technologies for Enhancing Abiotic Stress Tolerance in Finger millet.- Chapter 24. Buckwheat (Fagopyrum esculentum) response and tolerance to abiotic stress.- Chapter 25. Abiotic Stress Response and Adoption of Triticale.

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Book SynopsisThis book introduces ecology of tropical cloud forests in China, a high-altitudinal tropical forest. The findings are novel in revealing environmental characteristics, community features, diversity patterns, plant strategies, community assembly mechanisms, and diversity-ecosystem functions of tropical cloud forests in China. The knowledge of this book will bridge the gaps of our understanding on the tropical forest in China and the world-wide, and will enrich the theory of tropical forest community ecology.Written by experts in the field, this book will serve as an invaluable reference for tropical forest ecology researchers.Table of Contents

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Book SynopsisThe book deals with latest research achievements of Brassica scientists using omics approaches in understanding host-pathogen interaction, molecular detection, identification, and functional characterization of effectors/genes including pathogenomics and biometabolomics. Genomics of host-pathogen interaction is a source of information for the teachers, students, researchers, and policy makers to foster success in enhancing the Brassica production and productivity through the development of improved disease-resistant varieties with the use of omics technologies. It is a base and sound plate form for managing biological stresses of Brassica at global level. The book covers up-to-date information on genomics of host-pathogen interaction, pathogenomics of crucifers’ pathogen, and biometabolomics of host pathosystem supplemented with ample photographs, illustrations, and figures which make it stimulating, effective, and easy to comprehend for readers, researchers, biology students, teachers, and policy makers.Table of Contents1. Genomics of crucifers’ host-pathosystem - Prologue.- 2. Crucifers’ pathogens genome.- 3. Genomics of host- pathogen interaction.- 4. Molecular detection and Identification of pathogens, pathotypes and genes.- 5. Pathogenomics of pathogenic variability.- 6. Bio-metabolomics of crucifer’s host-pathosystem.- 7. Genomics of crucifer’s host-pathosystem at a glance.- 8. Protocols to study host-pathosystem.- 9. Future research priorities of crucifers’ host pathosystem.- 10. Subject index.

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Book SynopsisThis edited volume focuses on the core aspects of sugarcane production-management under stressful environments as well as innovative strategies for augmenting crop growth & productivity through intrinsic and extrinsic manipulations. The various chapters aim at bringing out comprehensive and advance information on different aspects of sugarcane cultivation under stress environments and impact of climate change on the sustainability of sugarcane production. The book encompasses information about crop production management, physiological & nutritional requirements, ratooning, ripening and post-harvest losses management. It also delineates various technologies that support the continued use and improvement of sugarcane as renewable source of food, fiber and bio-energy. The manipulations at cellular and molecular levels, molecular breeding approaches and post-harvest technologies are also included. The area under sugarcane cultivation is gradually increasing because of its diversification potential. The high productivity and biomass of the cane crop also makes it a key source for use as bio-energy crop and a promising raw material for bio-based agro-industries. However, poor crop & biomass productivity due to abiotic stress is the foremost constraint in its future commercial exploitation as sustainable feed-stock for bio-based industries. It is therefore imperative to understand the cellular-molecular modulation responsible to productivity barrier under specific stress situation(s) for better sugarcane quality and quantum under field condition. Some of these innovative approaches are delineated in this book. This book is of interest to progressive sugarcane growers, millers, industrial entrepreneurs, sugarcane scientists, cane development and extension officers, sugar industry managers and valuable source of reference worldwide.Table of ContentsAttached

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Book SynopsisThis book dispenses a comprehensive coverage of up-to-date account of genomics and genome editing enriched smart plant breeding approaches for enhancing genetic gains in vegetable crops in the post-genomics era. The main focus of the present volume is to illuminate the applications of new techniques evolved in the post-genomics era. The techniques covered are high-throughput sequencing of DNA and RNA, genome editing, epigenetics and epigenomics, genotype by sequencing (GBS), QTL-seq and RNA-seq for transcriptome analysis. Vegetables are the important component of healthy diet, source of energy and hold a promising position in building up a strong immunity. Zero hunger and attaining the food and nutritional security is the top priority of United Nations development goals. Smart breeding of food and vegetable crops to fight the challenges ahead in sustainable manner by keeping the harmony with nature is an important approach to fulfill the United Nations Sustainable Development Goals (UN-SDGs). This edited book highlights the modern results in smart vegetable breeding in the post genomics era and forecasts crucial areas of future needs. It is an important reference for the, readers, students, researchers, scientists in academia and research industries to provide them comprehensive information of innovative approaches for crop improvement in the post-genomics era and in the era of and climate change. Even the readers, academia, social activists, and others fond of reading will get a fair idea of journey travelled so far and future roadmap for fighting the challenges ahead to meet the sustainable development goals.Table of ContentsAttached

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Book SynopsisThis book provides a comprehensive overview of medicinal plants and their interaction with abiotic stress in terms of morphological, physiological, biochemical, and molecular variations, and explains the adaptation and tolerance mechanisms involved. It presents various mechanisms that become operative in medicinal plants to combat stressful situations. The book discusses the secondary metabolites and/or bioactive compounds produced in medicinal plants under abiotic stress conditions, and the use of biostimulants and/or phytoprotectants to alleviate the adverse effects of abiotic stresses on medicinal plants. Additionally, it is likely to address opportunities and challenges in molecular and omics studies of medicinal plants under abiotic stress conditions. Overall, the chapters are developed by eminent subject experts with due care and clarity and cover an up-to-date literature review with relevant illustrations. The book would cater to the need of graduate and post-graduate students, researchers as well as scientists, and may attract the attention of pharmaceutical companies/industrialists and health policymakers.Table of ContentsChapter 1. Medicinal plants and abiotic stress: An overview.- Chapter 2. Medicinal plants proteomics in response to abiotic stresses.- Chapter 3. Medicinal plants metabolomics in response to abiotic stresses.- Chapter 4. Secondary metabolite production in medicinal plants under abiotic stress.- Chapter 5. Effect of temperature (cold and hot) stress on medicinal plants.- Chapter 6. Effect of water stress (drought and waterlogging) on medicinal plants.- Chapter 7. Effects of gaseous pollutants on medicinal plants.- Chapter 8. Impact of salinity stress on medicinal plants.- Chapter 9. Impact of aridity on specialized metabolism: Concentration of natural products in plants.- Chapter 10.The role of PGPRs in medicinal plants under abiotic stress.- Chapter 11. Effect of mineral nutrition and PGRs on biosynthesis and distribution of secondary plant metabolites under abiotic stress.- Chapter 12. Impact of phytoprotectants on growth and yield of medicinal plants under abiotic stress.- Chapter 13. Biostimulants and phytohormones improve productivity and quality of medicinal plants under abiotic stress.- Chapter 14. Light (high light/UV radiation) modulates adaptation mechanisms and secondary metabolite production in medicinal plants.- Chapter 15. Recent Strategies to engineer alkaloid biosynthesis in medicinal plants.- Chapter 16. Genome-editing strategies for enhanced stress tolerance in medicinal plants.- Chapter 16. Phytoremediation potential of medicinal plants.- Chapter 17. Phytoremediation potential of medicinal plants.

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Book SynopsisThis edited volume provides state-of–the-art overview of abiotic stress responses and tolerance mechanisms of different legume crops viz., chickpea, mung bean, lentil, black gram, cowpea, cluster bean, soybean and groundnut. Legumes play an important role in human nutrition and soil health through fixation of nitrogen. Legume production and productivity are vulnerable to different abiotic stresses. A proper understanding about the physiological and molecular basis of the legume crops is essential for genetic improvement of abiotic stress tolerance. This book consists of 15 chapters covering physiological and biochemical basis, molecular physiology, molecular breeding, genetics, genomics, transgenics, epigenetics of drought, saline, high temperature and nutrient deficiency stresses, and the role of microRNAs in abiotic stress tolerance. This volume offers new perspectives in legume crop abiotic stress management, and is useful for various stakeholders, including post graduates students, scientists, environmentalists and policymakers.Table of ContentsAttached

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Book SynopsisThis edited book provides the readers with the concepts and in-depth knowledge of plant disease assessment and conventional and modern technologies that aid in precise and accurate phytomathometery. This book discusses the evolution of plant disease assessment procedures from the primary visual estimation-based assessment to modern approaches, their practical application for reliable disease quantification, yield loss estimation, and the efficacy of disease control strategies for sustainable crop protection. Significant information is provided on the major aspects of the topic, including remote sensing, imaging techniques, molecular phytopathometery, microarray, and immunotechnology. The book helps plant scientists, plant pathologists, practitioners, researchers, and students in disease quantification, developing predictive models for plant disease epidemics, assessing crop losses, and the magnitude of plant disease control methods. This book describes the classical plant disease assessment methods based on visual observations. It Provides information regarding the modern and emerging technologies in Phytopathometery, precision, and accuracy. This book also discusses the application of disease assessments in predictive models, disease warning systems, expert systems, and decision support systems in applied plant pathology.Table of Contents1. Phytopathometry: A trans-disciplinary concept.- 2. Visual Estimation: a classical approach for plant disease estimation.- 3. Remote Sensing: A new tool for disease assessment in crops.- 4. Image analysis and processing approach: an automated plant disease recognition technology.- 5. Hyper-spectral imaging through Spatial and Spectral Sensors for Phytopathometry.- 6. Fluorescent imaging system-based plant phenotyping for disease recognition.- 7. Concept and Application of Infrared Thermography for Plant Disease Measurement.- 8. Application of Biosensors in Plant Disease Detection.- 9. Immunotechnology for Plant Disease Detection.- 10. Molecular Phytopathometry.- 11. Microarray technology for detection of plant diseases.- 12. Predictive Models for Plant Disease Assessment.- 13. Extension Plant Pathology.

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Book SynopsisThis edited book stands as a one place knowledge hub for plant metal(loid) transporters. The book comprehensively covers holistic aspect of metal(loid) transporters involved in uptake and translocation of essential as well as toxic metal(loid)s. Essential and beneficial metal(loid)s are required in every biological process for normal plant growth and development, however in excess they are toxic. There are toxic metal(loid)s also whose accumulation in plants interferes with normal cellular functioning and hampers growth of plants. Hence, metal(loid) uptake and accumulation in plants is a highly regulated phenomenon involving the role of several transporters, enzymes, metabolites, transcription factors and post translational modifications. The book contains chapters from the experts and the contents of the book are presented in simple language and represented through beautiful and scientifically informative figures and tables. This book is of interest to teachers, researchers, doctoral and graduate students working in the area of plant physiology, environmental biotechnology, plant biotechnology metal(loid) stress, phytoremediation and crop biofortification. Table of ContentsChapter 1. Plant Metal and Metalloid Transport.- Chapter 2. Heavy Metals: Transport in Plants and their Physiological and Toxicological Effects.- Chapter 3. The Role of ABC Transporter in Metal Tranasport in Plants.- Chapter 4. Cadmium, A Non-Essential Heavy Metal: Uptake, Translocation, Signaling, Detoxification, and Impact on Amino Acid Metabolism.- Chapter 5. Natural Resistance Associated Macrophage Proteins (NRAMP): Functional Significant of Metal Transport in Plants.- Chapter 6. Role of Heavy Metal Atpases in Transport of Cadmium and Zinc in Plants.- Chapter 7. The Versatile Role of Plant Aquaglyceroporins in Metalloid Transport.- Chapter 8. The Multidrug and Toxic Compound Extrusion (MATE) Family in Plants and Their Significance in Metal Transport.- Chapter 9. Molecular Mechanism of Aluminium Tolerance in Plants: An Overview.- Chapter 10. Functional, Structural, and Transport Aspects of ZIP in Plant.- Chapter 11. The Function of HAK as K+ Transporter and AKT as Inward Rectifying Agent in The K+ Channel.- Chapter 12. The Mechanism of Silicon Transport in Plants.- Chapter 13. The Copper Transport Mechanism in Plants.- Chapter 14. Plant Metal Tolerance Proteins: Insight Into their Roles in Metal Transport and Homeostasis for Future Biotechnological Applications.- Chapter 15. Co-Transport Mechanism in Plants for Metals and Metalloids.- Chapter 16. Metal Nanoparticles Implication, Transport, and Detection in Plants.- Chapter 17. Transcription Factors and Metal Stress Signalling in Plants.- Chapter 18. Heavy Metal Transporters, Phytoremediation Potential and Biofortification.- Chapter 19. Phytoremediation and Biofortification: Contrasting Yet Similar Approaches of Manipulating Plant Metal(Loid) Homeostasis for Societal Benefit.

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Book SynopsisThis edited book provides an overview of omics technologies and methods for integration across multiple omics layers used in the plant disease diagnosis and developing management strategies. The book concentrates on the prevalence of soil-borne disease management in various important crops with use of different strategies, including host resistance and biological control etc. The special focus is on the resolving practical problems encountered after the resistance development in the pathogens against several chemical pesticides. Further, special attention is given to the emergence of new diseases or the re-emergence of old ones on several crops, and on the results and problems encountered by using microbial inoculants, biofumigation and other non-chemical control methods. This book has 18 contributory chapters from the eminent experts in the field of plant pathology, microbiology and biotechnology working on different aspects of soil-borne diseases of important agricultural crops. This edited volume is of interest and useful to researchers in plant pathology, agriculture sciences, plant genomics ecology, policy makers, also it is a valuable source of reference to the relevant researchers and students globally.Table of ContentsChapter 1. Soil-borne Viruses: Outlook on Community and Recent Advances in Detection.- Chapter 2. An In Silico Outlook for the detection and surveillance of evolving and persistent plant pathogens.- Chapter 3. Emergent Tools and Techniques in Diagnosis of Soil-borne Phytopathogens.- Chapter 4. Diagnosis and Detection of Soil-borne Fungal Phytopathogens in Major Crops.- Chapter 5. Detection and diagnosis of important soil-borne pathogens.- Chapter 6. Genetic enhancement of biocontrol agent as effective management of soil borne disease.- Chapter 7. Red root rot disease of tropical estate forests: Pathogen identification, dispersal and management.- Chapter 8. Rhizospheric Microbiome: Soil and Plant Health Management.- Chapter 9. Detection and Management of Basal Stem Rot of Oil palm: Classical to Modern Approaches.- Chapter 10. Talaromyces flavus: an important rhizospheric inhabitant.- Chapter 11. Harnessing beneficial rhizospheric microorganisms for biotic stress management in medicinal and aromatic plants.- Chapter 12. Nematophagous fungi: Biology, Ecology and potential application.- Chapter 13. Rhizosphere Microbiome: Interactions with Plant and Influence in triggering Plant Disease Resistance.- Chapter 14. Rhizospheric functional attributes of Paenibacillus polymyxa in disease and nutrient management for sustainable crop production.- Chapter 15. Biochar mediated suppression of soil-borne pathogens in agronomically important crops: An Outlook.- Chapter 16. Harnessing rhizosphere microbiomes in crop productivity.- Chapter 17. Microbial Management of Fusarium wilt in Banana: A comprehensive overview.- Chapter 18. Soil Health Management and Microorganisms: Recent Developments.

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