1 A Leaf Cell Consists of Several Metabolic Compartments 2 The Use of Energy from Sunlight by Photosynthesis is the Basis of Life on Earth 3 Photosynthesis is an Electron Transport Process 4 ATP is Generated by Photosynthesis 5 Mitochondria are the Power Station of the Cell 6 The Calvin Cycle Catalyzes Photosynthetic CO2 Assimilation 7 In the Photorespiratory Pathway Phosphoglycolate Formed by the Oxygenase Activity of RubisCo is Recycled 8 Photosynthesis Implies the Consumption of Water 9 Polysaccharides are Storage and Transport Forms of Carbohydrates Produced by Photosynthesis 10Nitrate Assimilation is Essential for the Synthesis of Organic Matter 11 Nitrogen Fixation Enables the Nitrogen in the Air to be Used for Plant Growth 12 Sulfate Assimilation Enables the Synthesis of Sulfur Containing Substances 13 Phloem Transport Distributes Photoassimilates to the Various Sites of Consumption and Storage 14 Products of Nitrate Assimilation are Deposited in Plants as Storage Proteins 15 Glycerolipids are Membrane Constituents and Function as Carbon Stores 16 Secondary Metabolites Fulfill Specific Ecological Functions in Plants 17 Large Diversity of Isoprenoids has Multiple Funtions in Plant Metabolism 18 Phenylpropanoids Comprise a Multitude of Plant Secondary Metabolites and Cell Wall Components 19 Multiple Signals Regulate the Growth and Development of Plant Organs and Enable Their Adaptation to Environmental Conditions 20 A Plant Cell has Three Different Genomes 21 Protein Biosynthesis Occurs at Different Sites of a Cell 22 Gene Technology Makes it Possible to Alter Plants to Meet Requirements of Agriculture, Nutrition, and Industry.

Plant Biochemistry and Molecular Biology Second Edition Edited by Peter J. Lea Department of Biological Sciences, Lancaster University, UK and Richard C. Leegood Department of Animal and Plant Sciences, University of Sheffield, UK As research in plant metabolism and molecular biology continues to make great progress it has become essential for plant scientists to have an overview of both disciplines, which are becoming increasingly complementary in understanding plant function. Drawing on their own teaching and research experience, the editors and contributors have provided a timely, comprehensive and generously illustrated new edition of this successful introductory textbook. All of the chapters have been updated and revised, and a new chapter on secondary metabolism has been included. Plant Biochemistry and Molecular Biology will be invaluable to undergraduate and postgraduate students in the plant sciences and to all those requiring an introduction to current concepts in molecular plant science. Reviews of the First Edition "The aim of the editors to blend plant biochemistry with molecular biology is successfully reached and provided a new, well written text book which is easy to read." Journal of Plant Physiology "The contributing chapters are well written with clear illustrations and I would expect undergraduates, to whom this book is primarily targeted, to enjoy using it." New Phytologist "The evident teaching experience of the authors make this textbook a useful aid to students and researchers." Photosynthetica What the lecturers said about the First Edition: "A very useful text with a good balance of traditional biochemistry and molecular biology. Its usefulness is enhanced by a very clear and visually pleasing layout and the generally high quality and clarity of the writing." "A surprising amount of information in an easily accessible format." "Good coverage and depth. I'm not aware of any other book that deals with this material so well as this one. It addresses a real need in plant science teaching."

Methods in Plant Biochemistry, Volume 1: Plant Phenolics reviews current knowledge about techniques used in the analysis of the biochemistry of plant polyphenols and their importance in the agricultural and food industries. It looks at the application of these techniques in the fractionation of cellular constituents, isolation of enzymes, electrophoretic separation of nucleic acids and proteins, and chromatographic identification of the intermediates and products of cellular metabolism. Organized into 15 chapters, this book opens with an overview of the general procedures and measurement of total phenolics, from detecting phenolic substances in crude plant extracts to determining which classes they belong to and the quantitative estimation of total phenol. The reader is introduced to the chemistry, structural variation, function, and distribution of each class of plant phenolics and, in a few cases where this is practicable, detailed listings of known derivatives are given. Most chapters focus on chromatographic separations and high performance liquid chromatography (HPLC), along with thin layer and paper Rf values with HPLC retention times and NMR spectroscopy. The book also outlines the procedures for the extraction, isolation, separation, and characterization of different classes of phenolic compounds, ranging from phenols and phenolic acids to phenylpropanoids, lignins, stilbenes and phenanthrenes, flavones and flavonols, chalcones and aurones, flavanoids, anthocyanins, biflavanoids, tannins, isoflavanoids, quinones, xanthones, and lichen substances. The book is a valuable resource for students, biochemists, and researchers in the plant sciences.

CD-ROM includes animations, living graphs, biochemistry in 3D structure tutorials.

Functional Biology of Plants provides students and researchers with a clearly written, well structured whole plant physiology text. Early in the text, it provides essential information on molecular and cellular processes so that the reader can understand how they are integrated into the development and function of the plant at whole-plant level. Thus, this beautifully illustrated book, presents a modern, applied integration of whole plant and molecular approaches to the study of plants. It is divided into four parts: Part 1: Genes and Cells, looks at the origins of plants, cell structure, biochemical processes and genes and development. Part 2: The Functioning Plant, describes the structure and function of roots, stems, leaves, flowers and seed and fruit development. Part 3: Interactions and Adaptations, examines environmental and biotic stresses and how plants adapt and acclimatise to these conditions. Part 4: Future Directions, illustrates the great importance of plant research by looking at some well chosen, topical examples such as GM crops, biomass and bio-fuels, loss of plant biodiversity and the question of how to feed the planet. Throughout the book there are text boxes to illustrate particular aspects of how humans make use of plants, and a comprehensive glossary proves invaluable to those coming to the subject from other areas of life science.

Principles of Plant Biochemistry focuses on the methodologies, approaches, and techniques employed in plant biochemistry, including analysis of proteins, carbohydrates, vitamins, and metabolism. The publication first takes a look at proteins and carbohydrates. Discussions focus on general properties and structure of proteins, amino acid composition of proteins and properties of the protein molecule, isolation of proteins and the establishment of their homogeneity, monosaccharides, polysaccharides, and steroids. The text then elaborates on vitamins and secondary plant compounds, including aliphatic organic acids, glycosides, tannins, essential oils and resins, herbicides, antibiotics, and phytonicides. The manuscript examines enzymes and the role of metabolism in living organisms, as well as general properties and classification of enzymes and oxidases. The book then ponders on photosynthesis and chemosynthesis, interconversion of carbohydrates, and fermentation and respiration. The inter-relationship of metabolic processes and amino acid and protein metabolism are also discussed. The publication is a dependable reference for readers interested in plant biochemistry.