A thoroughly updated second edition, providing aspiring mycologists with an all-embracing view of the kingdom fungi.

The mysterious world of fungi is once again unearthed in this expansive second edition. This textbook provides readers with an all-embracing view of the kingdom fungi, ranging in scope from ecology and evolution, diversity and taxonomy, cell biology and biochemistry, to genetics and genomics, biotechnology and bioinformatics. Adopting a unique systems biology approach - and using explanatory figures and colour illustrations - the authors emphasise the diverse interactions between fungi and other organisms. They outline how recent advances in molecular techniques and computational biology have fundamentally changed our understanding of fungal biology, and have updated chapters and references throughout the book in light of this. This is a fascinating and accessible guide, which will appeal to a broad readership - from aspiring mycologists at undergraduate and graduate level to those studying related disciplines. Online resources are hosted on a complementary website.

Fungi have their own unique cell biology and life cycle, but also play critical roles in wider biological systems. This textbook provides a comprehensive view of fungal biology, ranging in scope from the evolutionary origins of fungi and other eukaryotes more than a billion years ago, to the impact fungi have on everyday life. Bringing mycology teaching right up to date, this unique systems biology approach emphasises the interactions between fungi and other organisms to illustrate the critical roles that fungi play in every ecosystem and food web. With more than 60 colour figures, examples of computational modelling and resource boxes directing students to areas of interest online, this book gives students an appreciation of fungi both at the organism level and in the context of wider biology. A companion CD accompanying the print book features a hyperlinked version of the book and the fully integrated World of Cyberfungi website.

Uniquely modern textbook providing a broad, all-round understanding of fungal biology and the biological systems to which fungi contribute.

The rhythm of life on Earth includes several strong themes contributed by Kingdom Fungi. So why are fungi ignored when theorists ponder the origin of life? Casting aside common theories that life originated in an oceanic primeval soup, in a deep, hot place, or even a warm little pond, this is a mycological perspective on the emergence of life on Earth. The author traces the crucial role played by the first biofilms – products of aerosols, storms, volcanic plumes and rainout from a turbulent atmosphere – which formed in volcanic caves 4 billion years ago. Moore describes how these biofilms contributed to the formation of the first prokaryotic cells, and later, unicellular stem eukaryotes, highlighting the role of the fungal grade of organisation in the evolution of higher organisms. Based on the latest research, this is a unique account of the origin of life and its evolutionary diversity to the present day.

First published by Cambridge University Press in 1991, this book introduces fungi to readers from an ecological viewpoint, emphasising the ecological diversity and extreme versatility of the fungi. The introductory chapter covers fungal structure, growth and reproduction. The remaining chapters consider the fungi in their ecological roles, for example as decomposers of leaves, inhabitants of aquatic environments and as mutualistic symbionts in mycorrhiza and with insects. The intention is to treat fungi in terms of their adaptations to the ecosystems that they occupy. Although fungi as soil inhabitants are not included, much of their ecological significance is considered elsewhere, for example in the chapters on fungi as decomposers of leaves and wood. Examples given are worldwide, including from tropical countries, and the book is well illustrated with many original illustrations drawn from living material.

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.