Mycotoxins are secondary metabolites produced by fungi in a wide range of foods (cereals, peanut, tree nuts, dried fruits, coffee, cocoa, grapes, spices...) both in the field and after harvest, particularly during storage. They can also be found in processed foods of plant origin, or by transfer, in food products of animal (milk, eggs, meat and offal). Mycotoxins are of major concern since they can cause acute or chronic intoxications in both humans and animals which are sometimes fatal. Many countries, particularly in Europe, have set maximum acceptable levels for mycotoxins in food and feed. The book reviews the latest literature and innovations on important aspects of mycotoxins, e.g. mycotoxin producing fungi and the related ecosystems, mycotoxin occurrence, toxicity, analysis and management. Quantitative estimations of impacts of climate change on mycotoxin occurrence have been made recently, using predictive modelling. There is also a growing interest in the occurrence and toxicity of multiple mycotoxins in food and feed, including emerging or modified forms of mycotoxins. Innovative tools were also developed to detect and quantify toxinogenic fungi and their toxins. In order to reduce the use of chemicals that are harmful to the environment and health of consumers, alternative methods of prevention and decontamination of mycotoxins were tested in pre- and post-harvest, using microorganisms, natural substances or radiation treatments.

Mycotoxins are secondary metabolites produced by fungi in a wide range of foods (cereals, peanut, tree nuts, dried fruits, coffee, cocoa, grapes, spices...) both in the field and after harvest, particularly during storage. They can also be found in processed foods of plant origin, or by transfer, in food products of animal (milk, eggs, meat and offal). Mycotoxins are of major concern since they can cause acute or chronic intoxications in both humans and animals which are sometimes fatal. Many countries, particularly in Europe, have set maximum acceptable levels for mycotoxins in food and feed. The book reviews the latest literature and innovations on important aspects of mycotoxins, e.g. mycotoxin producing fungi and the related ecosystems, mycotoxin occurrence, toxicity, analysis and management. Quantitative estimation of impacts of climate change on mycotoxin occurrence have been made recently, using predictive modelling. There is also a growing interest in studying the occurrence and toxicity of multiple mycotoxins in food and feed, including emerging or modified forms of mycotoxins. Innovative tools have also developed to detect and quantify toxinogenic fungi and their toxins. In order to reduce the use of chemicals that are harmful to the environment and health of consumers, alternative methods of prevention and decontamination of mycotoxins were tested in pre- and post-harvest, using microorganisms, natural substances or radiation treatments.

Food traceability is a growing consumer concern worldwide. Traceability is undertaken primarily at the administrative level, where the use of advanced analytical tools is not available. Nevertheless, the determination of geographical origin is a requirement of the traceability system for the import and export of foodstuffs (EU regulation 178/2002). The topics covered in this book include the history of traceability; legislations and rules; the actual traceability techniques and the potential analytical techniques for food traceability such as molecular methods (e.g. DGGE, SSCP), next generation sequencers (NGS), bio-captors, chromatographic techniques, isotopic analysis that are used for discrimination of organic food, fish, oils. The chromatographic techniques help in the use of volatile compounds analysis. The isotope analysis helps in distinguishing between chicken meat and vegetable oils. Ambient mass spectrometry is used for studying mycotoxines and alkaloids in foodstuffs and their management, food and feed authentication in olive and other plant oils, and wine. Vibrational methods (e.g. NMR and NIRS) are used to trace food by global spectrum. The book reviews the current and future techniques including metabolomic techniques.

This book reviews the use of fermentation to develop healthy and functional foods and beverages and the commercialization of fermented food products through the use of biotechnology. The first two sections cover the health and functional benefits of fermented foods and the latter two sections include chapters on global and region-specific fermented foods that have crossed the geographical barriers to reach supermarkets all over the world.

Traditional fermented foods are not only the staple food for most of developing countries but also the key healthy food for developed countries. As the healthy functions of these foods are gradually discovered, more high throughput biotechnologies are being used to promote the fermented food industries. As a result, the microorganisms, process biochemistry, manufacturing, and down-streaming processing, as well as the bioactive metabolites released by the fermenting organisms and, above all, the healthy functions of these foods were extensively researched. The application and progress of biotechnology and biochemistry of traditional fermented food systems are different from each other, as the microorganisms and the food matrices vary widely. Part I (Biochemistry and Biotechnology) of this book (Fermented Foods) discusses the general aspects of biochemistry and biotechnological application of fermented foods involving acetic acid bacteria, lactic acid bacteria, ethanolic yeasts, and fungi in accelerating the many and variable functional factors in the fermented foods as well as metagenomics of fermented foods. The detailed technological interventions involved in different categories of fermented foods such as fermented cereals (bread and sourdough), fermented milk products (yogurt, cheese), fermented sausages, fermented vegetables (kimchi, sauerkraut), fermented legumes (tempeh, natto) and coffee and cocoa fermentations, and fermented beverages (animal- and plant-based) with their potential and actual health benefits, are discussed in Part II (Fermented Foods: Technological Interventions).

Fish and shrimp producing industries generate huge amounts of wastes in form of viscera, scales, waste water, etc. Applications of microorganisms and/or microbesbased products have contributed significantly in solving many of these problems associated with aquaculture and waste management. This book addresses strategies for control of bacterial infection in farmed aquatic organism products. It covers: spoilage of fresh fish, microorganisms and processed seafoods, microbiological safety and quality of processed shrimps and fish and molecular detection of seafood borne human pathogenic bacteria.

Food traceability is a growing consumer concern worldwide. Traceability is undertaken primarily at the administrative level, where the use of advanced analytical tools is not available. Nevertheless, the determination of geographical origin is a requirement of the traceability system for the import and export of foodstuffs (EU regulation 178/2002). The topics covered in this book include the history of traceability; legislations and rules; the actual traceability techniques and the potential analytical techniques for food traceability such as molecular methods (e.g. DGGE, SSCP), next generation sequencers (NGS), bio-captors, chromatographic techniques, isotopic analysis that are used for discrimination of organic food, fish, oils. The chromatographic techniques help in the use of volatile compounds analysis. The isotope analysis helps in distinguishing between chicken meat and vegetable oils. Ambient mass spectrometry is used for studying mycotoxines and alkaloids in foodstuffs and their management, food and feed authentication in olive and other plant oils, and wine. Vibrational methods (e.g. NMR and NIRS) are used to trace food by global spectrum. The book reviews the current and future techniques including metabolomic techniques.

Fish and shrimp producing industries generate huge amounts of wastes in form of viscera, scales, waste water, etc. Applications of microorganisms and/or microbesbased products have contributed significantly in solving many of these problems associated with aquaculture and waste management. This book addresses strategies for control of bacterial infection in farmed aquatic organism products. It covers: spoilage of fresh fish, microorganisms and processed seafoods, microbiological safety and quality of processed shrimps and fish and molecular detection of seafood borne human pathogenic bacteria.

Aquaculture is currently one of the fastest growing production sectors in the world. It now accounts for nearly half (45%) of the worlds food fish (which refers to production of aquatic animals: fish, crustaceans, molluscs, amphibians) and this increase is expected to reach 50% in 2015. Genetic engineering and biotechnology have contributed vastly to this field. The most commonly used methods in fish biotechnology are chromosome manipulation and hormone treatment which can be used to produce triploid, tetraploid, haploid, gynogenetic and androgenetic fish.

Lactic Acid Bacteria as Cell Factories: Synthetic Biology and Metabolic Engineering describes the most recent developments on the metabolic engineering and synthetic biology of Lactic Acid Bacteria (LAB) for production of biologically active biomolecules (enzymes, organic acids, bacteriocins, bioactive peptides, etc.), recombinant proteins, and their role in bioremediation. The book focuses on synthetic biology and metabolic engineering for the production of biologically active molecules such as bioactive peptides, polysaccharides, vitamins (Riboflavin), enzymes, organic acids (lactic and gamma-aminobutyric acid), flavor and aroma compounds, bacteriocins, recombinant proteins, etc. Individual chapters are devoted to the production of biosurfactants and their applications and the bioremediation of heavy metals by LAB from aquatic environments. Two critical chapters address Genome editing of LAB: opportunities for food, feed and pharmaceuticals and A synthetic biology approach for plasmid DNA and Recombinant protein production. This book will be a valuable resource for those working in biology, biotechnology, biological engineering, chemical engineering, microbiology, food science and technology, genetics and synthetic biology.

Aquaculture is currently one of the fastest growing production sectors in the world. It now accounts for nearly half (45%) of the worlds food fish (which refers to production of aquatic animals: fish, crustaceans, molluscs, amphibians) and this increase is expected to reach 50% in 2015. Genetic engineering and biotechnology have contributed vastly to this field. The most commonly used methods in fish biotechnology are chromosome manipulation and hormone treatment which can be used to produce triploid, tetraploid, haploid, gynogenetic and androgenetic fish.

Lactic Acid Bacteria in Food Biotechnology: Innovations and Functional Aspects describes the latest advancements in LAB applications in the development of functional foods and fermented foods, biotechnological products using LAB, i.e., bio chemicals (organic acids, bacteriocins, etc.), bioactive and functional biomolecules, comparative genomics of probiotic LAB, and genetically modified LAB in food industry. Bridging the gap between LAB-mediated fermented foods and bioactive compounds, vis-a-vis molecular aspects, this book enables the transition from research to application. The book details applications of LAB in fermented/functional foods including cereals, vegetables, fish, meat cheese, other dairy products, and much more. Other sections cover their biochemistry and biotechnology aspects, bio preservation by bio molecules produced by LAB, bioactive metabolites and biosurfactants, including their value in health and wellness and exploring the genomics of LAB from food to health. Finally, the book addresses genetically modified lactic acid bacteria in food and beverages.

Traditional fermented foods are not only the staple food for most of developing countries but also the key healthy food for developed countries. As the healthy functions of these foods are gradually discovered, more high throughput biotechnologies are being used to promote the fermented food industries. As a result, the microorganisms, process biochemistry, manufacturing, and down-streaming processing, as well as the bioactive metabolites released by the fermenting organisms and, above all, the healthy functions of these foods were extensively researched. The application and progress of biotechnology and biochemistry of traditional fermented food systems are different from each other, as the microorganisms and the food matrices vary widely. Part I (Biochemistry and Biotechnology) of this book (Fermented Foods) discusses the general aspects of biochemistry and biotechnological application of fermented foods involving acetic acid bacteria, lactic acid bacteria, ethanolic yeasts, and fungi in accelerating the many and variable functional factors in the fermented foods as well as metagenomics of fermented foods. The detailed technological interventions involved in different categories of fermented foods such as fermented cereals (bread and sourdough), fermented milk products (yogurt, cheese), fermented sausages, fermented vegetables (kimchi, sauerkraut), fermented legumes (tempeh, natto) and coffee and cocoa fermentations, and fermented beverages (animal- and plant-based) with their potential and actual health benefits, are discussed in Part II (Fermented Foods: Technological Interventions).

This book reviews the use of fermentation to develop healthy and functional foods and beverages and the commercialization of fermented food products through the use of biotechnology. The first two sections cover the health and functional benefits of fermented foods and the latter two sections include chapters on global and region-specific fermented foods that have crossed the geographical barriers to reach supermarkets all over the world.