The food industry is constantly seeking advanced technologies to meet consumer demand for nutritionally balanced food products. Enzymes are a useful biotechnological processing tool whose action can be controlled in the food matrix to produce higher quality products. Written by an international team of contributors, Novel enzyme technology for food applications reviews the latest advanced methods to develop specific enzymes and their applications.Part one discusses fundamental aspects of industrial enzyme technology. Chapters cover the discovery, improvement and production of enzymes as well as consumer attitudes towards the technology. Chapters in Part two discuss enzyme technology for specific food applications such as textural improvement, protein-based fat replacers, flavour enhancers, and health-functional carbohydrates.Novel enzyme technology for food applications is a standard reference for all those in industry and academia concerned with improving food products with this advanced technology. Reviews the latest advanced methods to develop specific enzymes Discusses ways of producing higher quality food products Explores the improvement and production of enzymes

Food proteins are of great interest, not only because of their nutritional importance and their functionality in foods, but also for their detrimental effects. Although proteins from milk, meats (including fish and poultry), eggs, cereals, legumes, and oilseeds have been the traditional sources of protein in the human diet, potentially any proteins from a biological source could serve as a food protein. The primary role of protein in the diet is to provide the building materials for the synthesis of muscle and other tissues, and they play a critical role in many biological processes. They are also responsible for food texture, color, and flavor. Today, food proteins are extracted, modified, and incorporated into processed foods to impart specific functional properties. They can also have adverse effects in the diet: proteins, such as walnuts, pecans, almonds, and cashews, soybean, wheat, milk, egg, crustacean, and fish proteins can be powerful allergens for some people. Applied Food Protein Chemistry is an applied reference which reviews the properties of food proteins and provides in-depth information on important plant and animal proteins consumed around the world. The book is grouped into three sections: (1) overview of food proteins, (2) plant proteins, and (3) animal proteins. Each chapter discusses world production, distribution, utilization, physicochemical properties, and the functional properties of each protein, as well as its food applications. The authors for each of the chapters are carefully selected experts in the field. This book will be a valuable reference tool for those who work on food proteins. It will also be an important text on applied food protein chemistry for upper-level students and graduate students of food science programs.

Proteins serve as an important nutritional as well as structural component of foods. Not only do they provide an array of amino acids necessary for maintaining human health but also act as thickening, stabilizing, emulsifying, foaming, gelling, and binding agents. The ability of a protein to possess and demonstrate such unique functional properties depends largely on its inherent structure, configuration, and how they interact with other food constituents, like, polysaccharides, lipids, and polyphenolic compounds. Proteins from animal sources have superior functionality, higher digestibility, and lower anti-nutrient components than plant proteins. However, consumer preferences are evolving worldwide for ethically and sustainably sourced, clean, cruelty-free, vegan or vegetarian plant-based food products. Unlike proteins from animal sources, plant proteins are more versatile, religiously, and culturally acceptable among vegetarian and vegan consumers and associated with lower food processing waste, water, and soil requirement. Thus, the processing and utilization of plant proteins have gained worldwide attention and as such numerous scientific studies are focusing on enhancing the utilization of plant proteins in food and pharmaceutical products through various processing and modification techniques to improve their techno-functional properties, bioactivity, bioavailability, and digestibility. Novel Plant Protein Processing: Developing the Foods of the Future presents a roadmap for plant protein science, and technology which will focus on plant protein ingredient development, plant protein modification, and the creation of plant protein-based novel foods. Key Features: Includes complete information about novel plant protein processing for use as future foods Presents a roadmap to upscale the meat analog technological processes Discusses marketing limitations of plant based proteins and future opportunities This book highlights the important scientific, technological advancements that are being deployed in the future foods using plant proteins, concerns, opportunities, and challenges, and, as an alternative to maintaining a healthy and sustainable modern food supply. It covers the most recent research related to the plant protein-based future foods which include their extraction, isolation, modification, characterization, development, and final applications. It also covers the formulation and challenges: emphasis on the modification for a specific use, legal aspects, business perspective, and future challenges. This book is useful for researchers, readers, scientists, and industrial people to find information easily.

Functionality of Food Proteins: Mechanisms, Modifications, Methods of Assessment and Applications provides researchers and users of plant-based proteins with the latest developments on their functionality at the molecular and ingredient level, and in food applications. The book discusses the biological, chemical and physical principles behind the techno-functional and nutritional properties of proteins, existing methods of functionality assessment, and protein modification for functional enhancement. With market demand for protein ingredients, several lesser known sources are being utilized to develop new protein ingredients and products, with some intended to replace, partially or wholly, traditional proteins such as egg, milk, meat, soy and vital gluten. Depending on the source and processing into ingredients, the ability of these proteins to satisfy techno-functional and nutritional requirements in the final food product may differ. Science-based knowledge is needed in the area of protein functionality for making decisions along the value chain, from production on the land to processing and formulation. Provides fundamentals of the properties that contribute to functionality (nutritional and techno-functional properties) of proteins in food systems and their relationship to protein molecular structure Describes fundamentals of the assessment of functional properties of protein with existing definitions and food systems Explores fundamentals of modification strategies employed to alter nutritional and techno-functional properties to enhance value of proteins in food Includes examples of plant protein-based products (in food systems) in which the role of nutritional and techno-functional properties is described