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Sourdough fermentation was probably one of the first microbial processes employed by mankind for the production and preservation of food. This practice is still widely used worldwide due to the distinct sensorial and health properties attributed to these products. Traditional sourdough bread is achieved by spontaneous fermentations, leading to natural selections of microorganisms (mainly yeast and lactic acid bacteria) with health benefits for the consumers'microbiota. However, multiple opportunities are currently underexploited through the entire sourdough value chain. Sourdough Innovations: Novel Uses of Metabolites, Enzymes, and Microbiota from Sourdough Processing summarizes the latest scientific knowledge and current opportunities of sourdough technology at biomass, microbiota and enzymatic levels described in three distinctive sections.Section I covers the fermentation process of cereals and non-cereals to produce sourdough-containing compounds with health-enhancement benefits. Section II includes novel advances in sourdough enzymology, and last, Section III explores various applications of sourdough microbiota as antimicrobial and probiotic microorganisms and opportunities to be included in both food and non-food applications.Key Features: Includes extensive information on the use of innovative or emerging technologies aiming to promote circular exploitation systems. Promotes the full use of the cereal and non-cereal sourdough metabolites. Covers the functionality of sourdough microorganisms and functional compounds, and future exploitation of some of them in the field of nutraceuticals or functional foods. Sourdough Innovations is unique in its examination of health beneficial compounds through the downstream processing of sourdough from cereals, microbiota, and enzymes. It is a great source for academic staff and scientists within the broad area of food science who are researching, lecturing, or developing their professional careers in food microbiology, food chemistry, food processing, and food technology, including bio-process engineers interested in the development of novel technological improvements in sourdough processing.

Nanotechnology is increasingly used in the food industry in the production, processing, packaging, and preservation of foods. It is also used to enhance flavor and color, nutrient delivery, and bioavailability, and to improve food safety and in quality management. Nanotechnology Applications in the Food Industry is a comprehensive reference book containing exhaustive information on nanotechnology and the scope of its applications in the food industry. The book has five sections delving on all aspects of nanotechnology and its key role in food industry in the present scenario. Part I on Introduction to Nanotechnology in Food Sector covers the technological basis for its application in food industry and in agriculture. The use of nanosized foods and nanomaterials in food, the safety issues pertaining to its applications in foods and on market analysis and consumer perception of food nanotechnology has been discussed in the section. Part II on Nanotechnology in Food Packaging reviews the use of nanopolymers, nanocomposites and nanostructured coatings in food packaging. Part III on Nanosensors for Safe and Quality Foods provides an overview on nanotechnology in the development of biosensors for pathogen and food contaminant detections, and in sampling and food quality management. Part IV on Nanotechnology for Nutrient Delivery in Foods deals with the use of nanotechnology in foods for controlled and effective release of nutrients. Part V on Safety Assessment for Use of Nanomaterials in Food and Food Production deliberates on the benefits and risks associated with the extensive and long term applications of nanotechnology in food sector.

This volume presents discussions of theoretical and experimental considerations that have led to the analytical affinity chromatography field, as well as current efforts to use this methodology to characterize the interaction mechanisms of biological macromolecules and to establish conditions for employing bioaffinity chromatographic systems as preparative tools. The chapters include a comprehensive discussion of interactive chromatography theory (DeLisi and Hethcote), a review of experimental data obtained for biological macromolecules and the relevant theoretical considerations of affinity chromatography which led to them (Swaisgood and Chaiken), an evaluation of rate processes in affinity chromatography and the potential to determine biologically meaningful chemical rate constants (Walters), and the use of quantitative and molecular considerations to design affinity chromatographic systems (Stellwagen and Liu).