Advances in Biopolymers for Food Science and Technology brings together the latest techniques for the preparation of bio-based polymeric materials, for novel food applications.The book begins by introducing biopolymers and their various polysaccharide and protein sources, addressing biopolymers from marine sources in particular. Food design using biopolymers, and their preparation as gels and composites are then discussed in detail. This is followed by in-depth chapters guiding the reader through specific applications, including fat replacement products, delivery systems, food emulsions, micro- and nano-encapsulation, nanovehicles, nanostructures, nanofilms, antimicrobial peptides, food coatings, food packaging, smart monitoring, cryoprotection, and cultured meat production. Finally, the various challenges regarding sustainability of food packaging are addressed.This is a valuable resource for researchers and advanced students across polymer science, food science, chemistry, packaging, nanotechnology, and materials science, as well as industrial scientists and R&D professionals with an interest in biopolymers for advanced applications in food products and packaging. - Covers biopolymers from a range of sources and their preparation as composites, gels, and coatings - Explores applications across food structure design, smart packaging systems, encapsulation, and nutraceuticals - Offers case studies and analyzes experimental data on biopolymeric materials for food applications

Biopolymer and Biopolymer Blends: Fundamentals, Processes, and Emerging Applications showcases the potential of biopolymers as alternative sources to conventional nonbiodegradable petroleum-based polymers. It discusses fundamentals of biopolymers and biopolymer blends from natural and synthetic sources, synthesis, and characterization. It also describes development of desired performance for specific applications in 3D printing and other emerging applications in industry, including packaging, pulp and paper, agriculture, biomedical, and marine. Introduces the fundamentals, synthesis, processing, and structural and functional properties of biopolymers and biopolymer blends Explains the fundamental framework of biopolymer blends in 3D printing, featuring current technologies, printing materials, and commercialization of biopolymers in 3D printing Reviews emerging applications, including active food packaging, electronic, antimicrobial, environmental, and more Discusses current challenges and futures prospects. Providing readers with a detailed overview of the latest advances in the field and a wealth of applications, this work will appeal to researchers in materials science and engineering, biotechnology, and related disciplines.

Protein-Based Biopolymers: From Source to Biomedical Applications provides an overview on the development and application of protein biopolymers in biomedicine. Protein polymers have garnered increasing focus in the development of biomedical materials, devices and therapeutics due to their intrinsic bioactivity, biocompatibility and biodegradability. This book comprehensively reviews the latest advances on the synthesis, characterization, properties and applications of protein-based biopolymers. Each chapter is dedicated to a single protein class, covering a broad range of proteins including silk, collagen, keratin, fibrin, and more. In addition, the book explores the biomedical potential of these polymers, from tissue engineering, to drug delivery and wound healing. This book offers a valuable resource for academics and researchers in the fields of materials science, biomedical engineering and R&D groups working in pharmaceutical and biomedical industries. - Covers a range of protein-based biopolymers, including elastin, collagen, keratin, soy and more - Guides the reader through the fabrication, characterization and properties of protein biopolymers - Explores the biomedical potential of protein biopolymers, covering applications such as cancer therapy, tissue engineering and drug delivery

Biodegradable Polymers and Composites - Process Engineering to Commercialization is designed in such a way that it not only gives basic knowledge but also contains information regarding conventional and advanced technologies, socio-economic aspects, techno-economic feasibility, modelling tools and detailed Life Cycle Analysis in biopolymer production. The book discusses the advantages and importance of biopolymers over the conventionally produced plastics. Biodegradable Polymers and Composites highlights: the conventional and advanced strategies for biopolymer production; information regarding process engineering and commercialization of biopolymers; models and available modelling techniques in the sector of biopolymer production; and global case studies, opportunities and challenges (technical constraints, institutional constraints and social constraints) associated with biopolymer production. - Outlines appropriate technologies for biopolymer production - Evaluates Best Available Technologies (BAT) and provides examples from many geographic areas - Offers tools enabling evaluation of appropriate technological systems to develop technically best and economical feasible polymers - Reports new research findings related to biopolymer production

Agricultural biostimulants are a group of substances or microorganisms, based on natural resources, that are applied to plants or soils to improve nutrient uptake and plant growth, and provide better tolerance to various stresses. Their function is to stimulate the natural processes of plants, or to enrich the soil microbiome to improve plant growth, nutrition, abiotic and/or biotic stress tolerance, yield and quality of crop plants. Interest in plant biostimulants has been on the rise over the past 10 years, driven by the growing interest of researchers and farmers in environmentally-friendly tools for improved crop performance. Improved crop production technologies are urgently needed to meet the growing demand for food for the ever-increasing global population by addressing the impacts of changing climate on agriculture. This book is of interest to researchers in agriculture, agronomy, crop and plant science, soil science and environmental science.

Battered fried foods consistently remain in high demand despite concerns about their health aspects, prompting food processors to develop new methods and alternative oils and batters in the name of healthy, tasty fried foods and high-performance, cost-effective frying oil. With contributions from an international panel of food technology authoritie

Der Einsatz vernetzungsfähiger Enzyme wurde am Beispiel einer Laccase bzw. Transglutaminase zur Stabilisierung und Modifizierung neuer Verkapselungssysteme untersucht. Ziel der Studien war es insbesondere den Wirkmechanismus der vernetzenden Enzyme in komplexen Lebensmittelmatrizen zu klären. Im Fokus der Forschung stand die Wirkung der Oxidase Laccase auf eine Fischgelatine-Zuckerrübenpektin-stabilisierte Öl-in-Wasser-Emulsion. Die Ergebnisse belegen, dass ausschließlich Biopolymere, die an der unmittelbar zur kontinuierlichen Phase hin zugänglichen Grenzfläche der Öl-in-Wasser Emulsionen durch die Laccase vernetzt werden konnten. In konzentrierten Emulsionssystemen können vernetzende Enzyme neben der Katalyse kovalenter Bindungen innerhalb der Grenzflächenmembran auch Tropfen-Tropfen-Netzwerke induzieren. Die Ausbildung partikulärer Emulsionsgele hängt dabei wesentlich vom mittleren Abstand der Emulsionstropfen ab. Diese Dissertation hat gezeigt, dass vernetzende Enzyme wie Laccase oder Transglutaminase in der Lage sind, die Struktur und Eigenschaften von Lebensmitteldispersion zu modifizieren.

With the growing concern for the environment and the rising price of crude oil, there is increasing demand for non-petroleum-based polymers from renewable resources. Biopolymer films have been regarded as potential replacements for synthetic films in food packaging due to a strong marketing trend toward environmentally friendly materials. Biopolymer-based films and coatings display good barrier properties, flexibility, transparency, economic profitability, and environmental compatibility. Therefore, they have successfully been used for packaging various food products. Biopolymer-Based Films and Coatings: Trends and Challenges elaborates on the recent methods and ingredients for making biodegradable films and coatings, as well as the current requirements for food security and environmental issues. This book also explores films and coatings prepared with essential oils, antimicrobial substances, and bioactive components that make up this active packaging. Films and coating chapters are based on biopolymers used to prepare films and coatings, that is, carbohydrates, lipids, proteins, and so on. This book provides a platform for researchers and industrialists on the basic and advanced concepts of films and coatings. Key Features Provides a comprehensive analysis of recent findings on biopolymers (carbohydrate-, protein-, and lipid-) based films and coatings Contains a wealth of new information on the properties, functionality, and applications of films and coatings Presents possible active and functional components and ingredients for developing films and coatings. Guides start-up researchers on where to start the latest research work in packaging It has been estimated that the global production of bioplastics is set to hike from ~2.11 in 2020 to ~2.87 million tonnes in 2025. Further, the demand for fresh, ready-to-eat, or semi-finished foods is increasing, and the need to maintain food safety and quality further exacerbates the challenges in the supply chain, especially with the globalization of food trade and the use of centralized processing facilities for food distribution. It is an urgent requirement to increase shelf life and reduce food product loss. Considering the great market demand for biodegradable material-based packaging systems, this book comes at an opportune time to enable researchers and food scientists to develop suitable solutions considering the sustainability and economic feasibility of the process.

Fruits and vegetables, commonly termed as "fresh produce" are an important component of the human diet, as these provide various beneficial and essential health-related compounds. Nevertheless, fresh produce is susceptible to postharvest deterioration and decay along with loss of certain nutrients due to innapropriate storage conditions and lack of standard postharvest technologies. In addition, the short shelf life is considered another major constraint that must be extended after harvest to ensure a wider availability window of the fresh produce for consumers. From this perspective, the use of postharvest approaches is considered imperative to reduce the deterioration of harvested fresh produce in order to extend their storage and shelf life potential on a sustainable basis. Sustainable Postharvest Technologies for Fruits and Vegetables covers various aspects of postharvest technologies with major developments over the recent past and provides a way forward for the future. The sustainable use of various technologies and elicitors could be adapted from farm to fork in order to conserve the eating quality of fresh produce. Therefore, this book covers various sustainable postharvest treatments and technologies that could be considered highly effective for the delay of postharvest senescence and deterioration. Among the various technologies, the use of preharvest treatments, controlled atmosphere, dynamic control atmosphere, modified atmosphere and hypobaric conditions has tremendous potential for the fresh fruits and vegetables industry. In the same way, cold plasma, pulsed light, ultraviolet light, ultrasound technology, nanoemulsions, nano-packaging, electrolyzed water, high pressure processing, ozone gas, irradiations, edible coatings, vacuum packaging and active packaging with slow releasing compounds along with nanotechnology are highly practicable and possesses tremendous potential to be used in the maintenance of overall eating quality and storage life extension of the fresh produce. Key Features: Overviews the major factors affecting postharvest physiology and shelf life potential of fresh produce. Focuses on major sustainable technologies having the potential to maintain postharvest quality and extend shelf life of fruits and vegetables. Describes practical and recent advances of various approaches indispensable for the maintenance of overall eating quality and food safety attainment for fresh produce on a sustainable basis. Covers how quality maintenance and shelf life rely on preharvest practices, nonthermal treatments, storage atmospheres, packaging materials, active packaging, edible packaging, coating application techniques, nanotechnology and ecofriendly plant extracts and natural antagonists.