Combining academic and industrial viewpoints, this is the definitive stand-alone resource for researchers, students and industrialists. With the latest on foam research, test methods and real-world applications, it provides straightforward answers to why foaming occurs, how it can be avoided, and how different degrees of antifoaming can be achieved.

Foams and froths are an important feature of everyday life; one only has to think of shaving foam, foam upholstery, fire fighting foam, bread, bear head, and ice cream. Less obvious but equally important are the foams and foaming processes which are being exploited in ever more complex and imaginative ways in industry. However, the unusual nature of foams, the fact that they are neither solids or liquids, and their very fragility has prevented scientists from obtaining a thorough understanding of even the basic principles of foam formation and stability. This volume presents papers on the physics, chemistry, structure and ultrastructure of foams by contributors from a wide range of backgrounds and research disciplines. The aim of the book is to present a unique multi-disciplinary cross section of work currently being undertaken on the subject of foams.

Sonochemistry and the Acoustic Bubble provides an introduction to the way ultrasound acts on bubbles in a liquid to cause bubbles to collapse violently, leading to localized 'hot spots' in the liquid with temperatures of 5000° celcius and under pressures of several hundred atmospheres. These extreme conditions produce events such as the emission of light, sonoluminescence, with a lifetime of less than a nanosecond, and free radicals that can initiate a host of varied chemical reactions (sonochemistry) in the liquid, all at room temperature. The physics and chemistry behind the phenomena are simply, but comprehensively presented. In addition, potential industrial and medical applications of acoustic cavitation and its chemical effects are described and reviewed. The book is suitable for graduate students working with ultrasound, and for potential chemists and chemical engineers wanting to understand the basics of how ultrasound acts in a liquid to cause chemical and physical effects.

Ordinary foams such as the head of a glass of beer and more exotic ones such as solid metallic foams raise many questions for the physicist and have attracted a substantial research community in recent years. The present book describes the results of extensive experiments, computer simulations, and theories in an authoritative yet informal style, making ample use of illustrations and photographs. As an introduction to the whole field of the physics of foams it puts a strong emphasis on liquids while also including solid foams. Simple, idealized models are adopted and their consequences explored. Specific topics include: structure, drainage, rheology, conductivity, and coarsening. A minimum of mathematics is used. Theory and experiment are described together at every stage. A guide to further reading is provided through carefully selected references. This is a complete and coherent introduction to the subject which no other modern text currently offers.

Physicist Sidney Perkowitz, whom the Washington Post calls "a gloriously lucid science writer," exposes the full dimensions of foam in our lives, from cappuccino to the cosmos. Foam affects the taste of beer, makes shaving easier, insulates take-out coffee cups and NASA space shuttles, controls bleeding in trauma victims, aids in drilling for oil, and captures dust particles from comets. The foam of ocean whitecaps affects Earth's climate, and astronomers believe the billions of galaxies that make up the universe rest on surfaces of immense bubbles within a gargantuan foam. From the cultural uses of foam to the cutting edge of foam research in cosmology and quantum mechanics, Perkowitz's investigations will delight readers of Henry Petroski, James Gleick and Michio Kaku.

Foam fractionation is a separation process in which proteins and other amphipathic species adsorb to the surface of bubbles. The bubbles are then removed from the solution in the form of foam at the top of a column. Due to its cost-effectiveness, foam fractionation has the potential for rapid commercial growth, especially in biotechnology.To assist

“Cocktail Chemistry offers the essential knowledge, techniques, and flair for creating perfectly mixed drinks at home.” —Bartender Magazine Enjoy clever, pop culture-inspired drinks with this collection of more than 80 recipes from the beloved Cocktail Chemistry YouTube channel. Have you ever seen a delicious-looking drink on your favorite movie or TV show and wondered how to make it? Well, now you can, with this collection of recipes from the creator of the popular Cocktail Chemistry YouTube channel Nick Fisher. Featuring recipes to recreate the classic White Russian from The Big Lebowski, the iconic martini from the James Bond movies, to drinks featured in Mad Men, The Simpsons, It’s Always Sunny in Philadelphia, Game of Thrones, The Office, Harry Potter, and more, Cocktail Chemistry will have you impressing your friends with your bartending skills in no time. In addition to recipes, Cocktail Chemistry includes everything you need to know to become a mixology expert, from how to make perfectly clear ice, delicious foams, and infusions, or how to flame a citrus peel. A must-have for all aspiring home mixologists and pop-culture buffs, Cocktail Chemistry will ensure you never have a boring drink again.

The book aims at describing the most important experimental methods for characterizing liquid interfaces, such as drop profile analysis, bubble pressure and drop volume tensiometry, capillary pressure technique, and oscillating drops and bubbles.

When you're cooking, you're a chemist! Every time you follow or modify a recipe, you are experimenting with acids and bases, emulsions and suspensions, gels and foams. In your kitchen you denature proteins, crystallize compounds, react enzymes with substrates, and nurture desired microbial life while suppressing harmful bacteria and fungi. And unlike in a laboratory, you can eat your experiments to verify your hypotheses. In Culinary Reactions, author Simon Quellen Field turns measuring cups, stovetop burners, and mixing bowls into graduated cylinders, Bunsen burners, and beakers. How does altering the ratio of flour, sugar, yeast, salt, butter, and water affect how high bread rises? Why is whipped cream made with nitrous oxide rather than the more common carbon dioxide? And why does Hollandaise sauce call for “clarified” butter? This easy-to-follow primer even includes recipes to demonstrate the concepts being discussed, including: &· Whipped Creamsicle Topping—a foam &· Cherry Dream Cheese—a protein gel &· Lemonade with Chameleon Eggs—an acid indicator

Bubbles give novelty and distinctiveness to many food and drink products including the most important and interesting ones such as bread, beer, ice cream, whipped cream, soufflés and champagne. Understanding the creation and control of bubbles in food products is key to the success of the domestic chef or the industrial food manufacturer. This new volume presents the proceedings of the conference Bubbles in Food 2: Novelty, Health and Luxury. This book is fully updated and expanded from the original Bubbles in Food book published in 1999. This new title brings together up-to-date information on the latest developments in this fast moving area. Bubbles in Food 2 includes novel experimental techniques for measuring and quantifying the aerated structure of foods (e.g. ultrasonics, MRI imaging, X-ray tomography, microscopy, rheology, image analysis), and novel analytical approaches for interpreting aerated food properties and behavior. These techniques and approaches provide stimulus for new product development or for enhancing the understanding of the manufacture of existing products, leading to enhanced quality and greater product differentiation. Bubbles in Food 2: Novelty, Health and Luxury aims to enhance the appreciation of aerated foods and to provide stimulation and cross fertilisation of ideas for the exploitation of bubbles as a novel and versatile food ingredient.