Insect Taste offers an accessible overview to some of the many advances in insect taste research. The book covers how insects solve the basic problem of taste gustatory processing, from detection and transduction, through coding to the generation of behavior and the evolutionary biology underpinning gustaory learning.

Shares unusual facts and jokes about insects, including beetles, crickets, grasshoppers, bees, wasps, ants, and termites.

With its stylish new package, updated information on the health and environmental benefits of insect eating, and breed-your-own instructions, this new edition of The Eat-a-Bug Cookbook is the go-to resource for anyone interested in becoming an entomological epicure. For many Americans, eating a lowly insect is something you’d only do on a dare. But with naturalist and noted bug chef David George Gordon, bug-eating is fun, exciting, and downright delicious! Now you can impress, enlighten, and entertain your family and friends with Gordon’s one-of-a-kind recipes. Spice things up at the next neighborhood potluck with a big bowl of Orthopteran Orzo—pasta salad with a cricket-y twist. Conquer your fear of spiders with a Deep-Fried Tarantula. And for dessert, why not try a White Chocolate and Wax Worm Cookie? (They’re so tasty, the kids will be begging for seconds!) Today, there are more reasons than ever before to explore entomophagy (that’s bug-eating, by the way). It’s an environmentally-friendly source of protein: Research shows that bug farming reduces greenhouse gas emissions and is exponentially more water-efficient than farming for beef, chicken, or pigs. Mail-order bugs are readily available online—but if you’re more of a DIY-type, The Eat-A-Bug Cookbook includes plenty of tips for sustainably harvesting or raising your own. Filled with anecdotes, insights, and practical how-tos, The Eat-A-Bug Cookbook is a perfect primer for anyone interested in becoming an entomological epicure.

​This book discusses the field of bioinspired smell and taste sensors which includes many new areas: sensitive materials, physiological modelling and simulation, and more. Similar to biological chemical sensing systems, bioinspired smell and taste sensors are characterized with fast responsive, high specificity and sensitivity. One of the most important parts of the field is that of sensitive elements originated from biological components, which enable the detection of chemical signals by mimicking the biological mechanisms. This book detailed describes processing, devices, recognition principles of sensitive materials, and concrete realizations. It is written for researchers, engineers and biologists who engages in interdisciplinary research and applications. Dr. Ping Wang is a professor at Zhejiang University, Hangzhou, China. Dr. Qingjun Liu is a professor at Zhejiang University, Hangzhou, China. Dr. Chunsheng Wu is an associated professor at Zhejiang University, Hangzhou, China. Dr. K. Jimmy Hsia is a professor at University of Illinois at Urbana-Champaign, Urbana, USA.

Consumers around the world are becoming increasingly aware of the significant impacts of food consumption on the environment, and demand for more sustainable foods is expanding rapidly. Edible Insects Processing for Food and Feed: From Startups to Mass Production focuses on the growing topic of insects as food and feed, covering not only production elements, but also case studies and several other areas of interest, such as environmental aspects, nutritional value, consumers, food safety and market statistics. Key Features: Includes several case studies and latest advancements in the area Contains multidisciplinary approach, covering farm-to-fork aspects Contains full account of contemporary developments in mass production of edible insects Written by passionate leading academics and industry partners around the globe, this book aims to bring together the latest advancements in edible insect production in a dynamic, modern and multidisciplinary approach. It is a one-stop shop that will give readers a flavour of where the fascinating topic of edible insect production is now, but more importantly of where it might be heading to in the future, showcasing several related challenges and opportunities.

In this compendium of current studies on olfaction and taste - the most comprehensive yet to appear in this series - the chemical senses are elucidated from points of view ranging from anatomy, electrophysiology, molecular biology (especially chemoreceptor gene cloning), biochemistry, and psychophysics to the latest clinical and technological applications of chemosensory research. Specific topics include the structure and function of the tastebud and olfactory epithelium; the genetics and mechanisms of olfactory and taste transduction; the chemistry and function of flavor compounds; the psychophysics of taste and olfaction in daily human life; the brain mechanisms of coding, learning, and memory in olfaction and taste; the clinical assessment of taste and olfaction with special reference to aging and disorders; noninvasive measurements of human olfactory and taste responses for therapeutic purposes; artifical sensing devices; chemoreception in aquatic organisms and other species; and chemosensory transduction in insects. With its multidisciplinary approach, this volume will be an invaluable source of information not only for researchers, clinicians, and students but also for technologists in fields such as artificial sensing, perfumery, brewery, food chemistry, aquafarming, and agriculture.

Half of all insect species are dependent on living plant tissues, consuming about 10% of plant annual production in natural habitats and an even greater percentage in agricultural systems, despite sophisticated control measures. Plants possess defences that are effective against almost all herbivorous insect species. Host-plant specialization, observed in over 80% of these animals, appears to be an effective adaptation to breach these defence systems. The mechanisms underlying plant defence to invading herbivores on the one side, and insect adaptations to utilize plants for nutrition, defence and shelter on the other, are the main subjects of this book. In the case of plants exposed to insect herbivores, they include the activation of defence systems in order to minimize damage, as well as the emission of chemical signals that may attract natural enemies of the invading herbivores and may be exploited by neighbouring plants that mount defences as well. For insects, they include complex bevioural adaptations and their underlying sensory systems (with their implications for learning and nutritional plasticity), as well as the endocrinological aspects of life cycle synchronization with host-plant phenology. Insect-Plant Biology discusses the operation of these mechanisms at the molecular and organismal levels and explicitly puts these in the context of both ecological interactions and evolutionary processes. In doing so, it uncovers the highly intricate antagonistic as well as mutualistic interactions that have evolved between plants and insects. The book concludes with a chapter on the application of our knowledge of insect-plant interactions to agricultural production. This multidisciplinary approach will appeal to students in biology, agricultural entomology, ecology, and indeed anyone interested in the principles underlying the relationships between the two largest groups of organisms on earth: plants and insects.

Insects are the most ecologically important multicellular heterotrophs in terrestrial systems. They play critical roles in ecological food webs, remain devastating agricultural and medical pests, and represent the most diverse group of eukaryotes in terms of species numbers. Their dominant role among terrestrial heterotrophs arises from a number of key physiological traits, and in particular by the developmental and evolutionary plasticity of these traits. Ecological and Environmental Physiology of Insects presents a current and comprehensive overview of how the key physiological traits of insects respond to environmental variation. It forges conceptual links from molecular biology through organismal function to population and community ecology. As with other books in the Series, the emphasis is on the unique physiological characteristics of the insects, but with applications to questions of broad relevance in physiological ecology. As an aid to new researchers on insects, it also includes introductory chapters on the basics and techniques of insect physiology ecology.

Insect Pheromone Biochemistry and Molecular Biology, Second Edition, provides an updated and comprehensive review of the biochemistry and molecular biology of insect pheromone biosynthesis and reception. The book ties together historical information with recent discoveries, provides the reader with the current state of the field, and suggests where future research is headed. Written by international experts, many of whom pioneered studies on insect pheromone production and reception, this release updates the 2003 first edition with an emphasis on recent advances in the field. This book will be an important resource for entomologists and molecular biologists studying all areas of insect communication. - Offers a historical and contemporary perspective, with a focus on advances over the last 15 years - Discusses the molecular and regulatory mechanisms underlying pheromone production/detection, as well as the evolution of these processes across the insects - Led by editors with broad expertise in the metabolic pathways of pheromone production and the biochemical and genetic processes of pheromone detection