Listing 1 - 10 of 11 | << page >> |
Sort by
|
Choose an application
This is the first ever book devoted entirely to the chemical ecology of algae. Algae from both marine and freshwater habitats are covered, as are macroalgae (seaweeds) and microalgae (including phytoplankton). While its main emphasis is on the ecological rather than chemical aspects of the field, the book also includes a unique introductory chapter intended as a primer on algal natural products chemistry for ecologists. It elucidates the roles of chemical defenses in various regions and habitats, of DMSP, oxidative burst responses, and herbivore offense. Topics such as algal sensory chemical ecology and defenses against ultraviolet radiation are also treated, and an introduction to the chemical ecology of phytoplankton is provided. Focusing on recent advances and also on topics particularly useful for undergraduate and graduate level courses, Algal Chemical Ecology is designed for research biologists working in the field as well as marine ecologists and algal biologists seeking an introductory guide.
Algae --- Chemical ecology. --- Ecology. --- Chemoecology --- Ecology --- Metabolites --- Chemosensory ecology --- Algas --- Limu --- Cryptogams --- Phytoplankton --- Algology
Choose an application
Published in 2006, Chemical Ecology of Vertebrates was the first book to focus exclusively on the chemically-mediated interactions between vertebrates including fish, amphibians, reptiles, birds and mammals, and other animals and plants. Reviewing research in three core areas - pheromones (where the interactions are between members of the same species), interspecific interactions involving allomones (where the sender benefits) and kairomones (where the receiver benefits), it pulls together information from widely scattered technical literature in many different disciplines into a coherent whole. Chapters on the environment, properties of odour signals, and production and release of chemosignals set the stage for discussion of more complex behavioural topics. While the main focus is ecological, dealing with behaviour and interactions in the field, it also covers chemoreception, orientation and navigation, the development of behaviour and the practical applications of chemosignals.
Vertebrates --- Animal ethology and ecology. Sociobiology --- Chemical ecology --- Ecologie chimique --- Vertebrata --- Chordata --- Chemical ecology. --- Chemoecology --- Chemosensory ecology --- Ecology --- Metabolites --- Ecology.
Choose an application
In recent years it has become increasingly clear that chemical interactions play a fundamental role in aquatic habitats and have far-reaching evolutionary and ecological consequences. A plethora of studies have shown that aquatic organisms from most taxa and functional groups respond to minute concentrations of chemical substances released by other organisms. However, our knowledge of this ""chemical network"" is still negligible. Chemical interactions can be divided into two largersub-areas based on the function of the chemical substance. First, there are interactions where chemical substance
Aquatic ecology. --- Chemical ecology. --- Marine chemical ecology. --- Chemical ecology --- Marine ecology --- Chemoecology --- Chemosensory ecology --- Ecology --- Metabolites --- Aquatic biology
Choose an application
Chemical ecology --- 591.5 --- #WDIR:wbse --- Chemoecology --- Ecology --- Metabolites --- Animal habits. Animal behaviour. Ecology. Ethology. Animal and environment. Bionomy --- Chemical ecology. --- 591.5 Animal habits. Animal behaviour. Ecology. Ethology. Animal and environment. Bionomy --- Earth & Environmental Sciences --- Chemosensory ecology
Choose an application
Biology --- Chemistry --- Ecology --- Evolution --- Chemical ecology --- Natural products --- Ecologie chimique --- Produits naturels --- Periodicals. --- Periodicals --- Périodiques --- Biology. --- Chemistry. --- Ecology. --- Biological Evolution. --- Écologie chimique --- Life Sciences --- General and Others --- Chemical ecology. --- Chemoecology --- Metabolites --- Evolution, Biological --- Sociobiology --- Environmental Science --- Bionomics --- Ecologies --- Environmental Sciences --- Science, Environmental --- Sciences, Environmental --- Environmental Psychology --- Conservation of Natural Resources --- Environmental Health --- Ecosystem --- Chemosensory ecology
Choose an application
General biochemistry --- General ecology and biosociology --- Biochemistry --- Chemical ecology --- Environmental chemistry --- Chemistry, Environmental --- Chemistry --- Ecology --- Chemoecology --- Metabolites --- Biological chemistry --- Chemical composition of organisms --- Organisms --- Physiological chemistry --- Biology --- Medical sciences --- Composition --- Chemosensory ecology --- MARINE AREAS --- INSECTS --- PLANTS --- STEROLS --- INVERTEBRATES --- PHEROMONES --- ANTIBIOTICS --- VENOMS --- MYCOTOXINS --- PHYTOTOXINS --- CHEMICAL COMPOUNDS --- NATURE (ESTHETIQUE) --- MANUALS --- CHEMICAL ECOLOGY --- NATURAL PRODUCTS --- TOXINS --- STEROIDS --- POLLUTION --- INTERACTIONS --- NATURE
Choose an application
Environmental chemistry --- Chemistry --- Ecology --- Pheromones --- Chemical ecology --- Chimie de l'environnement --- Chimie --- Écologie --- Phéromones --- Synomones --- Allelochemicals --- Allomones --- Ectohormones --- Kairomones --- Semiochemicals --- Chemoecology --- Animal Communication --- Chemotactic Factors --- Metabolites --- Chemosensory ecology --- Allelochemical --- Allomone --- Kairomone --- Pheromone --- Semiochemical --- Chemistry. --- Ecology. --- Pheromones. --- Bionomics --- Ecologies --- Environmental Psychology --- Conservation of Natural Resources --- Environmental Health --- Ecosystem --- Écologie chimique --- Chimie. --- Phéromones.
Choose an application
Identification of chemicals that affect the naturally occurring interactions be tween organisms requires sophisticated chemical techniques, such as those docu mented in volume 1, in combination with effective bioassays. Without an effective bioassay, the identification becomes akin to looking for a needle in a haystack, but without any idea of what a needle looks like. To a large extent serniochemical identifications must be driven by bioassays. The design of bioassays for use in chemical ecology is governed by the sometimes conflicting objectives of ecological relevance and the need for simplic ity. Bioassay design should be based on observations of the interactions between organisms in their natural context, a theme that appears throughout this volume. As a result, this volume is as much about ecology and behavior as it is about specific methods. It is impossible to design a relevant bioassay, whether it is simple or complex, without understanding at least the fundamentals of how chemical cues or signals mediate the interaction in nature. Thus, the development of bioassay methods must be driven by an understanding of ecology and a knowledge of the natural history of the organisms under study. Given such an understanding, it is often possible to design assays that are both ecologically relevant and easy to perform.
Chemical ecology --- Ecologie chimique --- Methodology --- Méthodologie --- Technique analytique --- Analytical methods --- Botanique --- Botany --- Entomologie --- Entomology --- Zoologie --- Zoology --- Microbiologie --- Microbiology --- Biodiversité --- Biodiversity --- Identification --- identification --- Taxonomie --- taxonomy --- Analyse biologique --- Biological analysis --- Biosystématique --- biosystematics --- Méthodologie --- identification. --- Methodology. --- Ecology . --- Environmental chemistry. --- Ecotoxicology. --- Ecology. --- Environmental Chemistry. --- Ecotoxicology --- Pollutants --- Pollution --- Environmental health --- Toxicology --- Chemistry, Environmental --- Chemistry --- Ecology --- Balance of nature --- Biology --- Bionomics --- Ecological processes --- Ecological science --- Ecological sciences --- Environment --- Environmental biology --- Oecology --- Environmental sciences --- Population biology --- Chemoecology --- Chemosensory ecology --- Metabolites
Choose an application
En 2050, la population mondiale atteindra 9 milliards de personnes. Comment s’adapter à des besoins alimentaires et énergétiques croissants tout en préservant notre environnement ? Un des défis majeurs du XXIe siècle est de développer une « bio-économie », c’est-à-dire de créer de nouveaux systèmes de production durables permettant d’articuler les filières alimentaires, énergétiques et chimiques. La « chimie verte » consiste ainsi à remplacer une partie du carbone d’origine fossile par du carbone d’origine biologique produit à partir des composants de la biomasse, des plantes aux micro-algues.
Sustainable development --- Renewable energy sources --- Carbon --- Chemical ecology --- Business & Economics --- Economic Theory --- Chemoecology --- Alternate energy sources --- Alternative energy sources --- Energy sources, Renewable --- Sustainable energy sources --- Development, Sustainable --- Ecologically sustainable development --- Economic development, Sustainable --- Economic sustainability --- ESD (Ecologically sustainable development) --- Smart growth --- Sustainable economic development --- Environmental aspects --- Ecology --- Metabolites --- Group 14 elements --- Light elements --- Power resources --- Renewable natural resources --- Agriculture and energy --- Economic development --- Chemosensory ecology --- chimie verte --- développement durable --- environnement --- bio-économie
Choose an application
Hands-On Chemical Ecology: Simple Field and Laboratory Exercises, a premiere collection of practical exercises in chemical ecology, offers tools and strategies for understanding this young science. The exercises included use general principles and follow a simple structure. Topics examined include birds, fish, insects, mammals, and plant chemistry among others. Additionally, exercises require accessible materials, ensuring that each can be easily modified and completed anywhere in the world with locally existing instruments. This text will be of value to undergraduate and graduates students and high school biology teachers. About the Author: Professor Dietland Müller-Schwarze has published Chemical Ecology of Vertebrates (Cambridge University Press 2006), co-edited 10 volumes of "Chemical Signals in Vertebrates" (Plenum Press), and written nearly 200 research papers in the field of chemical ecology. For several years, he has taught "Introduction to Chemical Ecology," an undergraduate course, and "Chemical Ecology of Vertebrates," a graduate course, at the State University of New York’s College of Environmental Science and Forestry. Dr. Müller-Schwarze has also been a member of the Editorial Board of the Journal of Chemical Ecology for 27 years.
Chemical ecology. --- Chemical ecology -- Problems, exercises, etc. --- Ecology. --- Chemical ecology --- Earth & Environmental Sciences --- Ecology --- Chemoecology --- Life sciences. --- Chemistry. --- Plant ecology. --- Animal physiology. --- Invertebrates. --- Entomology. --- Life Sciences. --- Chemistry/Food Science, general. --- Plant Ecology. --- Animal Physiology. --- Metabolites --- Animal physiology --- Animals --- Biology --- Anatomy --- Insects --- Zoology --- Invertebrata --- Botany --- Plants --- Physical sciences --- Balance of nature --- Bionomics --- Ecological processes --- Ecological science --- Ecological sciences --- Environment --- Environmental biology --- Oecology --- Environmental sciences --- Population biology --- Physiology --- Phytoecology --- Vegetation ecology --- Ecology . --- Floristic ecology
Listing 1 - 10 of 11 | << page >> |
Sort by
|