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John Tyler Bonner makes a new attack on an old problem: the question of how progressive increase in the size and complexity of animals and plants has occurred. "How is it," he inquires, "that an egg turns into an elaborate adult? How is it that a bacterium, given many millions of years, could have evolved into an elephant?" The author argues that we can understand this progression in terms of natural selection, but that in order to do so we must consider the role of development--or more precisely the role of life cycles--in evolutionary change. In a lively writing style that will be familiar to readers of his work The Evolution of Culture in Animals (Princeton, 1980), Bonner addresses a general audience interested in biology, as well as specialists in all areas of evolutionary biology. What is novel in the approach used here is the comparison of complexity inside the organism (especially cell differentiation) with the complexity outside (that is, within an ecological community). Matters of size at both these levels are closely related to complexity. The book shows how an understanding of the grand course of evolution can come from combining our knowledge of genetics, development, ecology, and even behavior.

Biological Evolution. --- Models, Genetic. --- Population Dynamics. --- 575.8 --- Demographic Aging --- Demographic Transition --- Optimum Population --- Population Decrease --- Population Pressure --- Population Replacement --- Population Theory --- Residential Mobility --- Rural-Urban Migration --- Stable Population --- Stationary Population --- Malthusianism --- Neomalthusianism --- Aging, Demographic --- Decrease, Population --- Decreases, Population --- Demographic Transitions --- Dynamics, Population --- Migration, Rural-Urban --- Migrations, Rural-Urban --- Mobilities, Residential --- Mobility, Residential --- Optimum Populations --- Population Decreases --- Population Pressures --- Population Replacements --- Population Theories --- Population, Optimum --- Population, Stable --- Population, Stationary --- Populations, Optimum --- Populations, Stable --- Populations, Stationary --- Pressure, Population --- Pressures, Population --- Replacement, Population --- Replacements, Population --- Residential Mobilities --- Rural Urban Migration --- Rural-Urban Migrations --- Stable Populations --- Stationary Populations --- Theories, Population --- Theory, Population --- Transition, Demographic --- Transitions, Demographic --- Genetics, Population --- Genetic Models --- Genetic Model --- Model, Genetic --- Evolution, Biological --- Sociobiology --- Evolution. Origin of species. Phylogeny --- Evolution (Biology) --- Natural selection. --- Evolution --- Models --- Population dynamics --- genetic --- Life History Traits --- Evolution (Biology). --- Evolution. --- Population dynamics. --- genetic. --- 575.8 Evolution. Origin of species. Phylogeny --- Natural selection --- Biological Evolution --- Models, Genetic --- Population Dynamics --- Darwinism --- Selection, Natural --- Genetics --- Variation (Biology) --- Biological invasions --- Heredity --- Animal evolution --- Animals --- Biological evolution --- Evolutionary biology --- Evolutionary science --- Origin of species --- Biology --- Biological fitness --- Homoplasy --- Phylogeny --- Genetic. --- razvojna biologija --- evolucija --- anatomija --- gostota naseljenosti --- razporeditev naseljenosti --- etologija. --- darwinizem --- fosili --- kompleksnost --- velikost telesa --- združbe --- populacije. --- Darwinian evolution. --- Dictyostelium. --- Hutchinson ratio. --- Kirschner, M. --- Lamarckism. --- aclonal organisms. --- acrasids. --- allostery. --- apical meristem. --- behavior. --- cambium. --- cell competition. --- conquest of land. --- convergent evolution. --- developmental constraints. --- dictyostelids. --- dominance hierarchy. --- earthworms. --- ecology. --- elastic similarity. --- endoskeleton. --- energid. --- food chains. --- gene net. --- genetic drift. --- habituation, in Stentor. --- heterochrony. --- heterocysts. --- inductors, in development. --- integrating mechanisms. --- isolating mechanisms. --- jellyfish. --- kelp. --- lichens. --- liverworts. --- macronucleus. --- mammals. --- metamorphosis. --- mosaic development. --- natural selection. --- nematocytes. --- neurotransmitter. --- notochord. --- pattern formation. --- pioneering. --- population biology. --- punctuated equilibria. --- regulative development. --- scavengers. --- siphonophores. --- species formation.

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Animals do have culture, maintains this delightfully illustrated and provocative book, which cites a number of fascinating instances of animal communication and learning. John Bonner traces the origins of culture back to the early biological evolution of animals and provides examples of five categories of behavior leading to nonhuman culture: physical dexterity, relations with other species, auditory communication within a species, geographic locations, and inventions or innovations. Defining culture as the transmission of information by behavioral rather than genetical means, he demonstrates the continuum between the traits we find in animals and those we often consider uniquely human.

Culture. --- Social behavior in animals. --- Sociobiology. --- SCIENCE / Life Sciences / Evolution. --- Biologism --- Human biology --- Human evolution --- Psychology, Comparative --- Social evolution --- Animal behavior --- Animal societies --- Cultural sociology --- Culture --- Sociology of culture --- Civilization --- Popular culture --- Social aspects

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Animals do have culture, maintains this delightfully illustrated and provocative book, which cites a number of fascinating instances of animal communication and learning. John Bonner traces the origins of culture back to the early biological evolution of animals and provides examples of five categories of behavior leading to nonhuman culture: physical dexterity, relations with other species, auditory communication within a species, geographic locations, and inventions or innovations. Defining culture as the transmission of information by behavioral rather than genetical means, he demonstrates the continuum between the traits we find in animals and those we often consider uniquely human.

Pure sciences. Natural sciences (general) --- Culture. --- Social behavior in animals. --- Sociobiology. --- SCIENCE / Life Sciences / Evolution.

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Why do living things and physical phenomena take the form they do? D'Arcy Thompson's classic On Growth and Form looks at the way things grow and the shapes they take. Analysing biological processes in their mathematical and physical aspects, this historic work, first published in 1917, has also become renowned for the sheer poetry of its descriptions. A great scientist sensitive to the fascinations and beauty of the natural world tells of jumping fleas and slipper limpets; of buds and seeds; of bees' cells and rain drops; of the potter's thumb and the spider's web; of a film of soap and a bubble of oil; of a splash of a pebble in a pond. D'Arcy Thompson's writing, hailed as 'good literature as well as good science; a discourse on science as though it were a humanity', is now made available for a wider readership, with a foreword by one of today's great populisers of science, explaining the importance of the work for a new generation of readers.

Growth. --- Morphology (Animals) --- Animal morphology --- Animals --- Body form in animals --- Zoology --- Morphology --- Physiology --- Developmental biology --- 57 --- CDL --- 57.017.64 --- 57.018.2 --- 576.533 --- #WPLT:dd.prof.J.Vendrig --- 576.533 Growth. --- 57.018.2 Form. Shape --- Form. Shape --- 57.017.64 Growth. Development. --- Growth. Development. --- Biomathematics. Biometry. Biostatistics --- General embryology. Developmental biology --- General biophysics --- biofysica --- biomathematica --- embryologie (biologie) --- Histology. Cytology --- Growth --- Anatomie

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This volume provides a series of essays on open questions in ecology with the overarching goal being to outline to the most important, most interesting or most fundamental problems in ecology that need to be addressed. The contributions span ecological subfields, from behavioral ecology and population ecology to disease ecology and conservation and range in tone from the technical to more personal meditations on the state of the field. Many of the chapters start or end in moments of genuine curiosity, like one which takes up the question of why the world is green or another which asks what might come of a thought experiment in which we "turn-off" evolution entirely.

Ecology. --- Population biology. --- Coexistence of species. --- Ecosystem management. --- Biodiversity conservation. --- Écologie. --- Biologie des populations. --- Gestion des écosystèmes. --- Biodiversité --- Conservation des ressources. --- POPULATION BIOLOGY --- Biologie des populations --- Écologie. --- Gestion des écosystèmes. --- Biodiversité