This immensely readable introduction to animal acoustics explains not only how animals hear but why they listen. It is a unique blend of audition, auditory anatomy, physics of sound, and methods of psychophysics, combined with behavior, natural history, and evolution. The Acoustic Sense of Animals is ideal for graduate and undergraduate courses, and for professionals in fields such as sensory physiology and animal behavior.

In his broadly comparative approach, Stebbins explores the function of hearing for each animal in its particular ecological setting and the significance of communication for members of a species. He renders the evolution of hearing with special emphasis on the peripheral auditory system and basic auditory function. Although ample evidence is brought to bear, both from the laboratory and from field studies, the book is not burdened with excessive detail. The writing is crisp, and the references are tailored to those most useful for nonspecialists.

The Acoustic Sense of Animals covers a complex field with balance and clarity within a solid evolutionary framework. Equally important, it conveys the controversy and excitement that will motivate students.

The harsh environment of caves--dark, damp, sparse of food--is home to a variety of "bizarre" creatures. Biologists, for their part, often treat these delicate, colorless organisms having no eyes, or at least greatly reduced eyes, as mere oddities with little to tell us about a topic as grand as evolution. Focusing on one cave-dwelling crustacean, Gammarus minus, this book shows that, to the contrary, cave life can provide a valuable empirical model for the study of evolution, particularly adaptation.

Authors David Culver, Thomas Kane, and Daniel Fong marshal many years of extensive research into the genetics, ecology, morphology, and systematics of Gammarus minus. They explain how these biological factors have been shaped by physical constraints, such as the structure and development of caves and karst terrains, groundwater hydrology, and drainage basin patterns. Their work reveals the advantages of caves for studying natural selection: the highly simplified habitats found underground serve as a natural laboratory for the evolutionary biologist, and the distinctive morphological features of cave fauna provide a wealth of data on evolutionary history and natural selection.

A detailed evolutionary study of a single organism in a particular environment, this book advances Gammarus minus as a paradigm for cave colonization and adaptation, and as a general case study of the role of natural selection and adaptation in evolution.

Popular understanding holds that genetic changes create cancer. James DeGregori uses evolutionary principles to propose a new way of thinking about cancer’s occurrence. Cancer is as much a disease of evolution as it is of mutation, one in which mutated cells outcompete healthy cells in the ecosystem of the body’s tissues. His theory ties cancer’s progression, or lack thereof, to evolved strategies to maximize reproductive success.

Through natural selection, humans evolved genetic programs to maintain bodily health for as long as necessary to increase the odds of passing on our genes—but not much longer. These mechanisms engender a tissue environment that favors normal stem cells over precancerous ones. Healthy tissues thwart cancer cells’ ability to outcompete their precancerous rivals. But as our tissues age or accumulate damage from exposures such as smoking, normal stem cells find themselves less optimized to their ecosystem. Cancer-causing mutations can now help cells adapt to these altered tissue environments, and thus outcompete normal cells. Just as changes in a species’ habitat favor the evolution of new species, changes in tissue environments favor the growth of cancerous cells.

DeGregori’s perspective goes far in explaining who gets cancer, when it appears, and why. While we cannot avoid mutations, it may be possible to sustain our tissues’ natural and effective system of defense, even in the face of aging or harmful exposures. For those interested in learning how cancers arise within the human body, the insights in Adaptive Oncogenesis offer a compelling perspective.

The guinea pig is so widely used in laboratories that it has become synonymous in common speech with "experimental animal." But until now there has been no complete and accurate anatomy of this otherwise familiar creature. Cavia has remained uncharted territory for experimenters who come to it without previous experience. Gale Cooper and Alan L. Schiller here provide a thorough description of guinea pig anatomy in a text illustrated with about four hundred separate drawings. It is a detailed, complete, and practical guide to the gross morphology of the animal. Nomenclature has been standardized according to the Nomina Anatomica Veterinaria.

The authors' dissections have been carefully correlated with the published literature on guinea pig anatomy, and numerous references are given. This book sets a new standard of beauty and clarity in anatomical illustration. Dr. Cooper's drawings not only provide anatomical information with the utmost in accuracy and fidelity, they are in themselves an aesthetic triumph. Her pencil drawings have been made by a technique that requires specially made paper and demands unusual skill from the artist; closely identified with the famous illustrator Max Brodl, this method is now rarely employed. Researchers in immunology, hematology, physiology, biochemistry, pharmacology, reproductive biology, comparative anatomy, and taxonomy, among other fields, will turn to this anatomy as a reliable guide to a favored experimental species.

Like all cellular organisms, humans run on electricity. Slight imbalances of electric charge across cell membranes result in sensation, movement, awareness, and thinking—nearly everything we associate with being alive. Robert Campenot offers a comprehensive overview of animal electricity, examining its physiological mechanisms as well as the experimental discoveries that form the basis for our modern understanding of nervous systems across the animal kingdom.

Cells work much like batteries. Concentration gradients of sodium and potassium cause these ions to flow in and out of cells by way of protein channels, creating tiny voltages across the cell membrane. The cellular mechanisms that switch these ion currents on and off drive all the functions associated with animal nervous systems, from nerve impulses and heartbeats to the 600-volt shocks produced by electric eels.

Campenot’s examination of the nervous system is presented in the context of ideas as they evolved in the past, as well as today’s research and its future implications. The discussion ranges from the pre-Renaissance notion of animal spirits and Galvani’s eighteenth-century discovery of animal electricity, to modern insights into how electrical activity produces learning and how electrical signals in the cortex can be used to connect the brains of paralyzed individuals to limbs or prosthetic devices. Campenot provides the necessary scientific background to make the book highly accessible for general readers while conveying much about the process of scientific discovery.

Together with Konrad Lorenz, Niko Tinbergen is generally acknowledged as the founder of the young science of ethology. Professor Tinbergen has spent a lifetime of research exploring the behavior of many types of animals in their natural environments, and has founded centers of worldwide renown for research and teaching in the behavioral sciences, first in his native Holland and later at Oxford. His influence extends far beyond the borders of Europe and of zoology proper, and he has contributed substantially to international and interdisciplinary collaboration.

Tinbergen’s work has been characterized by many as a “breath of fresh air” in fields that were in danger of losing touch with nature and of becoming bogged down in theory. He has tirelessly worked for the use of scientific methods in the study of human behavior, both normal and abnormal. Without shying away from quantification and measurement, he has made his main contribution in what Sir Peter Medawar calls “creative observation” and in the design of meaningful experiments, even in the seemingly chaotic and continuously varying conditions of the natural habitat.

In following him in what Tinbergen likes to call his seemingly aimless wanderings, the reader will catch a unique glimpse into the workshop of ethology. Even when reporting on sophisticated experiments, or when developing new theoretical concepts and arguments, Tinbergen writes simply, lucidly, and precisely. The present volume spans forty years of pioneer investigation and includes selections on the behavior of gulls; on the homing, landmark preference, and prey findings of the digger wasp; on the food hoarding of foxes; and on creatures living scattered as a defense against predators.

These classic original studies will fascinate the increasing number of readers interested in the topical problems of animals and human behavior.

Nikolaas Tinbergen has devoted a lifetime of research to exploring the behavior of many types of animals in their natural environments, and has founded centers of worldwide renown for research and teaching in the behavioral sciences, first in his native Holland and later at Oxford. His influence extends far beyond the borders of Europe and zoology proper, and he has contributed substantially to international and interdisciplinary collaboration. He has tirelessly worked for the use of scientific methods in the study of human behavior, both normal and abnormal.

Volume I is devoted to field studies. Volume II includes accounts of Tinbergen’s remarkable laboratory experiments as well as his significant general papers. These selections explore the search for animal roots of human behavior, behavior and natural selection, appeasement signals, and the nature of ethology.

“Early Childhood Autism,” written by Professor Tinbergen and his wife Elisabeth Tinbergen, is among the most important papers. It is a pioneer work in applied ethology and is a product of thirty years of observing non-verbal expression in both animals and children. Also included is Professor Tinbergen’s 1972 Croonian Lecture, “Functional Ethology and the Human Sciences.”

These classic original studies will fascinate the increasing number of readers interested in the topical problems of animal and human behavior.

In the spirit of Voltaire—and occasionally in the spirit of P. G. Wodehouse—P. B. and J. S. Medawar have crafted for the life sciences a source of reference that is meant for browsing, a book both authoritative and filled with delights. The authors’ breadth of knowledge is encyclopedic— arranged, appropriately enough, from A to Z—but more than that, they illuminate the ideas of biology with wit and intelligence and uncommon good sense. They bridge the chasm in our culture between the technically and the humanistically trained, breaking the code of jargon that limits access to scientific understanding. The Medawars’ special gift is to offer, at the same time, a pleasurable introduction for the layman and a source of new insight for the specialist.

In this book we can find a clear and meaningful definition of interferon, a useful explanation of the immune system, and thoughtful essays on sociobiology, eugenics, and aging. But we also find: “It is a popular fallacy that chewing gum regains its flavor if removed from the mouth and parked, say, under a chair.”

Whether in a serious discussion of cancer or a whimsical reflection on “chicken and egg” imagery in science, the Medawars’ blend of fact, literary allusion, historical anecdote, mythical and folk tradition, and even professional gossip is a rewarding exercise in biology as a humanistic endeavor.

The evolutionist Ernst Mayr considered August Weismann “one of the great biologists of all time.” Yet the man who formulated the germ plasm theory—that inheritance is transmitted solely through the nuclei of the egg and sperm cells—has not received an in-depth historical examination. August Weismann reintroduces readers to a towering figure in the life sciences. In this first full-length biography, Frederick Churchill situates Weismann in the swirling intellectual currents of his era and demonstrates how his work paved the way for the modern synthesis of genetics and evolution in the twentieth century.

In 1859 Darwin’s tantalizing new idea stirred up a great deal of activity and turmoil in the scientific world, to a large extent because the underlying biological mechanisms of evolution through natural selection had not yet been worked out. Weismann’s achievement was to unite natural history, embryology, and cell biology under the capacious dome of evolutionary theory. In his major work on the germ plasm (1892), which established the material basis of heredity in the “germ cells,” Weismann delivered a crushing blow to Lamarck’s concept of the inheritance of acquired traits.

In this deeply researched biography, Churchill explains the development of Weismann’s pioneering work based on cytology and embryology and opens up an expanded history of biology from 1859 to 1914. August Weismann is sure to become the definitive account of an extraordinary life and career.