'A brilliant book [that] shows a way out of the destructive trap of Anthropocentric arrogance.' Vandana Shiva, from the Foreword Biocivilisations is a fascinating, original and important exploration into how complex civilisations existed on Earth long before humans. What is life? This is arguably the most important question in all of science. Many scientists believe life can be reduced to ‘mechanistic’ factors, such as genes and information codes. Everything can be sequenced and explained. But in a world as rich and complex as this one, can such an assertion really be true? A growing army of scientists, philosophers and artists do not share this mechanistic vision for the science of life. The gene metaphor is not only too simplistic but also misleading. If there is a way to reduce life to a single principle, how does that principle acknowledge the creativity of life that turns both genetic and information determinism on their heads? Biocivilisations is a groundbreaking book exploring the mysteries of life and its deep uncertainty. Dr Predrag Slijep�ević turns anthropocentric scientific thinking on its head, showing how the humble bacteria created the equivalent of cities and connected them with information highways, bringing our planet to life three thousand million years ago. He explains how bacteria, amoebas, plants, insects, birds, whales, elephants and countless other species not only preceded human beings but also demonstrate elements of complex civilisation – communication, agriculture, science, art, medicine and more – that we associate with human achievement. More than 99.99 percent of life on Earth has existed without humanity, and life will continue without humans long into the future. Biocivilisations is an important rethinking of the current scientific paradigm. It challenges us to reconsider the limited scope and time-window of our current ‘scientific revolution’ and to fundamentally reimagine what we call ‘life on Earth’.

This volume of Advances in Marine Biology contains four eclectic reviews on topics ranging from marine mollusc mucus to deep-sea hydrothermal vent fauna.
Advances in Marine Biology contains up-to-date reviews of all areas of marine science, including fisheries science and macro/micro fauna. Each volume contains peer-reviewed papers detailing the ecology of marine regions.

If you’ve ever wished you could teach with tarantulas—or roly polys, or Madagascar hissing cockroaches—this is the resource for you. It tells how to help middle schoolers get up close and personal with amazing arthropods, the bugs that make up more than 75% of Earth’s animal species.

Nature's Machines: An Introduction to Organismal Biomechanics presents the fundamental principles of biomechanics in a concise, accessible way while maintaining necessary rigor. It covers the central principles of whole-organism biomechanics as they apply across the animal and plant kingdoms, featuring brief, tightly-focused coverage that does for biologists what H. M. Frost's 1967 Introduction to Biomechanics did for physicians. Frequently encountered, basic concepts such as stress and strain, Young's modulus, force coefficients, viscosity, and Reynolds number are introduced in early chapters in a self-contained format, making them quickly available for learning and as a refresher. More sophisticated, integrative concepts such as viscoelasticity or properties of hydrostats are covered in the later chapters, where they draw on information from multiple earlier sections of the book. Animal and plant biomechanics is now a common research area widely acknowledged by organismal biologists to have broad relevance. Most of the day-to-day activities of an animal involve mechanical processes, and to the extent that organisms are shaped by adaptive evolution, many of those adaptations are constrained and channelized by mechanical properties. The similarity in body shape of a porpoise and a tuna is no coincidence. Many may feel that they have an intuitive understanding of many of the mechanical processes that affect animals and plants, but careful biomechanical analyses often yield counterintuitive results: soft, squishy kelp may be better at withstanding pounding waves during storms than hard-shelled mollusks; really small swimmers might benefit from being spherical rather than streamlined; our bones can operate without breaking for decades, whereas steel surgical implants exhibit fatigue failures in a few months if not fully supported by bone.