This ambitious book considers social scientific topics such as identity, community, sexual difference, self, and ecology from a microbial perspective. Harnessing research and evidence from earth systems science and microbiology, and particularly focusing on symbiosis and symbiogenesis, the book argues for the development of a microontology of life.

It is not a coincidence you are reading these words. God is making a personal connection with you through this book. He wants you to know He is real, and He wants you to see how easy it is to believe in Him. This book is full of evidence you can believe in, whether you believe in God or not, because there are a few things that everybody believes in: science, history, and facts. Everybody believes in these things because they are solid, reliable, and known to be true. You are about to see facts that prove God created us. You are about to see the science and history that you believe in prove that God created the universe, Earth, and man. You will see even more evidence that proves He is real. God wants you to know these facts in order to change your perspective and to challenge you to look at Him in a different light-not as some philosophical or existential question mark but as a living, loving Father who created you as a complex and precise living being with an eternal soul connected to Him. Facts in this book show just how precise and complex you really are. Whether you believe or not, you are about to see science prove God is real.

Bringing together the latest scientific advances and some of the most enduring subtle philosophical puzzles and problems, this book collects original historical and contemporary sources to explore the wide range of issues surrounding the nature of life. Selections ranging from Aristotle and Descartes to Sagan and Dawkins are organised around four broad themes covering classical discussions of life, the origins and extent of natural life, contemporary artificial life creations and the definition and meaning of 'life' in its most general form. Each section is preceded by an extensive introduction connecting the various ideas discussed in individual chapters and providing helpful background material for understanding them. With its interdisciplinary perspective, this fascinating collection is essential reading for scientists and philosophers interested in astrobiology, synthetic biology and the philosophy of life.

The following are the proceedings of the Third International Workshop on Human and Machine Perception held in Pavia, Italy, on September 14 -17, 1998. This edition has been under the auspices of two Institutions: the Cybernetic and Biophysics Group (GNCB) of the Italian National Research Council (CNR), the Centro Interdipartimentale di Scienze Cognitive, of Pavia University and the Centro Interdipartimentale Tecnologie della Conoscenza, of Palermo University. A wide spectrum of topics is covered in this series, ranging from computer perception to psychology and physiology of perception, for analysing and comparing biological and artificial approaches. The theme of this workshop was focused on "Emergence, Attention and Creativity". The workshop structure consisted of five modules each one composed of two invited lectures (dealing with solutions in nature and machines respectively) and a panel discussion. The lectures focused on presenting the state-of-the-art and outlining open questions. In particular, they sought to stress links, suggesting possible synergies between different cultural areas. The panel discussion was conceived as a forum for an open debate, briefly introduced by each panellist, and mainly aimed at deeper investigation for the different approaches and strictly related topics. The panellists were asked to prepare a few statements on hot-points, which were delivered in advance to the participants as a guide for a qualified discussion.

Synergetic Theory of Life looks at the evolutional path of life on the Earth from its beginning until now. Life on Earth was not created, it was not brought in from outside, it was not a result of revealing the secret essences, but it is a phenomenon of self-organisation based on synergism of high-molecular compounds (polymers), proteins and nucleic acids. The book looks in depth at the intellectual evolution of Man, rather than the biological evolution. There is also an analysis of the contemporary issues in human civilization and the characteristics of the evolutional crises that we are in today. There is a prediction of how these crises will affect life on Earth and suggestions of the solutions to save the future of life on Earth. Those solutions are the next and ultimate step in the evolutional process of Man. Synergetic Theory of Life defines and analyses all of the above and suggests the future development direction of the human civilisation. This theory was created by the author and inspired by his vast knowledge and experience in various fields of science. Oraz Turkmen has abandoned the traditional method of citing specific scientific literature and proceeded from commonly accepted scientific notions, facts and theoretical knowledge. He also uses brand new terminology that he defines and clearly explains in the dictionary at the end. Synergetic Theory of Lifewill appeal to those interested in science and philosophy.

Machine Intelligence is changing every aspect of our lives. Internet traffic and sensors in households, cars, and wearables provide data that oligopolistic companies collect and use to extract patterns of human behavior. Further, active digital assistants are taking over more and more of our everyday decisions. Humanity is on the verge of an evolutionary leap and it is time to determine if this development will benefit people’s wellbeing or will just mean the accumulation of capital and power with no regard for quality of life. This book integrates the perspectives of various disciplines that are striving to establish resilient foundations – computer science, economics and social sciences, political science, psychology, philosophy, neuroscience, ethics and religion – in order to clarify a number of positions and, as a result, objectify the discussions. Written by Hubert Osterle, a researcher working at the interface of these disciplines, the book promotes debate on the future of man and machine, on happiness and evolution and on the major changes brought about by digital technology. Last but not least, it is a manifesto calling for a new – integrated – discipline to be founded: life engineering. „If you want to think more deeply about what machine intelligence (aka AI) really means for humanity, you should read this book. Hubert Oesterle takes an amazingly broad and multi-disciplinary look at all relevant aspects, from the roots of human behavior to the impact advanced digital assistants might have on our daily lives (and who will control these assistants). Highly recommended!” Andreas Goeldi, Partner at btov Partners

A brief and accessible introduction to molecular biology for students and professionals who want to understand this rapidly expanding field. Recent research in molecular biology has produced a remarkably detailed understanding of how living things operate. Becoming conversant with the intricacies of molecular biology and its extensive technical vocabulary can be a challenge, though, as introductory materials often seem more like a barrier than an invitation to the study of life. This text offers a concise and accessible introduction to molecular biology, requiring no previous background in science, aimed at students and professionals in fields ranging from engineering to journalism—anyone who wants to get a foothold in this rapidly expanding field. It will be particularly useful for computer scientists exploring computational biology. A reader who has mastered the information in The Processes of Life is ready to move on to more complex material in almost any area of contemporary biology.

With predation and carnivory as catalysts, the first known eye appeared in a trilobite during the Cambrian explosion approximately 543 million years ago. This period was a crucible of evolution and teemed with anatomic creativity although the journey to formed vision actually began billions of years before that. The Cambrian period, however, spawned nearly all morphologic forms of the eye, followed by descent over hundreds of millions of years providing an unimaginable variety of eyes with at least ten different designs. Some eyes display spectacular creativity with mirror, scanning or telephoto optics. Some of these ocular designs are merely curiosities, while others offer the finest visual potential packed into a small space, limited only by the laws of diffraction or physiological optics. For example, some spiders developed tiny, well-formed eyes with scanning optics and three visual pigments; scallops have 40-100 eyes circling their mantle, each of which has mirror optics and contains two separate retinae per eye; deep ocean fish have eyes shaped like tubes containing yellow lenses to break camouflage; and some birds have vision five times better than ours; but this is only part of the story. Each animal alive today has an eye that fits is niche perfectly demonstrating the intimacy of the evolutionary process as no other organ could. The evolution of the eye is one of the best examples of Darwinian principles. Although few eyes fossilize in any significant manner, many details of this evolution are known and understood. From initial photoreception 3.75 billion years ago to early spatial recognition in the first cupped eyespot in Euglena to fully formed camera style eyes the size of beach balls in ichthyosaurs, animals have processed light to compete and survive in their respective niches. It is evolution's greatest gift and its greatest triumph. This is the story of the evolution of the eye.

This book constitutes the refereed proceedings of the 9th European Conference on Artificial Life, ECAL 2007, held in Lisbon, Portugal. The 125 revised full papers cover morphogenesis and development, robotics and autonomous agents, evolutionary computation and theory, cellular automata, models of biological systems and their applications, ant colony and swarm systems, evolution of communication, simulation of social interactions, self-replication, artificial chemistry.