Yuri Tynianov was a key figure of Russian Formalism, an intellectual movement in early 20th century Russia that also included Viktor Shklovsky and Roman Jakobson. Tynianov developed a groundbreaking conceptualization of literature as a system within—and in constant interaction with—other cultural and social systems. His essays on Russian literary classics, like Pushkin’s Eugene Onegin and works by Dostoevsky and Gogol, as well as on the emerging art form of filmmaking, provide insight into the ways art and literature evolve and adapt new forms of expression. Although Tynianov was first a scholar of Russian literature, his ideas transcend the boundaries of any one genre or national tradition. Permanent Evolution gathers together for the first time Tynianov’s seminal articles on literary theory and film, including several articles never before translated into English.

We all have our off days. Why should Evolution be any different? Maybe Evolution got carried away with an idea that was just a little too crazy—like having the Regal Horned Lizard defend itself by shooting three-foot streams of blood from its eyes. Or maybe Evolution ran out of steam (Memo to Evolution: The Irrawaddy Dolphin looks like a prototype that should have been left on the drawing board). Or maybe Evolution was feeling cheeky—a fish with hands? Joke’s on you, Red Handfish! Or maybe Evolution simply goofed up: How else to explain the overgrown teeth of the babirusas that curl backward over their face? Oops. Mara Grunbaum is a very smart, very funny science writer who celebrates the best—or, really, the worst—of Evolution’s blunders. Here are more than 100 outlandish mammals, reptiles, insects, fish, birds, and other creatures whose very existence leaves us shaking our heads and muttering WTF?! Ms. Grunbaum’s especially brilliant stroke is to personify Evolution as a well-meaning but somewhat oblivious experimenter whose conversations with a skeptical narrator are hilarious. For almost 4 billion years, Evolution has produced a nonstop parade of inflatable noses, bizarre genitalia, and seriously awkward necks. What a comedian!

John Dewey was the first philosopher to recognize that Darwin's thesis about natural selection not only required us to change how we think about ourselves and the life forms around us, but also required a markedly different approach to philosophy. Evolution's First Philosopher shows how Dewey's arguments arose from his recognition of the continuity of natural selection and mindedness, from which he developed his concept of growth. Growth, for Dewey, has no end beyond itself and forms the basis of a naturalized theory of ethics. While other philosophers gave some attention to evolutionary theory, it was Dewey alone who saw that Darwinism provides the basis for a naturalized theory of meaning. This, in turn, portends a new account of knowledge, ethics, and democracy. To clarify evolution's conception of natural selection, Jerome A. Popp looks at brain science and examines the relationship between the genome and experience in terms of the contemporary concepts of preparedness and plasticity. This research shows how comprehensive and penetrating Dewey's thought was in terms of further consequences for the philosophical method entailed by Darwin's thesis. Dewey's foresight is further legitimated when Popp places his work within the context of the current thought of Daniel Dennett.

Pillars of Evolution provides a fresh and provocative perspective on adaptive evolution. Readers new to the study of evolution will find a refreshing new insight that establishes evolutionary biology as a rigorous and predictive science, whilst practicing biologists will discover a provocative book that challenges traditional approaches. The book begins by leading readers through the mechanics of heredity, reproduction, movement, survival, and development. With that framework in place, it then explores the numerous ways that traits emerge from the interactions between genetics, development, and the environment. The key message is that adaptive changes in traits (and their underlying allelic frequencies) evolve through the traits' functions and their connection with fitness. The complex mappings from genes-to-traits-to-fitness are characterized in the structure of evolution. A single "structure matrix" describes why individuals vary in the values of adaptive traits, their ability to perform the function of those traits, and in the fitness they accrue. Fitness depends on how organisms interact with and perceive their environment in time and space. These relationships are made explicit in spatial, temporal, and organizational scale that also sets the stage for the crucially important role that ecology always plays in evolution. The ecological hallmarks of density- and frequency-dependent interactions allow the authors to explore new and exciting insights into evolution's dynamics. The theories and principles are then brought together in a final synthesis on adaptation. The book's unique approach unites genetic, development, and environmental influences into a single comprehensive treatment of the eco-evolutionary process.

Every conscious person on the earth is curious to know how the species of human beings along with other living systems as well as the whole universe came into existence. The theory of Darwin which ignited the imaginations of many generations of thinking people all over the world even to this day is no more than a hypothesis, except for the concept of speciation which can be a working principle to understand about minor changes that a species undergoes over a period of time. In this new theory of evolution, in what can be called as a syncretism of the ideas of the East and the West, the author takes a convincing turn from the realm of external attributes or the form of an organism to the realm of internal attributes or the life of an organism to unfurl a new hypothesis which can give more logical answers to the mysteries of evolution.

This book talks about the scientific processes involved with the matter of our being and how we are evolved, as are all species when their DNA molecules react to the effects of their incoming environment and are dealt with. Some billions of years ago, DNA molecules not only came into being in the right conditionsincluding the presence of five elements (hydrogen, nitrogen, oxygen, carbon, and phosphorous) and a moist environment when an enzyme-assisted chemical process resulted in them becoming established, but additionally, they were activated by the damaging effects of incoming environmental-related energy pulses causing a vibrational response to occur. (The physical phenomenon of vibration and resonance is the most common in the universe.) The DNA molecules suffered controlled physical damage during this process, but by a hit-and-miss replacement procedure, they were and are adapted by way of adjustments to the individual coding of the DNA nucleotide pairs making up the molecule, which eventually becomes part of the gene, resulting in an electrical-generation force-field activated output (protein, hormones, etc.) being initiated from the cells that resulted in the protection of the DNA molecules from the incoming environmental energy pulse impacts but also resulted in these protective outputs from the cells becoming the physical attributes of the species that allow it, the specimen, to survive in its particular environment. Eukaryotic, multicell species developed when a single cell, prokaryotic species invaded another that had been invaded by a single mitochondria cell that was adept at reducing sugar molecules and releasing energy pulses and energy that was available for the combined cells utilisation. These combined cells with energy pulses and energy available twenty-four hours a day for processes then took off. With an understanding of physics, electrical engineering, etc., it became possible to establish the functioning of cells, differentiation of cells, etc., and with that the causes of genetic problems such as cancer development, MS, diabetes, etc. A similar record-based process results in the brain glia cells utilising junk DNA nucleotide pairs to guide mental reactions, leading to survival in the environment. The question then is we survive but what are we?

Evolution, Order and Complexity reflects topical interest in the relationship between the social and natural worlds. It represents the cutting edge of current thinking which challenges the natural/social dichotomy thesis by showing how the application of ideas which derive from biology can be applied and offer insight into the social realm. This is done by introducing the general system theory to the methodological debate on the relation of human and natural sciences.

Inspired by the Darwinian framework of evolution through natural selection and adaptation, the field of evolutionary computation has been growing very rapidly, and is today involved in many diverse application areas. This book covers the latest advances in the theories, algorithms, and applications of simulated evolution and learning techniques. It provides insights into different evolutionary computation techniques and their applications in domains such as scheduling, control and power, robotics, signal processing, and bioinformatics. The book will be of significant value to all postgraduates, research scientists and practitioners dealing with evolutionary computation or complex real-world problems. This book has been selected for coverage in: . OCo Index to Scientific & Technical Proceedings (ISTP CDROM version / ISI Proceedings). OCo CC Proceedings OCo Engineering & Physical Sciences. Sample Chapter(s). Chapter 1: Co-Evolutionary Learning in Strategic Environments (231 KB). Contents: Evolutionary Theory: Using Evolution to Learn User Preferences (S Ujjin & P J Bentley); Evolutionary Learning Strategies for Artificial Life Characters (M L Netto et al.); The Influence of Stochastic Quality Functions on Evolutionary Search (B Sendhoff et al.); A Real-Coded Cellular Genetic Algorithm Inspired by PredatorOCoPrey Interactions (X Li & S Sutherland); Automatic Modularization with Speciated Neural Network Ensemble (V R Khare & X Yao); Evolutionary Applications: Image Classification using Particle Swarm Optimization (M G Omran et al.); Evolution of Fuzzy Rule Based Controllers for Dynamic Environments (J Riley & V Ciesielski); A Genetic Algorithm for Joint Optimization of Spare Capacity and Delay in Self-Healing Network (S Kwong & H W Chong); Joint Attention in the Mimetic Context OCo What is a OC Mimetic SameOCO? (T Shiose et al.); Time Series Forecast with Elman Neural Networks and Genetic Algorithms (L X Xu et al.); and other articles. Readership: Upper level undergraduates, graduate students, academics, researchers and industrialists in artificial intelligence, evolutionary computation, fuzzy logic and neural networks."

As the growing relationship between individuals and technology continue to play a vital role in our society and work place, the progress and execution of information technology communication systems is important in maintaining our current way of life. Knowledge and Technological Development Effects on Organizational and Social Structures provides a wide ranging discussion on the exchanging of research ideas and practices in an effort to bring together the social and technical aspects within organizations and society. This collection focuses on new ideas and studies for research, students, and practitioners.