For students, researchers and professional scientist eager to gain insight into the emerging frontiers of Artifical Life, Chris Adami's work provides the basic underpinnings for properly understanding this interdisciplinary research area. The CD-ROM accompanying the book invites readers to actively experience artificial evolution in "real time" by using a proprietary simulation software program, AVIDA, which is contained on the CD.
How high-level behaviors arise from low-level rules, and how understanding this relationship can suggest novel solutions to complex real-world problems such as disease prevention, stock-market prediction, and data mining on the Internet. The term "artificial life" describes research into synthetic systems that possess some of the essential properties of life. This interdisciplinary field includes biologists, computer scientists, physicists, chemists, geneticists, and others. Artificial life may be viewed as an attempt to understand high-level behavior from low-level rules -- for example, how the simple interactions between ants and their environment lead to complex trail-following behavior. An understanding of such relationships in particular systems can suggest novel solutions to complex real-world problems such as disease prevention, stock-market prediction, and data mining on the Internet. Since their inception in 1987, the Artificial Life meetings have grown from small workshops to truly international conferences, reflecting the field's increasing appeal to researchers in all areas of science.
Each year brings to light new scientific discoveries that have the power to either test our faith or strengthen it--most recently the news that scientists have created artificial life forms in the laboratory. If humans can create life, what does that mean for the creation story found in Scripture? Biochemist and Christian apologist Fazale Rana, for one, isn't worried. In Creating Life in the Lab, he details the fascinating quest for synthetic life and argues convincingly that when scientists succeed in creating life in the lab, they will unwittingly undermine the evolutionary explanation for the origin of life, demonstrating instead that undirected chemical processes cannot produce a living entity.
We, Other Utopians is the first book to analyze the topics of genome editing/recombinant DNA on the basis of ethnographic research in the post-communist context. The book focuses on the topics of human DNA editing and genome repair on two levels. First, inspired by texts analyzing the concept of life and the body in general, it conceptually and analytically works with various approaches to engineered life and embodiments from the perspective of anthropology, sociology, and science and technology studies. Second, it presents an analysis of artificial life, and biotechnological embodiments on concrete technologies – genome editing, recombinant DNA, and biological computing. The book explores the theme of genome editing based on ethnographic research conducted at a biochemical laboratory in the Czech Republic. The fieldwork was carried out from 2017 to 2019, mainly in a lab focusing on DNA damages and genomic risk of complex diseases or genetic vulnerabilities like breast cancer, infertility, and ageing. Recombinant DNA is understood here as the exchange of DNA strands to produce and design new nucleotide sequence arrangements to heal or enhance human bodies and health in the future. The book analyzes various economies of hope, hype, expectations, politics, and poetics of false promises and better or worse predictions from the point of view of sociology, anthropology, and science and technology studies.
This book constitutes the refereed proceedings of the 7th European Conference on Artificial Life, ECAL 2003, held in Dortmund, Germany in September 2003. The 96 revised full papers presented were carefully reviewed and selected from more than 140 submissions. The papers are organized in topical sections on artificial chemistries, self-organization, and self-replication; artificial societies; cellular and neural systems; evolution and development; evolutionary and adaptive dynamics; languages and communication; methodologies and applications; and robotics and autonomous agents.
The remarkable progress in algorithms for machine and deep learning have opened the doors to new opportunities, and some dark possibilities. However, a bright future awaits those who build on their working methods by including HCAI strategies of design and testing. As many technology companies and thought leaders have argued, the goal is not to replace people, but to empower them by making design choices that give humans control over technology. In Human-Centered AI, Professor Ben Shneiderman offers an optimistic realist's guide to how artificial intelligence can be used to augment and enhance humans' lives. This project bridges the gap between ethical considerations and practical realities to offer a road map for successful, reliable systems. Digital cameras, communications services, and navigation apps are just the beginning. Shneiderman shows how future applications will support health and wellness, improve education, accelerate business, and connect people in reliable, safe, and trustworthy ways that respect human values, rights, justice, and dignity.
Art, the Life Sciences, and the Humanities: In Search ofa Relationship Robert Ztuijnenberg Over the last decades there has been a distinctive effort in the arts to engage with science through participation in the actual practice of science. ' Exchange proj ects between artists and scientists, such as artist-in-lab projects, have become common and a large number oforganizations have emerged that stimulate and initiate collaboration between artists andscientists. ' Research funding organiza tions in thehumanities,such asthe British Arts and Humanities Research Coun cil (AHRC) and the Netherlands Organisation for Scientific Research (NWO), have also initiated all sorts of research programs that explore and support inter actions between art and science. ' Asa result, artists have grown more involved with scientific concerns and practices, and their increased interactions with scientists have also become a subject of study within the humanities. Why do artists openly seek to gain access to the domain of the sciences? And why do scholars in the humanities value collaboration between artists and scientists so much that theyare willing to spend research time and money on it? This interest in science, I argue in this preface for Ingeborg Reichle's bookArt in theAge of Tecbnoscience,' underscores that the arts and the humanities are searching to establish a new relationship with the natural sciences as well as with each other. Art and Science T he relationship between thearts and thesciences hasbeen subject to permanent change over the past two centuries.
This book looks at artificial life science - A-Life, an important new area of scientific research involving the disciplines of microbiology, evolutionary theory, physics, chemistry and computer science. In the 1940s a mathematician named John von Neumann, a man with a claim to being the father of the modern computer, invented a hypothetical mathematical entity called a cellular automaton. His aim was to construct a machine that could reproduce itself. In the years since, with the development of hugely more sophisticated and complex computers, von Neumann's insights have gradually led to a point where scientists have created, within the wiring of these machines, something that so closely simulates life that it may, arguably, be called life. This machine reproduces itself, mutates, evolves through generations and dies.
The essays and memoirs collected in Seek! trace Rudy Rucker's trajectory through the final decade of the second millennium. His topics include artificial life, chaos, the big bang, Pieter Brueghel, the church of the subgenius, live sex, mathematics, science fiction, and TV evangelism. A computer scientist and programmer, Rucker is an articulate, engaging guide to the world on either side of the computer screen.
Highlighted with individual contributions from eminent specialists, these multiauthored volumes combine authority, inspiration and state-of-the-art knowledge. Both informative and inspiring they are designed to appeal to scientists and interested laypeople alike. Volume 2 complements and extends the scope of the first, with the biological viewpoint being stressed. Following an introductory chapter on design as understood in biology, the various aspects of the biological information revolution are addressed. Areas discussed include molecular structure, the genome, development, and neural networks. A section on information theory provides a link with engineering, and the scope is also broadened to include the implications of motion in nature and engineering.
