"This successor volume to The Singularity Is Near explores how technology will refashion the human race in the decades to come. In this entirely new book, Ray Kurzweil brings a fresh perspective to advances in the singularity-assessing the progress of many of his predictions and examining the novel advancements that, in the near future, will bring a revolution in knowledge and an expansion of human potential. Among the topics he discusses are rebuilding the world atom by atom with devices like nanobots; radical life extension beyond the current age limit of 120; reinventing intelligence by expanding biological capacity with nonbiological intelligence in the cloud; how life is improving with declines in poverty and violence; and the growth of technologies that can be applied to everything from clothes to building materials to growing human organs. He also considers the potential perils of biotechnology, nanotechnology, and artificial intelligence, including such topics as how AI will impact unemployment and the safety of autonomous cars, and "After Life" technology, which will reanimate people who have passed away through a combination of data and DNA"--

What does a writer who produced two hundred books do with his spare time? If his name is Isaac Asimov, he writes - on any and every subject of interest to his fertile mind. Informative, amusing, timely, and provocative - OPUS 200 is Asimov at his sparkling best in selections carefully culled from his second hundred books. Drawing on novels (which have won both the Hugo and Nebula awards), on short stories, serious essays, and on children's books, Asimov addresses himself to everything from Black Holes to biblical Canaan. Here is a taste of the intelligence, the craftsmanship, and the ingenuity that have made Issac Asimov the most prolific writer of science fiction in the world.

This book provides a comprehensive summary of nanowire research in the past decade, from the nanowire synthesis, characterization, assembly, to the device applications. In particular, the developments of complex/modulated nanowire structures, the assembly of hierarchical nanowire arrays, and the applications in the fields of nanoelectronics, nanophotonics, quantum devices, nano-enabled energy, and nano-bio interfaces, are focused. Moreover, novel nanowire building blocks for the future/emerging nanoscience and nanotechnology are also discussed.Semiconducting nanowires represent one of the most interesting research directions in nanoscience and nanotechnology, with capabilities of realizing structural and functional complexity through rational design and synthesis. The exquisite control of chemical composition, morphology, structure, doping and assembly, as well as incorporation with other materials, offer a variety of nanoscale building blocks with unique properties.

A Magazine of Science Fiction and Fantasy ISSUE 19: March 2016 Mike Resnick, Editor Jean Rabe, Assistant Editor Shahid Mahmud, Publisher Stories by: Sylvia Spruck Wrigley, Larry Hodges, Robert Silverberg, Steve Pantazis, Dantzel Cherry, Jean Rabe, Ian Whates, Janis Ian, Alvaro Zinos-Amaro, Sunil Patel, David Drake, Kary English, Robert B Finegold, M.D. Serialization: The Long Tomorrow by Leigh Brackett Columns by: Barry Malzberg, Gregory Benford Book Reviews: Jody Lynn Nye and Bill Fawcett Interview: Joy Ward interviews David Weber Galaxy's Edge is a Hugo-nominated bi-monthly magazine published by Phoenix Pick, the science fiction and fantasy imprint of Arc Manor, an award winning independent press based in Maryland. Each issue of the magazine has a mix of new and old stories, a serialization of a novel, columns by Barry Malzberg and Gregory Benford, book reviews by Jody Lynn Nye and Bill Fawcett and an interview conducted by Joy Ward.

Groundbreaking research over the last 10 years has given rise to the hologenome concept of evolution. This concept posits that the holobiont (host plus all of its associated microorganisms) and its hologenome (sum of the genetic information of the host and its symbiotic microorganisms), acting in concert, function as a unique biological entity and therefore as a level of selection in evolution. All animals and plants harbor abundant and diverse microbiota, including viruses. Often the amount of symbiotic microorganisms and their combined genetic information far exceed that of their host. The microbiota with its microbiome, together with the host genome, can be transmitted from one generation to the next and thus propagate the unique properties of the holobiont. The microbial symbionts and the host interact in a cooperative way that affects the health of the holobiont within its environment. Beneficial microbiota protects against pathogens, provides essential nutrients, catabolizes complex polysaccharides, renders harmful chemicals inert, and contributes to the performance of the immune system. In humans and animals, the microbiota also plays a role in behavior. The sum of these cooperative interactions characterizes the holobiont as a unique biological entity. Genetic variation in the hologenome can be brought about by changes in either the host genome or the microbial population genomes (microbiome). Evolution by cooperation can occur by amplifying existing microbes, gaining novel microbiota and by acquiring microbial and viral genes. Under environmental stress, the microbiome can change more rapidly and in response to more processes than the host organism alone and thus influences the evolution of the holobiont. Prebiotics, probiotics, synbiotics and phage therapy are discussed as applied aspects of the hologenome concept.

"The Collapse of Chaos is the first post-chaos, post-complexity book, a groundbreaking inquiry into how simplicity in nature is generated from chaos and complexity. Rather than asking science's traditional question of how to break the world down into its simplest components, Jack Cohen and Ian Stewart ask something much more interesting: why does simplicity exist at all? Their story combines chaos and complexity and - surprisingly - derives simplicity from the interaction of the two." "The Collapse of Chaos is composed of two parts. The first half is a witty primer, a guided tour of the islands of Truth that have been mapped out by conventional science. This section provides a streamlined and accessible introduction to the central areas of modern science, including cosmology, quantum mechanics, the arrow of time, biological development, evolution, and consciousness. The unorthodox and adventurous second half dives into the Oceans of Ignorance that surround what is known. Educated by the first half to appreciate the subtler issues in the second, the reader is introduced to a novel and even heretical world where unconventional possibilities are explored through conversations with characters such as the Victorian computer scientist Augusta Ada Lovelace and - for the more outlandish scenarios - the alien inhabitants of the planet Zarathustra."--Jacket.

What are the conditions that foster true novelty and allow visionaries to set their eyes on unknown horizons? What have been the challenges that have spawned new innovations, and how have they shaped modern biology? In Dreamers, Visionaries, and Revolutionaries in the Life Sciences , editors Oren Harman and Michael R. Dietrich explore these questions through the lives of eighteen exemplary biologists who had grand and often radical ideas that went far beyond the run-of-the-mill science of their peers. From the Frenchman Jean-Baptiste Lamarck, who coined the word “biology” in the early nineteenth century, to the American James Lovelock, for whom the Earth is a living, breathing organism, these dreamers innovated in ways that forced their contemporaries to reexamine comfortable truths. With this collection readers will follow Jane Goodall into the hidden world of apes in African jungles and Francis Crick as he attacks the problem of consciousness. Join Mary Lasker on her campaign to conquer cancer and follow geneticist George Church as he dreams of bringing back woolly mammoths and Neanderthals. In these lives and the many others featured in these pages, we discover visions that were sometimes fantastical, quixotic, and even threatening and destabilizing, but always a challenge to the status quo.

What are the conditions that foster true novelty and allow visionaries to set their eyes on unknown horizons? What have been the challenges that have spawned new innovations, and how have they shaped modern biology? In Dreamers, Visionaries, and Revolutionaries in the Life Sciences , editors Oren Harman and Michael R. Dietrich explore these questions through the lives of eighteen exemplary biologists who had grand and often radical ideas that went far beyond the run-of-the-mill science of their peers. From the Frenchman Jean-Baptiste Lamarck, who coined the word “biology” in the early nineteenth century, to the American James Lovelock, for whom the Earth is a living, breathing organism, these dreamers innovated in ways that forced their contemporaries to reexamine comfortable truths. With this collection readers will follow Jane Goodall into the hidden world of apes in African jungles and Francis Crick as he attacks the problem of consciousness. Join Mary Lasker on her campaign to conquer cancer and follow geneticist George Church as he dreams of bringing back woolly mammoths and Neanderthals. In these lives and the many others featured in these pages, we discover visions that were sometimes fantastical, quixotic, and even threatening and destabilizing, but always a challenge to the status quo.

These original contributions by symbiosis biologists and evolutionary theorists address the adequacy of the prevailing neo-Darwinian concept of evolution in the light of growing evidence that hereditary symbiosis, supplemented by the gradual accumulation of heritable mutation, results in the origin of new species and morphological novelty. A departure from mainstream biology, the idea of symbiosis—as in the genetic and metabolic interactions of the bacterial communities that became the earliest eukaryotes and eventually evolved into plants and animals—has attracted the attention of a growing number of scientists. These original contributions by symbiosis biologists and evolutionary theorists address the adequacy of the prevailing neo-Darwinian concept of evolution in the light of growing evidence that hereditary symbiosis, supplemented by the gradual accumulation of heritable mutation, results in the origin of new species and morphological novelty. They include reports of current research on the evolutionary consequences of symbiosis, the protracted physical association between organisms of different species. Among the issues considered are individuality and evolution, microbial symbioses, animal­bacterial symbioses, and the importance of symbiosis in cell evolution, ecology, and morphogenesis. Lynn Margulis, Distinguished Professor of Botany at the University of Massachusetts at Amherst, is the modern originator of the symbiotic theory of cell evolution. Once considered heresy, her ideas are now part of the microbiological revolution. Contributors Peter Atsatt, Richard C. Back, David Bermudes, Paola Bonfante-Fasolo, René Fester, Lynda J. Goff, Anne-Marie Grenier, Ricardo Guerrero, Robert H. Haynes, Rosmarie Honegger, Gregory Hinkle, Kwang W. Jeon, Bryce Kendrick, Richard Law, David Lewis, Lynn Margulis, John Maynard Smith, Margaret J. McFall-Ngai, Paul Nardon, Kenneth H. Nealson, Kris Pirozynski, Peter W. Price, Mary Beth Saffo, Jan Sapp, Silvano Scannerini, Werner Schwemmler, Sorin Sonea, Toomas H. Tiivel, Robert K. Trench, Russell Vetter