Understanding the relationship between human cultural psychology and the evolutionary ecology of living systems is currently limited by abstract perceptions of space and boundaries as sources of definitive discontinuity. This Brief explores the new understandings possible when space and boundaries are perceived instead as sources of receptive continuity and dynamic distinction between local identities and phenomena. It aims to identify the recurrent patterns in which life is expressed over diverse scales in natural ecosystems and to explore how a new awareness of their evolutionary origin in the natural inclusion of space in flux can be related to human cultural psychology. It explains why these patterns cannot adequately be represented or understood in terms of conventional logic and language that definitively isolates the material content from the spatial context of natural systems. Correspondingly, the Brief discusses how the perception of natural space as an infinite, intangible, receptive presence, and of natural informational boundaries as continuous energetic flux, revolutionizes our understanding of evolutionary processes. The mutual natural inclusion of receptive space and informative flux in all distinguishable local phenomena enables evolutionary diversification to be understood as a fluid dynamic exploration of renewing possibility, not an eliminative ‘survival of the fittest’. Self-identity is recognized to be a dynamic inclusion of natural neighborhood, not a definitive exception from neighborhood. The Origins of Life Patterns will be of interest to psychologists, philosophers, anthropologists, evolutionary biologists, ecologists, mathematicians, and physicists.

A preeminent physicist unveils a field-defining theory of the origins and purpose of life. Why are we alive? Most things in the universe aren't. And everything that is alive traces back to things that, puzzlingly, weren't. For centuries, the scientific question of life's origins has confounded us. But in Every Life Is on Fire, physicist Jeremy England argues that the answer has been under our noses the whole time, deep within the laws of thermodynamics. England explains how, counterintuitively, the very same forces that tend to tear things apart assembled the first living systems. But how life began isn't just a scientific question. We ask it because we want to know what it really means to be alive. So England, an ordained rabbi, uses his theory to examine how, if at all, science helps us find purpose in a vast and mysterious universe. In the tradition of Viktor Frankl's Man's Search for Meaning, Every Life Is on Fire is a profound testament to how something can come from nothing.

The field of planetary biology and chemical evolution draws together experts in astronomy, paleobiology, biochemistry, and space science who work together to understand the evolution of living systems. This field has made exciting discoveries that shed light on how organic compounds came together to form self-replicating molecules-the origin of life. This volume updates that progress and offers recommendations on research programs-including an ambitious effort centered on Mars-to advance the field over the next 10 to 15 years. The book presents a wide range of data and research results on these and other issues: The biogenic elements and their interaction in the interstellar clouds and in solar nebulae. Early planetary environments and the conditions that lead to the origin of life. The evolution of cellular and multicellular life. The search for life outside the solar system. This volume will become required reading for anyone involved in the search for life's beginnings-including exobiologists, geoscientists, planetary scientists, and U.S. space and science policymakers.

A science journalist travels the world to explore humanity’s ecological devastation—and its potential for renewal in this “compelling read” (Guardian, UK). We live in times of profound environmental change. According to a growing scientific consensus, the dramatic results of man-made climate change have ushered the world into a new geological era: the Anthropocene, or Age of Man. As an editor at Nature, Gaia Vince couldn’t help but wonder if the greatest cause of this dramatic planetary change—humans’ singular ability to adapt and innovate—might also hold the key to our survival. To investigate this provocative question, Vince travelled the world in search of ordinary people making extraordinary changes to the way they live—and, in many cases, finding new ways to thrive. From Nepal to Patagonia and beyond, Vince journeys into mountains and deserts, forests and farmlands, to get an up close and personal view of our changing environment. Part science journal, part travelogue, Adventures in the Anthropocene recounts Vince’s journey, and introduces an essential new perspective on the future of life on Earth.

Hypothesis testing is not a straightforward matter in the fossil record and here, too interactions with biology can be extremely profitable. Quite simply, predictions regarding long-term consequences of processes observed in liv ing organisms can be tested directly using paleontological data if those liv ing organisms have an adequate fossil record, thus avoiding the pitfalls of extrapolative approaches. We hope to see a burgeoning of this interactive effort in the coming years. Framing and testing of hypotheses in paleon tological subjects inevitably raises the problem of inferring process from pattern, and the consideration and elimination of a broad range of rival hy is an essential procedure here. In a historical science such as potheses paleontology, the problem often arises that the events that are of most in terest are unique in the history of life. For example, replication of the metazoan radiation at the beginning of the Cambrian is not feasible. How ever, decomposition of such problems into component hypotheses may at least in part alleviate this difficulty. For example, hypotheses built upon the role of species packing might be tested by comparing evolutionary dy namics (both morphological and taxonomic) during another global diversi fication, such as the biotic rebound from the end-Permian extinction, which removed perhaps 95% of the marine species (see Valentine, this volume). The subject of extinction, and mass extinction in particular, has become important in both paleobiology and biology.

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Uniting the foundations of physics and biology, this groundbreaking multidisciplinary and integrative book explores life as a planetary process.