This book offers an overview of neuroscience research performed in space since the observations made during the first manned space flights to the detailed scientific investigations currently being carried out onboard the International Space Station. This book is for the general scientific reader. Each project and the reason why it was done is described with illustrations, rationale and hypothesis, and a summary of results. Also, reference lists guide readers to the published papers from experiments. This book is a legacy of what we have learned on brain mechanisms and functions through research done in space, and a guide for what could be investigated in the future.

Neuroscience Research in Short-duration Human Spaceflight encapsulates a groundbreaking neuroscience portfolio conducted during the Axiom Mission 2 in May 2023, offering an examination of the effects of short-duration orbital spaceflight on aspects of the human brain. Addressing limitations in existing literature, the research includes astronauts of diverse ages, genders, and ethnic backgrounds, broadening the understanding of the impact of spaceflight on human physiology. A significant aspect of the suite of studies is the validation of two novel devices providing unprecedented information about the pupillary light reflex and neuroimaging in microgravity: automated pupillometry and functional near-infrared spectroscopy. The portfolio extends to explore spaceflight-associated neuro-ocular syndrome, offering valuable contributions to the evolving field of space medicine. Furthermore, the research delves into the utilization of electroencephalography to monitor brain activity, acknowledging its potential in assessing cognitive health, stress levels, and mental workload in real time. Despite promising prospects, challenges in electroencephalography system adaptability within the International Space Station environment are highlighted, emphasizing the need for specialized design considerations. In addition, analysis is extended into the molecular biomarkers through minimally invasive blood monitoring. This book represents a pivotal advancement in space neuroscience, laying the foundation for safer space travel and fostering the development of monitoring tools crucial to observing adverse changes and potentially developing countermeasures that can aid in the establishment of a permanent human presence beyond Earth. - Offers in-depth coverage of the effects of spaceflight on human physiology and the brain - Includes novel data from astronauts on the Axiom Mission 2 - Includes a range of monitoring tools to assess neurological activity during and after spaceflight

Offers solutions and best practices to respond to recurrent problems and contemporary challenges in the field Since the publication of the first edition of Environmental Impact Assessment in 2003, both the practice and theory of impact assessment have changed substantially. Not only has the field been subject to a great deal of new regulations and guidelines, it has also evolved tremendously, with a greater emphasis on strategic environmental, sustainability, and human health impact assessments. Moreover, there is a greater call for impact assessments from a global perspective. This Second Edition, now titled Impact Assessment to reflect its broader scope and the breadth of these many changes, offers students and practitioners a current guide to today's impact assessment practice. Impact Assessment begins with an introduction and then a chapter reviewing conventional approaches to the field. Next, the book is organized around recurrent problems and contemporary challenges in impact assessment process design and management, enabling readers to quickly find the material they need to solve tough problems, including: How to make impact assessments more influential, rigorous, rational, substantive, practical, democratic, collaborative, ethical, and adaptive How each problem and challenge-reducing process would operate at the regulatory and applied levels How each problem can be approached for different impact assessment types-sustainability assessment, strategic environmental assessment, project-level EIA, social impact assessment, ecological impact assessment, and health impact assessment How to link and combine impact assessment processes to operate in situations with multiple overlapping problems, challenges, and impact assessment types How to connect and combine impact assessment processes Each chapter first addresses the topic with current theory and then demonstrates how that theory is applied, presenting requirements, guidelines, and best practices. Summaries at the end of each chapter provide a handy tool for structuring the design and evaluation of impact assessment processes and documents. Readers will find analyses and new case studies that address such issues as multi-jurisdictional impact assessment, climate change, cumulative effects assessment, follow-up, capacity building, interpreting significance, and the siting of major industrial and waste facilities. Reflecting current theory and standards of practice, Impact Assessment is appropriate for both students and practitioners in the field, enabling them to confidently respond to a myriad of new challenges in the field.

Knowing where things are seems effortless. Yet our brains devote tremendous computational power to figuring out the simplest details about spatial relationships. Going to the grocery store or finding our cell phone requires sleuthing and coordination across different sensory and motor domains. Making Space traces this mental detective work to explain how the brain creates our sense of location. But it goes further, to make the case that spatial processing permeates all our cognitive abilities, and that the brain’s systems for thinking about space may be the systems of thought itself. Our senses measure energy in the form of light, sound, and pressure on the skin, and our brains evaluate these measurements to make inferences about objects and boundaries. Jennifer Groh describes how eyes detect electromagnetic radiation, how the brain can locate sounds by measuring differences of less than one one-thousandth of a second in how long they take to reach each ear, and how the ear’s balance organs help us monitor body posture and movement. The brain synthesizes all this neural information so that we can navigate three-dimensional space. But the brain’s work doesn’t end there. Spatial representations do double duty in aiding memory and reasoning. This is why it is harder to remember how to get somewhere if someone else is driving, and why, if we set out to do something and forget what it was, returning to the place we started can jog our memory. In making space the brain uses powers we did not know we have.