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Explaining Researchis the ultimate guide for scientists, engineers, and other professionals seeking to share their life's work effectively with important lay and scientific audiences. It offers a multitude of practical communication tools and techniques for writing, giving talks, creating visuals, using social media, and publicizing research advances. Career success depends on more than conducting incisive experiments and publishing papers in top journals. Researchers must also know how to explain their work to key audiences, such as colleagues, potential collaborators, officers in funding agencies and from foundations, donors, institutional leaders, corporate partners, students, legislators, journalists, and the general public. Explaining Research is the most comprehensive guide for science and engineering communication. In this new edition, leading research communicator Dennis Meredith provides readers with the practical tools and techniques scientists and engineers need to reach their audiences effectively. The updated and expanded chapters include a wealth of insights from leading science journalists and research communicators.

A unique introduction to the design, analysis, and presentation of scientific projects, this is an essential textbook for undergraduate majors in science and mathematics. The textbook gives an overview of the main methods used in scientific research, including hypothesis testing, the measurement of functional relationships, and observational research. It describes important features of experimental design, such as the control of errors, instrument calibration, data analysis, laboratory safety, and the treatment of human subjects. Important concepts in statistics are discussed, focusing on standard error, the meaning of p values, and use of elementary statistical tests. The textbook introduces some of the main ideas in mathematical modeling, including order-of-magnitude analysis, function fitting, Fourier transforms, recursion relations, and difference approximations to differential equations. It also provides guidelines on accessing scientific literature, and preparing scientific papers and presentations. An extensive instructor's manual containing sample lessons and student papers is available at www.cambridge.org/Marder.

The scientific research enterprise is built on a foundation of trust. Scientists trust that the results reported by others are valid. Society trusts that the results of research reflect an honest attempt by scientists to describe the world accurately and without bias. But this trust will endure only if the scientific community devotes itself to exemplifying and transmitting the values associated with ethical scientific conduct. On Being a Scientist was designed to supplement the informal lessons in ethics provided by research supervisors and mentors. The book describes the ethical foundations of scientific practices and some of the personal and professional issues that researchers encounter in their work. It applies to all forms of research-whether in academic, industrial, or governmental settings-and to all scientific disciplines. This third edition of On Being a Scientist reflects developments since the publication of the original edition in 1989 and a second edition in 1995. A continuing feature of this edition is the inclusion of a number of hypothetical scenarios offering guidance in thinking about and discussing these scenarios. On Being a Scientist is aimed primarily at graduate students and beginning researchers, but its lessons apply to all scientists at all stages of their scientific careers.

What does it take to be a scientist? Equally important, what does it take to be happy as a scientist? Drawing on thirty years of experience, Philip Schwartzkroin offers the budding scientist an invaluable glimpse into the day-to-day life of the researcher, filling a huge hole in the education of most would-be scientists--whether undergraduates or high school seniors. As Schwartzkroin points out, many of the most important things researchers learn as they hone their craft are not written down anywhere. And many of these insights come as a surprise to the na?ve and well-meaning student who somehow believes that'doing research'is an occupation that is substantially different from doing a job in'the real world.'This book looks at the'job'of science. Starting with suggestions about how to decide whether you'd want to pursue such a career (and if so, how to get started), the book works through some of the obvious topics relevant to a research profession--how to write a paper, give a talk, construct a grant proposal. It also examines less obvious topics that are generally incorporated into a research education only by trial and error--'thinking'like a scientist, negotiating scientific politics, dealing with research ethics, and understanding social interactions. And the book includes many'real-life situations'that may confront the young scientist, along with the author's advice on how to solve these problems. Based on the author's long career in the laboratory and his rich experience mentoring trainees, So You Want to be a Scientist provides information and insights that will help the young scientist make better decisions and choices. It will also be useful to teachers, counselors, and parents for its realistic look at the demands and requirements for success in a research career.

A comprehensive guide to everything scientists need to know about data management, this book is essential for researchers who need to learn how to organize, document and take care of their own data. Researchers in all disciplines are faced with the challenge of managing the growing amounts of digital data that are the foundation of their research. Kristin Briney offers practical advice and clearly explains policies and principles, in an accessible and in-depth text that will allow researchers to understand and achieve the goal of better research data management. Data Management for Researchers includes sections on: • The data problem – an introduction to the growing importance and challenges of using digital data in research. Covers both the inherent problems with managing digital information, as well as how the research landscape is changing to give more value to research datasets and code. • The data lifecycle – a framework for data's place within the research process and how data's role is changing. Greater emphasis on data sharing and data reuse will not only change the way we conduct research but also how we manage research data. • Planning for data management – covers the many aspects of data management and how to put them together in a data management plan. This section also includes sample data management plans. • Documenting your data – an often overlooked part of the data management process, but one that is critical to good management; data without documentation are frequently unusable. • Organizing your data – explains how to keep your data in order using organizational systems and file naming conventions. This section also covers using a database to organize and analyze content. • Improving data analysis – covers managing information through the analysis process. This section starts by comparing the management of raw and analyzed data and then describes ways to make analysis easier, such as spreadsheet best practices. It also examines practices for research code, including version control systems. • Managing secure and private data – many researchers are dealing with data that require extra security. This section outlines what data falls into this category and some of the policies that apply, before addressing the best practices for keeping data secure. • Short-term storage – deals with the practical matters of storage and backup and covers the many options available. This section also goes through the best practices to insure that data are not lost. • Preserving and archiving your data – digital data can have a long life if properly cared for. This section covers managing data in the long term including choosing good file formats and media, as well as determining who will manage the data after the end of the project. • Sharing/publishing your data – addresses how to make data sharing across research groups easier, as well as how and why to publicly share data. This section covers intellectual property and licenses for datasets, before ending with the altmetrics that measure the impact of publicly shared data. • Reusing data – as more data are shared, it becomes possible to use outside data in your research. This chapter discusses strategies for finding datasets and lays out how to cite data once you have found it. This book is designed for active scientific researchers but it is useful for anyone who wants to get more from their data: academics, educators, professionals or anyone who teaches data management, sharing and preservation.'An excellent practical treatise on the art and practice of data management, this book is essential to any researcher, regardless of subject or discipline.'—Robert Buntrock, Chemical Information Bulletin

Explaining Research is the first comprehensive communications guidebook for scientists, engineers, and physicians. Drawing on knowledge gleaned from a forty-year career in research communications, Dennis Meredith maps out how scientists can utilize sophisticated tools and techniques to disseminate their discoveries to important audiences. He explains how to use websites, blogs, videos, webinars, old-fashioned lectures, news releases, and lay-level articles to reach key audiences, emphasizing along the way that a strong understanding of the audience in question will allow a more effective communication tailored to a unique background and set of needs. In addition to drawing on the experience of the author, the book also includes excerpts from interviews with 45 of the country's leading science communications experts, including academics, authors, journalists, and public information officers. As the'information age'places new demands on scientists, Explaining Research will be a valuable resource not only for current professional scientists, but also for students who are the voice of the science community's next generation. This authoritative guide shows how to: BL Develop a'strategy of synergy'that makes research communication efficient and effective BL Give compelling talks BL Build a professional Web site BL Create quality posters, photos, animations, videos, e-newsletters, blogs, podcasts, and Webinars BL Write popular articles and books BL Persuade donors, administrators and other key funding decision-makers BL Produce news releases that attract media coverage BL Give clear media interviews BL Serve as a public educator in schools and science centers Visit www.explainingresearch.com to learn more about the book and additional resources.

Openness and sharing of information are fundamental to the progress of science and to the effective functioning of the research enterprise. The advent of scientific journals in the 17th century helped power the Scientific Revolution by allowing researchers to communicate across time and space, using the technologies of that era to generate reliable knowledge more quickly and efficiently. Harnessing today's stunning, ongoing advances in information technologies, the global research enterprise and its stakeholders are moving toward a new open science ecosystem. Open science aims to ensure the free availability and usability of scholarly publications, the data that result from scholarly research, and the methodologies, including code or algorithms, that were used to generate those data. Open Science by Design is aimed at overcoming barriers and moving toward open science as the default approach across the research enterprise. This report explores specific examples of open science and discusses a range of challenges, focusing on stakeholder perspectives. It is meant to provide guidance to the research enterprise and its stakeholders as they build strategies for achieving open science and take the next steps.

Se trata de una guía básica que proporciona antecedentes históricos que permiten comprender cómo las publicaciones científicas, principalmente los artículos en revistas especializadas, han alcanzado la valoración académica actual. Al mismo tiempo, explica cómo las investigaciones científicas influyen en una diversificada red de consecuencias políticas, estratégicas y operacionales en las universidades.

'Strategies for improving teaching and student success in secondary and post-secondary chemistry classrooms is widely researched nationally and internationally. The development of high quality instruction is key to retaining students in STEM fields, as well as, developing standards for deeper learning and application of course content. The latter is particularly important given the central nature of chemistry to STEM fields which is reflected by the number of majors that require a minimal exposure to chemistry theory and practice. The idea of gathering international perspectives emerged from our participation in the ACS Chemical Education international committee and from hosting ACS symposia focusing upon international relations and research.To broaden perspectives of chemical education through an international lens, researchers in Australia, Turkey, Romania, Costa Rica, Singapore, the Netherlands, Greece, Slovenia, and Canada contributed chapters with a focus upon topics ranging from assessment, safety, pedagogy, metacognition, to outreach. In addition to symposium presenters, other contributors were invited based upon their knowledge of chemical education theory and practice.'--Amazon.

Information about successful National Science Foundation-sponsored Chemistry Research Experience for Undergraduates (REU) programs.

In an increasingly interconnected world, perhaps it should come as no surprise that international collaboration in science and technology research is growing at a remarkable rate. As science and technology capabilities grow around the world, U.S.-based organizations are finding that international collaborations and partnerships provide unique opportunities to enhance research and training. International research agreements can serve many purposes, but data are always involved in these collaborations. The kinds of data in play within international research agreements varies widely and may range from financial and consumer data, to Earth and space data, to population behavior and health data, to specific project-generated data?this is just a narrow set of examples of research data but illustrates the breadth of possibilities. The uses of these data are various and require accounting for the effects of data access, use, and sharing on many different parties. Cultural, legal, policy, and technical concerns are also important determinants of what can be done in the realms of maintaining privacy, confidentiality, and security, and ethics is a lens through which the issues of data, data sharing, and research agreements can be viewed as well. A workshop held on March 14-16, 2018, in Washington, DC explored the changing opportunities and risks of data management and use across disciplinary domains. The third workshop in a series, participants gathered to examine advisory principles for consideration when developing international research agreements, in the pursuit of highlighting promising practices for sustaining and enabling international research collaborations at the highest ethical level possible. The intent of the workshop was to explore, through an ethical lens, the changing opportunities and risks associated with data management and use across disciplinary domains?all within the context of international research agreements. This publication summarizes the presentations and discussions from the workshop.

Este libro está dirigido, en primera instancia, a estudiantes que se encuentran en el proceso de formulación de sus proyectos de tesis, ya sea de pregrado, maestría o doctorado. No pretende ser un texto más de metodologías de investigación, sino una guía e inspiración para la introducción al mundo de la problematización desde la construcción del problema y sus aspectos generales. Inspiración para entrar en el mundo de la construcción teórico-metodológica desde la rigurosidad de las diferentes estrategias para el desarrollo de mapas cognitivos generales, y para introducirnos al mundo de los condicionamientos de la política científica en la orientación del problema como programa de investigación o desarrollo de productos comunicativos de calidad para el mundo disciplinar. El texto presentado no es un diálogo cerrado, concluyente, acabado; por el contrario, pretende, desde la experiencia de los autores, mostrar visiones distintas frente a los diferentes diálogos posibles de la ciencia con la realidad, de la construcción de antecedentes y referentes para la construcción teórica ligada a los investigadores de las respectivas comunidades académicas, y desde el contexto condicionante de la política científica y su relación con los académicos.

The integrity of knowledge that emerges from research is based on individual and collective adherence to core values of objectivity, honesty, openness, fairness, accountability, and stewardship. Integrity in science means that the organizations in which research is conducted encourage those involved to exemplify these values in every step of the research process. Understanding the dynamics that support? or distort? practices that uphold the integrity of research by all participants ensures that the research enterprise advances knowledge. The 1992 report Responsible Science: Ensuring the Integrity of the Research Process evaluated issues related to scientific responsibility and the conduct of research. It provided a valuable service in describing and analyzing a very complicated set of issues, and has served as a crucial basis for thinking about research integrity for more than two decades. However, as experience has accumulated with various forms of research misconduct, detrimental research practices, and other forms of misconduct, as subsequent empirical research has revealed more about the nature of scientific misconduct, and because technological and social changes have altered the environment in which science is conducted, it is clear that the framework established more than two decades ago needs to be updated. Responsible Science served as a valuable benchmark to set the context for this most recent analysis and to help guide the committee's thought process. Fostering Integrity in Research identifies best practices in research and recommends practical options for discouraging and addressing research misconduct and detrimental research practices.

Research universities are critical contributors to our national research enterprise. They are the principal source of a world-class labor force and fundamental discoveries that enhance our lives and the lives of others around the world. These institutions help to create an educated citizenry capable of making informed and crucial choices as participants in a democratic society. However many are concerned that the unintended cumulative effect of federal regulations undercuts the productivity of the research enterprise and diminishes the return on the federal investment in research. Optimizing the Nation's Investment in Academic Research reviews the regulatory framework as it currently exists, considers specific regulations that have placed undue and often unanticipated burdens on the research enterprise, and reassesses the process by which these regulations are created, reviewed, and retired. This review is critical to strengthen the partnership between the federal government and research institutions, to maximize the creation of new knowledge and products, to provide for the effective training and education of the next generation of scholars and workers, and to optimize the return on the federal investment in research for the benefit of the American people.

Across a variety of disciplines, data and statistics form the backbone of knowledge. To ensure the reliability and validity of data, appropriate measures must be taken in conducting studies and reporting findings. Research Methods: Concepts, Methodologies, Tools, and Applications compiles chapters on key considerations in the management, development, and distribution of data. With its focus on both fundamental concepts and advanced topics, this multi-volume reference work will be a valuable addition to researchers, scholars, and students of science, mathematics, and engineering.

Scientific research has enabled America to remain at the forefront of global competition for commercially viable technologies and other innovations. For more than 65 years, the United States has led the world in science and technology. Discoveries from scientific research have extended our understanding of the physical and natural world, the cosmos, society, and of humans - their minds, bodies, and economic and other social interactions. Through these discoveries, science has enabled longer and healthier lives, provided for a better-educated citizenry, enhanced the national economy, and strengthened America\'s position in the global economy. At a time of budget stringency, how can we foster scientific innovation to ensure America\'s unprecedented prosperity, security, and quality of life? Although many studies have investigated the impacts of research on society, Furthering America's Research Enterprise brings to bear a fresh approach informed by a more holistic understanding of the research enterprise as a complex, dynamic system. This understanding illuminates why America's research enterprise has historically been so successful; where attention should be focused to increase the societal benefits of research investments; and how those who make decisions on the allocation of funds for scientific research can best carry out their task. This report will be of special interest to policy makers who support or manage the research enterprise, to others in public and private institutions who fund research, to scholars of the research enterprise, and to scientists and engineers who seek to better understand the many pathways through which their research benefits society.

El libro resalta la importancia que tiene la ciencia y la tecnología en la sociedad, revisa los orígenes de la inv estigación experimental, describe el llamado “método científico” y sus variaciones no ortodoxas que han contribuido también a la generación de conocimiento. Ilustra varios aspectos del quehacer de la ciencia, desde un punto de vista práctico.

Systems Biology in Cancer Research and Drug Discovery provides a unique collection of chapters, by world-class researchers, describing the use of integrated systems biology and network modeling in the cancer field where traditional tools have failed to deliver expected promise. This book touches four applications/aspects of systems biology (i) in understanding aberrant signaling in cancer (ii) in identifying biomarkers and prognostic markers especially focused on angiogenesis pathways (iii) in unwinding microRNAs complexity and (iv) in anticancer drug discovery and in clinical trial design. This book reviews the state-of-the-art knowledge and touches upon cutting edge newer and improved applications especially in the area of network modeling. It is aimed at an audience ranging from students, academics, basic researcher and clinicians in cancer research. This book is expected to benefit the field of translational cancer medicine by bridging the gap between basic researchers, computational biologists and clinicians who have one ultimate goal and that is to defeat cancer.

Understanding what research is all about is a necessary prerequisite for any researcher: This includes the knowledge about knowledge creation and also about the academic environment – a very special biotope. To succeed in the long term, it is important to plan one's own career: Based on planning, aspirations and competencies and on the ability to develop one's skills – including planning skills. Becoming an acknowledged researcher is based on two pillars: On the one hand, one must become a renowned person and on the other, the impact that one makes must become known. This impact is made in three ways: Communication and presentation, written publications and knowledge transfer

This book is intended to assist scientists in planning and carrying out research. However, unlike most books dealing with the scientific method, which stress its philosophical rationale, this book is written from a practical standpoint. It contains a rich legacy of principles, maxims, procedures and general techniques that have been found useful in a wide range of sciences.While much of the material is accessible to a college senior, the book is more specifically intended for students beginning research and for those more experienced research workers who wish an introduction to various topics not included in their training. Mathematical treatments have been kept as elementary as possible to make the book accessible to a broad range of scientists. Its principles and rules can be absorbed to advantage by workers in such diverse fields as agriculture, industrial and military research, biology and medicine as well as in the physical sciences.After discussing such basics as the choice and statement of a research problem and elementary scientific method, Professor Wilson offers lucid and helpful discussions of the design of experiments and apparatus, execution of experiments, analysis of experimental data, errors of measurement, numerical computation and other topics. A final chapter treats the publication of research results.Although no book can substitute for actual scientific work, this highly pragmatic compendium contains much knowledge gained the hard way through years of actual practice. Moreover, the author has illustrated the ideas discussed with as many actual examples as possible. In addition, he has included notes and references at the end of each chapter to enable readers to investigate particular topics more deeply. E. Bright Wilson, Jr. is a distinguished scientist and educator whose previous works include Molecular Vibrations and Introduction to Quantum Mechanics (with Linus Pauling). In the present book, he has distilled years of experiment and experience into an indispensable broad-based guide for any scientific worker tackling a research problem.

Many voluntary health organizations fund translational research. An increasing number of these organizations are looking at venture philanthropy as a critical way to advance their missions of helping patients and working to cure disease. A wide range of participants gathered on October 3, 2008 at the Beckman Center of the National Academies of Science for a workshop titled'Venture Philanthropy Strategies Used by Patient Organizations to Support Translational Research.'Participants with experience in venture philanthropy shared their experiences and lessons learned in order to improve efficiency and effectiveness in translational research.

The National Children's Study (NCS) is planned to be the largest long-term study of environmental and genetic effects on children's health ever conducted in the United States. It proposes to examine the effects of environmental influences on the health and development of approximately 100,000 children across the United States, following them from before birth until age 21. By archiving all of the data collected, the NCS is intended to provide a valuable resource for analyses conducted many years into the future. This book evaluates the research plan for the NCS, by assessing the scientific rigor of the study and the extent to which it is being carried out with methods, measures, and collection of data and specimens to maximize the scientific yield of the study. The book concludes that if the NCS is conducted as proposed, the database derived from the study should be valuable for investigating hypotheses described in the research plan as well as additional hypotheses that will evolve. Nevertheless, there are important weaknesses and shortcomings in the research plan that diminish the study's expected value below what it might be.

Facilitating Interdisciplinary Research examines current interdisciplinary research efforts and recommends ways to stimulate and support such research. Advances in science and engineering increasingly require the collaboration of scholars from various fields. This shift is driven by the need to address complex problems that cut across traditional disciplines, and the capacity of new technologies to both transform existing disciplines and generate new ones. At the same time, however, interdisciplinary research can be impeded by policies on hiring, promotion, tenure, proposal review, and resource allocation that favor traditional disciplines. This report identifies steps that researchers, teachers, students, institutions, funding organizations, and disciplinary societies can take to more effectively conduct, facilitate, and evaluate interdisciplinary research programs and projects. Throughout the report key concepts are illustrated with case studies and results of the committee's surveys of individual researchers and university provosts.

Volume II of Responsible Science includes background papers and selected institutional reports, policies, and procedures that were used to develop Volume I. Topics discussed include traditions of mentorship in science; data handling practices in the biological sciences; academic policies and standards governing the conduct of research practices; congressional interest in issues of misconduct and integrity in science; the regulatory experience of human subjects research; and the roles of scientific and engineering societies in fostering research integrity. The panel also considers numerous institutional policy statements adopted by research universities and professional societies that address different aspects of misconduct or integrity in science. These statements have been selected to convey the diverse approaches for addressing such matters within research institutions.

The workshop summary provides guidance for researchers applying to the National Science Foundation (NSF) for funding. New NSF guidelines require applications to address the'broader impact'of the proposed research. Presentations at the workshop provided ideas on how to do this by engaging in undergraduate education, K-12 education or public outreach via museums or journalists. The workshop summary discusses issues to consider in choosing an appropriate collaborator for the education or outreach component of the project and how to build in methods for assessing the success of the project. It also provides lists of resources helpful in writing education proposals and discusses the similarities between research in education and scientific research.

The rapid evolution of information technology (IT) is transforming our society and its institutions. For the most knowledge-intensive entities of all, research universities, profound IT-related challenges and opportunities will emerge in the next decade or so. Yet, there is a sense that some of the most significant issues are not well understood by academic administrators, faculty, and those who support or depend on the institution's activities. This study identifies those information technologies likely to evolve in the near term (a decade or less) that could ultimately have a major impact on the research university. It also examines the possible implications of these technologies for the research university?its activities (learning, research, outreach) and its organization, management, and financing?and for the broader higher education enterprise. The authoring committee urges research universities and their constituents to develop new strategies to ensure that they survive and thrive in the digital age.

Over three hundred years ago, Galileo is reported to have said,'The laws of nature are written in the language of mathematics.'Often mathematics and science go hand in hand, with one helping develop and improve the other. Discoveries in science, for example, open up new advances in statistics, computer science, operations research, and pure and applied mathematics which in turn enabled new practical technologies and advanced entirely new frontiers of science. Despite the interdependency that exists between these two disciplines, cooperation and collaboration between mathematical scientists and scientists have only occurred by chance. To encourage new collaboration between the mathematical sciences and other fields and to sustain present collaboration, the National Research Council (NRC) formed a committee representing a broad cross-section of scientists from academia, federal government laboratories, and industry. The goal of the committee was to examine the mechanisms for strengthening interdisciplinary research between mathematical sciences and the sciences, with a strong focus on suggesting the most effective mechanisms of collaboration. Strengthening the Linkages Between the Sciences and the Mathematical Sciences provides the findings and recommendations of the committee as well as case studies of cross-discipline collaboration, the workshop agenda, and federal agencies that provide funding for such collaboration.

The third workshop of the Chemical Sciences Roundtable, Research Teams and Partnerships was held in Irvine, California, on May 2-3, 1999. The presentations and discussions at the workshop considered the current status of research partnerships in the chemical sciences and methods to improve the ability to form and maximize such collaborations. This volume presents the results of that workshop.

An anecdotal guide for the perplexed new investigator as well as a refreshing resource for the old pro, covering everything from valuable personality traits for an investigator to social factors conducive to scientific work.Santiago Ramón y Cajal was a mythic figure in science. Hailed as the father of modern anatomy and neurobiology, he was largely responsible for the modern conception of the brain. His groundbreaking works were New Ideas on the Structure of the Nervous System and Histology of the Nervous System in Man and Vertebrates. In addition to leaving a legacy of unparalleled scientific research, Cajal sought to educate the novice scientist about how science was done and how he thought it should be done. This recently rediscovered classic, first published in 1897, is an anecdotal guide for the perplexed new investigator as well as a refreshing resource for the old pro.Cajal was a pragmatist, aware of the pitfalls of being too idealistic—and he had a sense of humor, particularly evident in his diagnoses of various stereotypes of eccentric scientists. The book covers everything from valuable personality traits for an investigator to social factors conducive to scientific work.

A Positron Named Priscilla is a book of wonder, offering a fascinating, readable overview of cutting-edge investigations by many of today's leading young scientists. Written for anyone who loves science, this volume reports on some of the most exciting recent discoveries and advances in fields from astronomy to molecular biology. This new book is from one of the world's most prestigious scientific institutions, the National Academy of Sciences. The Academy provides an annual forum for the brightest young investigators to exchange ideas across disciplines?an exchange that was the spark for A Positron Named Priscilla. Each chapter is authored by a popular science writer who offers helpful historical perspectives, clear and well-illustrated explanations of current scientific thinking, and previews of future developments. The scope of topics and breadth of discussion ensure interest at all levels. Topics include: Planetary science and the compelling glimpse through the clouded atmosphere of Venus afforded by the spacecraft Magellan. Astrophysics and the emergence of helioseismology, a new field that allows researchers to probe the interior workings of the sun. Biology and what we have learned about DNA in the 40 years since its discovery; our current understanding of protein molecules, the'building blocks'of living systems; and the high-tech search for answers to the AIDS epidemic. Physics and our new-found ability to move and manipulate individual atoms on a surface. The book also tells the remarkable story of'buckyballs,'or buckminsterfullerenes, a form of carbon discovered only a few years ago, that have the potential to be used in a variety of important applications, from superconductivity to nanotechnology. Mathematics and the rise of'wavelet'theory, and how mathematicians are applying it in sometimes startling ways, from assisting the FBI with fingerprint storage to coaxing the secrets from a battered recording of Brahms playing the piano. Geosciences and the search for'clocks in the earth'to make life-saving earthquake predictions. A Positron Named Priscilla is a'must'read for anyone who wants to keep up with a broad range of scientific endeavor.

Published by the Division of states relations, National research council.

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Responsible Science is a comprehensive review of factors that influence the integrity of the research process. Volume I examines reports on the incidence of misconduct in science and reviews institutional and governmental efforts to handle cases of misconduct. The result of a two-year study by a panel of experts convened by the National Academy of Sciences, this book critically analyzes the impact of today's research environment on the traditional checks and balances that foster integrity in science. Responsible Science is a provocative examination of the role of educational efforts; research guidelines; and the contributions of individual scientists, mentors, and institutional officials in encouraging responsible research practices.

A symposium titled'Serving Science and Society into the New Millennium: The Legacy and the Promise'was held at the National Academy of Sciences on May 21-22, 1997. Speakers and panelists discussed the accomplishments and future of DOE's Biological and Environmental Research (BER) program. They also discussed a variety of multidisciplinary research activities, such as developing advanced medical diagnostic tools and treatments for human disease; assessing the health effects of radiation; tracking the regional and global movement of energy-related pollutants, and establishing the first human genome program. At the end of the symposium, 13 scientists who have been associated with the BER program and who have made significant contributions to its advancements and progress were honored. The proceedings volume includes the presentations made at the symposium.