Atomic and Molecular Spectroscopy is a wide-ranging review of modern spectroscopic techniques such as X-ray, photoelectron, optical and laser spectroscopy, and radiofrequency and microwave techniques. On the fundamental side it focuses on physical principles and the impact of spectroscopy on our understanding of the building blocks of matter, while in the area of applications particular attention is given to those in chemical analysis, photochemistry, surface characterisation, environmental and medical diagnostics, remote sensing and astrophyscis. The Fourth Edition also provides the reader with an update on laser cooling and trapping, Bose-Einstein condensation, ultra-fast spectroscopy, high-power laser/matter interaction, satellite-based astronomy and spectroscopic aspects of laser medicine. Important references are also brought up to date.

An overview of modern spectroscopic methods, intended to serve as a textbook for a course on the subject for senior undergraduate or graduate students in physics. It should also be useful for students of astrophysics and chemistry. Assumes a basic knowledge of quantum mechanics and atomic physics.

Sune Svanberg is a professor of physics and head of the Atomic Physics Division of the Lund Institute of Technology. He is also the director of the multi-disciplinary Lund Laser Centre at the Lund University. He has extensive research experience in radiofrequency, optical and laser spectroscopy, and in the use of lasers in combustion diagnostics, environmental monitoring, and medical diagnostics and treatment, and is thus in good position to cover the vast scope of the book. Sune Svanberg has coauthored almost 500 papers and trained a large number or undergraduates and graduates in basic and applied atomic and molecular spectroscopy. He served extensively in international organisations and scientific advisory committees. He is a member of five academies and holds three honorary doctor degrees.

The Yearbook on Space Policy aims to be the reference publication analysing space policy developments. Each year it presents issues and trends in space policy and the space sector as a whole. Its scope is global and its perspective is European. The Yearbook also links space policy with other policy areas. It highlights specific events and issues, and provides useful insights, data and information on space activities.

The Yearbook on Space Policy is edited by the European Space Policy Institute (ESPI) based in Vienna, Austria. It combines in-house research and contributions of members of the European Space Policy Research and Academic Network (ESPRAN), coordinated by ESPI.

The Yearbook is addressed to decision makers in governments and agencies, professionals in industry as well as the service sectors, researchers and scientists and also to the broader public interested in the field.

Content Level » Research

Keywords » European politics – international relations – space policy – space program

Related subjects » Space Exploration and Astronautics

Contents
PART 1 THE YEAR IN SPACE 2007/2008

European space activities in the global

Developments in space policies, programmes and technologies throughout the world and in Europe.

PART 2 VIEWS AND INSIGHTS

1. Space in the Treaty of Lisbon

2. Galileo and the issue of public funding

3. Europe.s approach to Space Situational Awareness: A proposal

4. The European Union proposal for a Code of Conduct on Outer Space Activities

5. International cooperation in space exploration: Lessons from the past and perspectives for the future

6. Exploration – How science finds its way in Europe

7. The political dimension of Europe’s new human spaceflight capabilities

8. Space technologies and the export control system in the Unites States: Prospects for meaningful reform

9. Space for resources

10. The United Nations and outer space: Celebrating 50 years of space achievements

PART 3 FACTS AND FIGURES

1. Chronology: July 2007-June 2008

2. Country profiles

3. Bibliography of space policy publications. July 2007-June 2008

Medical students, junior doctors in training, non-neurological specialists and general practitioners will all be faced with patients exhibiting neurological symptoms at some point in their career. This book describes a number of simple approaches to examining patients with common neurological problems seen in both the clinical setting, and in college examinations such as the MRCP here in the UK and the FRACP in Australia. The neurological examination is different from the examination of most other body systems in one important respect – there is no single approach which is appropriate for all cases. This poses a particular problem to the inexperienced clinician – how to tailor their examination to the problem in hand. In this book, the reader will find a sensible and practical approach to what most non-neurologists to find daunting, and hints on the most useful things to do when assessing a patient with neurological signs. The second edition will include general updates throughout and completely new chapters on involuntary movements and apraxia. It will be accompanied by a companion CD of video clips illustrating much of what is dealt with in the text, and allowing improved coverage of complex topics such as speech, eye movements and gait.

Keeping mathematical prerequisites to a minimum, this undergraduate-level text stimulates students’ intuitive understanding of topology while avoiding the more difficult subtleties and technicalities. Its focus is the method of spherical modifications and the study of critical points of functions on manifolds.

Written in a tutorial style by some of the key practitioners in the field, this book provides a comprehensive account of charged particle imaging and describes many of its recent applications. The technique has revolutionized experimental studies of photodissociation and bimolecular collisions over the past couple of decades. It is of primary interest to researchers and graduate students working in chemical and molecular physics requiring an overview of the subject as well as ideas for future experiments.

Remember the first time you planted a seed and watched it sprout? Or explored how a magnet attracted a nail? If these questions bring back memories of joy and wonder, then you understand the idea behind inquiry-based science–an approach to science education that challenges children to ask questions, solve problems, and develop scientific skills as well as gain knowledge. Inquiry-based science is based on research and experience, both of which confirm that children learn science best when they engage in hands-on science activities rather than read from a textbook.
The recent National Science Education Standards prepared by the National Research Council call for a revolution in science education. They stress that the science taught must be based on active inquiry and that science should become a core activity in every grade, starting in kindergarten. This easy-to-read and practical book shows how to bring about the changes recommended in the standards. It provides guidelines for planning and implementing an inquiry-based science program in any school district.
The book is divided into three parts. “Building a Foundation for Change,” presents a rationale for inquiry-based science and describes how teaching through inquiry supports the way children naturally learn. It concludes with basic guidelines for planning a program.

What activities might a teacher use to help children explore the life cycle of butterflies? What does a science teacher need to conduct a “leaf safari” for students? Where can children safely enjoy hands-on experience with life in an estuary? Selecting resources to teach elementary school science can be confusing and difficult, but few decisions have greater impact on the effectiveness of science teaching.
Educators will find a wealth of information and expert guidance to meet this need in Resources for Teaching Elementary School Science. A completely revised edition of the best-selling resource guide Science for Children: Resources for Teachers, this new book is an annotated guide to hands-on, inquiry-centered curriculum materials and sources of help in teaching science from kindergarten through sixth grade. (Companion volumes for middle and high school are planned.)
The guide annotates about 350 curriculum packages, describing the activities involved and what students learn. Each annotation lists recommended grade levels, accompanying materials and kits or suggested equipment
, and ordering information.
These 400 entries were reviewed by both educators and scientists to ensure that they are accurate and current and offer students the opportunity to:

* Ask questions and find their own answers.
* Experiment productively.
* Develop patience, persistence, and confidence in their own ability to solve real problems.

The entries in the curriculum section are grouped by scientific area–Life Science, Earth Science, Physical Science, and Multidisciplinary and Applied Science–and by type–core materials, supplementary materials, and science activity books. Additionally, a section of references for teachers provides annotated listings of books about science and teaching, directories and guides to science trade books, and magazines that will help teachers enhance their students’ science education.
Resources for Teaching Elementary School Science also lists by region and state about 600 science centers, museums, and zoos where teachers can take students for interactive science experiences. Annotations highlight almost 300 facilities that make significant efforts to help teachers.
Another section describes more than 100 organizations from which teachers can obtain more resources. And a section on publishers and suppliers give names and addresses of sources for materials.
The guide will be invaluable to teachers, principals, administrators, teacher trainers, science curriculum specialists, and advocates of hands-on science teaching, and it will be of interest to parent-teacher organizations and parents

In recent years governments and scientific establishments have been encouraging the development of professional and popular science communication. This book critically examines the origin of this drive to improve communication, and discusses why simply improving scientists’ communication skills and understanding of their audiences may not be enough. Written in an engaging style, and avoiding specialist jargon, this book provides an insight into science’s place in society by looking at science communication in three contexts: the professional patterns of communication among scientists, popular communication to the public, and science in literature and drama. This three-part framework shows how historical and cultural factors operate in today’s complex communication landscape, and should be actively considered when designing and evaluating science communication. Ideal for students and practitioners in science, engineering and medicine, this book provides a better understanding of the culture, sociology and mechanics of professional and popular communication.

• Avoids specialist jargon where possible, so the book can be understood by non-specialists • Chapters are self-contained, so a particular interest can be addressed by reading a relatively brief chapter • Each chapter begins with a lively scenario designed to draw readers in by offering stimulating introductions to each topic

Contents
Introduction: what this book is about and why you might want to read it; Prologue: Three orphans share a common paternity: professional science communication, popular journalism, and literary fiction are not as separate as they seem; Part I. Professional Science Communication: 1. Spreading the word: the endless struggle to publish professional science; 2. Walk like an Egyptian: the alien feeling of professional science writing; 3. The future’s bright? Professional science communication in the age of the internet; 4. Counting the horse’s teeth: professional standards in science’s barter economy; 5. Separating the wheat from the chaff: peer review on trial; Part II. Science for the Public: What Science Do People Need and How Might They Get It?: 6. The Public Understanding of Science (PUS) movement and its problems; 7. Public engagement with science and technology (PEST): fine principle, difficult practice; 8. Citizen scientists? Democratic input into science policy; 9. Teaching and learning science in schools: implications for popular science communication; Part III. Popular Science Communication: The Press and Broadcasting: 10. What every scientist should know about mass media; 11. What every scientist should know about journalists; 12. The influence of new media; 13. How the media represents science; 14. How should science journalists behave?; Part IV. The Origins of Science in Cultural Context: Five Historic Dramas: 15. A terrible storm in Wittenberg: natural knowledge through sorcery and evil; 16. A terrible storm in the Mediterranean: controlling nature with white magic and religion; 17. Thieving magpies: the subtle art of false projecting; 18. Foolish virtuosi: natural philosophy emerges as a distinct discipline but many cannot take it seriously; 19. Is scientific knowledge ‘true’ or should it just be ‘truthfully’ deployed?; Part V. Science in Literature: 20. Science and the Gothic: the three big nineteenth century monster stories; 21. Science fiction: serious literature of ideas or low-grade entertainment?; 22. Science in British literary fiction; 23. Science on stage: the politics and ethics of science in cultural and educational contexts.

Reviews
‘… [an] interesting and important book.’ Rachel Zelkowitz, Science News online

‘This well-written and well-organised book, illustrated throughout with real examples, is based on the author’s postgraduate science communication course at Imperial College London. … the chapter entitled ‘What every scientist should know about journalists’ should be compulsory reading for scientists.’ Chemistry World

‘Nick’s approach enables anyone to benefit from the book, regardless of whether or not they have experience of disseminating knowledge. … there is no jargon or complicated terminology in the book.’ Reporter, Imperial College London

Ecologists study the connections living things have with one another and their surroundings. John Woodward did some of the first ecology experiments in 1699 and figured out algae bloom. Aldo Leopolds work led to the Endangered Species Act to protect plants and animals from becoming extinct, and he led the U.S. government to begin considering the environmental impact of land use. Eugene Odum was the first to see Earth as a set of interlocking ecosystems. His work led to laws to protect wetlands.

This book summarizes, and highlights main messages from, a February 2007 Global Forum convened by the World Bank to discuss strategies, programs, and policies for building science, technology and innovation (STI) capacity to promote sustainable growth and poverty reduction in developing countries.