This is a long-overdue volume dedicated to space trajectory optimization. Interest in the subject has grown, as space missions of increasing levels of sophistication, complexity, and scientific return - hardly imaginable in the 1960s - have been designed and flown. Although the basic tools of optimization theory remain an accepted canon, there has been a revolution in the manner in which they are applied and in the development of numerical optimization. This volume purposely includes a variety of both analytical and numerical approaches to trajectory optimization. The choice of authors has been guided by the editor's intention to assemble the most expert and active researchers in the various specialities presented. The authors were given considerable freedom to choose their subjects, and although this may yield a somewhat eclectic volume, it also yields chapters written with palpable enthusiasm and relevance to contemporary problems.

The purpose and motivation of these lectures can be summarized in the following two questions: * What is the ground state (and its properties) of dense matter? * What is the matter composition of a compact star? The two questions are, of course, strongly coupled to each other. Depending on your point of view, you can either consider the ?rst as the main question and the second as a consequence or application of the ?rst, or vice versa. If you are interested in fundamental questions in particle physics you may take the former point of view: you ask the question what happens to matter if you squeeze it more and more. This leads to fundamental questions because at some level of suf?cient squeezing you expect to reach the point where the fundamental degrees of freedom and their interactions become important. That is, at some point you will reach a form of matter where not molecules or atoms, but the constituents of an atom, namely neutrons, protons, and electrons, are the relevant degrees of freedom.

This book provides a concise but broad overview of the engineering, science and flight history of planetary landers and atmospheric entry probes designed to explore the atmospheres and surfaces of other planets. It covers engineering aspects specific to such vehicles which are not usually treated in traditional spacecraft engineering texts. Examples are drawn from over thirty different lander and entry probe designs that have been used for lunar and planetary missions since the early 1960s. The authors provide detailed illustrations of many vehicle designs from different international space programs, and give basic information on their missions and payloads, irrespective of the mission's success or failure. Several missions are discussed in more detail to demonstrate the broad range of the challenges involved and the solutions implemented. This will form an important reference for professionals, academic researchers and graduate students involved in planetary science, aerospace engineering and space mission development.

Today's astronauts require many different abilities. They must not only be expert in performing flight simulations but must also be proficient in such dissimilar subjects as photography, thermodynamics, electrical repairs, flight procedures, oceanography, public affairs, and geology. In Prepare for Launch, the author introduces the technologies and myriad activities that constitute or affect astronaut training, such as the part-task trainers, emergency procedures, the fixed-based and motion-based simulators, virtual environment training, and the demands of training in the Weightless Environment Training Facility. With plans to return to the Moon and future missions to Mars, the current selection criteria and training are very different from those used for short duration mission Space Shuttle crews. Dr. Erik Seedhouse in this book focuses on how astronaut candidates are taught to cope with different needs and environments (for example, hibernation, artificial gravity, and bioethics issues) and also includes brief discussions of the astronaut application and selection process.

The expansion of our civilization to the Moon and beyond is now within our reach, technically, intellectually and financially. Apollo was not our last foray into the Solar System and already science fiction is finding it difficult to keep ahead of science and engineering fact. In 1807, few people anticipated the Wright Brothers' human flight a hundred years later. In 1869, only science fiction writers would have suggested landing people on the Moon in 1969. Similarly, other great inventions in mechanics and in electronics were not envisaged and therefore the technologies to which those inventions gave birth were only foreseen by a tiny group of visionaries.

The Cambridge Dictionary of Space Technology provides a comprehensive source of reference to the most important aspects of this fast-developing field, from basic concepts to advanced applications. With some 2300 entries, it lists the fundamental terms of the area and includes a selection of historical and highly specific entries adding context and depth. The unprecedented breadth of coverage ensures that there are entries on all major subject areas. While the emphasis is on defining the meaning of a word or phrase, entries have been written with the intention of enhancing the understanding of the subject, both for the practising specialist and the interested layman. To assist the reader in research on a given topic, related entries are highlighted in the text and other important entries are cross-referenced. The Cambridge Dictionary of Space Technology will be indispensable to anyone with an interest in space activity.

The world s most populous nation views space as an asset, not only from a technological and commercial perspective, but also from a political and militaristic one. The repercussions of this ideology already extend far beyond Washington. China vs. United States offers a glimpse of future Chinese aspirations in space and the politico-militaristic implications of a looming space race, and explains why an interplanetary spaceship called the Tsien Hsue Shen might one day travel to the outer planets.

Until China successfully launched taikonauts into orbit, China s space program had attracted little international attention. The book opens with an analysis of the short fifteen-year history of the China National Space Administration and its long list of accomplishments. Chapter 2 assesses Sino-U.S. technological and commercial interests in space and their implications in fuelling a potential space race. The national security objectives of the U.S. and China are examined, showing how their intentions are increasingly leading to the military integration of space technologies. Chapter 3 describes China s anxieties about U.S. space power, its obsession with national prestige, and how manned spaceflight is viewed as a crucial element to sustain the legitimacy of the Communist Party. China is currently focusing on similar goals to those of NASA s Constellation Program - lunar and Mars exploration. The following chapter examines the ambitious plans of both nations, and evaluates whether China s bold goal of landing taikonauts on the Moon by 2020 is matched by the necessary capability.

In Chapter 5 Dr Seedhouse describes the space hardware being developed by the U.S. and China and the strides taken by China in its attempt to match the technological capability of the U.S. The following chapter provides an overview of China s introductory manned spaceflights and shows how, despite a lack of experience, the Chinese may soon be in a position to challenge the U.S. in a race to the Moon. In Chapter 7, the author discusses how China s manned space program can boost the country s international prestige and also examines the notion of manned spaceflight as a risky way to boost national status and the potential implications of a disaster akin to Challenger and Columbia.

Chapter 8 addresses the questions of alliances and cooperation between NASA and ESA and China and Russia, or, alternatively, the U.S. and China pursuing their space ambitions alone. The implications of each way forward in the context of a looming competition in space are considered. Chapter 9 discusses the repercussions of a Chinese space program overtaking NASA and whether the U.S. has the political will to advance its own space program to prevent its position as sole space superpower being usurped. Given the mutual suspicions existing in both countries, it is perhaps inevitable that Washington and Beijing are on a collision course in space. The final chapter describes the implications of such a confrontation and discusses what, if anything, can be done to avert a new space race.

Paolo Ulivi and David Harland provide in "Robotic Exploration of the Solar System" a detailed history of unmanned missions of exploration of our Solar System As in their previous book Lunar Exploration, the subject will be treated wherever possible from an engineering and scientific standpoint. Technical descriptions of the spacecraft, of their mission designs and of instrumentations will be provided. Scientific results will be discussed in considerable depth, together with details of mission management.

The books will cover missions from the 1950s until the present day, and some of the latest missions and their results will appear in a popular science book for the first time. The authors will also cover many unflown projects, providing an indication of the ideas that proved to be unfulfilled at the time but which may still be proven and useful in the future.

Just like Lunar Exploration, these books will use sources only recently made available on the Soviet space program, in addition to some obscure and rarely used references on the European space program.

The project will deliver three volumes totaling over 1000 pages that will provide comprehensive coverage of the topic with thousands of references to the professional literature that should make it the 'first port of call' for people seeking information on the topic.

This book documents how a complex branch of science was started and encouraged to grow both nationally and internationally, as seen through the eyes of two authors who together played a major role in many of the events that they describe. It traces the beginning and subsequent development of a space science programme for British scientists from the early 1950s to the early 1980s, and gives the scientific, technological and administrative background whilst highlighting some of the outstanding successes of the programme. Cooperation with NASA in the United States is described in some detail, and the part played by Britain in establishing European cooperation in space science is outlined, as is the more modest cooperative programme with Commonwealth countries. This historical account will be of interest to all space scientists, geophysicists and astronomers, as well as to those concerned with the administration and organisation of large, co-operative scientific programmes.

Enter the genre-defining worlds created by five masters of speculative fiction in The Science Fiction Puzzle Book. Featuring the prolific works of Isaac Asimov, Ray Bradbury, Arthur C. Clarke, Robert A. Heinlein and Ursula K. Le Guin, become part of their futuristic, dystopian and world-building adventures with this series of enigmatic puzzles. Containing more than 100 enigmas, riddles and conundrums, all taking inspiration from their extraordinary stories and vivid worlds, explore new galaxies and new technologies while solving challenges all written in the distinctive and brilliant styles of these five stars of science fiction. 'A knotty puzzle may hold up a scientist for a century' – Isaac Asimov, The Robots of Dawn.

Astronauts, cosmonauts, and a very limited number of people have experienced eating space food due to the unique processing and packaging required for space travel. This book allows anyone with a normal kitchen to prepare space food. Since some of the processing such as freeze dehydration, and packaging cannot be accomplished in the normal kitchen, many of the recipes will not produce the food that would be launched in space, but will prepare food similar to what the astronauts would eat after they had added the water to the food in space. Many of the space foods are prepared to the point of ready to eat, and then frozen and freeze dried. Food preparation in this book stops at the point of ready to eat before the freezing and dehydrating takes place. Recipes in this book are extracted from the NASA food specifications and modified for preparation in a normal kitchen. The book will contain the following chapters: Introduction, Appetizers, Beverages, Bread and Tortillas, Cookies, Sandwiches, Desserts, Main Dishes, Soups and Salads, Vegetables, and Future Space Foods. Interesting tidbits of space food history will be spread throughout the book. Examples like; did NASA invent Tang?, who was the first person to eat in space?, the Gemini sandwich fiasco, why there is no alcohol in U.S. space food systems, astronauts favorite food, etc.

The definitive reference for space engineers on rendezvous and docking/berthing (RVD/B) related issues, this book answers key questions such as: How does the docking vehicle accurately approach the target spacecraft? What technology is needed aboard the spacecraft to perform automatic rendezvous and docking, and what systems are required by ground control to supervise this process? How can the proper functioning of all rendezvous-related equipment, systems and operations be verified before launch? The book provides an overview of the major issues governing approach and mating strategies, and system concepts for rendezvous and docking/berthing. These issues are described and explained such that aerospace engineers, students and even newcomers to the field can acquire a basic understanding of RVD/B. The author would like to extend his thanks to Dr Shufan Wu, GNC specialist and translator of the book's Chinese edition, for his help in the compilation of these important errata.

The subject of wave-particle interactions occurring in space plasmas has developed strongly, both observationally and theoretically, since the discovery of the Van Allen radiation belts of charged particles trapped in the Earth s magnetosphere over forty years ago. These wave-particle interactions are recognized today as being a most important research topic in space plasma physics. This is the first book to provide a full and systematic description of the physical theory of whistler and Alfv n cyclotron masers acting in planetary magnetospheres, and in the Sun s outer atmosphere. It addresses current research topics by examining significant problems in the subject. It gives sufficient detail on the topic that readers use to apply the methods presented to new problems, helping them with their own research. This book is a valuable reference for researchers and graduate students working in space science, solar-terrestrial physics, plasma physics, and planetary sciences.

As humans continue to degrade and destroy our planet's resources, leading to predictions of total ecological collapse, some (such as the entrepreneur Elon Musk) now suggest that a human colony elsewhere may be our species' best hope for survival. Adam Morton examines extra-terrestrial colonization plans with a critical eye. He makes a strong case for colonization - just not by human beings. Humans live relatively short lives and, to survive, require large amounts of food and water, very specific climatic conditions and an oxygen-rich atmosphere. We can create colonists that have none of these shortcomings. Reflecting compassionately on the nature of existence, Morton argues that we should treat the end of the human race in the same way that we treat our own deaths: as something sad but ultimately inevitable. The earth will perish one day, and, in the end, we should be concerned more with securing the future of intelligent beings than with the preservation of our species, which represents but a nanosecond in the history of our solar system.

Mounting pressure in the early 1960s from the National Academy of Sciences (NAS) to study ways of expanding the role of astronauts to conduct science on future space missions led to NASA's conclusion that flying scientifically trained crewmembers would generate greater returns from each mission.

The Soviet-American race to land the first man on the Moon was a technical challenge unlike anything in modern human history. BBC Aerospace Correspondent Reginald Turnill covered the story, and his reports were heard and seen by millions worldwide. With unparalleled access to the politicians, scientists, and technicians involved in the race to the Moon, Turnill knew all the early astronauts--Alan Shepard, John Glenn, Neil Armstrong, Buzz Aldrin--as they pioneered the techniques that made the Moon landings possible. He became a friend of Dr. Wernher von Braun, the German rocket pioneer and mastermind behind the technology. Turnill's unique eyewitness account of one of the most thrilling adventures of the twentieth century is clearly written and is packed with action and drama, making this a fascinating read for all those interested in the story of the race to the Moon. Reginald Turnill started work in Fleet Street at the age of 15, and by 19 he was covering the national news as a Press Association staff reporter. After joining the BBC in 1956 he covered the launch of Sputnik 1 and found it so exciting that he made space reporting his speciality. As the BBC Aerospace Correspondent, Turnill spent the rest of his career covering all the manned space missions as well as planetary missions like Mariner, Pioneer, Viking, and Voyager. Since leaving the BBC staff, Turnill has continued to broadcast and write on space, and he created the first spaceflight directory. Turnill is the only non-American to have been presented with NASA's Chroniclers Award for contributions to public understanding of the space program.

This book provides an informative account of the design of instruments used in rockets and spacecraft. The volume begins with a chapter introducing the basic principles of designing for the space environment. Following chapters discuss mechanical, structural, thermal and electronic design including the problems that are frequently encountered in the testing and verification of spacecraft subsystems. Important topics are described, including stress analysis, multilayer insulation, two-dimensional sensor systems, mechanisms, the structure of space optics, and project management and control. A final chapter looks towards future developments of space instrument design and addresses issues arising from financial constraints. The book contains lists of symbols, acronyms and units and a comprehensive reference list. Worked examples are found throughout the text. This volume is suitable for researchers and engineers in spacecraft and space instrument design. It will also be valuable to graduate students of physics, space science, spacecraft engineering and astronautics.

H. BALTSCHEFFSKYChairman Department of Biochemistry and Biophysics, Arrhenius Laboratories, Stockholm University, S-106 91 Stockholm, Sweden. Professor Stanley Miller, Professor K. R. Srinivasan, Organizers and Sponsors of this Conference, Ladies and Gentlemen; WearegettingreadyfortheAbdusSalamLecture, honoringtwomostdistinguishedsci- tists. Bothhaveverysigni?cantlycontributedtotherapidgrowthofthesphereoffun- mentalknowledgeinthesecondhalfofthetwentiethcentury. Abdus Salam, theoreticalphysicist, NobelPrizewinner, creatorandlongtimeleader of The Abdus Salam Center of Theoretical Physics. With his active interest in the origin oflifeheplayedaleadingroleininstigatingtheseconferencesonChemicalEvolutionand theOriginofLifehereinTrieste, whichstillareofsuchprimaryimportanceinthis?eld. Heleftthisworldin1996. And Stanley Miller, whomostgenerously, astheAbdusSalamLecturer, isgoingto giveushis"Recollectionsofthebeginningofchemicalevolutionexperiments" DearStanley, itisagreatprivilege, andindeedapleasuretointroduceyou. Thisisina wayaquiteeasytask, becauseweallalreadyknowthat"theMillerexperiment,"whichis mostappropriatelyplacedinthetitleofthisconference, in1953, exactly50yearsago, was amajorbreakthrough, openingupanewresearch?eldwith, andfor, rationalandadvanced chemicalexperimentationonthemolecularoriginoflife. Itwouldtaketoomuchtimetotrytodescribehereyourscienti?ccarrier, yourprices, yourPresidencyofISSOLandyourmanyothersuccesses. SoIratherwillendthisint- ductionwithacoupleofpersonalrecollections. First I would like to combine something of Abdus Salam and Stanley Miller. Abdus Salamgavethevery?rstinvitedlectureoftheUniversityofStockholmInternationalL- turesonHuman, GlobalandUniversalProblems, in1975. And10yearslater, atLidingo ] closetoStockholm, StanleyMillergavetheopeninglectureofaconferenceontheMol- ularEvolutionofLife. OnapictureItook, asaco-arrangeroftheseevents, Stanleyisseen approachinginhisusual, modestway, morefocussedonscienti?cdiscussionthanonthe camera. Last but not least, I shall tell you the true story about when we learned that Stanley isanenthusiasticenvironmentalist, inthebestsenseoftheword. About25yearsago, in Stockholm, Stanley, my wife and I strolled in the King's Garden. Its elmtrees were full 7 J. Seckbach et al. (eds. ), Life in the Universe,7-8. C 2004 Kluwer Academic Publishers. Printed in the Netherlands. 8 of young people who, some even spending nights in the trees, prevented the authorities from removing the elmtrees, by ax and saw. Also Stanley signed a petition to save the elmtrees-andtheyweresaved Stanley, I believe that your greatness as a scientist and as a friend must be linked to the many facets of your wonderful personality. We much look forward to your lecture. THE BEGINNING OF CHEMICAL EVOLUTION EXPERIMENTS Recollections and Perspectives 1 2 3 S. L. MILLER, J. L. BADA, and A."

Berlin offers an in-depth look into all the engineering aspects of geostationary satellite design, construction, and launch. Geostationary satellites have opened new doors for the peaceful use of outer space. From vantage points 22,000 miles above the equator, they permit people anywhere on land, at sea, or in the air to communicate with each other, and they provide meteorologists, geologists, and other scientists with photographs of the earth. This book gives equal emphasis to the explanation of launch vehicles, orbital mechanics, the space environment, spacecraft structures, mechanisms, thermal control, telemetry tracking and command, communications technology, meterological payloads, product assurance and testing.

In Walking in Space: Development of Space Walking Techniques, David Shayler provides a comprehensive overview and analysis of EVA techniques, available for the first time in a readable form - other than NASA publications. The author draws on original documentation, personal interviews of astronauts with experience of EVAs, and accounts by those involved in suit design, EVA planning and operations. Moving on from the pioneering of EVA techniques during the Gemini programme, the author describes the basic requirements in terms of the equipment that every spacewalker needs, the development of training techniques - currently all completed on Earth - the surface explorations of the Moon by the Apollo astronauts and the numerous activities performed by Shuttle astronauts and those aboard the Salyut and Mir Space Stations, such as satellite servicing, equipment upgrading and repair missions. He also describes the development of techniques for ensuring crew safety during EVAs and looks ahead to future EVAs from the International Space Station and the development of new technology, including robotic assistance.

In Europe's Space Programme - to Ariane and Beyond, author Brian Harvey begins with the fledgling European rocket effort of the 1930s and the key pioneers of the period, examining the significance of the V-2 and the technological advances represented by its development. He shows how the Russians and Americans put their captured V-2s to work, but the European countries were slower to respond. Both Britain and France developed national space programmes in the 1950s and 1960s and the early attempts at European co-operation for launcher development - ELDO and ESRO - are described. The formation of the European Space Agency and the origins of the successful Ariane launcher programme are discussed and Europe's subsequent success in the world launcher market, its cutting-edge role in space applications and European manned spaceflight, are all described in detail.

In Soyuz: A Universal Spacecraft, authors Rex Hall and Dave Shayler review the development and operations of the Soyuz family of spacecraft. This includes the lesser-known military and unmanned versions of this reliable spacecraft. While most works on Soviet/Russian space operations focus on space station activities, the story of the Soyuz spacecraft has been largely neglected. An integral element of Salyut and Mir space station operations, the small ferry has been the mainstay of cosmonaut transportation since 1967. In addition, since 1978 the unmanned freighter version called Progress has provided a means in which to regularly re-supply a space station and so prolong its orbital lifetime. Using authentic Soviet and Russian sources this book is the first known work in the west dedicated to revealing the full story of the Soyuz series, including a complete listing of vehicle production numbers.

This book tells the story of what was accomplished during the Shuttle-Mir programme based on the interviews granted to the author by three of the astronauts. It focuses on their descriptions of the human aspects of exploration of space and their attempts to solve problems both mechanical and interpersonal. It describes the experiments they undertook during the Apollo/Soyuz and Shuttle-Mir programmes and the lessons learned.

Christopher A. Roosa grew up the eldest son of Apollo 14 astronaut and command module pilot Stuart A. Roosa. As a child of the space program, Christopher had a ringside seat at the dinner table of one of twenty-four Americans who had either entered lunar orbit or landed on the moon. The first book written by an offspring of an Apollo astronaut to focus on growing up in that era, Son of Apollo tells the inside story of the life of his father, a man who had a remarkable career despite always believing his air force career was "off-track," from his initial application to the service to his removal from the prime crew of Apollo 13 and his subsequent assignment to Apollo 14. During the Apollo 13 mission and recovery, Stuart played an integral role in developing the procedures to return the crew to Earth safely. The focus-and the pressure-of the entire Apollo program then shifted to the Apollo 14 mission. If the Apollo program was to continue, Stuart and the Apollo 14 crew would need to get safely to the moon, land, and return. In writing about his father's career, Christopher Roosa also shows us a familial side of the Apollo experience, from the daily struggles of growing up in the shadow of a father who was necessarily away in training most of the year to the expectations involved in being an astronaut's son. Roosa's story shows the Apollo era was the result not only of thousands of scientists and engineers working steadfastly toward achieving an assassinated president's national goal but also the families who supported them and lived the missions in their own way. For more information about the book visit roosa.com