Thoughts on Europe's future in space

Fearing that mistaken decisions may be made, the author offers his comments to clarify the future possibilities for Ariane, Hermes and Columbus. The decisions soon to be taken on the manned spaceflight programme will affect the future of the entire European space programme. The possibilities for air-breathing propulsion are also reviewed.     

Japan's future in space

Japan's Consultative Committee on Long Term Policy was established within the Space Activities Commission to consider how the country's space activities should proceed. The Committee was asked to take a long-term viewpoint, considering the rapid changes in both domestic and overseas space activities. This report is an edited version (and unofficial translation) of the Committee's report, published in May 1987. It outlines the significance of space activities for Japan, considers how they have developed during this century, forecasts development after the year 2000, and presents proposals for the execution of Japan's space development.     

Planning for the international space year

Preparations and proposals for the 1992 International Space Year are being made which cover a wide range of activities, organizations and nations; the momentum is building. There is an urgent need for an informal and independent ISY Steering Committee to legitimize the ISY and catalyse activities. With creativity and international cooperation, the International Space Year could be the most inspiring and transforming activity of the space age.     

Norway's future in space

Norway has recently published its national long-term plan for space activities (1993–1996) and the main points of this are reproduced here. While telecommunications, positioning and navigation and Earth observation are understandably given a high priority, there is also an emphasis on space transportation and space science, and a belief that Norwegian industry and research institutes are capable of gaining contracts beyond the agreed scope of the country's participation in ESA.     

Debating the future of US space policy

A briefing on the subject of US space policy was held in Washington in July 2009 by the American Academy of Arts and Sciences. Based around some of its recent publications, while emphasizing the US situation and direction, the briefing did not ignore the context of international space activity. In particular it considered China's spacefaring development and suggested ways of engaging more fruitfully with that country. This report presents a summary of the issues raised and recommendations made.     

Forecasting the future in space: Highlights from the TechCast Project

Space technology and activities have changed markedly from the early days of the space era and are continuing to develop rapidly. The TechCast Project—set up to pool the knowledge of experts in the scientific fields—includes space in its predictions. Here its president reports on its space forecasts for the 21st century. The importance of the shift towards the privatization of space is noted and the near-to-medium-term impossibility of interstellar travel conceded. Contact with ETI is deemed much more likely, however.     

The UK''s future in space

The UK government's recent announcement that the British National Space Centre could not expect a budget increase has prompted much reaction in the press. The Chief Executive of British Aerospace, a leading company in the UK space industry, here offers his views on the country's future role in space.     

The future of space medicine.

In November 2000, the National Aeronautics and Space Administration (NASA) and its partners in the International Space Station (ISS) ushered in a new era of space flight: permanent human presence in low-Earth orbit. As the culmination of the last four decades of human space flight activities. the ISS focuses our attention on what we have learned to date. and what still must be learned before we can embark on future exploration endeavors. Space medicine has been a primary part of our past success in human space flight, and will continue to play a critical role in future ventures. To prepare for the day when crews may leave low-Earth orbit for long-duration exploratory missions, space medicine practitioners must develop a thorough understanding of the effects of microgravity on the human body, as well as ways to limit or prevent them. In order to gain a complete understanding and create the tools and technologies needed to enable successful exploration. space medicine will become even more of a highly collaborative discipline. Future missions will require the partnership of physicians, biomedical scientists, engineers, and mission planners. This paper will examine the future of space medicine as it relates to human space exploration: what is necessary to keep a crew alive in space, how we do it today, how we will accomplish this in the future, and how the National Aeronautics and Space Administration (NASA) plans to achieve future goals.     

Planning, implementation and optimization of future space missions using an immersive visualization environment (IVE) machine

Beginning in 1995, a team of 3-D engineering visualization experts assembled at the Lockheed Martin Space Systems Company and began to develop innovative virtual prototyping simulation tools for performing ground processing and real-time visualization of design and planning of aerospace missions. At the University of Colorado, a team of 3-D visualization experts also began developing the science of 3-D visualization and immersive visualization at the newly founded British Petroleum (BP) Center for visualization, which began operations in October, 2001. BP acquired ARCO in the year 2000 and awarded the 3-D flexible IVE developed by ARCO (beginning in 1990) to the University of Colorado, CU, the winner in a competition among 6 Universities. CU then hired Dr. G. Dorn, the leader of the ARCO team as Center Director, and the other experts to apply 3-D immersive visualization to aerospace and to other University Research fields, while continuing research on surface interpretation of seismic data and 3-D volumes. This paper recounts further progress and outlines plans in Aerospace applications at Lockheed Martin and CU.     

Punching below its weight: Still the future of space in Australia?

Although a rich and technologically advanced country, Australia has never had a proper national space programme. And while more and more countries—including those in the developing world—are investing in space, the Australian government seems to be moving in the opposite direction. The country's space community held a forum in November 2004 to look at ways of advancing their agenda and it is hoped, but sadly not certain, that the goals agreed may persuade the government of its folly.     

Competing for a future in space: NASA and the Department of Defense

Although the 1958 Space Act stressed the civilian nature of the US space programme, the military space budget has grown to over twice the size of NASA's. Military influence on US space policy has grown accordingly. NASA has failed in articulating a sense of direction and purpose for the civilian space programme justifying sustained and adequate support. What matters most for a reinvigorated NASA is the level of commitment the nation is prepared to make, and in today's political climate greater spending on a civilian space programme would be unpopular. The USA looks likely to continue to fall behind in the international competition for space leadership.     

The ESA and US reports on space debris : Platform for future policy initiatives

This article examines the development of policy on space debris in the European Space Agency and the USA, comments on its regulatory effectiveness, and proposes further recommendations for consideration when developing future space debris policy. The author argues that the international community must work towards a policy which incorporates an environmental perspective, and discusses the principles which should inform such a perspective.     

Human roles in future space operations.

Mankind has evolved in the biosphere from essentially another animal to the level that his industries and societies are powerful components of the life-cycles of Earth. Terrestrial industrial experience can be extended to the use of matter from the Moon and other non-terrestrial sources to create permanent habitats and industry in space. Space stations in low Earth orbit and small bases on the Moon can be the foci of early space industries for learning how to grow in space with local resources. Several near term and long range research topics appropriate to permanent human occupancy of space are reviewed.     

空间环境研究的现状与展望

空间环境研究的内容包括空间环境模式研究、空间环境效应研究和空间环境实验研究。当前国外空间环境研究注重对大型软件组织多学科、多单位长期合作研究;模式研究与实验研究紧密结合;注意开发对工程适用的模式;工作重点是太阳帆板带电和低轨卫星表面带电。建议我国在今后的空间环境研究中加强联合,集中攻克急需的大型软件;加强对材料特性的实验研究;着手发射环境效应卫星;开拓空间环境研究的新领域;在空间环境效应研究中加强卫星研制单位、卫星操作部门与环境效应研究单位的合作。     

Potential of laser-induced ablation for future space applications

This paper surveys recent and current advancements of laser-induced ablation technology for space-based applications and discusses ways of bringing such applications to fruition. Laser ablation is achieved by illuminating a given material with a laser light source. The high surface power densities provided by the laser enable the illuminated material to sublimate and ablate. Possible applications include the deflection of Near Earth Objects – asteroids and comets – from an Earth-impacting event, the vaporisation of space structures and debris, the mineral and material extraction of asteroids and/or as an energy source for future propulsion systems. This paper will discuss each application and the technological advancements that are required to make laser-induced ablation a practical process for use within the space arena. Particular improvements include the efficiency of high power lasers, the collimation of the laser beam (including beam quality) and the power conversion process. These key technological improvements are seen as strategic and merit greater political and commercial support.     

网电空间战对未来防空体系的影响研究

网电一体战的作战目标是破坏和控制敌方的信息基础和战略命脉,摧毁和致瘫敌方的作战指挥控制系统.分析了网电空间战的一般特点和军事特点,并结合网电攻击的案例分析了其对未来防空战争的影响,其影响主要表现在：作战空间由“地表维”和“垂直维”延伸至“网电维”,利用和控制网电空间将成为未来防空作战的主题,网电空间对抗成为提升未来防空作战能力的核心.     

未来十年我国航天高端光电器件发展的战略思考

通过分析我国高端光电器件的发展现状及其与航天系统级产品之问的互动关系,深刻揭示出阻碍国产航天高端光电器件在系统级产品中工程化应用的"瓶颈"问题与关键环节,从战略上提出解决这些问题的意见与建议.