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N° 38 - July 2003 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
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Space-aided teaching Space, and manned flights in particular, have a unique fascination for man – especially for young people. Explaining the achievements and implications of man's exploits in space to children, adolescents and university students is therefore a formidable tool in catalysing their interest in science. This is especially true at a time when teaching the complexities of science is becoming increasingly difficult. Hence the decision to set up two educational programmes in the framework of European co-operation on the International Space Station. Launched during the Teach Space 2001 conference, which gave rise to a whole series of teaching projects or modules, the first is designed for primary and secondary school teachers within the ISS Educator's Community, a network for the exchange of experience. The Education Programme for Research on the ISS, on the other hand, is intended for university students. It includes many initiatives, such as a competition to present projects linked to research in space, the carrying out of real experiments under microgravity during parabolic flights, visits to European space technology centres, and participation in the simulation of experiments carried out on the ISS. To find out more |
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Treating immobility
The experience of long stays in space has shown that life under conditions of weightlessness has significant physiological effects on the bones, muscles and cardiovascular, immune and hormonal systems. The study of these effects – and possible countermeasures – has given rise to an intense 'space' medicine activity which is not without significance for progress in 'terrestrial' medicine. The French Space Agency at the CNES (Centre national d'études spatiales) decided therefore to set up an Institute for Space Physiology and Medicine (Medes) in Toulouse which carries out in-depth research in this field. One of the analysis techniques involves carrying out experiments on 'prolonged periods of bed rest': in a prone position, with the head tilted at an angle of less than 6° compared with the feet, the human body experiences effects very comparable to those caused by weightlessness. In 2001 and 2002, three groups of 28 volunteers took part in a trial which involved being confined to bed for 90 days – naturally this is carried out under close medical supervision and with psychological assistance. Phenomena of muscular atrophy and bone loss were studied during these trials, together with the treatment which could correct it. The results are crucially important for the development of manned space flights involving long periods of confinement, such as would be the case for any interplanetary craft travelling to Mars, for example – a possibility under serious scrutiny by the Aurora project. They also have major consequences for medicine in general, as correcting the effects of long periods confined to bed is a major clinical problem for our hospitals. Two research projects are being supported by the European Union and coordinated by Medes, one on tomographic instrumentation with which to assess the quality of the bone system (Advanced detection of bone quality or ADOQ project) and the other a study of osteoporosis pathologies (European research in space and terrestrial osteoporosis or ERISTO project). To find out more |
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Manipulating matter
All areas of industry are forever seeking new materials. Aeronautics and automobile construction, in particular, are always looking for ways to optimise the resistance, safety and economy of vehicle engines and infrastructures. They require light compounds, from high-performance ceramics to innovative alloys containing metals such as nickel, aluminium, magnesium and titanium. Microgravity research is also an excellent field of experimentation for developing the crystalline materials needed by the electronics or telecommunications components industry as well as by instrumentation and medical prostheses, to cite just a couple of examples from the many applications in numerous sectors. In this respect, the space laboratory is an alchemist's dream. It makes it possible to carry out experiments never done before on the interference between the gaseous/liquid/solid states, the development of forms of crystallisation, and the control of thermodynamic processes, giving scientists a whole 'palette' from which to make the 'compositions' of their choice. To find out more |
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TO FIND OUT MORE The ESA and NASA sites Brochure on manned flights |
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