The Experiment CPLM (Comportamiento de Puentes Líquidos en Microgravedad) on Board Minisat 01
The Universidad Politécnica de Madrid participates in the MINISAT 01 program as the experiment CPLM responsible. This experiment aims at the study of the fluid behaviour in reduced gravity conditions. The interest of this study is and has been widely recognised by the scientific community and has potential applications in the pharmaceutical and microelectronic technologies (crystal growth), among others. The scientific team which has developed the CPLM experiment has a wide experience in this field and had participate in the performance of a large number of experiments on the fluid behaviour in reduced gravity conditions in flight (Spacelab missions, TEXUS sounding rockets, KC-135 and Caravelle aeroplanes, drop towers, as well as on earth labs (neutral buoyancy and small scale simulations). The experimental equipment used in CPLM is a version of the payload developed for experimentation on drop towers and on board microsatellites as the UPM-Sat 1, adapted to fly on board MINISAT 01.
KeywordsLiquid Column Liquid Bridge Parabolic Flight Drop Tower Eccentric Rotation
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- Alexander, J.I.D.: 1997, Drops, jets and bubbles, in: H.C. Kuhlmann and HJ. Rath (eds.), Free surface flows, Springer-Verlag.Google Scholar
- Da Riva, I. and Martínez, L: 1979, Floating Zone Stability, ES A SP-142, pp. 67–73.Google Scholar
- Martínez, I.: 1978, Floating Zone. Equilibrium Shapes and Stability Criteria, Space Research XVIII, pp. 519–522.Google Scholar
- Martínez, I.: 1983, Stability of Axisymmetric Liquid Bridges, in: Materials Sciences under Micro-gravity, ESA SP-191, pp. 267–273.Google Scholar
- Martínez, I., Haynes, J.M. and Langbein, D.: 1987, Fluid Statics and Capillarity, in: H.U. Walter (ed.), Fluid Sciences and Materials Sciences in Space, Springer-Verlag.Google Scholar
- Martínez, I., Perales, J.M. and Meseguer, J.: 1995, Stability of long liquid columns (SL-D2-FPM-STACO), in: PR. Sahm, M.H. Keller and B. Schiewe (eds.), Scientific Results of the German Spacelab Mission D-2, WPF, pp. 220–231.Google Scholar
- Martínez, I. and Sanz, A.: 1985, Long liquid bridges aboard sounding rockets, ESA Journal 9, 323–328.Google Scholar
- Meseguer, J., Bezdenejnykh, N.A., Perales, J.M. and Rodríguez de Francisco, P.: 1995b, Theoretical and Experimental Analysis of Stability Limits of Non-Axi symmetric Liquid Bridges, Microgr. Sci. Technol. 8, 2–9.Google Scholar
- Meseguer, J., Bezdenejnykh, N.A. and Rodríguez de Francisco, P.: 1996, On the use of liquid bridges as accelerometers, Microgr. Sci. Technol. 9, 62–69.Google Scholar
- Perales, J.M., Sanz, A. and Rivas, D.: 1990, Eccentric Rotation of a Liquid Bridge, Appl. Microgr. Tech. 2, 193–197.Google Scholar
- Sanz, A., Perales, J.M. and Rivas, D.: 1992, Rotational Instability of a Long Liquid Column, in: Final Reports of Sounding Rocket Experiments in Fluid Science and Materials Sciences, ESA SP-1132, Vol. 2, pp. 8–21.Google Scholar
- Slobozhanin, L.A., Gômez, M. and Perales, J.M.: 1995, Stability of Liquid Bridges between Unequal Disks under Zero-Gravity Conditions, Microgr. Sci. Technol. 8, 23–34.Google Scholar