posted on 2024-11-16, 09:20authored byAndres Punning, Kwang J Kim, Viljar Palmre, Frederic Vidal, Cedric Plesse, Nicolas Festin, Ali Maziz, Kinji Asaka, Takushi Sugino, Gursel AliciGursel Alici, Geoffrey SpinksGeoffrey Spinks, Gordon WallaceGordon Wallace, Indrek Must, Inga Poldsalu, Veiko Vunder, Rauno Temmer, Karl Kruusamae, Janno Torop, Friedrich Kaasik, Pille Rinne, Urmas Johanson, Anna Liisa Peikolainen, Tarmo Tamm, Alvo Aabloo
A large-scale effort was carried out to test the performance of seven types of ionic electroactive polymer (IEAP) actuators in space-hazardous environmental factors in laboratory conditions. The results substantiate that the IEAP materials are tolerant to long-term freezing and vacuum environments as well as ionizing Gamma-, X-ray, and UV radiation at the levels corresponding to low Earth orbit (LEO) conditions. The main aim of this material behaviour investigation is to understand and predict device service time for prolonged exposure to space environment.
Funding
ARC Centre of Excellence - Australian Centre for Electromaterials Science
Punning, A., Kim, K. J., Palmre, V., Vidal, F., Plesse, C., Festin, N., Maziz, A., Asaka, K., Sugino, T., Alici, G., Spinks, G., Wallace, G., Must, I., Poldsalu, I., Vunder, V., Temmer, R., Kruusamae, K., Torop, J., Kaasik, F., Rinne, P., Johanson, U., Peikolainen, A., Tamm, T. & Aabloo, A. (2014). Ionic electroactive polymer artificial muscles in space applications. Scientific Reports, 4 (6913), 1-6.