References
Briegleb W (1988) Ground-borne methods and results in gravitational cell biology. Physiologist 31:
S44–S47
Brinckmann E (2005) ESA hardware for plant research on the International Space Station. Adv
Space Res 36:1162–1166
Brungs S, Egli M, Wuest SL, Christianen PCM, van Loon JWA, Ngo Anh TJ, Hemmersbach R
(2016) Facilities for simulation of microgravity in the ESA ground-based facility programme.
Microgravity Sci Technol 28:191–203
Frett T, Petrat G, van Loon JJ, Hemmersbach R, Anken R (2016) Hypergravity facilities in the ESA
ground-based facility program—current research activities and future tasks. Microgravity Sci
Technol 28:205–214
Friedrich ULD, Joop O, Pütz C, Willich G (1996) The slow rotating centrifuge microscope
NIZEMI—a versatile instrument for terrestrial hypergravity and space microgravity research
in biology and materials science. J Biotechnol 47:225–238
Häder D-P, Vogel K, Schäfer J (1990) Responses of the photosynthetic flagellate, Euglena gracilis,
to microgravity. Appl Micrograv Technol 3:110–116
Hauslage J, Cevik V, Hemmersbach R (2017) Pyrocystis noctiluca represents an excellent bioassay
for shear forces induced in ground-based microgravity simulators (clinostat and random positioning machine). NPJ Microgravity 3:12
Hemmersbach R, Simon A, Waßer K, Hauslage J, Christianen PC, Albers PW, Lebert M, Richter P,
Alt W, Anken R (2014) Impact of a high magnetic field on the orientation of gravitactic
unicellular organisms—a critical consideration about the application of magnetic fields to
mimic functional weightlessness. Astrobiology 14:205–215
Hemmersbach-Krause R, Briegleb W, Häder D-P, Vogel K, Grothe D, Meyer I (1993) Orientation
of Paramecium under the conditions of weightlessness. J Eukaryot Microbiol 40:439–446
Hensel W, Sievers A (1980) Effects of prolonged omnilateral gravistimulation on the ultrastructure
of statocytes and on the graviresponse of roots. Planta 150:338–346
Herranz R, Anken R, Boonstra J, Braun M, Christianen PC, de Geest M, Hauslage J, Hilbig R, Hill
RJ, Lebert M (2013) Ground-based facilities for simulation of microgravity: organism-specific
recommendations for their use, and recommended terminology. Astrobiology 13:1–17
Hoson T, Kamisaka S, Buchen B, Sievers A, Yamashita M, Masuda Y (1996) Possible use of a 3-D
clinostat to analyze plant growth processes under microgravity conditions. Adv Space Res
17:47–53
Karmali F, Shelhamer M (2010) Neurovestibular considerations for sub-orbital space flight: a
framework for future investigation. J Vestib Res 20:31–43
Klaus DM, Todd P, Schatz A (1998) Functional weightlessness during clinorotation of cell
suspensions. Adv Space Res 21:1315–1318
Könemann T, Kaczmarczik U, Gierse A, Greif A, Lutz T, Mawn S, Siemer J, Eigenbrod C, von
Kampen P, Lämmerzahl C (2015) Concept for a next-generation drop tower system. Adv Space
Res 55:1728–1733
Krause L, Braun M, Hauslage J, Hemmersbach R (2018) Analysis of statoliths displacement in
Chara rhizoids for validating the microgravity-simulation quality of clinorotation modes.
Microgravity Sci Technol 30(3):229–236
Neubert J, Schatz A, Briegleb W, Bromeis B, Linke-Hommes A, Rahmann H, Slenzka K, Horn E
(1996) Early development in aquatic vertebrates in near weightlessness during the D-2 mission
STATEX project. Adv Space Res 17:275–279
Pletser V, Winter J, Duclos F, Bret-Dibat T, Friedrich U, Clervoy J-F, Gharib T, Gai F, Minster O,
Sundblad P (2012) The first joint European partial-g parabolic flight campaign at moon and mars
gravity levels for science and exploration. Microgravity Sci Technol 24:383–395
Pletser V, Rouquette S, Friedrich U, Clervoy J-F, Gharib T, Gai F, Mora C (2015) European
parabolic flight campaigns with Airbus ZERO-G: looking back at the A300 and looking forward
to the A310. Adv Space Res 56:1003–1013
References
25
Briegleb W (1988) Ground-borne methods and results in gravitational cell biology. Physiologist 31:
S44–S47
Brinckmann E (2005) ESA hardware for plant research on the International Space Station. Adv
Space Res 36:1162–1166
Brungs S, Egli M, Wuest SL, Christianen PCM, van Loon JWA, Ngo Anh TJ, Hemmersbach R
(2016) Facilities for simulation of microgravity in the ESA ground-based facility programme.
Microgravity Sci Technol 28:191–203
Frett T, Petrat G, van Loon JJ, Hemmersbach R, Anken R (2016) Hypergravity facilities in the ESA
ground-based facility program—current research activities and future tasks. Microgravity Sci
Technol 28:205–214
Friedrich ULD, Joop O, Pütz C, Willich G (1996) The slow rotating centrifuge microscope
NIZEMI—a versatile instrument for terrestrial hypergravity and space microgravity research
in biology and materials science. J Biotechnol 47:225–238
Häder D-P, Vogel K, Schäfer J (1990) Responses of the photosynthetic flagellate, Euglena gracilis,
to microgravity. Appl Micrograv Technol 3:110–116
Hauslage J, Cevik V, Hemmersbach R (2017) Pyrocystis noctiluca represents an excellent bioassay
for shear forces induced in ground-based microgravity simulators (clinostat and random positioning machine). NPJ Microgravity 3:12
Hemmersbach R, Simon A, Waßer K, Hauslage J, Christianen PC, Albers PW, Lebert M, Richter P,
Alt W, Anken R (2014) Impact of a high magnetic field on the orientation of gravitactic
unicellular organisms—a critical consideration about the application of magnetic fields to
mimic functional weightlessness. Astrobiology 14:205–215
Hemmersbach-Krause R, Briegleb W, Häder D-P, Vogel K, Grothe D, Meyer I (1993) Orientation
of Paramecium under the conditions of weightlessness. J Eukaryot Microbiol 40:439–446
Hensel W, Sievers A (1980) Effects of prolonged omnilateral gravistimulation on the ultrastructure
of statocytes and on the graviresponse of roots. Planta 150:338–346
Herranz R, Anken R, Boonstra J, Braun M, Christianen PC, de Geest M, Hauslage J, Hilbig R, Hill
RJ, Lebert M (2013) Ground-based facilities for simulation of microgravity: organism-specific
recommendations for their use, and recommended terminology. Astrobiology 13:1–17
Hoson T, Kamisaka S, Buchen B, Sievers A, Yamashita M, Masuda Y (1996) Possible use of a 3-D
clinostat to analyze plant growth processes under microgravity conditions. Adv Space Res
17:47–53
Karmali F, Shelhamer M (2010) Neurovestibular considerations for sub-orbital space flight: a
framework for future investigation. J Vestib Res 20:31–43
Klaus DM, Todd P, Schatz A (1998) Functional weightlessness during clinorotation of cell
suspensions. Adv Space Res 21:1315–1318
Könemann T, Kaczmarczik U, Gierse A, Greif A, Lutz T, Mawn S, Siemer J, Eigenbrod C, von
Kampen P, Lämmerzahl C (2015) Concept for a next-generation drop tower system. Adv Space
Res 55:1728–1733
Krause L, Braun M, Hauslage J, Hemmersbach R (2018) Analysis of statoliths displacement in
Chara rhizoids for validating the microgravity-simulation quality of clinorotation modes.
Microgravity Sci Technol 30(3):229–236
Neubert J, Schatz A, Briegleb W, Bromeis B, Linke-Hommes A, Rahmann H, Slenzka K, Horn E
(1996) Early development in aquatic vertebrates in near weightlessness during the D-2 mission
STATEX project. Adv Space Res 17:275–279
Pletser V, Winter J, Duclos F, Bret-Dibat T, Friedrich U, Clervoy J-F, Gharib T, Gai F, Minster O,
Sundblad P (2012) The first joint European partial-g parabolic flight campaign at moon and mars
gravity levels for science and exploration. Microgravity Sci Technol 24:383–395
Pletser V, Rouquette S, Friedrich U, Clervoy J-F, Gharib T, Gai F, Mora C (2015) European
parabolic flight campaigns with Airbus ZERO-G: looking back at the A300 and looking forward
to the A310. Adv Space Res 56:1003–1013
References
25