Research output: Thesis › Doctoral thesis
Effect of space conditions on neuronal plasticity and connectivity. / Pani, Giuseppe; Baatout, Sarah (Peer reviewer); Quintens, Roel (Peer reviewer); Moreels, Marjan (Peer reviewer).
Ghent, Belgium : UGent - Universiteit Gent, 2013. 272 p.Research output: Thesis › Doctoral thesis
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TY - THES
T1 - Effect of space conditions on neuronal plasticity and connectivity
AU - Pani, Giuseppe
A2 - Baatout, Sarah
A2 - Quintens, Roel
A2 - Moreels, Marjan
N1 - Score = 30
PY - 2013/6/19
Y1 - 2013/6/19
N2 - Looking for opportunities to explore new frontiers and developing new technologies have always been in the nature of mankind. In 1957, the first rocket in space opened a new era for space traveling towards other planets. Concomitantly, a wide range of concerns related to human health risks that could occur during spaceflight was raised. Up to now, a large number of experiments has been performed to determine the biological effects of space conditions on human health, in order to develop appropriate countermeasures. However, extensive investigations still need to be performed before considering long-term spaceflight towards other planets such as Mars. In this thesis, we studied concomitant microgravity and radiation exposures as models for space conditions and developed various methods to analyse their specific and combined effects on in vitro neuronal network models. In vitro primary neuronal network cultures were established and exposed to simulated space conditions to investigate neuronal network remodelling (plasticity and connectivity) as well as genomic damage/repair dynamics. This work was performed to address questions on neuronal network disorders occurring during spaceflights and, in the future, to develop strategies against these effects.
AB - Looking for opportunities to explore new frontiers and developing new technologies have always been in the nature of mankind. In 1957, the first rocket in space opened a new era for space traveling towards other planets. Concomitantly, a wide range of concerns related to human health risks that could occur during spaceflight was raised. Up to now, a large number of experiments has been performed to determine the biological effects of space conditions on human health, in order to develop appropriate countermeasures. However, extensive investigations still need to be performed before considering long-term spaceflight towards other planets such as Mars. In this thesis, we studied concomitant microgravity and radiation exposures as models for space conditions and developed various methods to analyse their specific and combined effects on in vitro neuronal network models. In vitro primary neuronal network cultures were established and exposed to simulated space conditions to investigate neuronal network remodelling (plasticity and connectivity) as well as genomic damage/repair dynamics. This work was performed to address questions on neuronal network disorders occurring during spaceflights and, in the future, to develop strategies against these effects.
KW - Mature neurons
KW - neuronal network remodelling
KW - neuronal network analysis
KW - apoptosis
KW - DNA damage/repair dynamics
KW - space conditions
KW - microgravity
KW - ionizing radiation.
UR - http://ecm.sckcen.be/OTCS/llisapi.dll/open/ezp_129541
M3 - Doctoral thesis
SN - 978-90-5989-624-6
PB - UGent - Universiteit Gent
CY - Ghent, Belgium
ER -
ID: 342757