To evaluate the biological effects of static magnetic field (SMF) up to 13 Tesla (T), cloning
efficiency, cell cycle and cell orientation were investigated using the CHO-Kl and xrs5 (Ku86
deficient) cell lines. As a result, there were not significant differences in cloning efficiency between
control cells and 13T SMF-exposed cells in both cell lines. Similarly, there were no significant
differences in the ratio of cell number in G2/M, S or G 1 phase to total cell number between control
cells and SMF-exposed cells in both cell lines. These results suggested that strong SMF did not affect
cloning efficiency and cell cycle regardless ability of DNA repair.
%0 Generic
%1 yoshie2013strong
%A YOSHIE, S
%A IKEHATA, M
%A HIROTA, N
%A HAYAKAWA, T
%D 2013
%K DNA Strong cell cycle deficiency field magnetic orientation repair static
%T Strong static magnetic field did not affect survival and cell cycle in DNA-repair
deficient mammalian cell
%X To evaluate the biological effects of static magnetic field (SMF) up to 13 Tesla (T), cloning
efficiency, cell cycle and cell orientation were investigated using the CHO-Kl and xrs5 (Ku86
deficient) cell lines. As a result, there were not significant differences in cloning efficiency between
control cells and 13T SMF-exposed cells in both cell lines. Similarly, there were no significant
differences in the ratio of cell number in G2/M, S or G 1 phase to total cell number between control
cells and SMF-exposed cells in both cell lines. These results suggested that strong SMF did not affect
cloning efficiency and cell cycle regardless ability of DNA repair.
@conference{yoshie2013strong,
abstract = {To evaluate the biological effects of static magnetic field (SMF) up to 13 Tesla (T), cloning
efficiency, cell cycle and cell orientation were investigated using the CHO-Kl and xrs5 (Ku86
deficient) cell lines. As a result, there were not significant differences in cloning efficiency between
control cells and 13T SMF-exposed cells in both cell lines. Similarly, there were no significant
differences in the ratio of cell number in G2/M, S or G 1 phase to total cell number between control
cells and SMF-exposed cells in both cell lines. These results suggested that strong SMF did not affect
cloning efficiency and cell cycle regardless ability of DNA repair.},
added-at = {2021-02-12T12:07:19.000+0100},
author = {YOSHIE, S and IKEHATA, M and HIROTA, N and HAYAKAWA, T},
biburl = {https://www.bibsonomy.org/bibtex/27d6ed2c75b9e97941bf07a843a0f546c/chkokalis},
interhash = {86d39eb7ab38c8a97dab13e4e248c1ba},
intrahash = {7d6ed2c75b9e97941bf07a843a0f546c},
keywords = {DNA Strong cell cycle deficiency field magnetic orientation repair static},
timestamp = {2021-02-12T16:11:24.000+0100},
title = {Strong static magnetic field did not affect survival and cell cycle in DNA-repair
deficient mammalian cell},
year = 2013
}