Lee KY et al.
(2011):
Effects of combined radiofrequency radiation exposure on the cell cycle and its regulatory proteins
Pickard WF et al.
(2000):
Experimental and numerical determination of SAR distributions within culture flasks in a dielectric loaded radial transmission line
Moros EG et al.
(1999):
The radial transmission line as a broad-band shielded exposure system for microwave irradiation of large numbers of culture flasks
Weder eine einfache noch kombinierte Exposition im Hochfrequenz-Feld führte zu einer Phosphorylierung von ERK1/2 oder Hsp27 in MCF10A-Zellen. Außerdem blieb der Gehalt an ERK1/2 und Hsp27 unverändert. Die gleichen Ergebnisse wurden erzielt, unabhängig ob die Zellen einmal vier Stunden exponiert wurden oder jeweils zwei Stunden an drei aufeinanderfolgenden Tagen. Die Ergebnisse lassen vermuten, dass weder die einfache (836,5 MHz) noch die kombinierte (836,5 MHz und 1950 MHz) Exposition im Hochfrequenz-Feld eine Stress-Antwort in MCF10A-Zellen unter den untersuchten Bedingungen hervorruft.
Lee JS et al.
(2016):
Effects of combined radiofrequency field exposure on amyloid-beta-induced cytotoxicity in HT22 mouse hippocampal neurones
Sefidbakht Y et al.
(2014):
Effects of 940 MHz EMF on bioluminescence and oxidative response of stable luciferase producing HEK cells
Kang KA et al.
(2014):
Effects of combined radiofrequency radiation exposure on levels of reactive oxygen species in neuronal cells
Hong MN et al.
(2012):
Effects of 837 and 1950 MHz radiofrequency radiation exposure alone or combined on oxidative stress in MCF10A cells
Ding GR et al.
(2009):
Comparison of Hsps expression after radio-frequency field exposure in three human glioma cell lines
Yu Y et al.
(2008):
Effects of exposure to 1.8 GHz radiofrequency field on the expression of Hsps and phosphorylation of MAPKs in human lens epithelial cells
Friedman J et al.
(2007):
Mechanism of short-term ERK activation by electromagnetic fields at mobile phone frequencies
Hirose H et al.
(2007):
Mobile phone base station-emitted radiation does not induce phosphorylation of Hsp27
Sanchez S et al.
(2007):
In Vitro Study of the Stress Response of Human Skin Cells to GSM-1800 Mobile Phone Signals Compared to UVB Radiation and Heat Shock
Lee JS et al.
(2006):
Radiofrequency radiation does not induce stress response in human T-lymphocytes and rat primary astrocytes
Vanderwaal RP et al.
(2006):
HSP27 phosphorylation increases after 45°C or 41°C heat shocks but not after non-thermal TDMA or GSM exposures
Sanchez S et al.
(2006):
Human skin cell stress response to GSM-900 mobile phone signals. In vitro study on isolated primary cells and reconstructed epidermis
Lim HB et al.
(2005):
Effect of 900 MHz electromagnetic fields on nonthermal induction of heat-shock proteins in human leukocytes
Miyakoshi J et al.
(2005):
Effects of exposure to a 1950 MHz radio frequency field on expression of Hsp70 and Hsp27 in human glioma cells
Leszczynski D et al.
(2002):
Non-thermal activation of the hsp27/p38MAPK stress pathway by mobile phone radiation in human endothelial cells: Molecular mechanism for cancer- and blood-brain barrier-related effects
Kwee S et al.
(2001):
Changes in cellular proteins due to environmental non-ionizing radiation. I. Heat-shock proteins
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