The expression of pluripotency and neuronal differentiation markers under the influence of electromagnetic field and nitric oxide.
Research
RF Safe Research Library
Jan 1, 2017
This in vitro study examined how 50 Hz low-frequency EMF and a nitric oxide donor (Deta-NO) affect stemness and neuronal differentiation markers in rat bone marrow mesenchymal stem cells. The authors report that high NO (1 mM) combined with EMF reduced stemness markers and increased neuronal differentiation markers,…
Stable morphological-physiological and neural protein expression changes in rat bone marrow mesenchymal stem cells treated with electromagnetic field and nitric oxide.
Research
RF Safe Research Library
Jan 1, 2017
This in vitro study evaluated combined effects of extremely low frequency EMF (50 Hz, 20 mT) and nitric oxide (NO) on rat bone marrow mesenchymal stem cells. The authors report reduced viability and morphology changes with high NO in the presence of EMF, along with increased calcium ion entry. They also report…
Changes in viability of rat adipose-derived stem cells isolated from abdominal/perinuclear adipose tissue stimulated with pulsed electromagnetic field.
Research
RF Safe Research Library
Jan 1, 2017
This in vitro study exposed rat adipose-derived stem cells to a pulsed electromagnetic field (7 Hz, 30 mT) and assessed viability by flow cytometry. The authors report that a low-fat diet was protective in PEMF-exposed ADSCs, especially in pups. They also report a higher proportion of early apoptotic cells in…
Melatonin protects rat cerebellar granule cells against electromagnetic field-induced increases in Na(+) currents through intracellular Ca(2+) release
Research
RF Safe Research Library
Jan 1, 2014
This in vitro study examined extremely low-frequency electromagnetic field (ELF-EMF) effects on voltage-gated sodium (Nav) currents in rat cerebellar granule cells and whether melatonin modifies these effects. The abstract reports that 60 minutes of ELF-EMF exposure increased Nav current density, and that melatonin…
[Effects of static magnetic field at different times on the proliferation and differentiation of osteoblasts in vitro].
Research
RF Safe Research Library
Jan 1, 2012
This in vitro study exposed newborn rat calvarial osteoblasts to a 3.9 mT static magnetic field for varying durations (0–4 hours). The authors report increased cell proliferation and markers of osteoblast differentiation and mineralization versus control, including higher ALP activity, calcium content, and…