The biological effects of magnetic fields (MFs) have been a controversial issue. Fortunately,
in recent years, there has been increasing evidence that MFs do affect biological systems …

An increasing number of evidence indicates that static magnetic fields (SMFs) are capable of
altering apoptosis, mainly through modulation of Ca2+ influx. Here we present data that …

Static magnetic fields with intensities starting from 6 gauss (6× 10− 4 tesla, T) were found to
decrease in an intensity‐dependent fashion, reaching a plateau at 6× 10− 3 T, the extent of …

Background Much attention is being paid to the biologic effects of magnetic fields (MFs).
Although MFs enhance tumorigenesis, they are neither mutagenic nor tumorigenic. The …

Magnetic fields (MFs) are receiving much attention in basic research due to their emerging
ability to alter intracellular signaling. We show here that static MFs with intensity of 6 mT …

Low intensity static magnetic fields (SMFs) interact with various biological tissues including
the CNS, thereby affecting key biological processes such as gene expression, cell …

In a previous work we showed that a 6 mT static magnetic field (SMF) interferes with
monocyte/macrophage 12-O-tetradecanoylphorbol-13-acetate (TPA)-induced differentiation …

Chemical/physical agents able to prevent apoptosis are receiving much attention for their
potential health hazard as tumor promoters. Magnetic fields (MFs), which have been shown …

The ability to control or manipulate the pathways leading to cell death plays a pivotal role in
cancer treatment. We demonstrate magneto-actuation of magnetic nanoparticles (MNPs) to …

Background Epidemiologic data revealed increased brain tumor incidence in workers
exposed to magnetic fields (MFs), raising concerns about the possible link between MF …