Some studies show how exposure to fields can enhance or reduce cell activity, with possible
applicative consequences in the field of biotechnology, including biological techniques for …

The magnetization of non-magnetic cells has great potential to aid various processes in
medicine, but also in bioprocess engineering. Current approaches to magnetize cells with …

The application of various magnetic fields for boosting the efficacy of different antimicrobial
molecules or in the character of a self-reliant antimicrobial agent is considered a promising …

The study aimed to evaluate the influence of rotating magnetic field on the growth rate and
cell metabolic activity of Gram-positive (Staphylococcus aureus, ATCC 43300, Enterococcus …

Exposure to static magnetic fields (SMF) can cause changes in microorganism metabolism
altering key subcellular functions. The purpose of this study was to investigate whether an …

Due to the refractory nature of pathogenic microbial biofilms, innovative biofilm eradication
strategies are constantly being sought. Thus, this study addresses a novel approach to …

The magnetic field (MF) effect has demonstrated the capability to disrupt the bonding
between water molecules and salt ions in saline water, thereby enhancing the water …

Majority of research on the influence of magnetic fields on microorganisms has been carried
out with the use of different species or different groups of microorganisms, but not with the …

This study presents results of research on the influence of rotating magnetic field (RMF) of
the induction of 30 mT and the frequency of 50 Hz on the growth dynamics and cell …

The aim of the present study was to determine the effect of the rotating magnetic field (RMF)
on the growth, cell metabolic activity and biofilm formation by S. aureus, E. coli, A …