Exposure of cells to high voltage electric pulses increases transiently membrane
permeability through membrane electroporation. Electroporation can be reversible and is …

For this systematic review, 203 published reports on effects of electroporation using
nanosecond high-voltage electric pulses (nsEP) on eukaryotic cells (human, animal, plant) …

Vaccination against severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) and
other pathogens with pandemic potential requires safe, protective, inexpensive, and easily …

Abstract Non‐thermal, intermediate frequency (100–500 kHz) electrotherapies present a
unique therapeutic strategy to treat malignant neoplasms. Here, pulsed electric fields (PEFs) …

For irreversible-electroporation (IRE)-based therapies, the underlying electric field
distribution in the target tissue is influenced by the electroporation-induced conductivity …

Nanoelectroporation of biomembranes is an effect of high-voltage, nanosecond-duration
electric pulses (nsEP). It occurs both in the plasma membrane and inside the cell, and …

Dielectric properties of freshly excised human liver tissues (in vitro) with several pathological
conditions including cancer were obtained in frequency range 100 MHz–5 GHz. Differences …

It was recently suggested that applying high-frequency short biphasic pulses (HF-IRE)
reduces pain and muscle contractions in electrochemotherapy and irreversible ablation …

The growth of antibiotic resistant microorganisms and the increasing demand for nonthermal
antimicrobial treatment in the food and beverage industry motivates research into alternative …

High-frequency irreversible electroporation (H-FIRE) is a tissue ablation modality employing
bursts of electrical pulses in a positive phase–interphase delay (d 1)–negative phase …