This review discusses how human cells may sense and respond to electromagnetic waves, focusing on radiofrequency and microwave ranges. It reports that the literature shows variable health impacts, with studies citing both potential harms and potential benefits in diagnostics and treatment (including cancer-related applications). The review highlights emerging molecular mechanisms and calls for safe, practical applications and balanced consideration in regulation.

This study introduces a multi-scale electrokinetic model to characterize electrical impulses and ionic current propagation along microtubules, incorporating atomistic protein details and biological environments. It emphasizes nanopore-mediated coupling between microtubule surfaces as a key mechanism enabling luminal currents, energy transfer, amplification, and oscillatory dynamics. The authors report pharmacological inhibition experiments (Taxol and Gd3+) supporting the interpretation that nanopores function as active nanogates contributing to transistor-like behavior.