This PubMed-listed article argues that ambient nonionizing EMF exposures (especially RF-EMF) have increased substantially over the past 60 years and are now pervasive, including from terrestrial networks and low-earth-orbit satellites. It claims these chronic, low-intensity exposures are biologically active and may disrupt critical functions in nonhuman species that rely on geomagnetic cues. The paper discusses nonhuman physiologies and proposes public policy recommendations for wildlife protection, including mitigation and creation of EMF-reduced zones during sensitive periods such as migration and breeding.

This RF Safe commentary proposes a speculative “bioelectric hypothesis” for the Fermi paradox: that widespread, continuous use of man-made radiofrequency/microwave emissions (“hertzification”) could act as a slow “Great Filter” that causes technological civilizations to decline or go silent. The author argues that modern RF environments create an unprecedented, omnipresent exposure for organisms and suggests potential biological vulnerability via voltage-gated ion channels. The piece is framed as an exploration rather than a reported study and does not present new empirical data in the provided excerpt.

This review discusses how increasing ambient nonionizing EMF (0–300 GHz), particularly RF from modern wireless technologies and satellites, may affect flora and fauna at ecosystem levels. It states that many nonhuman species rely on electro/magneto-reception and that even low-intensity EMF exposures are capable of disrupting critical biological functions and behaviors. The authors conclude that current exposure standards focus on human health and recommend policy reforms and mitigation measures to protect wildlife and ecosystems.

This animal ecology study reports that weak anthropogenic-like airborne electric fields can reduce honeybee floral landing rates. It reports deterrent effects for AC and positive DC fields, with no statistically significant effect for negative DC fields. The authors also report that electric fields measured near high-voltage power lines can match the levels that affected bees and extend tens of meters at foraging-relevant heights.