DNA is a fractal antenna in electromagnetic fields
Authors not listed · 2011
DNA functions as a fractal antenna, explaining why electromagnetic fields cause biological damage across all frequency ranges.
Plain English Summary
Columbia University researchers analyzed how DNA responds to electromagnetic fields across different frequencies and found that DNA acts like a fractal antenna. The study shows DNA can interact with both extremely low frequency (power line) and radio frequency (cell phone) radiation, potentially causing strand breaks and stress protein increases that indicate cellular damage.
Why This Matters
This research fundamentally changes how we understand EMF-DNA interactions. Rather than viewing DNA as a passive victim of electromagnetic radiation, Blank and Goodman demonstrate it actively functions as a fractal antenna - meaning it can receive and respond to EMF signals across an extraordinarily wide frequency range. This explains why we see biological effects from both power line frequencies (50-60 Hz) and wireless frequencies (gigahertz range). The fractal antenna model also explains why DNA damage occurs at power levels far below what heating-based safety standards predict. What makes this particularly concerning is that your DNA doesn't distinguish between 'natural' and 'artificial' EMF sources. The electronic conduction properties that make DNA so efficient at its biological functions also make it vulnerable to the growing soup of electromagnetic signals in our environment.
Exposure Information
Specific exposure levels were not quantified in this study.
Show BibTeX
@article{dna_is_a_fractal_antenna_in_electromagnetic_fields_ce1347,
author = {Unknown},
title = {DNA is a fractal antenna in electromagnetic fields},
year = {2011},
doi = {10.3109/09553002.2011.538130},
}