KINETICS OF THE PHOTO-INDUCED EPR SIGNAL IN WHOLE-CELL RHODOSPIRILLUM RUBRUM: EFFECTS OF LIGHT INTENSITY, DARK ADAPTATION, TEMPERATURE, AND MICROWAVE POWER
G. A. CORKER, S. A. SHARPE · 1974
Microwave radiation disrupts electron transport in bacterial cells, revealing potential interference with fundamental energy processes in living organisms.
Plain English Summary
Scientists studied how microwave radiation affects the electron activity in photosynthetic bacteria called Rhodospirillum rubrum. They found that microwave exposure altered the bacteria's electron transport processes, which are crucial for converting light energy into chemical energy. The research demonstrates that even microorganisms can be affected by microwave electromagnetic fields.
Why This Matters
This 1974 study provides early evidence that microwave radiation can disrupt fundamental biological processes at the cellular level. While conducted on bacteria, the research reveals how electromagnetic fields interfere with electron transport chains - the same basic energy-producing mechanisms found in all living cells, including human cells. The fact that microwave power affected these bacterial processes suggests that the ubiquitous microwave radiation from our wireless devices, WiFi routers, and cell towers could potentially interfere with cellular energy production in our own bodies. What makes this particularly relevant today is that we're now exposed to microwave radiation levels far exceeding what existed in 1974, yet the basic biological vulnerabilities this study identified remain unchanged.
Finding
The simplest interpretation of the observed complexities in the kinetic curves is that the rate of formation and the rate of decay of P870* are controlled by slow dark reactions of the electron-transport chain, and that the rate-controlling reaction is variable during the transition from a dark-adapted to a steady state in the light.
In their words
“The simplest interpretation of the observed complexities in the kinetic curves is that the rate of formation and the rate of decay of P870* are controlled by slow dark reactions of the electron-transport chain, and that the rate-controlling reaction is variable during the transition from a dark-adapted to a steady state in the light.”
Figures from the Original Paper
Diagrams extracted from the original research document.
Exposure Information
Specific exposure levels were not quantified in this study.
Show BibTeX
@article{kinetics_of_the_photo_induced_epr_signal_in_whole_cell_rhodospirillum_rubrum_eff_g5846,
author = {G. A. CORKER and S. A. SHARPE},
title = {KINETICS OF THE PHOTO-INDUCED EPR SIGNAL IN WHOLE-CELL RHODOSPIRILLUM RUBRUM: EFFECTS OF LIGHT INTENSITY, DARK ADAPTATION, TEMPERATURE, AND MICROWAVE POWER},
year = {1974},
}