A Neural Quantum in Sensory Discrimination
S. S. Stevens · 1972
Human sensory systems process information in quantum-like steps, suggesting EMF effects may occur as sudden threshold changes rather than gradual impacts.
Plain English Summary
Stevens' 1972 research identified an all-or-none step function in human sensory discrimination for both vision and hearing. This foundational work demonstrated that sensory perception operates in discrete quantum-like jumps rather than smooth gradients. The findings established key principles about how the nervous system processes and discriminates sensory information.
Why This Matters
While this 1972 study predates modern EMF research, Stevens' discovery of quantum-like steps in sensory processing has profound implications for understanding how electromagnetic fields might affect human perception. The reality is that our sensory systems don't process stimuli in smooth, continuous ways - they operate in discrete jumps or thresholds. This means that EMF exposures might trigger sudden, step-like changes in sensory function rather than gradual effects. What this means for you is that even small increases in EMF exposure could potentially push your sensory systems across critical thresholds, leading to noticeable changes in how you perceive your environment. The science demonstrates that our nervous systems are fundamentally quantum in nature, which helps explain why some people report sudden onset of electromagnetic hypersensitivity symptoms rather than gradual deterioration.
Exposure Information
Specific exposure levels were not quantified in this study.
Show BibTeX
@article{a_neural_quantum_in_sensory_discrimination_g4764,
author = {S. S. Stevens},
title = {A Neural Quantum in Sensory Discrimination},
year = {1972},
}