A reminder of the surprising utility of hair as a sensing tool. this goes deeply into the measurable science.
This is obviously subtle and very real. So is your cell phone as wrell..
We are just starting to see it and are far from mastery.
THE EXTRAORDINARY SUPER-SENSORIAL POWER OF HAIR
What Indigenous Knowledge, Ancient Myth, and Modern Biophysics Reveal About a Misunderstood Organ
Dec 6
Across civilizations, from Indigenous trackers to Hindu sages to biblical heroes, long hair was treated as a source of strength and perception—yet only now do electromagnetic studies reveal the physiological mechanisms that could explain why this knowledge survived while the science behind it was forgotten.
Why Ancient Hair Traditions May Have Been Rooted in Measurable Biology
During the Vietnam War, U.S. Special Forces units—including MACV-SOG, the MIKE Forces, and the CIDG program—recruited Indigenous trackers such as the Montagnards (Rhade, Jarai, and Bahnar), Nùng, Khmer Krom, and Hmong scouts. These men were renowned for their extraordinary ability to move through dense jungle, detect danger, read terrain disturbances, and navigate at night with uncanny precision. American advisers often remarked that these trackers perceived subtle environmental cues long before other soldiers registered anything unusual.
Over the years, a particular story circulated within military circles: some of these Indigenous recruits allegedly saw their tracking abilities diminish after receiving the standard military haircut. Trainers reported that the men felt less aware, less attuned to their surroundings, and more vulnerable during field exercises. According to these accounts, informal tests suggested that long-haired trackers outperformed their cropped-haired counterparts in tasks requiring rapid sensory integration and intuitive threat recognition.
These claims remain unverified through official declassified documents; yet their persistence—across decades and among otherwise sober military professionals—raises an intriguing question: why did this story take root at all?
That said, emerging scientific research—including the biophysical mechanisms explored in this article—suggests that such accounts may not be entirely fanciful. Modern evidence demonstrating that hair functions as an active sensory and bioelectromagnetic structure lends surprising plausibility to traditions, reports, and intuitions once dismissed as superstition. In other words, even if the haircut story cannot be confirmed, the underlying principle it implies—that hair contributes to human perceptual sensitivity—is increasingly supported by measurable biology. What follows is an examination of that evidence.
Indigenous communities themselves would not have been surprised. Across many cultures, hair has long been regarded as an extension of sensory, perceptual, or spiritual awareness. Cutting it is understood not as a cosmetic change, but as a disruption of vitality, intuition, or environmental sensing.
This theme appears again and again across traditions:
The biblical tale of Samson, whose strength faltered when his hair was shorn.²
Esoteric European references to Vril, a subtle life-force said to be concentrated through uncut hair.³
Hindu Rishis, who coiled their long hair to preserve mental clarity and meditative sensitivity.
Sikh and Sufi practices of maintaining kesh—unshorn hair—as a discipline tied to vitality and attentiveness.
Taken symbolically, these stories articulate a shared intuition: hair plays a role in human perception, vitality, and connection to the environment.
Taken literally, they may represent empirical observations encoded in cultural memory.
Recent scientific work—particularly the bioelectromagnetic research of Abrahám A. Embí Sorondo—suggests that these traditions may have been tracking real biophysical phenomena all along.
Hair as Living Electromagnetic Tissue
Contrary to common belief, hair is not simply “dead keratin.” Beneath the skin, the follicle is a complex mini-organ containing more than twenty specialized cell types—stem cells, melanocytes, immune cells, mechanoreceptors, vascular networks, and dense neural innervation.⁴ Among these, the follicular stem cell populations are especially remarkable: they possess pluripotency potential, meaning they can differentiate into multiple tissue types beyond hair itself. In regenerative biology, such pluripotent niches are recognized as dynamic signaling hubs—structures that sense, respond to, and influence their local environment. In the context of perception, this pluripotency implies that the follicle is not a passive appendage factory but an active regulatory and sensory interface, capable of remodeling itself, communicating with the nervous system, and participating in broader bioelectromagnetic signaling processes throughout the skin.
Keep in mind that every time you cut your hair, it requires further tapping the regenerative potential of these stem cells, diverting life energy towards replacing the hair versus other differentiation pathways that could replenish and restore damaged, devitalized, or diseased tissue elsewhere in the body: the heart, the brain, the skin, etc.
The follicle’s metabolism involves active electron transport. Wherever electrons move, electromagnetic fields are produced. Embí’s research documents these fields directly.
Using a simple microscope setup with tiny iron particles mixed into a Prussian Blue solution, Embí was able to see the magnetic fields coming off living hair follicles.⁵ What he found was surprising:
The magnetic field comes off mostly on one side (not evenly all around).
It forms circulating, vortex-like patterns (like a tiny whirlpool of magnetism).
It can pull or move nearby iron particles (because they’re paramagnetic—attracted to magnetic fields).
And it’s strong enough to reach through glass up to 3 millimeters thick.
This is not metaphor or speculation—these are recorded electromagnetic phenomena occurring in real time.
When hair follicles are exposed to specific wavelengths (e.g., green laser light), they emit visible electron trails and occasional micro-flashes of light. These biophotonic emissions correspond to wave interactions and the displacement of electrons—clear signatures of electromagnetic activity.⁶
Another striking piece of evidence comes from the way crystals form during Embí’s experiments. As the water in the iron-containing solution dries around a hair follicle, you can actually see rings of crystals spreading outward in neat, half-circle “waves.” These patterns act like magnetic fingerprints of the follicle’s field. They expand as they move away from the hair—exactly the kind of spreading you’d expect if an electromagnetic field were radiating outward.⁹
The pattern disappears entirely when the follicle’s metabolically active base (the dermal papilla) is removed.
Taken together, these findings support the view of hair as an active bioelectromagnetic emitter, not an inert structure.
Material Responds to Hair’s Fields
One of Embí’s most intriguing findings is a consistent “backward suction” phenomenon during crystallization. As paramagnetic crystals form, they move toward the follicle, against ordinary diffusion gradients.⁹ This suggests that living tissue fields can influence matter organization—not through mystical force but through classical electromagnetic attraction and repulsion.
Embí also found something even more surprising: when he placed a cut piece of hair in front of a living follicle, the cut piece picked up the same crystallization pattern as the follicle—even though the two weren’t touching at all.⁷ It was as if the follicle’s electromagnetic “signature” jumped across the gap and imprinted itself on the detached hair. Embí explains this using standard electromagnetic principles, but the effect definitely hints at a kind of non-classical, non-Hertzian communication happening between biological tissues—a phenomenon that deserves much deeper investigation.
Similarly, multi-species experiments reveal that plant trichomes, ant antennae, mosquito larvae, and human follicles all express detectable electromagnetic profiles that interact through the Lorentz force.¹⁰ Although these effects fit classical physics, they highlight a universal bioelectromagnetic language operating at micro scales.
The Sensory Function of Hair
If hair emits electromagnetic fields, it is equally important that it receives them.
Hair shafts are composed of keratin, a piezoelectric material. When mechanically stressed—by air movement, vibration, or touch—keratin generates an electrical charge. Melanin (whose ‘super human’ properties we have explored previously) within the shaft acts as a broadband semiconductor, capable of absorbing photons and converting them into electrons or heat.⁸
This combination means hair can do several things at once:
A mechanical sensor: Hair can pick up tiny movements—like changes in air flow, vibration, or touch—and send that information to the nervous system. (Think of how even a small breeze on your arm hair gets your attention.)
A photonic sensor: Because melanin absorbs light across a wide spectrum, hair can respond to light energy. (In other words, hair isn’t blind—it interacts with light far more than people realize.)
An electrical transducer: Hair can convert one form of energy into another, such as turning mechanical movement into electrical signals. (This is due to keratin’s piezoelectric properties—similar to certain crystals used in sensors and microphones.)
A dielectric waveguide: The structure of the hair shaft can channel electromagnetic fields along its length, guiding energy the way a fiber-optic cable guides light. (This is what allows hair to act like a tiny antenna.)
Every follicle is surrounded by mechanoreceptors and nerve fibers that relay signals to the central nervous system.¹¹ When hair moves, the follicle senses it. When the follicle emits electromagnetic activity, nearby tissues detect it. EM emissions from hair can influence blood coagulation micro-environments and even alter the behavior of nearby cells.
This contributes to a more nuanced view of hair as part of the somatosensory apparatus. It provides subtle environmental information—air currents, electrical gradients, temperature fluctuations—that the nervous system can integrate.
This also reframes cultural practices of uncut hair. Length increases interaction with environmental fields. It extends the piezoelectric surface area and enhances mechanical leverage on follicular sensors. Long hair may simply give the nervous system more data.
Physiology Written in the Field
Hair does not emit a uniform field across all contexts. Embí’s experiments reveal that the follicle’s electromagnetic profile changes with:
alcohol exposure (field becomes erratic, then gradually recovers)¹²
dehydration
aging (magnetic signatures diminish and become disordered)
cellular stress
nutrient status
This suggests hair is sensitive not only to external signals, but to internal physiological conditions—a potential diagnostic frontier.
Notably, follicles from younger individuals produce clear, curved cyclotron-resonance patterns, while older follicles show weaker, chaotic Lorentz-force patterns. Aging appears to dull electromagnetic coherence, a concept that mirrors broader theories of biological aging as a loss of systemic order.
Where Myth Meets Measurable Phenomena
Across cultures, stories about hair granting power or sensitivity have often been relegated to metaphor. But when examined in light of modern bioelectromagnetism, such stories begin to look less allegorical and more observational.
Indigenous trackers who lose sensitivity after haircuts, Rishis who coil their hair to enhance mental focus, Samson whose strength is tied to uncut hair—all may reflect empirical recognition of hair’s role in regulating perception and vitality.
This is not to claim these traditions anticipated modern electromagnetism. Rather, these cultures likely observed behavioral and perceptual consequences tied to hair length and structure—feedback now visible under the microscope.
Hair Contains DNA—And This Deepens the Scientific Significance
Although most people think of hair as an inert filament of keratin, every living cell in the hair follicle—and even remnants within the shaft’s medulla—contains DNA. This is not merely a biological footnote. It has direct relevance to the emerging biophysical interpretation of hair as an antenna-like structure.
In Your Body’s Hidden Technology: The Scalar Field Between Your Hands
I explored how DNA may function as a helical bioelectromagnetic transceiver, capable of emitting and receiving ultra-weak biophoton signals and potentially longitudinal (“scalar”) components described by Tesla and modern researchers. In Meyl’s extensive experimental work, he demonstrated that DNA radiates and receives electromagnetic signals at specific resonance frequencies, and he proposed that the double helix—with its coiled geometry—acts as a fractal antenna optimized for this form of information transfer.
This means that hair, which is literally built from DNA-governed cellular processes, may inherit not only metabolic and electromagnetic activity but also the geometric and informational properties of helical structures. Hair shafts are assembled from cells whose DNA-based oscillatory behavior and electron-transport metabolism, according to the Meyl model, create ideal conditions for longitudinal-wave coupling.
Thus, the presence of DNA adds an additional dimension to the scientific interpretation of hair: it is not simply a passive filament. It is a biological extension of the same helix-based electromagnetic architecture seen throughout the body.
Where DNA, Scalar Biophysics, and Hair Converge
Meyl’s theory reinforces the idea that helical biological structures naturally generate scalar potentials when oppositely phased waves cancel in the transverse domain, leaving a longitudinal component. The geometry of hair—coiled keratin fibrils layered in nested helices—mirrors this principle.
This framework does not replace classical electromagnetism, nor does it claim that scalar fields have been conclusively proven. Rather, it provides a theoretical context for explaining some of the puzzling features documented in Abrahám Embí’s research, such as:
non-contact transfer of field signatures
directional (“Shepherd’s Hook”) magnetic asymmetry
coherent crystallization waves
intermittent photonic emissions
communication between tissues
changes in field structure based on metabolic state
Embi’s findings, captured entirely through classical electromagnetic interaction, align with the pattern vocabulary of scalar/longitudinal field effects, even though he himself does not make that claim.
In From Prayer to Physics: The Science of Time-Reversed Healing
I elaborated on how phase-conjugate fields, time-reversed wave dynamics, and negentropic information patternsmay operate within the body. These models rely heavily on the ability of helical and fractal structures—especially DNA—to support standing wave potentials that preserve order and restore coherence.
Hair, as a macroscopic, helical, keratin–melanin waveguide, may represent the body’s most external and accessible member of this antenna hierarchy.
A Rediscovered Interface
The combined evidence—biological, cultural, electrophysical, and experimental—strongly supports a reframing of human hair as an active sensory and bioelectromagnetic interface. It communicates information internally and externally, responds to environmental fields, and expresses physiological state through observable emissions.
The ancient intuition that hair enhances perception and vitality may have been grounded in consistent observations of its influence on behavior, awareness, and social signaling. Modern microscopy now provides a physical basis for these observations.
Hair is not an ornament. It is an organ—one whose roles in sensing, regulating, and communicating may be more profound than we have recognized.
At a time when human perception is increasingly mediated by external technologies, recovering an understanding of our own biological sensing systems has practical and philosophical implications. Hair’s subtle capacities invite us to reconsider how human beings interact with the world—not only through sight and hearing, but through fields, currents, and patterns that operate just beyond ordinary awareness.
We may not fully understand the consequences of cutting hair or letting it grow. But it is now clear that hair participates in complex physiological processes, electromagnetic signaling, and environmental perception.
Science is beginning to illuminate what cultures across time already sensed:
hair contributes to the human organism’s ability to gather information, adapt, and remain connected to its environment.
This is not mysticism. It is biology—expanded.
Want To Dive Deeper?
For readers who want to explore these discoveries more deeply, the Science to Sage special issue curated by Karen Elkins offers the most comprehensive visual and conceptual tour of Abrahám Embí Sorondo’s bioelectromagnetic findings to date. Elkins’ editorial work situates Embí’s microscopy within a broader landscape of biophysics, consciousness studies, and ancient insight—making it an invaluable companion resource for understanding the implications of hair as an active field-sensing organ. The issue, which includes extensive imagery, peer-reviewed links, and Embí’s own commentary, can be explored at
For an in-depth conversation about the meaning and implications of this research, supporting members can watch my exclusive interview with Karen Elkins, where we explore the origins of her work, Embí’s discoveries, and the future of bioelectromagnetic biology:
👉
·
Jul 8
Sayer Ji interviews Karen Elkins on recent discoveries proving that human hair is both an antenna and transmitter of bioelectromagnetic energy and information; a discovery confirming the wisdom of the ancients: human hair possesses profound, if not 'super-natural' capabiliities!
Sayer Ji's Substack is a reader-supported publication. To receive new posts and support my work, consider becoming a free or paid subscriber.
References
Palo Da Floresta, “Trackers, WWII Special Forces,” in Science to Sage: Bioelectromagnetic—Secrets in the Field, edited by Karen Elkins (2021).
The Holy Bible, Judges 16.
Bulwer-Lytton, Edward. The Coming Race. London: Blackwood, 1871.
Mitoma, C., et al. “Localization of S100A2, S100A4, S100A6, S100A7, and S100P in the Human Hair Follicle.” Fukuoka Igaku Zasshi 105 (2014): 148–156.
Embí, Abrahám A. “Bioelectromagnetic Recordings of Living Matter.” Journal of Nature and Science 1, no. e55 (2015).
Embí, Abrahám A. “Human Inter-Tissue Bioelectromagnetic Transfer.” International Journal of Research – Granthaalayah (2020).
Gallas, J. M., and G. Eisner. “Melanin: The First Example of a Broad-Band Optical Absorber.” Journal of Photochemistry and Photobiology (1987).
Embí, Abrahám A. “Dominant Backwards Suction in Hair Follicle Crystallization.” International Journal of Research – Granthaalayah (2020).
Scherlag, Benjamin J., et al. “Imaging the Electromagnetic Field of Plants (Vigna radiata).” Journal of Nature and Science 1, no. e61 (2015).
Tobin, D. J. “The Anatomy and Physiology of the Human Hair.” Clinics in Dermatology 23, no. 4 (2005): 276–285.
Embí, Abrahám A. “The Drunken Hair: Bioelectromagnetic Disruption Following Alcohol Exposure.” International Journal of Research – Granthaalayah (2020).
† Ji, Sayer. “Your Body’s Hidden Technology: The Scalar Field Between Your Hands.” Substack, 2025.
