“Future generations will look back on non-native EMFs as the lead in the water pipes that slowly drove the Romans mad. A convenience we bathed in every day, while biology quietly lost bioelectrical fidelity.”
That is my warning about the infrastructure we are building around life. It is a provocative analogy, not a settled historical or medical conclusion. But the question behind it deserves our attention: can a civilization become so impressed by what its technology delivers that it stops examining what the delivery system does to the people using it?
Consider Rome.
Its aqueducts were monuments to engineering: water moving across landscapes, through carefully graded channels, into a city whose public life depended on its arrival. Baths, fountains, households, and commerce benefited from a system that made extraordinary convenience ordinary.
The achievement was real. So was the contamination introduced by lead pipes in the distribution network.
The distinction matters. Roman aqueducts were not generally lined with lead; lead was used in parts of the plumbing that distributed their water. A 2014 study found that these pipes substantially increased lead in Rome’s water, while concluding that the estimated contamination was unlikely to have been seriously harmful. The familiar claim that the pipes “drove the Romans mad” goes beyond that evidence. We do not need that claim to establish the lesson: impressive infrastructure can introduce an unwanted exposure alongside an essential service. Delile and colleagues, PNAS
Today, we have built aqueducts of information.
They carry our conversations, classrooms, businesses, entertainment, and emergency calls. Much of that journey already happens through fiber. But increasingly, the final connection crosses the spaces we inhabit as modulated radiofrequency signals, often in microwave bands.
We speak of information moving “through the ether.” Physically, electromagnetic fields travel through space and interact with materials, including our bodies. The message may be intended for a phone, but the exposure is not confined to that phone.
This is where the Roman comparison becomes useful. Water was the service; plumbing determined what accompanied it. Connectivity is the service; our choice of transmission medium helps determine the exposures that accompany it.
We can value the service while demanding better infrastructure.
The information system inside us
Every discussion of digital communication should remind us that living systems also depend on communication.
Calcium is one of the cell’s essential messengers. A calcium signal has an amplitude, a duration, a location, and a rhythm. Calcium can enter through channels in the cell membrane or be released from internal stores, including the endoplasmic reticulum. Those changes help coordinate cellular responses.
A cell does not simply ask how much calcium is present. The pattern matters. Experiments have demonstrated that the frequency of calcium oscillations can influence which gene-regulating pathways are activated. Timing is part of the message. Dolmetsch and colleagues, Nature
Think of music. The same notes, played with different timing, can produce a different melody. In cells, changes in timing can likewise change the meaning of a signal.
That is the biological foundation of what I call low fidelity biology: a proposed condition in which the precision and coordination of biological signaling deteriorate.
The established science is that cells depend on this precision. The additional question is whether particular environmental RF exposures can impair it, under what conditions, and with what consequences.
Those are separate steps in the argument. They must be tested separately.
Could our information networks interfere with life’s signals?
Researchers have proposed that electromagnetic exposures could affect calcium signaling, including through voltage-gated calcium channels. Martin Pall’s 2013 review highlighted experiments in which calcium-channel blockers reduced reported EMF responses, interpreting them as evidence for calcium-channel involvement. Pall, Journal of Cellular and Molecular Medicine
That is a reason to investigate a pathway. It does not, by itself, prove that everyday microwave exposure directly opens those channels. A blocker can interrupt a downstream response without identifying the initial interaction. The studies also involve different exposure conditions, which cannot simply be treated as interchangeable.
There is substantive disagreement. Wood and Karipidis’s review concluded that experimental studies had not validated RF effects on calcium transport and challenged the proposed coupling mechanism at exposures within guideline limits. A credible investigation must resolve those objections through reproducible measurements. Wood and Karipidis, Radiation Research
The important experiment is therefore more specific than “does wireless affect cells?” Compare well-characterized signals. Control temperature. Measure calcium amplitude, timing, and recovery. Separate carrier frequency from modulation and exposure intensity. Determine whether an observed change persists, causes dysfunction, and can be independently reproduced.
A pulsed signal is not automatically harmful. A cell’s dependence on electrical signaling does not establish that every external field can disturb it. But neither should an engineering discussion of average power substitute for investigating a precisely stated biological hypothesis.
My concern extends beyond heat to timing and fidelity. Heating remains a real RF interaction; the scientific challenge is to determine whether additional interactions occur at relevant exposures.
What I mean by a “meta-disease state”
I use this phrase for a hypothesis about shared vulnerability: a background loss of biological coordination that could influence more than one disease pathway.
Under that hypothesis, an environmental stressor would not need to produce the same disease in everyone. Its effects could depend on genetics, developmental stage, existing illness, other exposures, and the ability to recover.
The concern is that an added burden could make the rare less rare, or bring forward a problem that otherwise would have emerged later.
That is a research proposition, not an established explanation for population disease trends. “Low fidelity biology” and “meta-disease state” are the names I give this proposed framework, not validated clinical diagnoses. Demonstrating that RF contributes in this way would require evidence linking exposure to signaling changes and then to meaningful health outcomes.
The value of the framework is the question it asks: are we measuring the integrity of biological coordination, as well as the endpoints that appear after it fails?
We can change the channels we build
The practical response begins with the fact that connectivity can travel by different routes.
Fiber carries information as light within a physical cable. Ethernet serves fixed equipment. Li-Fi can use visible or infrared light for a wireless optical link. IEEE’s light-communications work shows that optical networking is an engineering pathway, not merely a futuristic idea. IEEE overview of light-communications standards
I favor moving more traffic onto fiber and wired connections, and developing optical links where wireless access is useful. A classroom, office, or home can be designed around the connection each task actually needs.
But the alternative deserves the same scrutiny. Infrared is also electromagnetic radiation. Its presence in nature does not make every engineered infrared exposure biologically compatible. Optical systems need appropriate eye and skin safety assessments, and Li-Fi should not be confused with therapeutic light treatment.
The defensible benefit is specific: replacing an RF link with a wired or optical link can reduce RF emissions from that connection when the displaced radios are disabled or transmit less. Any claim of improved health requires its own evidence.
That gives us a concrete design agenda: use wired connections for stationary equipment, evaluate optical access where appropriate, verify exposure reductions, and investigate biological outcomes openly.
Rome’s lesson should make us more ambitious about engineering. The aqueduct delivered something valuable. Its usefulness did not answer every question about the materials carrying the water.
Our information networks deserve the same examination.
We already demand faithful transmission from our devices. We measure interference, correct errors, and redesign systems when signals lose integrity.
The fidelity of life deserves at least that much attention.
Future generations will inherit the networks we build. Let them inherit a civilization that asked what its infrastructure did to biology—and improved its designs as the evidence developed.
