The Electrical Foundation of Biology

When we want to know whether the heart is functioning, one of the first things we look at is its electrical activity. When we need to understand what is happening in the brain, electrical activity can be measured there as well. Medicine already recognizes something extraordinarily important, even if we rarely stop to consider the implications: organized electrical activity is inseparable from living function. The heart, brain, nerves, muscles, and ultimately every living cell depend upon electrical and electrochemical conditions to remain functional.

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So electricity is not some alternative concept being added to biology.
It is already there at the foundation of life. But that is only the beginning of the story.

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We are accustomed to approaching the body primarily through biochemistry. We talk about hormones, enzymes, nutrients, proteins, neurotransmitters, genes, medications, inflammation, and metabolic pathways. All of these things matter, but none of them operate in isolation from the electrical state of the cells and tissues in which they exist. Every biochemical reaction is occurring within an environment of charge, ion gradients, membrane potentials, pH, redox conditions, and electrical relationships that help determine what those molecules are actually capable of doing.

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This changes the hierarchy. Biochemistry is extraordinarily important, but it is taking place within an electrical and electrochemical foundation. If that foundation changes, the conditions under which the chemistry operates change with it.

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This is only the tip of the iceberg.

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The Foundation Is Not Only Power. It Is Information.

One of the most important things to understand about bioelectricity is that it does not simply provide energy for biological processes. Electrical states also participate in directing them.

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Consider DNA. We often speak as though our genes are sitting at the top of biology telling everything beneath them what to do. Yet almost every cell in your body contains essentially the same genetic library, while a brain cell behaves completely differently from a liver cell, muscle cell, or skin cell. The difference is not simply which DNA they possess. It is which parts of that DNA are being expressed and how those instructions are being interpreted within the larger state of the cell.

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That means something has to help determine which of the many biological possibilities encoded within DNA become active. Hormones, nutrients, transcription factors, mechanical forces, epigenetic regulation, cellular signaling, and many other influences participate in this process, but so does the bioelectrical state of the cell. Changes in membrane potential can influence signaling pathways and gene expression, while bioelectric communication between cells can help coordinate behavior across entire tissues.

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DNA contains possibilities.
The state of the system helps determine which possibilities become expressed.

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This is why the foundation is informational. It is not simply supplying electricity to a machine whose instructions have already been decided elsewhere. It participates in the regulatory environment that helps determine what the cell does with the information available to it.

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Cancer gives us a particularly powerful example. Michael Levin’s work has explored cancer as a breakdown in the communication that normally connects individual cells to the larger goals of the tissue. In experimental models, altering resting electrical states can induce abnormal tumor-like behaviors, while restoring or manipulating bioelectric communication can suppress or normalize tumor phenotypes even in the presence of strong cancer-promoting genetic signals. (PMID: 33826908 – Levin M. (2021).)

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More recently, a 2026 synthesis titled Cancer: A bioelectric disease? examined approximately 15 years of research into membrane potential across cancer systems. After screening hundreds of studies, the authors found a remarkably consistent relationship between depolarized membrane potential and malignant characteristics such as proliferation, stemness, invasive behavior, and resistance to therapy. Rather than treating voltage as another downstream feature of the cancer cell, they propose membrane potential as a systems-level state variable that connects ion-channel activity with signaling, metabolism, and cell-state control.

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This is important because the paper does not simply ask whether electricity has some involvement in cancer. The authors argue that the accumulated evidence has moved the conversation beyond that. They describe the central question as shifting away from whether cancer should be considered a bioelectric disease and toward understanding how significant bioelectric signaling is as an organizing dimension of tumor biology.

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Their conclusion makes that shift especially clear:

“In conclusion, we propose that cancer can be understood as a disorder involving the dysregulation of bioelectric state control.” - PMID 42165099, “Cancer: A bioelectric disease?”

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Think about what that means when placed beside Levin’s work. We are no longer simply looking at isolated experiments suggesting that voltage might matter. We are looking at an emerging systems-level picture in which electrical state, cellular communication, metabolism, gene expression, and malignant behavior are intertwined, with membrane potential acting as one of the conditions through which those different layers are brought together. The 2026 review goes further by describing bioelectric signaling as a fundamental and previously underappreciated organizing dimension that interacts with genetic, epigenetic, and metabolic regulation to shape malignant cell states.

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This forces us to reconsider where the hierarchy actually begins. If a cell can contain cancer-promoting genetics while its behavior still changes according to its membrane potential and its communication with surrounding tissue, then can the mutation alone really be considered the final instruction? If electrical state can influence whether a cell proliferates, differentiates, migrates, or participates normally within the larger tissue, then what exactly is the more foundational layer determining how the genetic possibilities are being expressed?

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And perhaps most importantly, what does it mean when the state of the system can change the behavior of a cell without first changing the DNA itself?

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The genetics still matter enormously, but they are operating inside something. A mutation exists within a cell, that cell exists within an electrical and metabolic state, and that state exists within a larger network of communication with the tissue around it. Understanding the mutation therefore tells us something important about what has changed within the genetic material, but it does not necessarily tell us everything governing what that cell will ultimately become or do.

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The mutation may tell us what is possible.
The state of the system helps determine what actually happens.
 

Information Is Only Half of the Equation

The body can receive the correct information and still be unable to carry it out if the system no longer has the capacity to respond. A function requires energy, minerals, nutrients, membranes, circulation, mitochondrial output, structural integrity, and countless other resources. Yet possessing all of those materials does not automatically produce the correct function either. Those resources still have to be coordinated toward the right biological outcome.
 

Information tells the system what to do.
Capacity determines whether the system can do it.
 

This is where the electrical foundation becomes particularly important because it sits at the intersection of both. The body requires energy, minerals, membranes, and metabolic resources to maintain its electrical gradients, while those same gradients participate in communication, regulation, gene expression, and the coordination of cellular behavior.
 

Robert Becker’s work on regeneration made this relationship difficult to ignore decades ago. In his experiments investigating electrical conditions around injury, Becker reported partial regeneration in amputated rat limbs after recreating electrical conditions modeled on regenerative systems. His work raised a much larger question than whether electrical stimulation could influence healing: why can one biological system regenerate while another largely scars, even when both contain cells, DNA, nutrients, and the basic material needed to build tissue?
 

The parts alone are not enough. The system must possess the organization and capacity required to use them.

And this is where the subject becomes very personal.
 

Why Did the Body Stop Doing What It Used to Do?

If your digestion once worked differently, what changed? If your thyroid once maintained adequate function, what changed in the conditions that allowed it to do so? If your body once kept a microorganism under control, why did the relationship change? If a tissue once maintained itself properly, why is it no longer capable of doing so?
 

We are very accustomed to observing what the body is doing now. The hormone is low, so we replace it. The enzyme is insufficient, so we supply it. A pathogen appears, so we try to kill it. Inflammation rises, so we attempt to suppress it. Sometimes these interventions are necessary and extremely useful, but they answer a different question from the one BioElectric Wellness is asking.
 

Why did the body lose the ability to do what it previously knew how to do?

That question takes us beneath the output and toward the conditions that made the function possible in the first place.
 

This is where digestion, the microbiome, pathogens, circulation, immunity, and metabolism begin to look far less disconnected. Digestion depends upon the body creating very specific electrical, ionic, and chemical conditions. The gut microbiome lives inside a terrain whose pH, ion concentrations, mucus, oxygen, bile, nutrients, and immune activity are continually being created by the host. Change those conditions and you change the selective pressures acting upon the organisms living there.
 

The same principle applies when we think about fungi, parasites, bacteria, or organisms such as Borrelia. Their enzymes, metabolism, reproduction, and ability to persist are dependent upon the environment in which they find themselves. This does not mean the terrain magically creates the organism. It means that the presence of an organism and the ability of that organism to flourish are two different questions. The physiological state of the host helps determine whether the environment becomes more supportive or less supportive of its persistence.
 

Even the blood reflects this principle. Red blood cells possess a negative surface charge that contributes to their ability to repel one another. When that surface potential is reduced experimentally, aggregation increases. Many other factors influence blood flow and clotting, but the example is remarkably clear: charge itself participates in how cells physically behave in relation to one another.
 

Different systems. Different symptoms. Different diagnoses.

The same deeper principle: the state of the terrain changes what biology is capable of doing within it.
 

This Changes Where We Look for Leverage

This is where the foundational perspective becomes important to both the person trying to understand their own health and the practitioner trying to help them.
 

If we begin only at the final expression of dysfunction, our available solutions naturally revolve around that expression. We replace what is missing, suppress what is excessive, kill what has appeared, or provide from the outside what the body is no longer providing effectively for itself.
 

But if we can begin identifying what changed in the conditions underneath that loss of function, another possibility enters the conversation. Can we help the body regain more of the function it is currently outsourcing?
 

There is an important difference between supporting a function and restoring the conditions that allow the body to perform that function.
 

A medication, supplement, diet, or therapy may provide valuable support, but if long-term health depends upon the organism maintaining its own functions, then whenever biology still allows it, we should also be interested in why that capacity was lost and what would be required for more of it to return.
 

This is where information and capacity give us something far more useful than another theory. They give us somewhere to look for leverage. Is the system receiving the wrong information? Does it lack the capacity to respond? Have both changed? What happened upstream of the dysfunction, and which downstream changes developed because the body was attempting to compensate?
 

“For the patient, this creates the possibility of understanding why several seemingly unrelated problems may belong to the same physiological story. For the practitioner, it creates a way to look beyond the diagnosis toward the conditions that made the diagnosis possible.” - Marcel Luisis
 

The objective begins to change from simply managing dysfunction to asking what would be required for the body to regain more of its ability to function.
 

What Would Become Possible If We Could Actually Read This Foundation?

Once we recognize that the bioelectrical foundation participates in energy production, gene expression, cellular behavior, regeneration, digestion, microbial ecology, circulation, and even cancer biology, it becomes difficult to treat it as a minor feature of physiology.
 

From the BioElectric Wellness perspective, this is what it means to call bioelectricity foundational. It does not mean that nutrition, chemistry, genetics, immunity, structure, psychology, or environment suddenly stop mattering. It means that these processes occur within a deeper electrical and electrochemical state that helps determine the conditions under which they can function.
 

If that state changes, everything operating within it has to respond. And that leaves us with an even bigger question.

If this foundational information is being coordinated throughout the body, what is the architecture through which it moves?
 

A cell does not exist alone. Cells communicate with other cells. Tissues coordinate with tissues. Organs influence organs. Electrical gradients, nerves, fascia, circulation, extracellular matrices, chemical signals, and direct cell-to-cell communication connect areas of the body that we often study separately.
 

So what would it mean if we could begin recognizing those relationships as larger functional circuits? What if a symptom appearing in one part of the body could sometimes represent a loss of information or capacity somewhere else within the same circuit? And what would become possible if, instead of stopping where the problem appeared, we could begin following that circuit backward toward where function first began to change?
 

That is where the next layer of BioElectric Wellness begins.

The circuits of the body.