Stress-Induced / Psychosomatic Tinnitus

Stress-induced tinnitus is the type most people understand the least—and in my estimation, it affects only a relatively small share of people with tinnitus. But it exists, and it works completely differently from noise-induced tinnitus.

Many people know that the brain runs on electricity. But in everyday life, hardly anyone thinks about how this electrical activity is connected to phenomena such as tinnitus. Yet this knowledge is by no means new: as early as the 1990s, researchers using extremely rare, highly complex measuring devices (such as so-called MEG scanners) were able to show that in tinnitus—and, by the way, in depression too—certain brain regions work in a noticeably altered rhythm (the study on my sources page →). The idea that unresolved conflicts can be behind this kind of persistent activity is the explanatory model this page is about.

When strong inner conflicts persist, they generate continuous electrical activity in certain areas of the brain. The mechanism behind it: If we repress an emotion—fear, grief, guilt, or anger, for example—our conscious mind does disconnect from it. We seemingly no longer feel the conflict in everyday life, but the affected area of the brain keeps working in the subconscious, undiminished. It takes on a life of its own.

The person I learned this from is Michael Prgomet—an alternative health practitioner and lecturer who has been working on precisely these mechanisms for over 30 years. His work helped me resolve my own conflicts in 2013 and bring my nervous system back into balance.

That is why I am sharing his approach to tinnitus originating in the brain here, based on my own very positive experience. He refers to these phenomena as electrostatic tension fields: overactive, self-sufficient nerve centers that constantly draw current like small islands of energy and send electrical stimuli into neural pathways. Depending on which pathways are affected, this manifests as completely different symptoms—from the stomach to the ear. This is not a general recommendation—I am only sharing what helped me personally.

To give a concrete sense of them, I want to explain briefly what is actually meant by these tension fields. This is not about a huge electrical thunderstorm inside the head, but about very small, locally confined states of electrical tension between nerve cells—stress patterns located exactly where the original conflict was wired into the nervous system.

Here is the background: When we have an intense, distressing experience, our brain stores more than the memory of it. It stores the entire response package—the emotion, the situation, and, above all, the physical response triggered at that moment. The nervous system effectively remembers: “In this kind of situation, this exact protective program runs.”

A simple example makes this tangible: Imagine someone going through an extremely stressful situation—a sense of losing control, of being at someone’s mercy, perhaps even something like fear for their life. At that moment, the body launches a particular response pattern: the left shoulder blade contracts hard in a split second, breathing changes, and the heart races. The situation passes, the person survives it, and the shoulder relaxes again. The person consciously thinks: “Made it.”

But the nervous system has stored the entire package: This kind of situation = danger = launch this exact protective program, including the shoulder response.

Half a year later, a situation arises that is not identical but is similar at its core—for example, intense pressure from being evaluated at work, a domineering boss, or the feeling of being at someone’s mercy. Consciously, the person may have no idea why, but suddenly the left shoulder blade contracts again. Within milliseconds. Exactly the same response as before.

This is not imaginary, nor is it “just sensitivity.” This is the old, stored stress pattern, reactivated by a matching trigger—and in the process, it has actually switched the same neural pathway to the shoulder blade back on.

That is exactly how you can picture these tension fields: They remain relatively fixed in place—where the original response pattern was wired into the nervous system at the time. They do not wander randomly through the brain. But their activity can fluctuate sharply: Sometimes they are barely perceptible; at other times, triggers, lack of sleep, exhaustion, or intense inner strain activate them strongly enough to produce noticeable responses.

Now comes the crucial point: If a tension field like this becomes active enough, it does not just affect itself—it can also actually stimulate neighboring or connected neural pathways. And not only in the sense that they become “more sensitive,” but in the sense that they actually begin firing too.

This happens in several ways at the same time:

First, through fixed neural connections. Areas of the brain are extremely densely interconnected. When a stress network kicks in, it can automatically activate pathways connected to the heart, breathing, gut, muscles, blood vessels, or sensory processing.

Second, through chemical messengers. Highly active nerve cells release signaling molecules that don’t always stay obediently at a single synapse. They can also reach and affect surrounding cells.

Third, through glial cells and inflammatory signaling molecules. If an area is chronically irritated, certain support cells in the brain (microglia, astrocytes) can put the surrounding nerve tissue into a more active state.

Fourth, through small electrical field effects. When many nerve cells in a small area are active simultaneously and in synchrony, local electrical fields arise. These fields are small—but they are real, and they can actually push neighboring cells over the threshold so that those cells fire too.

You can picture this electrical mechanism roughly as a small Van de Graaff sphere in the nervous system (only as an image, of course—the actual voltages are much lower than those of a real high-voltage sphere, but the operating principle is the same): as long as the conflict is only slightly active, not much happens. But when a trigger comes along—or several factors combine, such as lack of sleep, exhaustion, and intense inner tension—the field charges up further. Eventually, the voltage is high enough, and the field discharges like a small bolt of lightning onto a neighboring, sensitive neural pathway. And that pathway then fires too.

Depending on which nerve center is also activated in the process, completely different symptoms arise: shoulder tension, stomach pressure, a racing heart, pressure in the jaw, skin reactions, pain—or an internal sound if auditory-processing pathways are drawn in.

Historical experiments

As early as the 1950s, researchers such as Wilder Penfield in Montreal conducted experiments in which patients’ brains were electrically stimulated. During the stimulation, many of the patients heard tones, music, or voices even though no acoustic source was present. These experiments provided the proof: when certain areas of the brain or auditory nerves are electrically stimulated, a sound arises—even without a sound source.

This is exactly where my explanatory model comes in: the same principle applies to stress-induced tinnitus, too. Except that here, the stimulation is triggered not from outside by electrodes, but from within by persistent electrical activity resulting from unresolved conflicts.

The difference between external and internal stress

Many people automatically associate stress with external pressures—such as work, family, or everyday life. But this situational stress is usually not the cause of this type of tinnitus. The crucial factor is the internal, stored stress that persists in the nervous system because of unresolved emotional conflicts and constantly generates electrical activity.

These chronic conflicts generate persistent inner tension that is constantly running in the background, but at varying levels of intensity. Some of these tension fields are barely perceptible; others are permanently active and powerful. These differences determine how strongly the conflict makes itself felt, physically or emotionally. Roughly speaking, you can divide these persistent inner tensions into two stages:

1. 01Dormant conflicts
2. 02Highly charged conflicts

Stage 1: Dormant conflicts

At this first stage, the conflict is chronically active, but the stored neural current from the negative emotion is too weak to continuously trigger noticeable physical responses. Only when a trigger comes along—such as a thought, a situation, a smell, a particular person, and so on—does the conflict become more strongly activated. This briefly raises the tension so much that it discharges and triggers physical symptoms, for example stomach cramps, muscle tension, or even tinnitus.

Stage 2: Highly charged conflicts

These conflicts are chronically active and so highly charged that they repeatedly discharge spontaneously even without a trigger. The stored neural current is so massive that the affected area—to return to the image described at the beginning—keeps charging up electrostatically like a Van de Graaff sphere. Because this energy can’t simply fizzle out into nothing, it seeks an outlet and discharges like a small bolt of lightning onto neighboring, sensitive neural pathways (purely by chance, depending on which pathways are nearby). These discharges can occur in the auditory system and overstimulate the auditory-processing nerve centers there. The result: persistent tinnitus.

Even these highly charged conflicts can change in intensity, however. If another trigger activates them again—such as emotional strain, stressful situations, or particular thoughts—the discharges temporarily become noticeably stronger. This explains why people with tinnitus sometimes notice fluctuations in its loudness or intensity even though the underlying conflict remains chronically present.

These mechanisms explain why many people with tinnitus report that it becomes quieter on vacation or during stress-free periods: The trigger is no longer present, the conflict is no longer being fed, and the tension in the system drops—the discharges become less frequent and weaker. When the triggering situations return (for example the workplace, particular people, or pressure to perform), the stored tension rises again and symptoms flare up.

The following image helps make this phenomenon clear at a glance: Imagine a particular area of the brain as a small, statically charged metal sphere. As long as the conflict remains active, it keeps charging up. Eventually, the voltage becomes so high that it suddenly discharges onto the nearest conductive point—a spark jumping to a neighboring neural pathway.

Everyone has psychosomatic responses—that is entirely normal and not an illness. From an evolutionary perspective, the psychosomatic response is actually our oldest learning-and-warning mechanism (an instinct). It is meant to keep us from making the same mistake twice or remaining in situations that are not good for us. When you get a fright, your pulse rises, your muscles tense, and your breathing speeds up. These are healthy protective reflexes of the nervous system.

It becomes pathological when these stimulation loops no longer switch off because unresolved conflicts or constant mental strain keep generating current in the background. A state of chronic overexcitation then develops. And depending on which neural pathways are affected, different symptoms appear—stomach problems, back pain, or tinnitus.

Duration is a crucial clue: when a symptom persists even without acute stress, chronic abnormal electrical activity in the nervous system is usually present.

Why a stable body protects the nervous system

The main focus is on reducing inner conflicts or resolving them completely—that is the lever. Sleep, nourishment, and a stable body provide support. An exhausted nervous system reacts more strongly to inner tension; a well-nourished one can regulate it better.

The brain—the top control center of our nervous system—does most of this regulatory work. Two areas play a central role here in processing stimuli: the thalamus and the prefrontal cortex.

The thalamus acts like a regulator and distributor for physical and emotional stimuli. Its job is to sort and meter the multitude of incoming signals—whether sounds, pain, or emotions. It determines how strongly these impulses enter conscious awareness. Some of the stimuli are dampened, while others pass through more directly, depending on how active or sensitive the nervous system is at that moment. However, it is not an absolute blocker: If the stimuli themselves are very strong or persistently active—for example because of damaged hair cells or chronically overstimulated nerve centers in the brain—even a healthy thalamus cannot suppress them completely, but can only dampen them. Its role is therefore to meter the transmission of stimuli and thereby soften the perception of tinnitus—it is not a switch that can simply turn the tone off completely.

By contrast, the prefrontal cortex is not a filter but the evaluation and control area: It assesses how these stimuli are classified emotionally and regulates how strongly you respond to them.

Both areas are extremely energy-hungry. When energy, nutrients, or sleep are lacking, the thalamus lets more stimuli through, and the prefrontal cortex loses some of its control. The result: The stimuli (such as tinnitus) are perceived as louder, more intrusive, and more emotionally distressing.

A stable physical state is therefore the most important protective shield for our nervous system. Sufficient physical energy, B vitamins, healthy fats, proteins, minerals (such as magnesium and zinc), carbohydrates, and oxygen are not mere add-ons but essential building blocks. They perform two key functions in the nervous system to stabilize this signal processing:

1. The outer insulation (myelin sheaths)

These nutrients—first and foremost B vitamins, essential minerals, and very specific healthy fats and proteins—are absolutely necessary to form and actively compact the myelin sheaths. These are the protective insulating layers around our neural pathways. When they are intact, electrical stimuli travel cleanly and evenly. When these essential building materials are lacking, the layers become thinner, the nerves become more reactive to stimuli, and even small impulses suddenly feel restless and loud. Well-insulated nerves are exactly what we colloquially call “nerves of steel”—they withstand internal and external stimuli significantly better.

2. The internal power supply (ATP and ion pumps)

But the best outer layer is useless if the electrochemical balance inside the nerve is not right. This is where B vitamins, above all, come into play. They are crucially involved in energy production (ATP). This energy powers the so-called ion pumps—tiny motors in the cell membrane that exchange sodium and potassium and thereby maintain the nerve cell’s baseline electrical voltage. When this ATP is lacking, the pumps fall out of rhythm and the nerve remains trapped in a state of mild constant activity. Enormous amounts of ATP are also precisely what our two most important control centers—the thalamus and the prefrontal cortex—absolutely need in order to function flawlessly. Without sufficient energy, their ability to filter and regulate collapses, and tinnitus enters conscious awareness unchecked.

In addition, minerals such as magnesium and zinc act like natural dampers in this electrical system. If they are lacking, the nerves fire more quickly and tend toward overexcitation under sustained psychological strain.

All these physiological processes interlock: If the nervous system is adequately nourished and energetically stable, the signals run in a more orderly way—and, almost as a side effect, sleep usually improves too. Deep sleep, in turn, allows the body to regenerate better at night—the filter in the brain recovers and the entire system noticeably returns to balance.

Exercise can help channel excess energy and tension away from overactive neural pathways. When you sweat, your nervous system uses up energy that would otherwise stay stuck in these stress fields. This lowers the intensity of the stimuli, and tinnitus seems quieter.

However, exercise does not resolve the underlying conflict. It addresses the symptoms, not the cause. The actual source of stress—the unresolved conflict—remains. Even so, physical activity is valuable because it reduces stimulus overload and stabilizes the nervous system.

The art is to activate energy in the right places and discharge it from the wrong ones—in other words, to create a balance between building energy up and discharging it.

Both pathways—noise and stress—end at the same point: in overstimulated nerves involved in auditory processing. With noise, the false signal comes from the ear; with stress, it comes from the conflict hotspot in the brain.

One possible path to improvement under this model is to bring the underlying conflict into conscious awareness and resolve it at the root (for example with Michael Prgomet’s method). Prgomet calls this process conflict resolution or trauma resolution; in his approach, the actual reprocessing takes place predominantly during sleep and in dreams. Based on his experience in his practice, no such tension field simply arises out of nowhere. As a rule, for each of these unresolved conflicts, there is a very concrete, old situation in the past that originally started this program. If this original situation is reprocessed in the nervous system—in other words, if the actual trigger is reprocessed—the brain can dial the persistent electrostatic current back down.

At the same time, it helps tremendously to strengthen the body during this phase. The body’s condition determines how strongly stimuli are transmitted in the meantime. A weakened system transmits them; a stable system buffers them.

However, in my estimation, you don’t necessarily have to support your lifestyle or body with dietary supplements or special programs to improve stress-induced tinnitus. Working through inner conflicts remains the crucial factor. Keeping the body well nourished and adapting your lifestyle can, however, make this process noticeably easier—they have a regulating and stabilizing effect and help the nervous system return to balance.

The goal: Redirect energy deliberately—boost it in the right place and discharge it from the wrong one. This restores balance—and where the thunderstorm once raged inside the head, calm can finally return.

So What Do You Do About Stress-Induced Tinnitus?

On a separate page, I describe what you can actually do to counter stress-induced tinnitus. There, I explain which steps, in my view—and based on the methods my alternative health practitioner has used in his practice to work with stress-induced tinnitus for over 30 years—can be the most effective in addressing these inner tension fields. If the underlying emotional conflict is resolved, then, under this model, electrical activity in the affected area can decrease—and with it, as I know from many conversations with Prgomet and from accounts of his work, so can the tinnitus.

Further Questions & FAQ

And of course, a few questions are bound to remain unanswered—so I created an FAQ subpage that I am currently building step by step.

Important Note