Dr. Mark Steinberg - Not So Silly Questions - Mark Steinberg, PhD & Associates

Not So Silly Questions

EEG Neurofeedback: Effective and Misunderstood

After providing EEG neurofeedback treatment for as long as decades, some veteran neurofeedback professionals can be unwittingly dismissive of questions that sound “silly” or repetitive from laypersons who have often been provided with multiple explanations. However, deeming such questions as irrelevant can convey an attitude of arrogance and might miss the opportunity to teach and engage those who are interested, curious, intelligent, and eager to be informed.

Despite advanced education and training of many patients (including engineers, scientists, and even most healthcare professionals), few people have the fundamental context or experience to comprehend a process that seems so unconventional, abstract, and foreign. To understand how brain plasticity adapts to a variety of healing modes and improvements using EEG neurofeedback requires much more than a nuts-and-bolts technical explanation.

To bridge the chasm between what may seem on the surface to be silly questions about a technique that demonstrates how the mind’s transformative capacities can extend beyond logical analysis, language reasoning, many familiar concepts, and quantitative measurement, I will attempt to answer the most common questions and address some underlying mistaken assumptions or misunderstandings that I have become aware of over many years of doing this remarkable technique with many patients. I’ll first address the core concepts and issues that underlie how and why neurofeedback works and why these concepts and explanations can seem elusive.

Our brain has innate biological plasticity

The ability of our brain to reorganize or “rewire” itself is often called neuroplasticity. This means that the brain can adapt to new information and experiences by forming additional neural connections. This capacity allows for changes in self-regulation (internal state management, such as fight-or-flight responses), cognitive functions, emotional stability, and the wherewithal to reroute connections when some parts of the brain tissue or its circuits have been damaged (or are otherwise offline).

Our brain does this naturally and often automatically—just like our skin tissue will heal itself under hygienic conditions with adequate immunological response. For physical healing, we may need to intervene medically to reset bones or help with antibiotics to assist normal biological repairs. Similarly (and with significant efficiency), the brain can regulate, heal, and improve itself when shown relevant information about its own operations. This concept is key, yet its foundation and inherent processes are different from logical thinking (both in our brain and in scientific applications). Whereas these truths are subject to scientific analysis, measurement, and verification, a useful notion to keep in mind is that of the whole being more than the sum of its parts. For example, when properly combined, hydrogen and oxygen gases make water, a chemically constructible compound that follows natural principles. Yet water is obviously a fundamentally different entity in properties, effects, and experience than its constituents. Water has different states (liquid, ice, vapor) that also reveal properties that derive from chemical composition but display in multiple forms.

We are familiar with and readily accept our own conscious experiences with cognitive and emotional perceptions and events. We also incorporate scientific input about the inner workings and biochemical integration of brain parts and interactions, following demonstrable evidence from medical interventions, imaging and experiments, and the effects of pharmacology. This is evident both empirically and in making the connection with subjective experience.

However, the concept that the brain can achieve significant and lasting adaptive changes without specific intrusive intervention (mechanical and/or chemical) is a radical departure from the conventions of most science. As my learned colleague, Dr. Siegfried Othmer, says, “The field of medicine is not interested in the brain that heals itself.”

That the brain knows what to do for its own best interests not only runs parallel to logic, but it may also seem threatening to a person’s sense of identity and control. Add to this the awareness that afflicted people have trouble trusting their own brain and decision-making, and one can sympathize with a reluctance to recognize or trust the self-direction of one’s own brain.

The mechanisms by which the brain can normalize and reorganize its own affairs are not specifically discernible or measurable through incremental inspection or data analysis. Thus, the mystery of how the brain does this remains, though the evidence that it can and does do so abounds. Despite neurofeedback’s decades-long empirical validation, acceptance of the individual’s brain capacity to navigate its own best course to normalization and functionality runs counter to the framework in which most think.

With respect to scientific accuracy, this is not to suggest that the brain can accomplish such functionality entirely on its own; if so, there would be no need for treatment. Rather, effective intervention presupposes and follows the display of relevant brain information whereby the individual can track, guide, regulate, and improve what their brain does to stabilize and improve itself—and train itself subliminally and automatically.

Considering the complexity described above, many patient questions arise from the break between the expectations from most mainstream health interventions and this novel way of conceiving and interpreting their own journey back from internal disconnections.

Another factor in answering patient questions resides in potential discrepancies between the language used to formulate the questions and the real need or intent of the inquiry. Patients may not use the most accurate words to describe or articulate their concerns. For example, a question such as “How am I doing?” may simply be an open-ended bid for reassurance that the treatment is progressing smoothly and according to plan rather than seeking a technical or quantitative reply about what the brainwaves are showing (even though that’s what is sometimes asked). Providing adequate and satisfying answers to honest questions requires a combination and selection of specific information matched with sensitive interpretation of the need beneath the worded question.

With these considerations in mind, let’s review some common (not silly) questions and the relevant answers to them.

How can neurofeedback help my symptoms?

Like any exercise, neurofeedback takes practice. This mental/neurological exercise utilizes the brainwaves as seen in an EEG (electroencephalogram) as a platform for exercising the brain. Rather than exercising the muscles or cardiovascular system, neurofeedback exercises the neuronal activity that shows up in the EEG. Gradually, the brain becomes fitter, sharper, more relaxed, more self-regulated, and more adaptive; it is similar to going to a gym for the brain to become more mentally fit.

When you exercise on a treadmill, stationary, bike, or stair-stepper, you are not “going anywhere.” However, as you attain greater levels of fitness (capacity to do work), this capacity generalizes to the physical work you do in the outside world.

Similarly, the question of “How is watching the screen in the office going to help me with (various problems)?” is answered by the result of better brain fitness, flexibility, and resilience, allowing you to function more adaptively to the internal demands and changes within your nervous system and the external pressures and challenges that routinely occur.

How long does it take to see results?

Results are gradual, cumulative, and vary among individuals, subject to factors such as severity and length of impairment, health status, neurological sensitivity, and the types of symptoms, conditions, and deficits. Anxiety generally begins to respond within eight to fifteen sessions (often sooner), depression lifts incrementally within twelve to twenty sessions, and focus responds gradually within ten to twenty sessions. Chronic sleep problems typically require twenty sessions or more to see noticeable changes that will last.

Though the majority of patients improve within the first twenty sessions, completing a regimen of forty sessions is recommended to establish the brain’s better and longer-lasting self-regulation. Progress accumulates gradually and deepens as training progresses.

How does watching the activity of my brain on a screen help my brain? If I’m watching a movie or game, how is that helping me?

The EEG is displayed through digital special effects as a livestream blended and superimposed on whatever type of entertainment the patient chooses. Watching a movie or game is used simply to attract interest and keep the patient occupied focusing on the screen. Digital special effects show live feedback information on how much and how often the brain is “in the zone” according to individually set filters and parameters determined together with the therapist. The feedback, which encompasses thousands of subtle signals per session, gently encourages and rewards the brain for spending more brainwave time within the specified ranges. This is accomplished via patient observation of the digital special effects. These are dynamic: the screen and picture appearance vacillate in various shades of fogginess and clarity; the screen size enlarges and shrinks; the volume changes; in the video game feedback, the objects change speed and direction and points accrue. This essence of the brain exercise is the critical agency of the effects.

Just as watching a movie on an airplane keeps you occupied while traveling from point A to point B—the primary intended activity—with neurofeedback, your brain is working effortlessly while you are watching the screen. With this treatment, you have no need to problem solve or think any particular thoughts. You don’t have to try—just observe.

What does the computer say about my brainwaves and progress?

The answer is neurological rather than logical. The computer doesn’t report anything about progress, nor does it indicate anything useful about treatment. Specialized software operates with algorithms and generates plenty of mathematical data. However, these data are not relevant to progress or improvement. Think of it this way: at a gym, the exercise equipment does not say anything about your fitness progress. After spending time on a treadmill, the machine may show various data on your time, intensity, etc. But it cannot measure how you feel or tell you how you are improving in strength, flexibility, endurance, and so forth. These bottom-line results are what you experience after a period of correct and sufficient training.

Similarly, with mental fitness, clinicians are most interested in how you feel along the way and what symptoms are improving. We make adjustments based on patient reports, not squiggly lines on the computer. Training protocols do not follow specific brainwave patterns. Though basing the treatment on quantitative electroencephalograms (QEEGs) or brain maps is in vogue among many practitioners, I believe this is errant. Though I have conducted QEEGs for more than thirty years (as there is some value in them for certain purposes), they have not proven helpful in my experience for attaining the optimal results we typically get. After carrying out many QEEGs, before and after treatment, it became apparent to me that the beneficial effects observed in the training don’t tend to line up with changes that may occur in the EEG over the course of training. And the EEG may not change significantly at all, even though the patient changes!

The EEG scroll shows basic morphology (shape of the brainwaves) and a spectral display that can highlight deviations and excesses of certain frequencies. For example, people who are very tense or anxious may show excessive or sporadic deviations in frequencies associated with muscle tension. If a patient falls asleep, this is usually noticeable on the screen. But more importantly, we monitor and watch the patient and gently wake them up to continue to participate in the training.

The agency of the training process, however, lies with the brain itself. The sophisticated software averages over the EEG and yields a more slowly varying waveform that informs the brain of its instantaneous status. The brain recognizes itself in that signal, and on that basis, anticipates its forward progress. There is always a slight gap between the emerging reality and the brain’s intentions for the signal. Bringing closure to that gap is the brain’s ongoing challenge, which exercises the brain’s control mechanisms. This “brain anticipation” enables the brain’s underlying neural networks to chart a better course—and that is the natural biological wisdom of the brain that we evoke in real time. Your brain knows how to do this when shown the relevant information. We don’t put anything in—we simply show it what it’s doing moment by moment and let it guide itself toward more harmony and stability and more resilient self-regulation.

To approximate how this EEG anticipation works, picture a car equipped with headlights that sense the curvature in the road ahead as your car turns. The headlight beams anticipate the turn and gradually lead into the upcoming road to best assist your vision.

It’s a difficult and abstract concept, yet still rigorously scientific. Because of internal signal processing delays, the brain must act on the basis of its prediction of the immediate future. As an example, if the brain were not to anticipate, a baseball player couldn’t hit a fastball except by luck. So the brain is organized for prediction in life, and that allows it to project the EEG forward as well. That, in turn, lets us to do neurofeedback in the way that we are doing it.

Should I feel any different after the session?

Some people do feel different after only a handful of sessions. They may even not attribute it to the effects of the treatment or to the sensitivity of their own brain. They may figure that they felt relaxed just by sitting quietly in a chair—thus at first missing the reaction of state shift in their brain and mistaking a sense of calmness as coming from the circumstance of sitting rather than from the response of their brain. This recognition connects and grows with more training. Patients eventually recognize and connect what they are doing with the differences their brain is feeling.

Patients sometimes report that they feel relaxed and much better after initial sessions and this lasts for a day or two, but then fades. The sensation and improvements gradually take hold, escalate, and endure as the training regimen progresses. I advise patients that it is a mental fitness training that takes time and practice to experience more pronounced and lasting results.

How can I tell if I’m getting better?

The bottom lines: Are your symptoms improving? How do you feel? Can you remember (and compare) how you are now relative to what was going on when you first started treatment? Are there any observations from others in your life?

Clinicians keep notes. We ask and remind patients as part of monitoring progress. We also ask patients to rate their symptom status online using a private website symptom tracker account. I review these as treatment progresses and use the reports to interact with patients and make any adjustments.

Though improvement is typically gradual and cumulative, some patients notice improvement quickly in certain symptoms, and these accelerate as training progresses. More symptoms reduce, and overall wellness builds as the accumulating sessions further strengthen and stabilize the brain. People know if their sleep is improving and/or if their anxiety is quieting or their dark moods gradually lift. The individual patient is the arbiter of their status and improvement. In the case of children, it’s often the parents who notice significant positive changes.

A computerized continuous performance nervous system test (Qiktest) is used at the beginning of treatment and after each twenty-session interval to track the status of brain performance on an objective task. This yields statistical data on attention, impulsivity, and neurosynaptic response time and consistency. For many patients who show marked impairment at onset, the test reveals their improvement. For others, the test is only one data set that may or may not change significantly over treatment time, but which nevertheless provides useful tracking information to factor into adjusting treatment protocols. I also use other neuropsychological tests. Data can predict, track, evaluate, and confirm. But the patient’s subjective experience is still the most important standard.

I have observed something peculiar over the decades that I’ve provided neurofeedback. When patients report improvement (as do the vast majority), many question whether it’s due to the neurofeedback or something else. Interactive feedback can help patients track and overcome any underlying skepticism.

After inquiring what else they might have done or changed, I ask when they noticed the improvements, and I correlate that with their length and timing of treatment. I can point out how their reported improvement coincides with the period since they started neurofeedback. By reflecting back their answers and what my records show, I help patients track and confirm their own correlation and conviction about how the neurofeedback was indeed the critical factor.

In one sense, of course, patients are right not to credit the instrument or the procedure. The critical change agent is the brain itself. Every part of the neurofeedback process is in service to the brain and of its owner. 

How long do improvements last?

People want sustainable improvement. Of course, this is understandable. Most of my patients have already sought various interventions that may have provided hope or temporary relief—only to be disappointed when the effects don’t last or aren’t strong enough.

In the discussion about longevity of effects, the “elephant in the room” is the fact that many mental health patients use medications that must be taken regularly (daily or multiple times a day), often indefinitely. Positive effects from meds are transient, yet negative side effects can outlast the beneficial ones, even when meds are discontinued. Psychopharmacology can help, usually more in the short term, but meds can also bring dependence, bad side effects, and diminishing relief over time. Often, dosages need to be increased, which incurs a higher likelihood of side effects and recommendations for other meds to offset those.

Alternatively, neurofeedback results build and last. The effects are not based upon chemical “cruise control” (like drugs) or insights, but rather accrue from the brain learning and practicing new and more adaptive neurological firing rhythms and network relations. When the brain accesses what it already can do neurologically and brings these patterns forward as its default neural operations, the mind and body feel better and function more optimally. Thus the brain invokes, practices, and habituates to the neural mechanisms that keep symptoms at bay and promotes the desired growth underlying the effects: strength, endurance, flexibility, and resilience.

In response to patient questions about lasting effects, I explain that we are training their brain to make significant neurological operational habit change and that, for the majority of patients, these positive changes are enduring. If there are new traumas, periods of intense circumstantial stress, marked illness, or for patients with a chronic history of mental illness or gross maladjustment, further treatment may be needed at some point.

Some patients return years later for “tune-ups.” They typically respond more quickly to this refresher intervention, because they have previously laid the groundwork for better brain functioning.

Overall, most patients maintain the gains they have made with neurofeedback.

What exactly is neurofeedback?

EEG biofeedback, or neurofeedback as it’s more commonly known, is a form of biofeedback obtained from a noninvasive electroencephalogram (EEG) that collects and measures brain activity. Originally researched as early as the 1950s, scientists discovered that this technique was very effective in reducing epileptic activity even in those whose seizures could not be medically managed. At its inception, it was used for the treatment of seizures, attention deficit disorder, and learning disabilities.

Neurofeedback also had a prolific and profound influence on many other functions and dysfunctions. Practitioners and patients soon observed that the methodology had healing and stabilizing effects on a wide range of symptoms and ailments.

The span of symptoms and conditions that respond positively to neurofeedback may seem too broad a panacea—until you consider that the brain is the control center for so much of how we function internally, metabolically, and how we perceive and respond to ourselves and the environment. Scientifically valid, both in theory and empirical evidence, neurofeedback can be used to train and improve our neuronal self-regulation and brain stability.

Performing neurofeedback is essentially an exercise of the brain. By showing the patient their electrical brain activity in real time on a computer screen, the process of observing the brain in action helps the brain to regulate itself and become stronger, more durable, flexible, and resilient.

As a context for grasping the pervasive effects of this simple yet highly effective intervention, consider the uses of aspirin and antibiotics in vanquishing the ravages of infection, inflammation, and pain. These medicines are effective across a wide spectrum of afflictions that, by examining their prominent divergence, might seem unrelated or unresponsive to analgesics or antibiotics. But when we delve into the underlying biological mechanisms, we see that differing symptoms and illnesses respond well to the biochemical interactions between these chemicals and our immune and nervous systems. A headache and a swelling may not appear to bear semblance; yet analgesics often relieve both. A raging fever afflicts differently than a persisting sore; yet both usually respond well to antibiotics.

Similarly, as the delicate regulatory balances in our brain control and manage so many operations, “training” the brain (bringing disorder back into order) normalizes many functions and maladaptive responses that may appear quite disparate. Sleep disorders, pain, behavioral aberrations, mood swings, developmental disorders, thought problems, fears, and many other ailments fall under the rubric and control of brain regulation. As such, many seemingly unrelated symptoms are, in fact, essentially connected by underlying brain mechanisms and respond quite well to neurofeedback brain training.

What does neurofeedback help with?

Symptoms and conditions that have responded positively to neurofeedback:

  • Attention problems, including ADD and ADHD
  • Moodiness and serious mood disorders (such as bipolar disorder)
  • Anxiety and depression
  • Addictions
  • Sleep problems—insomnia, waking, restlessness
  • Focus and brain fog
  • Obsessive thinking and worrying
  • Behavior problems and disorders
  • Learning problems
  • Autistic spectrum and pervasive developmental delay
  • Asperger’s syndrome
  • Head injury and brain injury
  • Seizures and subclinical seizure activity
  • Headaches and migraines
  • Teeth grinding
  • Bed-wetting and soiling
  • Nightmares and night terrors
  • Sleepwalking and sleep talking
  • Obsessiveness and compulsions
  • Tics and Tourette syndrome
  • PMS and menopause
  • Postpartum depression
  • Antisocial behavior
  • Stroke
  • Tremors and restless leg
  • Fears and phobias
  • Eating disorders
  • Weight and appetite control
  • Study habits
  • Recovery from surgery and anesthesia
  • Chronic pain
  • Anger
  • Language disorders
  • Indifference and motivation problems
  • Oversensitivity and lack of sensitivity
  • Muscular coordination
  • Memory issues

This list is not exhaustive. It’s a compilation of results attained and reported by patients and practitioners who, collectively, have administered tens of millions of sessions.

Are there any negative side effects?

I am not aware of any documented negative side effects from neurofeedback that have lasting impact. Like any influence that affects the brain—even exercise, foods, lack of sleep, injuries, etc., our bodies and minds can react with unsettling responses to impingement, new or destabilizing stimuli, or novel experiences.

With neurofeedback, we are not putting anything into the brain (no intrusion or direct stimulation). We are observing the brain signals coming outward. Still we are appealing to the brain through the feedback to modify its firing and timing mechanisms. This is a safe procedure, and also very powerful.

Some individuals are highly sensitive in general. They may overreact at first because their brain is not accustomed to changing states so profoundly. Some unpleasant side effects occur in a small percentage of individuals. Temporary side effects may include sleepiness, restlessness, internal pressure, or other miscellaneous but innocuous temporary discomfort. These effects are transient and harmless. They are also uncommon, occurring in perhaps 4–5 percent of new patients. They disappear within a session or two, especially as my supervision attends to the treatment and makes subtle but significant adjustments to the protocol settings.

What about medications?

Many patients have taken or are taking psychotropic medications when they first present for neurofeedback treatment. Many don’t like taking these drugs for a variety of reasons. Often, they help only minimally to mitigate the symptoms. Many patients have taken them for years and are hesitant to stop for fear of reverting to a worse condition.

Good news is that meds rarely interfere with neurofeedback treatment. Brains improve with or without medication. We are making an “end run” around the biochemical “cruise control” that psychotropics implement.

Patients are often highly motivated to get off their meds. I always advise them to consult their physician, as I am not able to prescribe or unprescribe. Though many of my patients have been able to reduce or stop their psychotropic meds after neurofeedback, it’s an individual matter.

Another issue may be the determination or “teasing out” of what is the effective agent when patients are doing multiple interventions. Neurofeedback almost always makes people better and often amplifies the effects of other interventions.

Because people tend to normalize when training their brain, many patients are eventually able to titrate down (reduce the dosage) of their mental health meds and retain or augment improvement. This is very helpful for avoiding drug side effects or the need for additional meds.

Are QEEGs necessary?

A QEEG (quantitative EEG), also called a brain map, is an electronic imaging study of the brain’s electrical patterns. Using multiple electrodes at different brain sites, we record the brain’s activity and correlate it with databases that offer comparisons with “normal” activity and associations with different types of dysfunction. This can be useful in identifying severe deficits, such as seizures, tumors, or brain trauma, but using QEEGs for diagnostic or treatment purposes can be problematic.

Although QEEGs are somewhat helpful in confirming what is already know from the patient’s history, symptoms, or other studies, we cannot predict behavior from the QEEG. But we can sometimes predict the QEEG from behavior. This is an important distinction. For example, a person who has a history of explosive or violent behavior will likely have particular abnormalities that show up in the QEEG. But we already know from empirical evidence what the problem is: unrestrained aggression. Evidence from the QEEG merely adds data to what we already know. People who have sustained substantial or prolonged trauma typically show certain patterns in areas of the brain that store traumatic emotional memories, and we know before, and independent of imaging studies, that the problem is severe and enduring. The QEEG only gives us colorful graphics and math to confirm what is previously evident.

QEEGs are not predictive of behavior. Aberrations and deviations in the QEEG do not tell what the person will or may do. I’ve conducted and reviewed an abundance of QEEGs that look either normal or indistinguishable from those with marked impairment. Yet many of these patients show no behaviors that are consonant with or predictable by their brain studies. Even doctors experienced in reading these studies cannot distinguish or predict with any degree of reliability.

Years ago, I did an experiment with startling results. I sent ten QEEGs to a few “experts.” I told each expert that two QEEGs were those diagnosed with autism, three were bipolar, two were relatively normal, and three were either PTSD or panic patients. I asked them to identify which were which. The “experts” mistakenly missed the autistics, identified one of the “normals,” and equivocated on the others, using language like “consistent with abnormalities.”

I’ve observed many times that the QEEGs and brainwaves of autistic people cannot be distinguished with any reliability from normals—and would definitely not predict obviously autistic impairment that is clinically observable.

In another case study from my clinical practice years ago, I treated an adolescent who was impaired with attention, trauma, and emotional disarray. He was expelled from high school for the “violent behavior” of “stabbing” a student with a pencil. He vehemently denied this, and eventually he had a court hearing at which I testified. Among the evidence and testimony I presented was my patient’s QEEG. I explained to the judge that his QEEG bore none of the markers for overly aggressive activity. On the contrary, his QEEG indicated brain patterns that were associated with fear and withdrawal. My testimony helped this adolescent avoid incarceration.

While no QEEG evidence is definitive, in some cases it can be helpful.

Where it is not helpful is in targeting neurofeedback treatment according to the QEEG correlations. Whereas some practitioners rely on the QEEG’s colorful data that is impressive to patients, I have not found this approach to be productive. We have had great success using intake evaluation methods (my clinical interview, psychosocial history, patient presentation and symptoms, Qiktest data, and decades of experience) and monitoring and tracking to achieve reliably effective results.

Why isn’t neurofeedback more mainstream?

A pertinent question. Neurofeedback is becoming more widespread. Its popularity is increasing mostly from the groundswell of people dissatisfied with the mainstream medical approach of throwing drugs at patients. Word is spreading that neurofeedback helps a lot without medications. And many enlightened physicians are taking note. Some recommend it and a few offer it. But as my learned colleague, Dr. Siegfried Othmer, says, “The field of medicine is not interested in the brain that heals itself.”

A plethora of research supports the efficacy of neurofeedback. One has only to look at the scientific literature. The American Academy of Pediatrics has included and endorsed neurofeedback for the treatment for ADD. Though scientific studies attest to its efficacy in treating seizures, migraines, and even addictions, we have a long way to go to overcome ignorance, plain and simple. Conventional medicine is not yet willing to confront, absorb, and admit the substantial evidence. Interestingly, this scenario alters when a physician’s family member has a crisis problem that is not successfully addressed by meds. (I have treated many such patients.)

The treatment is robust, and the human brain is very capable of relevant tuning when shown its own activity in real time.

Held to a higher standard

As true with most illnesses and diseases, follow-up care and assessment is routine. This is also true with neurofeedback. We monitor symptoms and readminister tests periodically. Even cancer patients will often want detailed descriptions of their brain progress after just a few sessions. The eagerness of patients with many questions notwithstanding, it takes tact and patience on the clinicians’ part to explain the process, methods, concepts, and to set realistic expectations about the gradually expected improvements.

The best answer to the question, “How is my EEG neurofeedback treatment doing?” is found in the patient’s observation and reports (possibly augmented by the reports of family or caregivers) of what is happening and changing in the person’s subjective experience and observed behaviors. Though the proof is in the pudding, as the results show, it’s incumbent upon us as treating professionals to educate, reassure, correct, and honor the inquiries of those under our trust and care.

It is up to the treating professional to guide patients and their families in the basics

of how a treatment works, and it is also up to the patients to ask questions based on these explanations that are pertinent to previous explanations. Specifically, the mistaken idea that the computer reports on progress must be in view of the often repeated explanation that the data and EEG trends shown during each session are not indicators of dysfunction or progress. Rather, this information is simply the tracking that reflects the integrity of the signal (that is, ensuring that patient feedback from their brain is actually occurring) and the consistency of rewards and inhibits that enables the brain to exercise in the manner prescribed.

Consider this example: if your family member went for a bike ride, you might ask upon their return, “How was your ride?” You would not ask for a report on how often they leaned to the left and then to the right, or at what specific angles for how long to maintain balance. Such data are not only unavailable, they are irrelevant to the rider’s own ability to balance under constantly changing conditions, get some exercise, and hopefully enjoy and benefit from the experience. Similarly, the focus on feedback to questions should center on patient experience, change in symptoms or other indicators, and overall progress as the training continues. The bicycle doesn’t quantify or report on balance—it is simply a vehicle you use, guided by the natural principles of physics, gravity, and your own dynamic adjustments. The neurofeedback computers are highly sophisticated tools that allow the brain to do its work of discovery and practice in self-regulation and normalization.

It does take some time, as do most regimen involving development, fitness, recovery, and rehabilitation. Patients are understandably eager (and often anxious and impatient) to get results. I inform them at the beginning what to expect and when (approximately) in terms of symptom relief and number of sessions. In their desire for results (and in light of their previous frustrations), these parameters may necessarily be reiterated. Any questions are important and should not be dismissed. If the questions are typically and repetitively the same, so will be the answers. Patients and providers must exercise patience.

“Silly” questions

Honoring the individual and the content of their question, even if it may sound “silly,” is the respectful response required from any medical professional. Sensitive responses should incorporate direct answers as well as the actual underlying intent of the query.

I am reminded of the story about the nine-year-old who asked his parents where he came from. Looking at each other with a tacit expression of here we go with the birds-and-the-bees a little early, the parents lectured their boy for half an hour on basic reproduction. The child sat rapt and silent throughout, and when the parents asked if he had any questions, he said, “Wow, that’s fascinating! But what I want to know is what hospital was I born in?”

Then there is the true story from my childhood of my grandmother looking at our small television, and asking with amazement, “How do they get big people inside that small box?”

How do I get started?

Many neurotherapists (like me) have specialized experience in allied fields: psychology, family counseling nursing, social services, etc. Try to find a practitioner with more and diverse clinical experience. Of course, working with someone who “gets” you, and treats your concerns with respect, is important. Comfort and therapeutic alliance help. Don’t be shy about asking any questions. Hopefully, the information herein acquaints you with the process and encourages you to ask more informed and relevant questions.

The following are scientific references:
Of interest to psychiatrists:

Endogenous Neuromodulation in the Infra-Low Frequency Regime (2022) Frontiers in Human Neuroscience, Brain Health and Clinical Neuroscience, 16 (2022) https://www.frontiersin.org/research-topics/24349/endogenous-neuromodulation-in-the-infra-low-frequency-regime#articles

Endogenous Neuromodulation at Infra-Low Frequency: Method and Theory (2023) Siegfried Othmer and Susan F. Othmer DOI: 10.20944/preprints202310.1085.v2 https://www.preprints.org/manuscript/202310.1085/v2 https://www.researchgate.net/publication/374784708_Endogenous_Neuromodulation_at_Infra-Low_Frequency_Method_and_Theory

Infra-Low frequency regime neurofeedback rapidly ameliorates schizophrenia symptoms: A case report of the first session. Joannis N. Nestoros, Nionia G. Vallianatou Frontiers in Human Neuroscience, Brain Health and Clinical Neuroscience, 16 (2022) http://journal.frontiersin.org/article/10.3389/fnhum.2022.923695/full

Infra Low Frequency Neurofeedback for PTSD: A Therapist’s Perspective Regula Spreyermann Frontiers in Human Neuroscience, Brain Health and Clinical Neuroscience, 16 (2022) http://journal.frontiersin.org/article/10.3389/fnhum.2022.893830/full

Enhancing brain connectivity with infra-low frequency neurofeedback during aging: A pilot study Olga R Dobrushina, Larisa A Dobrynina, Galina A Arina, Elena I Kremneva, Evgenia S Novikova, Mariia V Gubanova, Ekaterina V. Pechenkova, Anastasia D Suslina, Vlada V Aristova, Viktoriya V Trubitsyna, Marina V Krotenkova Frontiers in Human Neuroscience, Brain Health and Clinical Neuroscience, 16 (2022) http://journal.frontiersin.org/article/10.3389/fnhum.2022.891547/full

Effectivity of ILF Neurofeedback on Autism spectrum disorder – a Case Study Alexandra Rauter, Horst Schneider, Wolfgang Prinz Frontiers in Human Neuroscience, Brain Health and Clinical Neuroscience, 16 (2022) http://journal.frontiersin.org/article/10.3389/fnhum.2022.892296/full

Infra Low Frequency Neurofeedback Training for Trauma Recovery A Case Report Hanno Kirk, Monica Geers Dahl Frontiers in Human Neuroscience, Brain Health and Clinical Neuroscience, 16 (2022) http://journal.frontiersin.org/article/10.3389/fnhum.2022.905823/full

Infra-low frequency neurofeedback in application to Tourette syndrome and other tic disorders: A clinical case series Bodil Solberg, Erlend Solberg Frontiers in Human Neuroscience, Brain Health and Clinical Neuroscience, 16 (2022) https://doi.org/10.3389/fnhum.2022.891924

Neurofeedback in Application to the ADHD Spectrum (2020) Roxana Sasu and Siegfried Othmer Chapter 10 in Restoring the Brain, Hanno Kirk, editor, Routledge, p. 196-222 DOI: 10.4324/9780429275760-10 https://www.researchgate.net/publication/339250645_Neurofeedback_in_Application_to_the_ADHD_Spectrum

Infra-Low Frequency Neurofeedback in Depression: Three case studies (2018) Grin-Yatsenko, V. A., Othmer, S., Ponomarev, V. A., Evdokimov, S. A., Konoplev, Y. Y., & Kropotov, J. D. NeuroRegulation, 5(1), 30–42. http://dx.doi.org/10.15540/nr.5.1.30 DOI: 10.15540/nr.5.1.30 https://www.researchgate.net/publication/324130901_Infra-Low_Frequency_Neurofeedback_in_Depression_Three_case_studies

Infra-Low-Frequency Neurofeedback for Optimum Performance (2016) Siegfried Othmer and Susan F. Othmer Biofeedback. 44. 81-89. doi:/10.5298/1081-5937-44.2.07. https://www.researchgate.net/publication/304573503_Infra-Low-Frequency_Neurofeedback_for_Optimum_Performance

Neurofeedback in application to the ADHD spectrum (2015) Roxana Sasu and Siegfried Othmer https://www.researchgate.net/publication/300220660_Neurofeedback_in_application_to_the_ADHD_spectrum

Endogenous Neuromodulation at Infra-Low Frequencies (2013) Siegfried Othmer, Susan Othmer, David Kaiser, and John Putman Seminars in Pediatric Neurology 20(4):246-57 DOI: 10.1016/j.spen.2013.10.006 https://www.researchgate.net/publication/259455519_Endogenous_Neuromodulation_at_Infralow_Frequencies

Clinical neurofeedback: Training brain behavior (2011) Siegfried Othmer and Stella Legarda Treatment Strategies, Pediatric Neurology and Psychiatry, 2(1):67-73 https://www.researchgate.net/publication/284506346_Clinical_neurofeedback_Training_brain_behavior

Post Traumatic Stress Disorder—The Neurofeedback Remedy (2009) Siegfried Othmer and Susan F. Othmer Biofeedback 37(1) DOI: 10.5298/1081-5937-37.1.24 https://www.researchgate.net/publication/239280365_Post_Traumatic_Stress_Disorder-The_Neurofeedback_Remedy

Effects of an EEG Biofeedback Protocol on a Mixed Substance Abusing Population (2005) William Scott, David Kaiser, Siegfried Othmer, Stephen Sideroff The American Journal of Drug and Alcohol Abuse 31, 445-469 DOI: 10.1081/ADA-200056807 https://www.researchgate.net/publication/7600661_Effects_of_an_EEG_Biofeedback_Protocol_on_a_Mixed_Substance_Abusing_Population/stats

Efficacy of Neurofeedback for Pain Management (2005) Siegfried Othmer and Susan F. Othmer, Chapter 50 in Weiner’s Pain Management, Mark V. Boswell and B. Eliot Cole, editors, 719-739 DOI: 10.1201/b14253-56 https://www.researchgate.net/publication/300508353_Efficacy_of_Neurofeedback_for_Pain_Management

Effect of Neurofeedback on Variables of Attention in a Large Multi-Center Trial (2000) David Kaiser and Siegfried Othmer, Journal of Neurotherapy 4(1):5-15 DOI: 10.1300/J184v04n01_02 https://www.researchgate.net/publication/233060756_Effect_of_Neurofeedback_on_Variables_of_Attention_in_a_Large_Multi-Center_Trial

EEG biofeedback: An emerging model for its global efficacy (1999) Siegfried Othmer, Susan F. Othmer, and David A. Kaiser Chapter 11 in Introduction to Quantitative EEG and Neurofeedback, James R. Evans and Andrew Abarbanel, editors, Academic Press, 243-310 https://www.researchgate.net/publication/291992509_EEG_biofeedback_An_emerging_model_for_its_global_efficacy

EEG Biofeedback Training for Attention Deficit Disorder, Specific Learning Disabilities, and Associated Conduct Problems (1999) https://www.researchgate.net/publication/252060569_EEG_Biofeedback_Training_for_Attention_Deficit_Disorder_Specific_Learning_Disabilities_and_Associated_Conduct_Problems

Of interest to neurologists:

Endogenous Neuromodulation at Infra-Low Frequency: Method and Theory (2023) Siegfried Othmer and Susan F. Othmer DOI: 10.20944/preprints202310.1085.v2 https://www.preprints.org/manuscript/202310.1085/v2 https://www.researchgate.net/publication/374784708_Endogenous_Neuromodulation_at_Infra-Low_Frequency_Method_and_Theory

Infra-Low Frequency Neurofeedback Modulates Infra-Slow Oscillations of Brain Potentials: A Controlled Study (2020) J Biomed Eng Res, 4:104 DOI: 10.17303/jber.2020.4.104 https://www.researchgate.net/publication/343443760_Infra-Low_Frequency_Neuro_Feedback_Modulates_Infra-Slow_Oscillations_of_Brain_Potentials_A_Controlled_Study

Endogenous Neuromodulation at Infra-Low Frequencies (2013) Siegfried Othmer, Susan Othmer, David Kaiser, and John Putman Seminars in Pediatric Neurology 20(4):246-57 DOI: 10.1016/j.spen.2013.10.006 https://www.researchgate.net/publication/259455519_Endogenous_Neuromodulation_at_Infralow_Frequencies

Clinical Neurofeedback: Case Studies, Proposed Mechanism, and Implications for Pediatric Neurology Practice (2011)
Stella Legarda, Doreen MacMahon, Siegfried Othmer, Sue Othmer
Journal of Child Neurology 26(8):1045-51
DOI: 10.1177/0883073811405052
https://www.researchgate.net/publication/51130738_Clinical_Neurofeedback_Case_Studies_Proposed_Mechanism_and_Implications_for_Pediatric_Neurology_Practice

Clinical neurofeedback: Training brain behavior (2011)
Siegfried Othmer and Stella Legarda
Treatment Strategies, Pediatric Neurology and Psychiatry, 2(1):67-73<
https://www.researchgate.net/publication/284506346_Clinical_neurofeedback_Training_brain_behavior