Synaptic plasticity
The connections between neurons strengthen or weaken depending on how frequently they fire. This is the biological basis of learning and of forming new patterns.
The Veruvis® Method is built on decades of research in applied neuroscience, validated by studies published in international academic journals and supported by collaborations with globally recognized specialists. This page presents the scientific foundations — transparently, without exaggeration.
The Veruvis® Method starts from a simple premise, supported by the entire body of neuroscience literature: intervention without an objective initial assessment is at best ineffective, and at worst counterproductive. Without knowing how a specific brain works, any training protocol remains an approximation.
This is why Brain Mapping is not optional in the Veruvis® Method. It is the foundation on which everything is built.
Neuroplasticity — the brain's capacity to reorganize its connections in response to repeated experiences — is the documented biological phenomenon on which the entire science of neuronal training rests. It is not a metaphor: it is a mechanism validated by decades of neuroscience research.
The concept was formally defined by Donald Hebb (1949), who formulated the principle: „neurons that fire together wire together" (Hebb's postulate). Since then, neuroplasticity has been documented in hundreds of studies published in the world's top journals.
The connections between neurons strengthen or weaken depending on how frequently they fire. This is the biological basis of learning and of forming new patterns.
The brain can physically alter its structure at the neuronal level. Myelination and connection density change in response to repeated stimuli.
The brain redistributes functions across regions. An underactive area can be reactivated through training protocols calibrated to the individual profile.
Quantitative electroencephalography (qEEG) is the technology through which the brain's electrical activity is recorded, statistically processed, and compared against international normative databases. Unlike traditional clinical EEG — used mainly to detect epilepsy — qEEG offers a detailed functional picture of how different brain regions work together.
The international 10-20 standard defines electrode placement to ensure full coverage and reproducibility. With 24 sensors, The Veruvis® Method achieves an image with significantly higher spatial resolution than the 2-, 4-, or 6-sensor systems commonly used at other centers.
The difference isn't merely technical — it's clinical: more sensors mean more data, fewer approximations, and a more precise protocol.
BM-BCI Neuronal Training is a form of biofeedback applied to the brain's electrical activity. Through EEG sensors, brain activity is captured in real time, processed instantly, and transformed into auditory, visual, or audiovisual feedback. When the brain produces patterns close to the optimal range, the feedback is positive — confirming and reinforcing that pattern.
The mechanism is based on operant conditioning — a principle defined by B.F. Skinner and later applied across hundreds of clinical neuronal training studies. Through repetition and consistency, effective patterns stabilize, and the brain develops a heightened capacity for self-regulation that becomes available even outside the sessions.
Neurofeedback has a research history spanning over 50 years, beginning with the pioneering studies of Dr. Barry Sterman (UCLA, 1960s-1970s) on the sensorimotor rhythm (SMR) — and continuing with thousands of studies published in peer-reviewed journals worldwide.
Neurofeedback and qEEG analysis have been investigated across a wide range of contexts in the scientific literature. Below are the main areas, with references to studies published in peer-reviewed academic journals. Veruvis®'s position remains consistent: we do not treat, we do not diagnose — we present the scientific context.
ADHD is one of the most studied contexts for the application of neurofeedback. The Theta/Beta Ratio (TBR) has been documented as a marker of attentional dysregulation.
The second most studied context. Dysregulation in the Alpha and Beta bands has been documented as a neurophysiological marker of anxiety states.
Brain activity in the Alpha-Theta band plays an important role in the transition into deep sleep. Protocols that aim to increase Alpha during relaxation have been investigated as interventions for sleep quality.
A rapidly expanding field. Studies document improvements in reaction times, sustained attention, and emotional regulation under pressure.
Chronic stress and burnout involve a persistent hyperactivation of the sympathetic nervous system, reflected in specific EEG patterns.
The professional training of Dr. Costin Dămășaru, PhD candidate, Psychologist in qEEG and neuronal training was guided directly by Dr. Wesley Center, PhD, QEEG-DL, BCN Fellow — one of the most respected experts in qEEG-guided neurofeedback in the United States. This mentoring relationship is not a bibliographic reference — it is a direct transfer of expertise.
Dr. Center is President and Clinical Director of Brain & Behavior Associates (North Texas, USA) and Chief Science and Technology Officer for OCAT Neurotech, LLC. As a BCIA Approved Mentor, he is officially authorized to train and certify other neurofeedback specialists internationally.
The expertise passed on through this direct relationship is reflected in how the neuronal training protocols at Veruvis® are built, calibrated, and interpreted.
At its own headquarters, Veruvis® produced a series of educational videos with Dr. Wesley Center, in which he explains the fundamental concepts of qEEG and neurofeedback in accessible language. Available exclusively on this site.
Dr. Wesley Center explains what a „perfect brain" means in his view and how neuronal training can help achieve this state.
What information the brain map can give us about how the brain itself actually works.
About the brain's capacity to change and how we can set that process in motion with the help of neuronal training.
EEG hyperscanning — the simultaneous recording of the brain activity of multiple people during social interaction — is a rapidly expanding field of research in social neuroscience. Studies document the phenomenon of inter-brain synchronization (inter-brain synchrony) in contexts of collaboration, communication, and shared action.
The Egregora™ program applies the principles of synchronized EEG hyperscanning within a collective training framework, combining inter-brain coherence analysis with systemic contextualization. One of the first operational implementations of neuro-constellations with synchronized EEG internationally.
Clarity is part of The Veruvis® Method. We make no exaggerated claims and we don't sell hope. This section exists so that every visitor understands exactly what Veruvis® offers and what it does not.
The citations from the scientific literature presented on this page illustrate the scientific context within which the Veruvis® methodology sits. Mentioning a field (e.g., ADHD, anxiety) is not a claim that Veruvis® treats that condition, but that neurofeedback has been investigated in that context in academic research. We always recommend consulting a medical specialist for diagnosed conditions.
All of the sources below are published in peer-reviewed academic journals and are publicly accessible through PubMed (NIH), PMC, or the journals' own websites.
The most common questions about the scientific basis of The Veruvis® Method.
Call a consultantAll the protocols described on this page are applied in The Veruvis® Method starting from the real data of your brain, not from statistical generalizations. The first step is always measurement.
All cited sources are peer-reviewed and publicly accessible. Veruvis® is not a medical center.