https://zenodo.org/records/19839850

Author: Sergey Skrynnik
Publication Date: 2026-04-28
Version: 9.0
Publication Platform: Zenodo
Language: Russian (with parallel translations into English and Kazakh)

Abstract

This paper proposes an interpretative model of brain rhythms based on the assumption of their interference nature. It is shown that the observed ranges of electroencephalographic (EEG) activity (delta, theta, alpha, beta, gamma) can be considered not as primary frequencies of consciousness generation, but as the result of interactions between processes at different frequency levels.

Within the framework of the model, it is assumed that the recorded EEG signals represent a low-frequency projection of a more complex dynamics formed through superposition and resonant interaction of these levels. It is shown that an approximate quadratic correspondence between the main ranges of brain waves may be observed, indicating a possible hierarchical structure of their interrelations.

The proposed approach does not introduce new measurable quantities and remains interpretative in nature; however, it allows for a new perspective on neurophysiological data and suggests directions for further analysis of coherence and the dynamics of brain rhythms.

Keywords: consciousness; standing wave; frequency structure; interference; resonance; brain rhythms; delta; theta; alpha; beta; gamma; self-reflection; coherence; subconscious; superconscious; frequency model of consciousness; wave nature of matter; interaction of spirit and matter.

1. Introduction

Modern neurophysiological research shows that brain activity is organized in the form of rhythms of varying frequencies, recorded using electroencephalography (EEG). Several stable ranges are distinguished—delta, theta, alpha, beta, and gamma—each associated with specific functional states, from deep sleep to active thinking and information integration.

Despite the significant volume of accumulated experimental data, the nature of these rhythms remains an open question. In existing models, they are generally considered as a result of neuronal activity and the interaction of local and distributed brain networks. However, this approach does not always provide an intuitively clear explanation of the structured nature of frequency ranges and their stable interrelations.

In particular, the observed division of rhythms into discrete ranges, as well as their coordinated participation in cognitive processes, suggests the possibility of a more general underlying principle determining their structure. This raises the question of whether the recorded EEG frequencies are primary characteristics of the system or whether they represent a projection of a more complex dynamics.

In this work, an interpretative model is proposed in which brain rhythms are considered as the result of interference between processes at different frequency levels. According to this approach, recorded EEG signals may represent a low-frequency projection of interactions formed through the superposition and resonant coordination of these levels.

The aim of this work is to show that such an interpretation makes it possible to:

• reconsider the structure of known brain wave ranges;
• identify a possible pattern in their interrelations;
• formulate hypotheses that allow further testing based on the analysis of coherence and the dynamics of EEG signals.

The proposed approach does not introduce new measurable quantities and does not contradict existing experimental data; however, it offers a different level of interpretation that may prove useful for understanding the organization of neurophysiological processes.

2. Observed Data

Brain activity recorded using electroencephalography (EEG) is traditionally described in terms of several stable frequency ranges. These ranges have been identified empirically and are characterized both by their spectral power distribution and their association with various functional states.

The main ranges include:

• Delta rhythm (δ): 0.5–4 Hz
  Primarily associated with deep stages of sleep and basic physiological processes.
• Theta rhythm (θ): 4–8 Hz
  Observed in transitional states, including drowsiness, early stages of sleep, as well as certain forms of internal concentration.
• Alpha rhythm (α): 8–13 Hz
  Associated with relaxed wakefulness, reduced external sensory input, and increased internal attention.
• Beta rhythm (β): 13–30 Hz
  Characteristic of active thinking, information processing, and interaction with the external environment.
• Gamma rhythm (γ): 30–100 Hz (sometimes higher)
  Associated with processes of information integration, coherent activity of neuronal ensembles, and short-lived states of high cognitive activity.

It should be noted that these ranges do not have strict boundaries and may partially overlap. Their classification is conventional and determined by the convenience of analyzing the spectral characteristics of EEG signals.

One of the features of brain rhythms is their simultaneous presence: under real conditions, multiple ranges may be observed at the same time, forming a complex spectral structure. In addition, different ranges may exhibit temporal synchronization and coherence, indicating their functional interrelation.

Thus, experimental data suggest that brain activity is not a set of independent frequencies, but a dynamic system of interconnected rhythms, the structure of which requires further interpretation.

3. Hypothesis of the Interference Nature of Brain Rhythms

Although brain rhythms are traditionally considered a result of neuronal activity, their spectral structure and the coherence between different ranges allow for an alternative interpretation.

In this work, it is proposed to consider the observed EEG rhythms as an interference projection arising from the interaction of processes at different frequency levels. In this context, the recorded signals are not a direct reflection of the underlying processes but represent their resultant pattern, formed through superposition and resonant coordination.

Such an approach is well known in physics. For example, the interference pattern of light on a screen does not directly reproduce the properties of individual sources but reflects the result of their interaction. Similarly, the EEG spectrum can be viewed as a low-frequency projection of a more complex dynamics.

Within this hypothesis, it is assumed that:

• the observed frequencies of brain rhythms are secondary characteristics arising from the interaction of processes at different scales;
• individual ranges (δ, θ, α, β, γ) may correspond to stable modes of interference;
• transitions between ranges reflect changes in conditions of coordination rather than switching between independent frequency generators.

This approach makes it possible to consider brain activity as an integrated wave system in which the observed spectral structure is formed not locally but as a result of distributed interaction.

It should be emphasized that this model is interpretative in nature and does not introduce new measurable parameters. Its purpose is to propose an alternative way of describing already known data, allowing for further verification through the analysis of coherence, phase synchronization, and the dynamics of spectral transitions.

4. Frequency Structure and Possible Patterns of Relationships Between Ranges

Within the proposed interference-based interpretation, it is of interest to analyze potential patterns in the relationships between the main ranges of brain rhythms.

If we consider the characteristic frequency intervals, it can be noted that approximate correspondences may be observed between some of them, allowing for interpretation in terms of a power-law relationship. In particular, the transition from the delta range to the alpha range, as well as from the alpha range to the gamma range, can be associated with an operation close to squaring the frequency.

To illustrate this observation, let us consider representative values:

• Delta range: 0.5–4 Hz
  A quadratic transformation yields a range on the order of 0.25–16 Hz;
• Alpha range: 8–13 Hz
  A quadratic transformation yields a range on the order of 64–169 Hz.

The resulting intervals partially overlap with the alpha and gamma ranges, respectively. Although the correspondence is not exact, an approximate consistency in orders of magnitude can be observed.

Such a relationship allows for the hypothesis of a hierarchical structure in which different ranges of brain rhythms may be connected through power-law transformations of frequency. In this case, transitions between levels may correspond not simply to a change in frequency, but to a transition of the system into a qualitatively different regime of coordination.

It is important to emphasize that this observation does not constitute strict proof of the existence of such a relationship. The width of the ranges, individual variability, and recording conditions of EEG signals allow for alternative explanations. Nevertheless, the observed approximate consistency may serve as a basis for further analysis.

Within the context of the interference model, such a structure may be interpreted as a manifestation of connections between different levels of interaction, where the observed ranges reflect stable regimes of system coordination.

5. Coherence and Synchronization of Rhythms

Experimental EEG studies show that brain rhythms do not operate in isolation. Under real conditions, they are observed simultaneously, along with temporal synchronization between different frequency ranges.

One of the key parameters characterizing such dynamics is coherence—the degree of consistency in the phase and amplitude characteristics of signals across different brain regions. Increased coherence is typically associated with information integration and the formation of stable functional states.

In particular, a number of studies have noted:

• synchronization of theta and alpha rhythms in states of internal attention and meditation;
• increased gamma activity during moments of information integration and cognitive problem-solving;
• involvement of low-frequency rhythms (including delta) in the regulation of global system states.

From the perspective of the interference model, such phenomena may be interpreted as changes in the conditions of coordination between different frequency levels. In this context:

• an increase in coherence corresponds to the system transitioning into a more stable interaction regime;
• synchronization of ranges may reflect the formation of a unified state in which multiple frequency components participate in a single process;
• bursts of high-frequency activity (e.g., in the gamma range) may result from a temporary increase in system coherence.

Thus, the observed dynamics of EEG signals can be described in terms of resonant transitions between states, where different ranges act as interconnected components of a unified system.

It should be noted that this interpretation does not exclude existing neurophysiological models but complements them by proposing that coherence and synchronization can be viewed not only as consequences of neuronal activity but also as manifestations of a more general principle of process coordination.

6. Interpretation of Ranges as Functional Modes of the System

Within the proposed interference-based model, the main ranges of brain rhythms can be considered as stable modes of system functioning that arise under different conditions of coordination between its components.

From this perspective, each frequency range characterizes not an isolated process but a particular state of the entire system, in which certain forms of interaction dominate.

Accordingly, the following functional modes can be identified:

• Delta range (δ, 0.5–4 Hz)
  Characterizes states with minimal external activity and dominance of fundamental processes. It may be interpreted as a mode in which the system operates at the level of global regulation and maintenance of integrity.
• Theta range (θ, 4–8 Hz)
  Associated with transitional states and changes in system configuration. It may be considered a mode that supports redistribution of activity and interaction between different levels.
• Alpha range (α, 8–13 Hz)
  Corresponds to states of relative balance between internal and external processes. It may be interpreted as a stable mode in which balance between system components is achieved.
• Beta range (β, 13–30 Hz)
  Characterizes active states related to information processing and interaction with the external environment. It may be viewed as a mode of local activation and directed interaction.
• Gamma range (γ, 30–100 Hz and above)
  Associated with processes of integration and short-term coordination of different system components. It may be interpreted as a mode of increased coherence, in which a unified state of activity is formed.

In this description, the ranges appear not as independent sources of activity, but as different manifestations of a unified dynamic system. Transitions between them may correspond to changes in coordination conditions and redistribution of activity, rather than switching between separate mechanisms.

Thus, the interference model allows brain rhythms to be considered as interconnected modes forming an integrated structure of activity observed in EEG.

7. Limitations of the Model and Scope of Applicability

The proposed interference-based model of brain rhythms is interpretative in nature and has several fundamental limitations that should be taken into account when considering it.

First, the model does not introduce new measurable parameters and does not rely on direct experimental evidence confirming the existence of additional frequency levels. All conclusions are based on the analysis of already known spectral characteristics of EEG signals and their possible interpretation.

Second, the observed correspondence between frequency ranges is approximate. The width of the ranges, individual variability in brain activity, and recording conditions allow for alternative explanations of the identified relationships. Therefore, the proposed dependence cannot be regarded as a strict law.

Third, the concepts of interference and resonance used in this work are applied in an extended, analogical sense. They do not necessarily correspond to the strict physical definitions used, for example, in classical wave theory, but serve to describe the coherence of processes at the level of observable data.

Fourth, the model does not address the detailed neurophysiological mechanisms underlying the generation of brain rhythms and does not aim to replace existing biophysical or neural network approaches. It may be considered as an additional descriptive layer that complements, but does not substitute, existing models.

Thus, the scope of applicability of the proposed approach is limited to the qualitative interpretation of EEG spectral structure and the analysis of relationships between different frequency ranges. The use of the model for quantitative description of processes or for making precise predictions at this stage appears premature.

8. Conclusion and Directions for Further Research

In this work, an interpretative model of brain rhythms has been proposed, in which the observed EEG ranges are considered as the result of interference between processes at different frequency levels. This approach makes it possible to reconsider the spectral structure of brain activity as a manifestation of coordinated dynamics rather than a collection of independent sources.

It has been shown that an approximate correspondence may exist between the main ranges of brain waves, allowing for description in terms of a power-law relationship. Although the correspondence is not exact, this observation suggests a possible hierarchical structure in their interrelations.

The consideration of coherence and synchronization of rhythms within the proposed model makes it possible to interpret various functional states as modes of system coordination formed under changing interaction conditions between its components.

It should be emphasized that the presented model does not contradict existing neurophysiological concepts but provides an additional level of interpretation that may be useful in analyzing the dynamics of brain activity.

The following directions for further research can be identified:

• analysis of spectral coherence in EEG signals to identify stable modes of coordination;
• investigation of transitional states (for example, between alpha and gamma activity) as possible indicators of changes in interaction structure;
• comparison of observed frequency relationships with models of nonlinear dynamics and self-organization;
• development of formalized models that allow quantitative description of the proposed patterns.

Thus, the proposed approach opens up the possibility for further study of brain activity from the perspective of coordinated dynamics and may serve as a basis for the development of a more general model of the organization of neurophysiological processes.

Consciousness as a Resonant Structure: From Frequencies to Personality

Abstract
This paper presents a philosophical interpretation of consciousness as a resonant structure arising from the coordination of processes at different levels of organization. The reasoning is based on a wave model in which physical and mental phenomena are viewed as manifestations of a unified frequency-based reality.

Consciousness is interpreted not as an isolated function of the brain, but as a process of interaction in which the brain acts as a resonator. Particular attention is given to the concept of the “Self” as a center of coordination of subconscious, conscious, and intuitive processes, ensuring the integrity of personality.

Phenomena such as self-reflection, intuition, and inner balance are considered as states of frequency coordination, and a possible interpretation of evolution is proposed as a process of adaptation of the physical substrate to a changing structure of consciousness.

The work is hypothetical in nature and does not claim to be a strict scientific theory, but rather proposes an integrated interpretative framework that unites physical and philosophical aspects of the study of consciousness.

Keywords: consciousness; standing wave; frequency structure; interference; resonance; brain rhythms; delta; theta; alpha; beta; gamma; self-reflection; coherence; subconscious; superconscious; frequency model of consciousness; wave nature of matter; interaction of spirit and matter.

1. Introduction

Modern brain research makes it possible to record its electrical activity with high precision and to identify stable patterns in the form of frequency rhythms. However, the question of the nature of consciousness and its relationship to physical processes remains open. Observed neurophysiological data describe correlations but do not provide a definitive answer as to whether consciousness is entirely derived from material processes or represents a more complex phenomenon.

In a related work devoted to the interference model of brain rhythms, it has been shown that the observed EEG ranges can be considered as the result of interactions between processes at different levels, rather than as a direct reflection of underlying dynamics. Such an approach opens the possibility for a broader consideration of the nature of consciousness, going beyond its direct identification with the electrical activity of the brain.

In this work, a philosophical interpretation is proposed in which consciousness is viewed as a resonant structure formed through the coordination of different levels of organization. In this context, the physical body, and in particular the brain, is considered not as the source of consciousness, but as a medium that enables its manifestation and interaction with the surrounding world.

Particular attention is given to the concept of the “Self” as a center of coordination of processes of different nature. It is assumed that the “Self” is not limited to the domain of conscious perception but represents a more fundamental level that integrates subconscious, conscious, and intuitive aspects of the psyche.

Within this framework, phenomena such as self-reflection, intuition, and inner balance are considered as states of coordination, and the possibility of interpreting evolution as a process of adaptation of the physical substrate to the changing structure of consciousness is discussed.

It should be emphasized that this work is hypothetical and interpretative in nature. It does not claim to be a strict scientific theory but represents an attempt to integrate physical and philosophical perspectives into a unified conceptual framework open to further development and discussion.

2. Consciousness as a Resonant Structure

Within the proposed approach, consciousness can be considered not as an isolated function of the brain, but as the result of coordination between processes at different levels of organization. Such coordination can be described in terms of resonance—a state in which interacting components of a system reach a stable regime of joint dynamics.

Based on the interference interpretation of brain rhythms presented in the related work, it can be assumed that the observed electrical activity of the brain represents only a projection of a more complex interaction process. In this case, the brain acts not as the source of consciousness, but as the medium in which its observable manifestation is formed.

In this framework, consciousness may be viewed as a stable structure of interaction arising from the coordination of:

• internal processes of the organism;
• information processing processes;
• and a broader context of interaction with the environment.

Resonance in this context should not be understood in a narrow physical sense, but rather as a generalized state of coherence in which the system achieves relative stability and integrity.

This approach allows for a reinterpretation of a number of observed phenomena. In particular:

• stable states of attention and inner balance can be considered as modes of coordinated dynamics;
• disruptions of coherence may lead to disorganization of perception and behavior;
• transitional states may correspond to restructuring of the interaction framework.

It is important to emphasize that in this model, consciousness is not identified with any specific physical process. It is considered as a process of coordination that may manifest through physical structures but is not exhausted by them.

Thus, consciousness can be described as a dynamic structure arising from the interaction and coordination of different levels of organization, where the brain plays the role of a resonator that ensures the stability and observability of this process.

3. The “Self” as a Center of Coordination

When considering consciousness as a process of coordination, it becomes necessary to clarify the role of the subject through which this coordination is manifested. In everyday experience, this subject is the “Self”—the point from which a person relates to events and through which they perceive themselves and the surrounding world.

In most contemporary scientific approaches, the concept of the “Self” is primarily associated with conscious perception and self-reference. However, such an understanding may be insufficient if consciousness is viewed as a multi-layered process.

Within the proposed model, the “Self” can be interpreted as a center of coordination in which different levels of organization converge:

• subconscious processes related to bodily regulation and automatic reactions;
• conscious processes that provide perception, choice, and control;
• intuitive processes that manifest as an implicit connection to a broader context of interaction.

In this sense, the “Self” is not reducible to any one of these domains but serves as the point of their integration. It is not a separate element of the system but represents a node of coordination that ensures the integrity of the overall structure.

This understanding allows for a reinterpretation of several observed phenomena. For example:

• the sense of unity of personality may be interpreted as the result of coordinated functioning across different levels;
• internal contradictions may be seen as manifestations of a lack of coordination between them;
• intuitive decisions may arise from the interaction of processes not directly represented in conscious perception.

From this perspective, the “Self” is not limited to the conscious part of the psyche. It is present throughout the entire structure of interaction, ensuring its stability and direction.

It can be said that the “Self” is the point at which relative equilibrium between different levels of processes is achieved. It is through this point that self-reflection becomes possible—the system’s ability to observe itself and reorganize its own structure.

Thus, within this model, consciousness and the “Self” are not identical. Consciousness acts as a process of coordination, whereas the “Self” is the center in which this coordination takes on a stable form.

4. Self-Reflection as a Process of Coordination

If the “Self” is considered as a center of coordination of different levels of processes, then the question arises as to the mechanism by which such coordination is achieved and maintained. Within the proposed approach, a key role in this is played by the phenomenon of self-reflection.

In this context, self-reflection is understood not only as the ability to consciously analyze one’s own thoughts and actions, but also as a more general process in which the system includes itself within the domain of interaction. This creates conditions for the coordination of internal and external factors and leads to the formation of a stable structure.

In ordinary states of activity, different levels of processes may function relatively independently, which manifests as a lack of coordination between reactions, perception, and behavior. However, under certain conditions—for example, during deep concentration, inner crisis, or re-evaluation—an increase in the interconnection between these levels may occur.

Such a state can be interpreted as a transition to a higher level of coordination, in which:

• subconscious, conscious, and intuitive processes begin to operate more coherently;
• internal contradictions are reduced;
• a more stable structure of perception and behavior is formed.

In terms of wave-based interpretation, this state may be described as the formation of a stable mode of interaction analogous to a standing wave, where different components of the system come into alignment and support one another.

It is important to emphasize that this is not a static state, but a dynamic equilibrium that can be disrupted and restored depending on conditions. In this sense, self-reflection acts as a mechanism that allows the system to reorganize its structure and return to a state of coordination.

Thus, self-reflection can be regarded as the process through which the “Self” realizes its function as a center of coordination, ensuring the formation and maintenance of an integrated personality structure.

5. Intuition and the Directionality of Processes

Considering the “Self” as a center of coordination and self-reflection as a mechanism for forming a stable structure, the question arises as to how the flow of information is organized within this system and how the directionality of behavior is formed.

Within the proposed approach, two interrelated directions of processes can be distinguished:

• from the internal levels of the system to its external manifestation;
• from the external environment to the internal structure of the system.

The first direction is associated with the formation of actions, decisions, and behavioral responses. It involves both subconscious and conscious processes and manifests as initiative arising from the internal structure of the system.

The second direction is related to the perception and processing of external influences. However, not all such influences are directly recognized. Some may manifest as implicit signals perceived as premonitions, intuitive judgments, or immediate decisions without explicit logical justification.

Within this model, intuition can be viewed as a manifestation of feedback arising from the interaction between the system and its environment. It is not a separate “source of knowledge,” but rather a form of coordination in which external influences are reflected in the internal structure prior to their conscious interpretation.

This approach allows for explaining several features of intuitive processes:

• their anticipatory nature relative to conscious analysis;
• the absence of an explicit cause-and-effect chain in perception;
• their association with states of increased internal coherence.

In terms of system dynamics, it can be said that intuition emerges when the interaction between internal and external processes reaches a sufficient level of coordination, allowing the system to respond without an intermediate stage of extended analysis.

Thus, behavior and perception can be considered as the result of the interaction of two directed flows converging at the center of coordination—the “Self.” Their balance determines the stability of the system, its adaptability, and its capacity for development.

Within the framework of this model, based on the work “Birth of Dimensions and Perception of Fractality” (https://zenodo.org/records/19695379), the observer is characterized by a base frequency ν₀, relative to which the interpretation of the system’s levels is formed.

Perception can be considered as a process of coordination between the observer’s system and the surrounding structure of processes.

With imperfect coordination, the observed picture becomes simplified: differences between states are smoothed out, and the system captures only the most coarse characteristics.

As the accuracy of the observer’s tuning changes (in particular, its frequency structure), the degree of coordination increases, which leads to the emergence of additional distinctions in the observed picture of the world, including the appearance of new dimensions for the observer. This may be perceived as an increase in “sharpness” or level of detail.

In this sense, it is not a matter of approaching a single “ideal” value, since the base frequency is not initially fixed at a specific value, but rather of the system transitioning into regimes in which it is capable of stable interaction with a broader set of processes.

Consciousness, at its core, may be simple—in the sense that it does not contain a predefined complex structure. Complexity emerges through interaction with the world.

If this structure forms in an uncoordinated manner, it begins to distort the perceived picture. If, however, it forms in a state of resonant coordination, it allows for an increasingly accurate discernment of the structure of the surrounding world.

6. The Relationship Between Consciousness and the Physical Substrate

Considering consciousness as a process of coordination and the “Self” as the center of this structure, it becomes necessary to define the role of the physical substrate through which this coordination is manifested in observable reality.

Within the proposed approach, the physical body—and in particular the brain—can be regarded as a resonator that ensures the stability and observability of processes associated with consciousness. This implies that the brain acts less as the source of consciousness and more as the medium in which its physical manifestation is formed.

This understanding is consistent with the interference-based interpretation of brain rhythms, according to which the recorded EEG activity represents a projection of interactions rather than a direct reflection of underlying processes.

In this context, the relationship between consciousness and the body can be described as a process of coordination in which:

• the physical structure sets constraints and conditions for the manifestation of processes;
• the dynamics of interaction shape the observable activity;
• the stability of the system is determined by the degree of coordination between levels.

From this perspective, the body can be viewed as a system capable of sustaining certain modes of coordination, analogous to how a resonator supports stable oscillatory states.

This makes it possible to reconsider the interaction between mental and physical processes. In particular:

• changes in states of consciousness may be accompanied by changes in the structure of observable activity;
• stable states may correspond to modes of coordination supported by the physical system;
• disruptions of structure may lead to disorganization both at the level of perception and behavior.

It is important to emphasize that this model does not assert the independence of consciousness from the physical substrate, but only allows for the possibility of considering their relationship as a process of coordination rather than a one-way causal dependence.

Thus, the physical body may be interpreted as a necessary element of the system that ensures the manifestation and stability of processes associated with consciousness, while remaining part of a broader structure of interaction.

7. Evolution as Adaptation of the Resonator

If the physical body is considered as a system that ensures the stability and manifestation of processes associated with consciousness, the question arises about the causes and mechanisms of its change over time.

Within the proposed approach, evolution can be interpreted as a process in which the physical substrate undergoes successive changes, adapting to the conditions under which coordination of processes occurs. These changes may be viewed not only as the result of external factors but also as a reflection of the dynamics of the system as a whole.

From this perspective, it can be assumed that:

• different forms of organization of matter possess varying capacities to sustain stable modes of coordination;
• more complex structures may provide a wider range of possible system states;
• the development of forms may be accompanied by increased stability and flexibility of interaction.

At the same time, it is important to emphasize that this interpretation does not contradict classical views of evolution as a process driven by mutation, selection, and adaptation. It merely allows for an additional level of consideration in which physical changes may be viewed as part of a more general system dynamics.

The question of whether evolution is solely the result of random processes or includes elements of directed development remains open within this model. The proposed approach does not require the introduction of an external controlling mechanism, but allows for the possibility of a more complex structure of interaction than that described purely at the level of biological processes.

Thus, evolution can be interpreted as a process of adaptation of the physical substrate that ensures the maintenance and expansion of the range of stable system states in which coordination processes are manifested.

8. The Possibility of Independence of Consciousness from the Substrate (Hypothesis)

Considering consciousness as a process of coordination and the physical body as a system that enables its manifestation naturally raises the question of the degree of dependence between these processes.

Within traditional scientific approaches, consciousness is generally regarded as a function of the brain and is fully associated with its physical activity. However, the interference-based interpretation of brain rhythms allows for an alternative perspective, in which the observed activity is viewed as a projection of interaction rather than its primary source.

From this standpoint, a hypothesis can be formulated according to which the physical substrate may be a necessary condition for the manifestation of consciousness, but not necessarily its sole foundation. In this case, the relationship between consciousness and the body takes on the character of interaction rather than one-way dependence.

It is important to emphasize that this assumption does not constitute a claim about the independent existence of consciousness outside the physical substrate. It merely suggests the possibility of considering their relationship as more complex than direct identity.

Such an interpretation allows for a reconsideration of a number of phenomena:

• altered states of consciousness, in which significant changes in the structure of perception occur while basic brain activity is preserved;
• the subjective sense of continuity of the “Self,” not reducible to individual states;
• the ability of the system to reorganize its structure without complete loss of integrity.

Within this model, such phenomena may be interpreted as changes in the conditions of coordination, rather than as the emergence or disappearance of consciousness as such.

Thus, it can be assumed that the physical substrate plays a key role in shaping the observable structure of consciousness, while the question of whether it fully exhausts its ontological nature remains open.

The proposed hypothesis does not require the introduction of additional assumptions beyond the scope of the model, but points to the possibility of a broader consideration of the nature of consciousness, open to further investigation.

8.1 Limitations of Detecting Consciousness through Baryonic Matter

If consciousness is considered as a process of a higher-frequency organization, and the physical body as a resonator that enables its manifestation in observable reality, an important consequence follows. Consciousness does not necessarily have to be directly detectable by means belonging to the same level of materiality through which it manifests.

Baryonic matter, which constitutes both the physical body and measuring instruments, may be regarded as a lower-frequency form of stable alignment. In this case, it is capable of registering not the original process of consciousness itself, but only its projection — the effects that become manifest through the physical carrier.

From this perspective, brain activity, including observable EEG rhythms, may be understood not as consciousness itself, but as a low-frequency trace of its interaction with the body. In other words, the instrument records not the source, but the result of the alignment between the source and the resonator.

This helps explain why consciousness is difficult to reduce to observable neurophysiological processes. If the frequency level of consciousness differs from that of baryonic matter, then the direct detection of consciousness by means of this matter becomes fundamentally limited. One may register correlations, state changes, rhythms, coherence, and behavioral manifestations — but not the essence of the process itself.

In this sense, the body performs a dual role. On the one hand, it makes consciousness manifest in the physical world. On the other, it also limits the observability of consciousness to the boundaries of its own material and frequency structure.

Thus, the physical carrier should not be regarded solely as the source of consciousness. More cautiously, it may be described as the domain of its manifestation, alignment, and partial registration. In this view, consciousness is not independent of the body, but neither is it exhausted by it.

This addition strengthens the interpretation of evolution as the tuning of a resonator: the development of the body may be seen not only as biological adaptation to the external environment, but also as a gradual expansion of the physical carrier’s capacity to receive, sustain, and manifest increasingly complex modes of consciousness.

9. Conclusion

This work proposes an interpretative framework in which consciousness is understood as a process of coordination arising from the interaction of different levels of organization. The physical body, and in particular the brain, is interpreted as a system that ensures the stability and manifestation of these processes in observable reality.

The concept of the “Self” is introduced as a center of coordination that integrates subconscious, conscious, and intuitive processes into a unified structure. It is shown that self-reflection can be regarded as a mechanism for forming stable states, while intuition can be understood as a form of feedback arising from the interaction between the system and its environment.

Considering the dynamics of the system makes it possible to interpret various states of consciousness as modes of coordination, and changes in the structure of interaction as the basis for adaptation and development. In this context, evolution may be understood as a process of change in the physical substrate that ensures the expansion of the range of stable system states.

Particular attention is given to the relationship between consciousness and the physical substrate. It is shown that, when observed activity is interpreted as a projection of interaction, this relationship can be viewed not only as a one-way dependence but also as a more complex process of coordination. At the same time, the hypothesis of a potential independence of consciousness from the substrate is left open and is not treated as an established fact.

The proposed approach does not claim to be a strict scientific theory, but represents an attempt to construct a coherent interpretative model that integrates physical and philosophical perspectives. Its aim is not to replace existing scientific approaches, but to expand the framework of consideration while maintaining consistency with observed data.

Thus, within this model, consciousness, physical reality, and the subject (the “Self”) are considered as interconnected aspects of a unified dynamic structure, where their differences are determined not by fundamental separation, but by the specific ways in which processes are manifested and coordinated.

Related Works and Publications by the Author

The proposed model is part of a series of interconnected works in which the conceptual foundation of the approach is developed step by step.

1. Reflections: Belief, Disbelief. SPIRIT and Matter
   https://zenodo.org/records/20032688
   — a philosophical and ethical work outlining the initial ideas and general worldview context.
2. Energy as Fundamental Reality: From Points to Processes
   https://zenodo.org/records/17170686
   — formulation of the ontological basis, where physical reality is considered as a set of processes rather than static objects.
3. Hypothesis of Wave Equilibrium: The Universe as a Balanced State of Zero
   https://zenodo.org/records/19727806
   — an exploration of a possible mechanism for the emergence of physical reality.
4. Wave Model of Matter and the Fractal Structure of the Universe
   https://zenodo.org/records/19703486
   — the core of the physical component of this series.
5. The Birth of Dimensions and the Perception of Fractality
   https://zenodo.org/records/19695379
   — a description of the mechanism behind the formation of dimensional structure and scaling levels.
6. Unity of the Wave: Matter, Energy, and Consciousness as Aspects of Frequency
   https://zenodo.org/records/19839673
   — a synthesis of key ideas and an attempt to unify different aspects of the model.
7. Simple Wave Interpretation of Gravity and the Casimir Effect
   https://zenodo.org/records/20117425
   — an interpretation of gravitational effects within the wave-based framework.

The present work builds upon the results presented in these publications and further develops them within a unified interpretative framework.