Earlier, I described the human being as a two-loop architecture. The fast loop is the brain. It handles reflexes, movement, speech—everything that needs a response in milliseconds. The slow loop is the long-term “I”: the profile of values, strategic priorities, and the integration of experience.
But if the slow loop does not require an immediate response, if it can think in minutes, hours, or days, then a question appears. Where could it be running?
And more importantly, why does that question make sense at all?
Today I am taking the model to its logical conclusion. And I am naming a specific physical object that, in my hypothesis, could serve as the central node of consciousness. Not the brain. Not a server computing our thoughts. But the tuning fork that holds phase, preserves the continuity of the “I,” and synchronizes the terminals.
01—A Safeguard
Before going further, the boundaries of the model need to be fixed.
This is not a claim that science has established where consciousness is located. It is not a new physical theory, and it is not an attempt to replace neurobiology.
It is an engineering-philosophical model: a way of assembling known facts, observations, and lived experience into a single framework—without claiming that the physical mechanism has already been found.
Armor / Important:
There is a second limitation as well.
In this version of the model, quantum coherence is not used as a channel for transmitting controllable messages. There are no “thought packets” flying into the brain. No telegraph.
It is used only as a language for describing state coherence: as a tuning fork of selfhood, as a reference phase that makes experience addressable—something felt as “mine.”
Everything related to the content of thoughts, reflexes, motor function, and rapid response remains the brain’s local work. If this model contains a remote node at all, it does not act through commands. It acts only at the level of slow tuning: preserving continuity, coherence, and the long profile of the self.
02—The Error of Local Generation
One of the most stable ideas in the modern conversation about consciousness is that it is produced entirely by the brain, on site, as a local effect of sufficiently complex neural activity. In that picture, everything seems almost self-evident: assemble enough neurons in the right configuration, set signals flowing between them, and subjectivity should emerge on its own—as a byproduct of complexity, as a kind of inner glow produced once the system crosses the right threshold of organization.
In this engineering-philosophical model, that is exactly where the main question begins. Not necessarily a factual error, but perhaps an error of descriptive level. We accept the output device too quickly as the place where the whole process runs. We confuse the interface with the computational node. We confuse the screen on which the program appears with the machine on which it actually runs.
This distinction is easiest to see through a familiar technical analogy. A smartphone can do a great deal offline: make calls, store notes, run an alarm, function as a camera, calculator, or offline player. But the moment synchronization, long-term memory, complex processing, cross-device coordination, and access to constantly updated context become important, local hardware stops being enough. At that point, the architecture introduces a remote node—not as a replacement for the device, but as a second layer of the system, without which the whole remains reduced.
That is exactly how this model suggests looking at the human being. The brain remains necessary and central, but its role is not that of the final source of the entire process. Its role is that of a local node: a biological transceiver that receives, assembles, filters, transforms, and renders experience into sensation, thought, speech, and action. It can function autonomously in everything related to survival, reaction, motor control, and day-to-day navigation of the world. But the continuity of selfhood, the preservation of long identity, the strategic coherence of a life, and the integration of experience over large time scales do not, in this view, have to be exhausted by what happens inside the skull.
From here the hypothesis emerges—the one the entire earlier line of reasoning has been moving toward. Consciousness, in the full sense of the word, may not be a local flash inside the brain, but a process that merely manifests through the brain without fully coinciding with it. In that case, the brain is not a factory producing the “I” out of neural tissue. It is an access terminal through which that stream is assembled into a particular experience, a particular biography, a particular presence here and now.
But once this framing is accepted, even as a working model, the next question can no longer be postponed. Where is the node relative to which the brain functions as a terminal? Where is this slow, continuous layer maintained? What physical object in our local region can even be considered a candidate for the role of a remote support—not mystical, not abstract, but real, localized, and embedded in the same physical environment as us?
03—The Sun as the Central Node
In this model, the slow loop—the long-term “I,” strategic priorities, and the archive of experience—is not executed inside the skull. As a working hypothesis, it is placed in the Sun.
That sounds abrupt, almost provocative. Which is exactly why it matters to move here not from the effect of the phrase, but from the logic. If consciousness has not only a local layer but also a remote one, then that remote layer cannot be something vague, mystical, or fundamentally ungraspable. From an engineering perspective, a remote node must be a physical object: localized, observable, governed by natural law, and embedded in the same environment as us. It must possess immense energy reserves, long-term stability, and a scale that makes the hypothesis at least not absurd at the outset.
In our local system, the Sun is the first object that fits that description. It dominates in mass and energy, remains stable across astronomical time scales, shapes the heliosphere, and continuously affects the environment in which Earth exists. The Sun does not create Earth’s magnetosphere—Earth does that itself—but the solar wind and space weather constantly deform and excite that system, setting its external regime. Put carefully, the Sun matters here not as a mystical center, but as the most natural physical candidate for the role of a remote support, if such a support is to be sought anywhere within our stellar neighborhood.
That is, of course, not enough. Scale, power, and longevity alone do not turn a star into a consciousness node. But if such a connection exists even in principle, then one would expect not direct proof, but at least indirect traces—correlations, gradients of influence, recurring effects across different levels of reliability. And here the picture turns out not to be uniform, but layered.
The first layer is the hardest and least disputed. Light genuinely changes the operating modes of the human system. Prolonged darkness, winter light deprivation, circadian disruption, seasonal drops in mood—none of this is poetic language. It is observable physiology. Light therapy works not as a metaphor, but as clinical practice. Yet this very level also marks a boundary: however important light is, it does not explain the very fact of the continuity of the “I.” Thought does not disappear at night. Selfhood does not shut off. Presence does not dissolve simply because it is dark outside. Which means that in this model, light is better understood not as the carrier of subjectivity, but as a regulator of mode—as a factor that retunes the biological clock, sleep, tone, and mood, without exhausting the problem of consciousness itself.
The second layer is less reliable, but more interesting as an indicator. Scientific literature does in fact describe statistical associations between geomagnetic activity and certain shifts in health, mood, and autonomic indicators. These effects are small, not always reproducible, and almost never strong enough to justify direct causal claims. But their character matters. If there is influence here at all, it looks less like control than like modulation of the environment. Not a command. Not a message. Not an “injection” of content. But a change in the conditions of the stage on which the terminal operates. In other words, this may not be a channel of meaning, but a background that sometimes shifts probabilities, regime stability, and internal noise.
The third layer is the slipperiest and therefore the one that demands the greatest caution. Attempts to link solar cycles with large social waves, spikes in violence, revolutions, and historical turning points have been made for a long time. The idea is elegant, almost seductive—and for that very reason, it attracts too much excess. There are simply too many confounders here: economics, technology, ideology, demography, war, randomness, accumulated contradictions. So within this model, I do not want to turn such coincidences into an argument. At best, they belong to the distant horizon of the question, not to the foundation of the conclusion.
Taken together, these three levels point to something important. In this line of reasoning, the Sun does not become a proven “server of consciousness,” but it also stops looking like a purely arbitrary fantasy. It has physical candidacy. It has an indisputable influence on the regimes of life. And it has a disputed but non-zero zone of indirect correlations. That is not enough for proof. But it is enough to keep the hypothesis from looking merely decorative.
There is one more indicator as well—not physical, but cultural. Many ancient civilizations associated the Sun not only with life, but with order, law, clarity, and reason. That is not evidence, and certainly not “secret ancestral knowledge.” It is a cultural trace. Perhaps human beings long ago intuitively linked the source of light with the source of the world’s ordering. Perhaps they saw something we have forgotten how to notice—or knew something we have forgotten how to understand.
So when I call the Sun the central node, I am not offering a ready physical mechanism, and I am not passing off a metaphor as an established fact. I am simply taking the architecture of the model to the point where it stops being vague and is forced to name a concrete candidate. And if such a candidate must be physical, localized, powerful, stable, and embedded in the same environment as the human being, then in our local region the role is most naturally filled by the Sun.
04—The Brain as a Network Interface
If, in this model, the brain is not the final source of consciousness but a local node, then its main role becomes easier to understand. It does not “produce” the whole process on its own. It services the exchange between the body, the environment, and that layer of selfhood which, in this architecture, is not exhausted by local neural work. In other words, the brain appears here as a living interface: it receives, selects, assembles, transforms, and outputs.
Any transceiver has two basic directions of operation—reception and transmission. Viewed through an engineering lens, the brain is structured in much the same way. It continuously processes incoming streams while simultaneously forming outgoing responses, filtering noise, maintaining the system’s local stability, and preventing the whole process from collapsing into a chaotic set of signals.
What the brain receives
In this model, it makes sense to speak of two classes of input, and the distinction between them is fundamental.
The first is the sensory stream. Vision, hearing, touch, taste, smell, body position in space, temperature, pain, pressure, balance—everything the organism gathers from the outside world and from itself. This is the layer from which the brain constructs the scene of the present moment. Something smells like burning. The air is cold. The horizon is bright. The ground is slippery. Someone is standing behind you. This stream requires the fastest possible processing because it is tied to survival, movement, and orientation. Delay is dangerous here, and sometimes lethally so. That is why this level has to remain fully local.
But experience is not exhausted by the sensory stream. The system receives not only data about what is happening, but also something by which what is happening is assembled as the experience of one and the same subject. That second layer is what I call the stream of selfhood—not in the sense of a message arriving from outside, and not as a set of ready-made thoughts, but as the reference coherence of a state. It is not text and not a command, but a tuning without which the stream of sensations does not gather into a single “I am here.”
The closest metaphor here is an orchestra. Individual instruments produce sounds, but music does not arise merely because those sounds exist side by side. It arises because they are held in a common tuning. In the same way, the sensory stream brings the content of the scene, while the tuning fork of selfhood preserves its addressability. That is why experience is felt not simply as a set of signals, but as my experience—something happening to me, not merely near an impersonal processing system.
That is why these two layers answer different questions. Sensory input answers: what is happening? The tuning fork of selfhood answers: who is experiencing this, and in what key is it being assembled as meaningful experience at all?
What the brain sends
The outgoing side is structured in a similar way. And here too, it helps to distinguish two levels.
The first is everything related to immediate action. Speech, movement, facial expression, fine motor acts, posture, shifts of attention, threat response, inhibition or initiation of behavior. This layer belongs entirely to the local loop. The command to pull your hand away from fire cannot wait for remote confirmation. Turning your head, taking a step, inhaling, tightening your fingers, articulating a phrase—all of this has to happen here and now, within biology itself, without any kind of “request outward.” So fast response, like the fast sensory assembly of the scene, remains a function of the brain and body.
But if, on the input side, there is not only sensory information but also a layer of selfhood, then on the output side it is logical to assume not only motor reaction, but also a slow trace of experience—something not reducible to movement, but remaining after it. I wouldn’t use a trendy term like life logs here, but rather the journal of experience. This is not the claim that the system uploads raw video recordings of every day somewhere. On the contrary, if this model makes any sense at all, it implies strong compression, selection, and semantic packaging of the material.
Such a journal would preserve not everything indiscriminately, but only what truly changes the subject’s internal configuration: significant encounters, choices, experiences, inner turning points, and semantic traces that enter the long form of selfhood. Not the video stream of life, but its compressed semantics.
At exactly this point, the brain functions in the model as filter and assembler. It does not transmit everything. It separates background from event, routine from significance, noise from what can actually alter the long profile of the self. The repetitive and insignificant remains in local circulation. The meaningful gets a chance to become part of the archive.
Without that selection, the whole construction would be impossible. If every micro-gesture, every step, every tiny shift of inner state were sent into the remote layer, no system could bear that load. That is why the autonomy of the local node is not an accidental convenience. It is an architectural necessity. The brain must not only respond. It must decide what deserves to be preserved and what should dissolve into the background of a lived day.
And that makes its role especially important. It turns out to be neither “the place where consciousness fully lives” nor an empty wire. It is an active interface between the instant and the enduring, between the bodily scene and the assembled biography, between local reaction and the slow layer that, in this model, preserves the continuity of the “I.”
At the same time, the brain’s long-term memory does not contradict the model. On the contrary, the local node must preserve stable traces of experience, or there would be no skills, no recognition, no personal biography. The question, for me, is not whether the brain stores memory. The question is whether the entire long form of selfhood can be reduced to that storage.
05—The Delay Paradox
This is where the main objection to the entire solar model appears. And it is not an accidental objection. It is completely natural.
If the Sun participates in preserving selfhood at all, if this architecture includes a remote layer, then the question suggests itself immediately: how could any of this work across such a distance? Light from the Sun takes about eight minutes to reach Earth. So if one imagines the connection literally, as the transmission of a signal from node to brain and back, then any real bodily activity becomes impossible. By the time a command reached the Sun and a response returned, the local scene would have changed a thousand times. With that kind of delay, you could not walk, speak, pull your hand away from fire, or even maintain a continuous living contact with the world.
At first glance, this objection looks devastating. But its force depends on a hidden assumption that the model itself does not contain. It assumes that the connection between Sun and brain is structured like a telegraph: there is a channel, a message, a sending, a reception, and a reply. In other words, it criticizes a scheme in which the remote node is supposed to micromanage every act of behavior.
But that is not how the model is described.
In this architecture, light is not the carrier of selfhood. It participates in the regulation of mode—in circadian timing, biological clocks, the tuning of sleep, wakefulness, and tone—but it is not the channel through which the content of consciousness is transmitted. And when I use the language of quantum coherence, I do not mean an established physical mechanism of faster-than-light communication. On the contrary, within known physics, controllable information cannot be extracted from nonlocal correlations faster than light. So what is meant here is not a ready-made channel, but a metaphor of state coherence—what I call the tuning fork of selfhood.
That is why the objection about eight minutes does not actually strike the model. It strikes an overly crude, overly literal reading of it. It would refute a “solar telegraph” if such a thing had been proposed. But it has not.
The mistake lies in the way the problem is framed. It is too easy to start imagining that the remote node must control every gesture, every breath, every turn of the head. But that architecture would be absurd even within the metaphor itself. Everything that requires an immediate response must remain on the side of the local node. Reflexes, motor control, speech, balance, scene recognition, instantaneous inhibition or initiation of action—the brain and body have to handle all of that without waiting for any external confirmation.
That is why the delay paradox is resolved not by “speeding up the channel,” but by stopping the assignment of the wrong function to the remote layer. The fast loop belongs to local biology. It operates here and now, on the scale of milliseconds, because otherwise life would never come together in time. But it does not follow that the slow loop has to work the same way. On the contrary, if there is any remote support in the model at all, then its role begins exactly where the demand for immediate response ends.
If it exists, the remote layer should not be issuing micro-commands to the body. Its possible role belongs only to what is not decided in a fraction of a second: the continuity of selfhood, the coherence of biography, the value profile, and the archive of experience. Everything requiring immediate response remains, by definition, on the side of the brain and body.
In that sense, the delay does not disappear. It simply stops being relevant to the part of the model to which people try to apply it. The problem arises only when levels are mixed and the slow loop is expected to do what belongs to the fast one.
That is why, in this model, sleep turns out not to be a pause, but a special window. In biological terms, sleep is when memory consolidation happens, impressions are processed, emotional salience is reassessed, and traces of experience are reorganized. In the language of this architectural metaphor, that can be read as a moment when the local node is less occupied with the external scene and more occupied with inner reassembly. Not in the literal sense of uploading files “to the Sun,” but in the sense of moving from reaction to coordination.
The daytime noise weakens. The external scene recedes. And the system begins working not for immediate response, but for folding what has been lived into a longer form. That is why everyone knows the experience: in the evening a problem seems insoluble, and by morning the same situation looks different. In the language of neurobiology, this can be described through sleep, memory, emotion, and reprocessing. In the language of this model, it becomes the night retuning of the slow loop. Not as proof, but as a way of assembling the phenomenon into a single architecture.
So the delay paradox does not destroy the model. It simply forces a sharper distinction between levels. Everything that must happen instantly remains in the brain and body. Everything that can work slowly is not obliged to obey the logic of an immediate signal. And only once that distinction is preserved does the solar hypothesis stop looking like a crude fantasy about a remote control panel for the human being.
06—Connection and Night: Two Layers of the Channel
If the Sun participates in maintaining the strategic layer in this model at all, a natural objection appears almost immediately. Why, then, does consciousness not turn off at night? Why does the feeling of “I am here” not disappear along with daylight? Why does a human being remain oneself in darkness, with eyes closed, cut off from the external scene?
The answer, as it seems to me, begins with something simple: in this architecture, everything cannot be reduced to a single channel. What holds the system together around the clock is better broken down into at least two distinct layers—the environment in which the terminal operates, and the support relative to which selfhood is assembled at all.
The first layer is the Sun-Earth magnetic environment. I do not mean here a “wire of consciousness” or a carrier of ready-made thoughts. What is meant instead is something closer to stage conditions: the solar wind, the geomagnetic field, flows of charged particles, the entire external setting within which the local biological node operates. Such an environment does not dictate the content of experience, but it may, at least within the hypothesis, affect regime stability—sleep, wakefulness, clarity of attention, emotional background, the level of internal noise. This looks less like a message than like weather. Weather does not “tell” you anything, but it changes the conditions in which you live and act.
That is why night, by itself, cancels nothing here. Direct solar illumination disappears, but the magnetic environment remains. Earth does not drop out of the solar environment simply because it is dark on your side of the planet. In the language of the model, the channel of conditions continues to exist around the clock. The parameters of the scene change, but the scene itself does not vanish.
There is also a cautious empirical anchor for this thought. In experiments, EEG responses to changes in magnetic fields of Earth-like strength have in fact been observed. And magnetic particles such as magnetite have been found in brain tissue, though their origin and functional role remain disputed. For me, this matters not as proof of a “magnetic channel of consciousness,” but as a sign of a more modest possibility: the brain is probably not absolutely deaf to the magnetic environment. Even if its influence is limited not to the content of thought but to the quality of regimes, the very idea of sensitivity stops looking completely arbitrary.
But a layer of conditions alone is not enough to explain the continuity of selfhood. Weather may change the stability of the system, but it does not explain why the stream of experience is held together as the stream of one and the same subject. That is why the model introduces a second layer—not environmental, but supportive. This is what I call the tuning fork of selfhood.
And here again, it is important not to collapse into the crude picture of a telegraph. The tuning fork of selfhood is not message transfer, not a remote command, and not an “implantation” of content. It is a language for describing state coherence, the background addressability by which experience is felt not as just a stream of sensations, but as my stream. Not as a set of signals being processed somewhere by someone, but as presence held in one and the same key even when lighting, attention, mood, or degree of wakefulness change.
And in that sense, night destroys nothing. Light truly regulates the body’s modes: it resets the circadian clock, affects tone, sleepiness, hormonal cycles, and general biological readiness. But the disappearance of light is not identical with the disappearance of selfhood. The terminal simply enters a different operating mode. The external scene dims, the sensory stream narrows, the body moves into sleep, yet the addressability of experience does not have to vanish along with photons striking the retina. You fall asleep—and do not become someone else. You wake up—and it is still you, even if now with a different configuration of attention, memory, and inner state.
If all this is reduced to a single formula, the distinction looks like this: light regulates the body’s modes, the magnetic environment sets the conditions, and the tuning fork of selfhood preserves the addressability of experience. So night switches off not the “I,” but only one of the regime layers—the light-based one.
Armor / Important:
Classical science explains the possible effects of geomagnetic storms primarily through physiology: through effects on the autonomic nervous system, stress responses, cardiovascular dynamics, and other bodily mechanisms. This model does not cancel that. It only adds a more cautious assumption: the magnetic environment may act not as a content channel, but as an environmental factor on which the stability of the terminal’s modes depends. In other words: not a command, but noise; not a message, but a change in the background against which experience is assembled.
07—The Tuning Fork of Selfhood
The most common mistake in reading this model is to treat it as though the quantum layer serves as a channel for the instantaneous transfer of content. As though somewhere there were a remote node sending ready-made thoughts to the brain, and the brain received them, decoded them, and turned them into behavior. In this version of the model, that interpretation is not merely undesirable. It is explicitly excluded. The quantum layer here is not a telegraph and not a transport mechanism for messages.
When I speak of quantum coherence, I do not mean a mechanism for transmitting text. I mean a language for describing state coherence. Put as carefully as possible, the point is not that controllable signals are somehow running between Sun and brain, but that, within the metaphor, both can be referred to one support, one tuning, one form of coordination that does not reduce to an ordinary linear transmission of information from point A to point B.
That is exactly why the tuning fork metaphor matters so much here. One tuning fork does not “tell” another any sentence. There are no words between them, no commands, no text that needs decoding. But there is tuning. There is a reference frequency relative to which the second responds not chaotically, but in order. I use this metaphor not to explain a physical mechanism—which I do not have—but to name something subtler: how experience may be held together as the coherent experience of one and the same subject.
Within this model, the tuning fork of selfhood performs two key functions above all.
The first is the addressing of subjectivity. Neurons may exchange signals. Sensory streams may gather into a complex scene. Memory may preserve traces of experience. But that set, by itself, still does not explain why experience is felt as mine. Why the whole stream not only happens, but happens for one inner center of assembly. The image of the tuning fork enters precisely here—as an attempt to name the reference coherence by which experience does not collapse into impersonal processing, but gathers into addressable presence.
The second is the continuity of selfhood. The feeling of “I am here” passes through sleep, fatigue, distraction, shifts of attention, and sometimes even severe memory disorders. The content of experience changes. Clarity changes. The capacity for reflection changes. Yet the form of presence is held with remarkable persistence. In the language of this model, that means selfhood is not fully exhausted by the local, moment-to-moment assembly of each current state. The tuning fork serves here as an image of the support that allows the subject to remain identical to itself even when individual elements of the inner scene fall apart, fade, or are reconfigured.
A third function could be added—relation to choice—but here I want to be especially cautious. If the tuning fork has any role in this domain, it is not as a source of commands and not as a hidden director of actions. At most, what could be meant is something softer: a background tuning against which some options are felt as inwardly coherent, while others are felt as alien, false, or demanding inner resistance. This is still not a mechanism of will, and not an explanation of decision as such. It is only an attempt to describe why some choices are experienced not simply as effective, but as “mine” in a deeper sense.
That is why I do not want to overload the metaphor. The tuning fork of selfhood does not explain the entire psyche, and it does not cancel the neurobiology of choice. It does not replace memory, attention, motivation, or the work of emotion. Its task is more modest, but in a sense more fundamental: to provide a language for describing how experience is held in a single addressable key, and why the stream of experience does not lose the form of a subject even when almost everything else changes.
In that sense, the tuning fork is not a proven object and not a discovered physical node. It is the model’s reference image. But it is not decorative. It is needed not for beauty, but to create a place in the architecture of consciousness for the hardest problem of all: why there is not just information processing, but experience assembled as the experience of one and the same “I.”
08—The Installation Mechanism: Not Connection, but Tuning
The critical question postponed so far is this: if the model contains a tuning fork of selfhood at all, if there is a shared tuning and a remote support, then when and how does a particular human being become related to it? At what moment does this coherence arise? How does the terminal enter the tuning?
The easiest answer here would also be the cheapest. One could retreat into mystical language: “the soul enters the body,” “consciousness connects at birth,” “the session is activated from outside.” But that is exactly the kind of answer I want to avoid. Within this model, it is more honest to speak not of connection, but of tuning.
The starting fact here is simple and fundamental at the same time: most matter in the Solar System has a common origin. The Sun, the planets, asteroids, most comets, and ultimately we ourselves formed out of one shared protosolar cloud and protoplanetary disk. That does not provide any ready-made mechanism of selfhood. But it sets an important frame: this is not a matter of two alien entities accidentally linked to each other. It is a matter of different forms of one and the same physical history. We do not “connect” to a completely external object. From the beginning, we belong to the same material environment.
But a strict qualification is necessary here. Common origin does not mean that some ancient quantum wire stretches between the Sun and the brain, preserved since the birth of the Solar System. In a warm, wet, turbulent environment, coherence breaks down quickly, and decoherence remains the main obstacle to any such hypothesis. That is why I am not speaking of direct entanglement as a ready-made channel. At most, what can be allowed within the model is the more cautious thought of a shared support layer or correlated environment within which the local terminal is able to detect and preserve a stable form of selfhood.
And that is exactly where my version of “installation” comes from. The brain does not receive a ready-made identity from outside, as though it were being handed a login and password to an already existing account. There is no handshake, no ceremony of connection, no moment in which something external simply “enters” the assembled body. On the contrary, as it forms, the brain itself becomes a unique configuration capable of resonating in a specific way. Its neural topology, developmental history, microstructure, the dynamics of how its connections form, its bodily embeddedness in the world—all this creates not an access code, but a unique tuning. Not an external identifier, but an internal imprint.
That is why the more accurate analogy here is not a phone connected to a tower, but a receiver tuning itself to a frequency in an already existing field. The field in this metaphor is not a proven physical carrier. It is only an image of a shared environment existing prior to any particular terminal. The receiver does not obtain its frequency by command. It discovers it by virtue of its own structure. In exactly that sense, the brain in this model does not “receive a personality.” It assembles a form of organization in which experience begins to hold together as the experience of this subject, rather than as an impersonal stream of signals.
That distinction matters. Connection implies an external procedure, almost an administrative act: first the link is absent, then it is switched on. Tuning implies something else: the system ripens into a state in which it becomes capable of stable resonance. Not because someone gave a command from above, but because its own structure reached the necessary configuration.
That is why the question of the beginning of selfhood is framed differently in this model. Not “At what moment did consciousness enter the body?” but “At what moment did a living system become sufficiently organized to sustain an addressable tuning of experience?” This does not remove the mystery. But it makes it less mystical and more architectural.
Armor / Important:
The problem of decoherence remains the biggest hole in the entire hypothesis. If quantum coherence really does collapse too quickly in a warm biological environment, then it is unclear how any stable coherence of this kind could exist at all. I do not have a ready answer here. At best, there are speculative workarounds: that the biological environment protects coherence better than we currently understand; that synchronization is not continuous, but constantly re-established; or that the “tuning fork” does not manifest at the level of every micro-event, but as statistical coherence at larger scales. None of this is a mechanism yet. It is an open question at which the model runs up against its own limit.
09—How It Comes Together as One Picture
If everything said so far is now reduced to a single working scheme, the picture becomes fairly simple, though unusual in its architecture.
At the first level, the brain does what, by all observable evidence, it should do: it assembles the local scene from signals coming from the body and the environment. Vision, hearing, touch, body position in space, temperature, pain, balance—all of this arrives from the periphery and is processed here, within the terminal itself. The brain does not ask a remote node how to interpret each image, each sound, or each touch. It builds the picture of the world itself, distinguishes figure from background itself, and assembles what is happening around it into the working scene of the present moment.
But the local scene is not the whole story. Data about the world alone is not enough to explain why what is happening is experienced not simply as a stream of signals, but as my experience. That is where the second level appears in the model—the support of selfhood. The quantum layer, if that language is used, does not send instructions. It does not tell the terminal: “this is a cat,” “this is a tree,” “go there.” Its function lies not in content, but in coherence. It preserves not the image of the world, but the addressability of experience; not ready-made meaning, but the tuning relative to which meaning can be assembled at all as the experience of one and the same subject.
So the scheme here works like this: the brain assembles the scene locally, while the support layer preserves the form of its subjective unity. Not in the sense that a remote node tells the terminal what exactly it must see and think, but in the sense that the terminal assembles what is happening not in a vacuum, but in a unified key of selfhood. That is why experience is felt not as the white noise of sensory processing, but as coherent presence: this is happening to me, this enters my history, this is held within the horizon of the same “I.”
That naturally raises a clarifying question: if the quantum layer is responsible for coherence, then what does the magnetic environment do in this model? The answer is comparatively simple. It is not a wire for thoughts, and it does not transmit content. Its role is much more modest, and perhaps therefore more plausible: to be an environment of conditions. The solar wind, geomagnetic disturbances, Earth’s magnetosphere, flows of charged particles—all this forms not a language of messages, but the background in which the terminal exists and works. When that background is stable, the system may be more stable. When it is disturbed, internal noise rises, the quality of regimes worsens, sleep rhythms get disrupted, tone shifts, and clarity fluctuates.
If the whole model is compressed into one formula, it sounds like this: the content of the scene is assembled locally; the support of selfhood is preserved as coherence; the magnetic environment sets the conditions in which that assembly takes place. In other words, the brain is responsible for the picture of the world, the tuning fork for the addressability of experience, and the magnetic environment for the quality of the regime in which all of this operates.
One more thing follows from this scheme as well: the binary structure of human choice does not have to be a property of the Universe as such. It may arise on the side of the terminal, which translates a continuous input flow into discrete acts—initiation, inhibition, assent, refusal. In other words, the world may be continuous, while a decision is still formed as “yes” or “no.”
And at that point the whole picture finally comes together. The brain does not receive a ready-made world from outside, and it does not read incoming thoughts. It builds the scene itself, translates the continuous into operational distinctions itself, and governs the body and behavior in real time itself. But it does not do so in a vacuum. The magnetic environment sets the conditions, while the support of selfhood preserves experience in the form of one and the same subject. It is in this three-part structure—local assembly, environmental conditions, and supportive coherence—that the model acquires its internal integrity.
10—Quantum Effects as a Local Amplifier
One more possible layer remains in this model. It is not necessary to the general logic, but it may serve as an image of how the local node could be sensitive at all to very weak modulations that a coarse classical picture either does not describe or treats as negligible.
At this point, one of the most famous and most controversial hypotheses at the intersection of physics and consciousness theory naturally comes to mind—the Penrose-Hameroff line, linking possible quantum processes to neuronal microtubules. These are intracellular protein structures for which it has been suggested that, under certain conditions, they might participate in quantum-sensitive dynamics relevant to brain function. Let me stress immediately: this is not an established mechanism of consciousness, but a disputed and deeply problematic hypothesis in many respects.
What matters for this model is not the full Orch-OR apparatus, nor its strongest claims, but a more modest idea. If any physical bridge is permissible here at all, then quantum processes in microtubules can be treated not as an “interplanetary modem” and not as a means of transmitting thoughts faster than light, but only as a possible image of local sensitivity—the kind of sensitivity by which the terminal might respond to subtle modulations of the environment that are not reducible to coarse sensory input.
In other words, I am not using this hypothesis as a ready answer. At most, it functions here as a metaphor for a local amplifier. Not as a device receiving ready-made text, but as a structure that could in principle be more finely tuned to weak differences in the background than a naive, simplified classical picture of the brain allows.
The nearest analogy is a resonant circuit in a receiver. It does not create the signal, and it does not invent the content, but it allows a weak pattern to be extracted from noise if the system is capable of that kind of response at all. In that sense, quantum effects—if they truly play a role in neural dynamics—could be understood not as a separate “channel of consciousness,” but as an amplification of the local node’s sensitivity to weak and subtle differences in the environment.
That lets this layer fit naturally into the scheme already assembled. The content of the scene is still assembled locally by the brain. The magnetic environment still remains an environment of conditions, not a carrier of ready-made thoughts. The tuning fork of selfhood still functions not as a message-transfer mechanism, but as an image of state coherence. And the quantum level, if it belongs anywhere in this architecture at all, is needed only to explain why the local node might not be an absolutely “coarse” detector, but a system with subtler receptivity than is usually assumed.
Armor / Important:
Maximum caution is required here. The Penrose-Hameroff hypothesis remains controversial precisely because the problem of decoherence is critical for it: in a warm, wet biological environment, long-lived quantum coherence seems extremely difficult to sustain. So at present, it is more accurate to speak not of a confirmed mechanism, but of a disputed line of research that remains under debate and has not gained broad acceptance.
That is exactly why I use this motif only as a cautious image of a local amplifier. Not as a proven bridge between the brain and a “remote layer,” but as one possible way of thinking about why the terminal may be more sensitive to subtle modulations than the roughest version of the model suggests.
11—The Final Channel Map
After all these clarifications, the model can be reduced to a simple scheme. This is not proof, but a map of roles: which layer does what, where its boundary lies, and why night does not destroy the architecture itself.
| Layer | Status in the model | Function | Day | Night |
|---|---|---|---|---|
| Tuning fork of selfhood | Support layer | Addressability of experience, continuity of presence, preservation of the form of “mine” | ✅ | ✅ |
| Magnetic environment | Environment of conditions | Background of terminal operation, modulation of regime stability, noise level | ✅ | ✅ |
| Light | Mode regulator | Circadian rhythms, tone, mood, visual telemetry of the scene | ✅ | ❌ |
| Quantum effects in the terminal (if they matter at all) |
Speculative local amplifier | Possible fine sensitivity to weak environmental modulations | ✅ | ✅ |
What matters most in this scheme is one thing: light regulates the mode, the magnetic environment sets the conditions, the tuning fork of selfhood preserves the addressability of experience, and the quantum level—if it matters at all—can only be thought of as a speculative local amplifier. Night turns off not selfhood, but only one of the regime layers—the light-based one.
12—The True Registered Address
Within this model, the “true self” is not exhausted by what happens inside the skull. It is not hidden somewhere between neurons, waiting for science to one day find the special point in the cortex from which “everything is experienced.” The brain remains a necessary, active, irreplaceable node here—but not the full extent of the subject. It assembles the scene, maintains the body, shapes experience into thought, speech, and action, yet selfhood in this architecture is not reducible to local neural dynamics alone.
If that logic is taken to its conclusion, then the subject’s “registered address” lies outside the brain. And as I have already said, in the boldest version of the model that remote layer is placed in the Sun. Not as a mystical “place of souls,” but as a physical candidate for the support relative to which the brain functions as a local node of access and manifestation.
On the side of that remote layer, consciousness is not imagined here as some vague “something,” but as several distinguishable structures.
The first is the key of selfhood—that is, what makes a given stream of experience specifically yours rather than anyone else’s. Earlier I called this a UID, and that term may remain as a technical label, but its meaning here is broader than a database identifier. What is meant is the root form of addressability: that by which experience is assembled in one and the same subject instead of dissolving into an impersonal process of processing.
The second is the active stream of presence. Not the totality of biochemical reactions as such, but the living process experienced from within as “I think,” “I feel,” “I choose,” “I am.” In this model, the brain does not create that stream from scratch. It renders it locally, gives it form, and carries it through the bodily and cognitive scene.
The third is the archive of experience. Not a full video recording of life and not a warehouse of raw data, but the compressed semantics of what has been lived: significant choices, inner turning points, meanings that have taken root, repeated mistakes, acquired ways of relating to the world. In other words, not everything that passed through consciousness, but what became part of its long form.
The fourth is the value profile. Not a rulebook in a bureaucratic sense, but the long configuration of preferences, prohibitions, inner assent and dissent by which the subject does not merely react, but reacts as this subject. Automatism may propose one gesture, while the deep profile of selfhood may refuse to endorse it. And within the model, that long profile no longer has to be fully stored on the side of the local brain alone.
This is exactly where the next question appears: if that remote form of selfhood is not exhausted by the brain, then how should it be thought physically at all? Not in terms of some “location of the soul,” but in terms of a form of storage, if a real object such as the Sun is being discussed.
I do not want to introduce a crude picture in which separate “personality files” are sitting somewhere in cosmic memory cells. Within the model, it is far more accurate to think of such a remote layer as a distributed form—not a thing, but a pattern; not a shelf, but a configuration; not a folder with a name on it, but a coherence pattern.
Exactly how such a form might be imagined on the side of the Sun—that is the next question. And that is precisely where the model enters its most speculative territory.
13—Applying This to the Solar Model
If the remote layer of selfhood in this model is understood not as a local “file,” but as a distributed form, then a question follows: why can the Sun be considered a medium in which such a form is at least thinkable in principle?
The starting point here is simple: solar plasma is not chaos in the crude everyday sense. Yes, the Sun boils, throws off prominences, restructures magnetic fields, and lives in continuous dynamism. But that dynamism does not reduce to white noise. The solar environment contains distinguishable structures: convective cells, waves, active regions, magnetic loops, resonant modes. The Sun does not merely burn—it oscillates, organizes itself, and preserves large-scale pattern even amid constant change.
The same applies to its magnetic architecture. Sunspots, arcs, stressed zones, and polarity reversal cycles show that what stands before us is not an incoherent plasma storm, but an environment in which repetition, rhythm, and relatively stable configurations are possible. By itself, that still does not imply memory, let alone a carrier of subjectivity. But it is already enough to stop treating the Sun as a medium of total randomness.
It is precisely in this limited sense that the hypothesis of distributed storage appears here. If the remote layer has any physical realization at all, then it is more natural to think of it not as a separate place where some “master file” is stored, but as a coherence pattern distributed across the plasma-magnetic environment. This is where a holographic heuristic becomes useful—not as a ready-made mechanism and not as a proven principle of how the Sun is structured, but as an image of distributed storage in which the whole does not have to be concentrated in one point.
And then access to such a layer should also be understood not as file reading, but as response tuning. In this picture, the brain does not need to “request data” from a remote carrier in any literal sense. Rather, it locally enters into coherence with the pattern corresponding to this particular selfhood. It does not open a document. It finds a tuning. It does not retrieve a finished record. It resonates with a form.
In that sense, this picture is more physical than the naive fantasy of “files in the cloud.” It does not require imagining that each subject has a separate sector of solar plasma with a nameplate on the door. And it helps explain why local disturbance does not have to destroy the whole. If the form is truly distributed, damage to one region may distort it, weaken it, or make access more difficult—but it does not necessarily erase the entire pattern at once.
But this is also where the model enters its most vulnerable zone. It still has no mechanism of writing, no mechanism of reading, no criterion of uniqueness for each form of selfhood, and no clear explanation of how such a form could be sustained over time in so mobile an environment. So the holographic motif functions here only as an architectural intuition, not as established physics.
The correct status of this section is not theory and not discovered mechanism, but an extreme thought experiment. It is the point at which metaphor is trying to become a construction, but has not yet become one. And that is exactly why the Sun can be discussed here not as a proven archive of selfhood, but only as a medium whose complexity, wave nature, and structured character make such a hypothesis not necessary, not confirmed, but at least thinkable.
14—Terminal Failure and the Fate of the Subject
If this model is taken seriously even as a thought experiment, one conclusion follows that cannot be avoided. It concerns not the mechanics of consciousness, but what we fear most of all—the death of the body.
In such an architecture, terminal failure is not identical with the disappearance of the entire process. If the subject does not fully coincide with the local brain, if the brain is a node of manifestation and access rather than the full extent of selfhood, then the destruction of the body begins to look not like the necessary annihilation of the subject, but like the loss of a local access window.
This is not proof of postmortem existence. And I do not want to use this conclusion as a substitute for religion, science, or personal faith. It is simply a consequence of the chosen architecture: if the “I” is not exhausted by the terminal, then the terminal’s failure does not by itself equal the disappearance of everything that manifested through it.
In that sense, comparison with a digital device is appropriate, if used carefully. When a smartphone breaks, your mail, photographs, library, contacts, and account do not automatically vanish. What disappears is local access. The specific window through which the user entered those data is interrupted. If that logic is carried into the limits of the model, the death of the body begins to look not like the erasure of an essence, but like the severing of the connection between the subject and its biological interface.
What happens next—I do not know. Perhaps the session simply closes and only the archive remains. Perhaps some other form of continuation is possible. Perhaps the very framing of the question goes beyond what the model has any right to describe. I do not want to turn an architectural consequence into a confident promise.
But one thing can still be said within this perspective. If selfhood was never fully localized inside the skull, then the death of the body does not have to be understood as the automatic and final disappearance of the subject. It may be understood differently—as the loss of the current mode of manifestation. As the closing of a window, not as proof that there is nothing outside it.
That is why this conclusion is both unsettling and magnetic. It offers no ready comfort. It does not promise immortality. But it changes the form of the question itself. Instead of “How does everything disappear?” it forces a different one: “What exactly disappears when the terminal disappears—and what might not disappear completely?”
15—Telemetry and Network Anomalies
The architecture developed throughout this series makes it possible to look differently at a number of phenomena that, in everyday experience, feel not so much mystical as strange—poorly fitting the simple picture in which consciousness is fully exhausted by the normal operation of a neural network in a stable mode.
When the brain enters a critical state—during a sharp drop in blood supply, deep anesthesia, fainting, severe trauma, or clinical death—the local node begins to function on the edge of failure. The normal assembly of the scene is disrupted, habitual sensory coherence breaks apart, and the sense of body and time changes. It is exactly in such states that people sometimes describe unusual experiences: a tunnel, bright light, a feeling of leaving the body, strange clarity, or an unusual wholeness of what is happening. These phenomena are well known in the literature as near-death experiences, although their interpretation remains contested.
Within this model, such states can be read not as “proof that consciousness leaves the body,” but as a possible shift in the mode of access. The familiar interface degrades: vision, hearing, body sense, and the normal assembly of the external scene begin to function worse or become sharply distorted. But the subjective stream does not necessarily disappear. It may change form, become fragmented, unusually saturated, or, on the contrary, strangely coherent—not because the model has thereby been confirmed, but because when the local interface fails, the architecture of experience itself may begin to manifest differently.
That is the right way to hold it in mind: not as the victory of one picture over another, but as an additional lens. In medical language, such states are discussed through hypoxia, hypercapnia, neurochemical shifts, REM intrusion, temporal-lobe and other neurophysiological mechanisms. A number of authors explicitly argue that neuroscientific explanations of such experiences are both possible and necessary. At the same time, some older physiological explanations remain partly speculative and do not close the phenomenon entirely.
So the claim here is more modest. I am not saying: “near-death experiences prove a remote server of consciousness.” I am saying only this: if consciousness is thought of as a distributed architecture with a local interface, then clinical breakdowns can be described not only as hardware failure, but also as disruption in the usual mode of assembling experience. This does not cancel physiology. It offers another language for describing why, when the familiar interface breaks down, subjective experience sometimes does not vanish immediately, but becomes strange, extreme, and difficult to translate into the language of ordinary waking life.
Armor / Important:
I am not using these phenomena as proof of the model. They can and should be discussed in the language of medicine, neurophysiology, and clinical observation. My task here is different: to show that within a distributed architecture, such states can be thought of as failures or switches in interface mode, not only as “noise from a dying brain.” This is not a replacement for scientific explanation, but an additional interpretive frame.
16—Memory Loss
Another phenomenon that appears in a different light within this model is memory loss. Stroke, head trauma, Alzheimer’s disease: a person forgets loved ones, loses fragments of biography, stops recognizing familiar faces, and sometimes even their own name. In the harshest local picture, this reads very simply: brain tissue is damaged, therefore memory itself is damaged.
This model suggests a more careful view. Without denying neurobiology, it allows that the brain may not be the complete storage site of all experience, but a local node of access to it. In that case, memory stops looking like “one file in one cell” and begins to look like a more complex system in which the local terminal preserves at least three things.
First, the immediate working layer—what, in an engineering metaphor, might be called the cache. These are the fast, frequently used elements: recent events, familiar faces, habitual routes, the current context of life. Second, indices and access routes—not the memories themselves, but the map by which the system finds them and links them to the right person, place, time, and meaning. Third, contextual keys—what makes memory readable for this particular state of the subject, rather than turning it into incoherent noise.
Then brain damage, within the model, can be thought of not only as destruction of content, but as disruption of access. The library itself does not necessarily disappear. The catalog may fail, the route may be erased, the link between the memory trace and the key that allows it to be recognized as one’s own may fall apart. From this perspective, a person forgets not because the entire experience has literally been erased down to the foundation, but because the local node can no longer reliably reach the needed fragment.
This distinction becomes especially important in cases where memory partly returns. After trauma or stroke, a person may for some time fail to recognize loved ones or remember names and events, and then gradually regain access to what seemed lost. Strictly local models also have explanations for that—neuroplasticity, network reorganization, functional compensation. But within this model, such dynamics can also be read as restoration of access routes: not as the miracle return of the destroyed, but as the slow reopening of what had become unreachable.
In a similar way, one might cautiously look here at contested phenomena such as hypnosis or unusual memory states in which a person sometimes retrieves details unavailable in ordinary mode. I do not want to build a strong argument on this. Interpretations of such cases are ambiguous, and suggestibility together with memory reconstruction make this domain especially slippery. But as an architectural metaphor, it is still interesting. Sometimes the problem may lie not in the total absence of content, but in the mode of access to it.
That is why the formula “not everything is gone, but access is impaired” matters to me here more than the technical analogy itself. It does not cancel the neurobiology of memory, and it does not prove the existence of an external archive. But it changes the perspective. Memory loss stops looking like the instant transformation of a person into emptiness, and begins to look like a breakdown of the interface through which the subject held contact with its own history.
Armor / Important:
I am not claiming that this model proves an external archive of memory. Neurobiology has its own explanations for amnesia, partial return of memory, and the reorganization of memory after trauma. My move here is more modest: to offer an additional descriptive language in which memory may be disrupted not only as content, but as access. This does not cancel the medical picture, but it makes it possible to look differently at what exactly is lost when a person loses memory.
17—Genius: Bandwidth and Density of Form
In this model, genius does not receive a final explanation, but a particular illumination. Why is one person able to gather within themselves a form that survives centuries—a symphony, a theorem, an image, a language—while another, for all their conscientiousness, remains within a much narrower range? Why does complexity collapse into noise for one person, while for another it suddenly gathers into a clear, almost inevitable structure?
In the classical picture, the answer is given through brain structure, heredity, environment, training, and the peculiarities of attention, memory, and processing. I am not arguing with any of that. But within this model, one more layer can be added: the difference may lie not only in the “power of the hardware,” but in the quality of the interface itself between the local node and what, in this architecture, is thought of as a wider layer of coherence and form.
Then genius begins to look not like magic and not like a miracle, but like a particular combination of three things. First, a wider internal channel: the capacity to hold large volumes of complexity without collapse into chaos. Second, a cleaner mode of reception: less internal noise, fewer distortions, fewer rough interferences through which experience usually has to pass. And third, a stronger power of assembly: the capacity to compress enormous density of content into a clear formula, melody, image, or idea.
That is why, in this perspective, a genius is not simply “a smart person,” but a person in whom the form and density of experience are unusually well coordinated. What remains muddy, fragmented, and under-assembled for one passes through the inner tuning of another almost without loss. Not because they necessarily “receive something ready-made from outside,” but because their local node can preserve and shape complexity with unusually high precision.
This also makes the distinctive self-experience of highly gifted people easier to understand—the kind described so often in diaries, letters, and memoirs. Some of them describe their discoveries not as slow construction, but as the sudden recognition of an already finished form. Ramanujan wrote of formulas arriving in dreams. Mozart is often described as having felt that a musical whole would appear at once, almost complete, and would then require not invention, but transcription. What matters here is not how literally every such testimony should be taken, but how these people themselves described their inner experience: not only as labor, but also as reception. Not only as production, but as a sudden coincidence with an already formed structure.
Within this model, that is not proof of an external source, and not a reason to call a genius a mere “receiver.” It is more a sign of a special mode of consciousness in which the local node does not so much force a form out of chaos as become capable of recognizing, holding, and rapidly shaping a very high density of meaning. That is why genius so often feels like something that arrived, was heard, was seen—even when it stands on years of work, discipline, and inner preparation.
That combination is exactly what matters to preserve. Genius does not cancel the work of the brain, and for me that is a non-negotiable fact. It does not bypass labor, and it does not prove the existence of some “channel of revelation.” But within this architecture, it can be understood as a case of unusually successful tuning: when internal noise is relatively low, the form of perception relatively precise, and the capacity to hold complexity so great that the result is experienced not as tortured assembly, but as an encounter with a structure already ripening.
18—Meditation: Lowering Noise and Tuning Attention
If genius can be thought of in this model as a rare case of unusually successful inner tuning, then meditation and deep concentration are attempts to move closer to a cleaner mode by one’s own effort.
I do not want to reduce meditation only to spiritual language, but neither do I want to turn it into a crude computer metaphor. Within this model, it is better understood as work aimed at lowering internal noise. Not as a magical opening of a secret channel, but as the gradual retuning of attention, in which the system stops endlessly scattering itself across background agitation.
Ordinarily, consciousness lives in a state of overload. The inner dialogue does not stop. Thoughts interrupt each other. The body is constantly pulled into micro-reactions. Memory throws up old scenes. Anxiety rehearses future scenarios. Attention jumps among dozens of unfinished impulses. In such a state, even ordinary experience is assembled in a fractured way, and subtle differences almost inevitably drown in the general hum.
Meditation, in this perspective, does not perform a miracle. It does something more modest and at the same time very important: it reduces background oscillation. It does not necessarily stop thought altogether, but it makes thought less chaotic. It does not destroy inner life, but removes excess ripple from it. It does not create new content out of nothing, but makes it possible to see more clearly what had already been drowned out by constant overload.
That is why, after deep concentration or meditation, people so often feel that they have suddenly “seen the solution,” “caught the form,” or “understood what had been escaping them all along.” There does not have to be anything supernatural in that. It may well be that the structure of experience itself has not changed radically; what changed is the regime in which it is assembled. When there is less internal noise, form becomes more visible. When attention is not torn apart, complexity is less likely to collapse into chaos.
Within this model, that is especially natural. If the local node is constantly jammed by background loops, anxiety, automatic replay, and inner agitation, it holds both its own scene and whatever subtler coherences may be available to it much more poorly. But when the noise drops, the system does not become “smarter” in some crude sense. It becomes cleaner. And sometimes that is already enough for what had been slipping by to finally gather into a clear image, a solution, or an inwardly precise formula.
That is why meditation matters here not as proof of the model, but as a practical metaphor. It shows that the quality of consciousness depends not only on the content of thought, but on the regime in which thought arises, is held, and is linked together. Sometimes a breakthrough happens not because something new entered the system, but because we finally stopped drowning out what had already been ripening inside it.
19—A Lifelong Stream
If this model is taken all the way down to the level of everyday experience, then human life begins to look like a continuous stream of exchange between the local node and the deeper layer that, in this architecture, preserves selfhood across duration. From the first breath, from the first hours of bodily presence, from the moment a new organism begins not only to live but to assemble experience as its own, a continuous process is set in motion. It has no weekends. It does not go on pause. It does not stop completely even in sleep. Life, in this view, is not a set of separate events, but one long stream in which perception, action, memory, choice, and the inner sense of self continuously pass into one another.
The body remains here not decoration, but the only living interface through which the subject enters the world. The brain holds the scene, assembles sensations, translates impulses into gestures, links intention with action, and returns an answer to the world in the form of movement, speech, attention, touch, and decision. A step is taken—and the feeling of support arrives. A hand is raised—and the body immediately returns a sense of space. A thought appears—and it is woven into the stream of experience as part of a life already underway. None of this is a set of isolated acts. It is one continuous stream of presence, life-long in duration.
That is why the states in which this stream begins to flow poorly look especially important within the model. Brain fog, burnout, prolonged fatigue, emotional dysregulation, the feeling that thoughts are bogging down and will not come together, that reactions are missing the mark, that inner coherence has weakened—all this does not necessarily mean that “something is wrong” with the subject as a deep form. Very often it looks more like overload, exhaustion, or malfunction in the local node through which life is assembled in the first place and becomes available to itself.
In this view, what suffers is not necessarily the source itself, but the mode of access to it. The terminal is overheated, attention is scattered, internal noise is too high, rhythms are disrupted, resources are depleted, and so even simple acts of experience begin to cost more. A person feels this not as a technical malfunction, but as something painfully intimate: the loss of clarity, meaning, selfhood. But the model allows a gentler and perhaps more accurate perspective. Sometimes the problem is not that you are “broken” as a person. Sometimes the problem is that your mode of manifestation is overloaded, exhausted, and in need of restoration.
And that changes the attitude toward the most basic things. Sleep stops being something ordinary and becomes a maintenance necessity. Silence stops being emptiness and becomes a condition of restoration. Rest, attention to the body, noise reduction, care for the rhythm of life, the chance not to squeeze every last drop out of yourself—all of this begins to look not like weakness, but like servicing the node without which you cannot be fully present in your own life at all.
And then one more thing becomes clearer. Caring for yourself is not indulgence and not giving in to weakness. It is a way of keeping in working order the only interface through which the subject can act, love, think, remember, choose, and be. If the life-long stream passes through the local node, then the quality of that node cannot be a secondary detail. It is not all that you are. But it is what allows you to appear in the world at all.
Why does this matter?
If this model is accepted even as a working lens, it restores seriousness to the body, to choice, and to the very question of the continuity of the “I.” Self-care stops being a trivial everyday matter. Choice stops being an instant accident. And the Sun stops being only a distant star. All of it begins to read as parts of a single architecture in which the human being is not exhausted by a current state, but also cannot do without the one node through which presence in the world is possible at all.
In this model, your address is not exhausted by your head.
The brain remains the place where experience is assembled, but not necessarily its only horizon.
This is not a proven fact about the world.
It is another way of posing the question of where the continuity of the “I” is held.
20—The Boundary of the Model: A Map of Reliability
A long path has been covered—from atoms and quantum fields to the Sun as a remote support of consciousness, from a two-loop architecture to a holographic heuristic. But at the end of such a path, it becomes especially important to stop and mark the boundary. A tool of thought must not be confused with truth about the world. A hypothesis must not be passed off as proof simply because it elegantly gathers scattered phenomena into a single scheme.
That is why, at this point, what matters to me most is not strengthening the model, but limiting it.
What the model actually does
First of all, it provides an architectural frame. Not new physics and not a replacement for neurobiology, but a way of gathering different levels of description into one picture—the bodily, the cognitive, the phenomenological, and the metaphorical-engineering. In that sense, its strength lies not in “explaining everything,” but in making visible the links between things usually discussed separately.
It also provides a language for the problem of the addressability of subjective experience. Contemporary science describes a great deal about the brain’s operation, but the question of why neural activity is experienced at all as first-person experience remains philosophically open. The image of the tuning fork of selfhood is needed here precisely for that reason: not as a discovered mechanism, but as an attempt to name the form of coherence by which experience is held as “mine,” rather than as an impersonal processing stream.
Finally, the model works well as a phenomenological lens. It makes it possible to gather anew a number of lived distinctions: between automatism and rare acts of choice, between the daytime assembly of the scene and the nighttime reprocessing of experience, between the content of experience and the mode in which that experience is assembled. At this level, its productivity is real, even if the model’s ontology later turns out to be wrong.
What the model does not do
It does not replace neurobiology. Everything known about neurons, synapses, plasticity, memory, circadian mechanisms, and brain dynamics remains in force. This scheme does not cancel those descriptions. It only proposes another level of interpretation above them.
It does not, in its current form, provide strict testable predictions. This is not yet a theory in the scientific sense, but an engineering-philosophical construction. It may suggest directions of thought and possible questions, but it does not yet formulate an experimental criterion that would unequivocally confirm or falsify the architecture itself.
It does not solve the problem of decoherence. This is one of the model’s main holes. If quantum coherence really does collapse too quickly in a warm, wet biological environment, then a significant part of the whole construction comes under serious doubt. I have no ready answer here.
And of course, the model does not prove that the Sun is in fact the remote support of consciousness. That is its boldest and most vulnerable step: not an established fact, but an architectural hypothesis.
21—How to Relate to the Model
The model is built. The map is unfolded. But in the end, what matters most is not to repeat it once more, but to answer a more practical question: what is the reader supposed to do with it? How should it be treated—as truth, as provocation, as metaphor, as a research sketch?
My answer depends on the vantage point from which you look at it.
If you are a scientist
Treat this not as a finished theory, but as a conceptual map. Not as something already proven, but as something that points to directions for questions.
Can the link between the geomagnetic environment and states of the organism be studied more precisely, without replacing correlation with loud claims of causality? Can stricter protocols be designed to test how shielding the magnetic environment affects sleep, attention, mood, and cognitive stability? Can any forms of coherence be found in biological systems that are stable enough to let us seriously talk about a quantum level in the operation of consciousness, and not only about a beautiful metaphor?
The model does not provide ready answers. But it may already be useful simply because it makes some questions easier to formulate.
If you are a philosopher
Then perhaps this is above all a language. A way of talking about consciousness not only as a property of complex matter, but as a process unfolded across a distributed architecture.
For me, there is no necessary quarrel here with materialism or with science as such. What there is, is an attempt to pose old questions differently. Where is the subject held? Why is experience addressable? Why is the “I” experienced as continuous, even though states, thoughts, attention, and memory keep changing? The model does not close these questions once and for all, but it translates them from abstract metaphysics into a more operational language—a language of nodes, interfaces, coherence, regime, and assembly.
In that sense, its value lies not in finishing the philosophy of consciousness, but in giving it a new working vocabulary.
If You Are Simply Human
Then perhaps what matters most is not whether the model is “correct” in the strict sense, but what it changes in the way you look at yourself.
It invites you to think of yourself not only as a biological mechanism that somehow began to experience the world by accident, but as a process with depth, duration, and inner form. In this perspective, you are not reducible to one current brain state, one bout of exhaustion, one failure, one day on which everything fell apart. Body and brain remain precious, irreplaceable, and the only means of presence in the world—but they no longer have to be the whole of what you are.
And that leads to something more practical as well. Care for the body, sleep, attention, rhythm of life, silence, and recovery stops looking secondary. It is no longer weakness and no longer luxury. It is respect for the node through which you are able to be yourself at all.
How I suggest relating to it myself
Not as dogma. Not as a new religion. Not as a replacement for science. Not even as a theory that must immediately be accepted or rejected wholesale.
I suggest treating this model as a lens. If it helps you see the problem of consciousness more precisely, distinguish between levels of description, and understand more clearly the boundaries between fact, hypothesis, and speculation, then it is already useful. If it demands belief instead of clarity, then something has gone wrong with it.
That, for me, is its main value. Not to “prove how the world is built,” but to change the angle of vision. To offer an optic in which familiar phenomena—sleep, attention, memory, selfhood, fatigue, choice, the continuity of the “I”—begin to assemble into a new configuration.
And even if one day it turns out that consciousness is entirely local and no remote support exists, the model may still remain useful as a strong metaphor for the architecture of the psyche. And if, on the contrary, real experimental threads ever begin to appear in its direction, then at least we will already know where to look and which questions to ask.
Final word
The value of this model is not that it demands agreement.
Its value is that it disciplines the gaze.
It forces a distinction between fact and interpretation, local process and lived selfhood, the description of mechanism and the description of experience.
This is not dogma.
It is a lens.
If this model resonates with you, do not believe it blindly. Look for weak points, test the transitions, ask it difficult questions. If it leads to even a few good questions, then it has already done its job—even if future science ultimately disproves it.