1.62 Geocentric Model

Section 62 (first updated 03.26.2021)

The problem with biblical stories is that they are open to too much interpretation. They leave questions with too many possible answers. As a result, one must discern from a set of all possible answers and choose certain ones over others. In doing so, you are essentially repeating the original problem—answering a question that never had a single, definitive answer in the first place.

If too many answers are left open to interpretation, then choosing one over another can lead to contradiction. If I choose one answer and you choose another, even if both are partial reflections of a greater truth, we are left with fragmented understandings. This creates a kind of redundancy in knowledge that persists over time.

At the same time, there are truths concealed within these complex ideas. They are complex because they attempt to describe something literally “out of this world”—an “other worldly,” as it is commonly called. This is not necessarily a metaphor for something infinitely higher. Rather, the idea of infinity often arises when there is a lack of knowledge about a phenomenon.¹

When humans are ignorant of a phenomenon, they cannot conceive of it within their natural faculties. As a result, they describe it as infinitely greater. Whether it is truly infinite in itself, or only appears infinite relative to a finite being, remains an open question.²

The central idea remains: religion frequently speaks of “other worlds.” We often interpret this as referring to God. However, in many cases, God becomes associated with an ultimate principle of infinity. In other words, all unknown things are gathered into a single concept—an ultimate principle representing infinite possibility.³

The unknown, then, remains an infinite abstraction—something fundamentally beyond complete knowledge. Yet even if this principle is true, it does not explain the less infinite, or more finite, things that we still cannot understand. Some things may seem infinitely greater than us, but within the scale of the universe, they may still be finite.⁴

Footnotes

1. Epistemic Infinity – Humans often invoke “infinity” as a placeholder when knowledge is incomplete or unavailable, rather than as a precise description of reality.
2. Relative vs Absolute Infinity – Something may appear infinite relative to human limitations, even if it is not truly infinite in an absolute sense.
3. Theological Abstraction – Many philosophical interpretations of God treat the concept as a unifying principle that encompasses all unknown or unknowable aspects of existence.
4. Finite vs Incomprehensible – A phenomenon can be finite in reality but still exceed human cognitive limits, making it effectively incomprehensible.

The way the Earth actually looks, and the nature of the world itself, remain among the most contested questions of our time. We live in an age where certain theories are treated as unquestionably true, supported by photographs and advanced technologies capable of capturing precise moments in front of us. Yet, even what appears directly before us is not as simple as it seems. No matter how accurately a moment is captured, it remains complex—vague, elusive, and, in many ways, still misunderstood.

This leads to a fundamental question: how can what I am looking at directly in front of me not truly be what it appears to be?

This question is deeply tied not only to perception as a potential form of deception, but also to thought itself. An idea may exist physically—grounded in reality—yet remain unconceived or misunderstood in its essence. In this sense, reality is not just perceived incorrectly; it is internally distorted by the very structures through which we attempt to understand it.

Consider the Earth. It is commonly described as a sphere—a shape often understood as one of the most complete and self-contained forms. Yet the Earth, as part of nature, is anything but simple or fully contained. It is an extraordinarily complex region of spacetime, filled with variation, irregularity, and dynamic processes. Its “spherical” description is, in many ways, an abstraction rather than a direct representation of lived experience.

In fact, perfectly spherical forms are rare in nature. They are closer to idealizations found in mathematics or in very simple physical systems—such as droplets under surface tension or certain approximations in atomic and light-based phenomena. At the most fundamental level, structures like photons or waves may exhibit symmetry that resembles perfect geometric forms, but these are highly simplified cases.

When we look outward into the universe, we do not see perfect spheres dominating reality. Instead, we see galaxies clustered together, overlapping, interacting—a kind of cosmic mixture where everything blends into everything else. The universe appears less like a collection of neatly defined objects and more like an interconnected, dynamic whole. In this context, perfect forms like spheres seem less like natural truths and more like conceptual tools.

And yet, we are taught to understand the Earth as a spherical planet, floating in space, orbiting within a vast system governed by precise laws. Even the idea of orbit depends on certain assumptions: that celestial bodies are discrete, finite objects moving within a structured and continuous system.

But from a first-person perspective, this is not how the Earth is experienced. Wherever you go, there is always more land, more variation, more to discover. Historically, entire continents—such as the Americas prior to the voyages of Christopher Columbus—were unknown to large portions of humanity. To those people, these lands did not exist within their conception of the world. They were, in a sense, “other worlds.” Only after discovery did they become integrated into what was understood as Earth.

This suggests an important distinction: what we have discovered and what actually exists are not necessarily identical. Knowledge expands, but reality does not depend on our awareness of it. There may always be a gap between the known world and the actual scale and nature of the world.

In this sense, the Earth as we understand it—a finite, spherical body—may be a model that works within certain frameworks, but it does not fully capture the lived, perceptual, and exploratory reality of being within it. The true scale, structure, and nature of the world we inhabit may exceed our current conceptual boundaries.

What we call “the Earth” may not be a complete object in the way we imagine it, but rather a continually unfolding field of experience—one that resists total containment within any single description.

There is a very fine line between when the Earth appears flat as opposed to spherical from the outside. When does the exact moment occur when that change of conception takes place in the shape of the object? The simple answer may seem to be that, at a certain distance away from the Earth, its true shape appears spherical, because it becomes smaller relative to the observer. From a distance, one sees the whole rather than a part, and so it appears spherical rather than flat.

However, even this common-sense answer may itself be an assumption. From the observer’s point of view, the full and comprehensive view is simply that at one magnitude the Earth appears flat, and at another magnitude it appears spherical. But just because it appears one way before and another way after does not mean that one appearance is more fundamental than the other.[1]

For example, we cannot conclusively say that because we are viewing what seems to be the full object and it appears spherical, that it is therefore fundamentally spherical. The spherical form itself may only be a particular way in which the object appears within a given frame of reference. Even when the object is seen “all at once,” with its outline clearly disclosed, it is still being perceived within the limits of that perspective.[2]

Thus, we cannot assume that the shape that appears to reveal the full extent of the object is actually the complete and true shape of the object in itself. The object may be far more complex in nature. Just as we observe irregularities and singularities throughout space, this object itself may be a particular type of singularity, whose full structure exceeds our mode of perception.[3]

Our evolved and relatively rudimentary means of knowledge, along with our developing consciousness, may not be sufficient to capture such complexity in its entirety. Instead, perception reduces the object to a simpler form that can be grasped. In this way, the object is “flattened” or simplified into a more basic shape relative to our capacity to understand it.[4]

As we see throughout space, we never truly obtain a complete view of anything. When something is magnified, it often reveals a completely different set of relations and complexities than what appeared to define it at a larger scale. What once seemed like a complete and unified form becomes, upon closer inspection, a network of further structures and relations.[5]

Therefore, the distinction between flat and spherical is not simply a matter of discovering the “true” shape, but of recognizing that different scales of observation disclose different aspects of the same object. Each appearance—flat, spherical, or otherwise—is a partial expression of a deeper complexity that cannot be fully exhausted by any single perspective.[6]

Footnotes

[1] Appearance does not necessarily determine ontological priority.

[2] Perception is always frame-dependent.

[3] Modern cosmology studies irregular structures (e.g., gravitational singularity), suggesting complexity beyond simple geometry.

[4] Cognition simplifies complex structures into manageable forms.

[5] This reflects scale-dependence in observation (e.g., microscopic vs macroscopic physics).

[6] Suggests a relational or perspectival understanding of form.

What you are actually looking at when seeing the Earth from space is first the mind’s attempt to grasp a singularity (complexity)—an infinite extension of objects and durations of time—into a rudimentary object. It therefore looks like a finite sphere of land and water, disclosed together in a spherical shape. Yet this rudimentary perspective of the planet is just that: a rudimentary default of the mind to a basic form it is familiar with—the sphere—in order to understand what it is seeing as an object.[1]

However, the object itself is not merely this simple form. It is an infinitesimal extension of potentially infinite possibilities—of events unfolding across space and time. What appears as a single object is, in reality, a dense convergence of relations, processes, and temporal developments that cannot be fully contained within the simple image of a sphere.[2]

In this sense, what we perceive as “Earth” is one particular pathway—a structured line of development—within a broader field of possibilities. One might describe this as a particular “path” or trajectory among many possible or parallel paths, each extending infinitely, intersecting, diverging, and relating to one another.[3] What appears as a stable object is actually a momentary stabilization within this ongoing extension.

Thus, the spherical image is not false, but incomplete. It is a necessary simplification that allows the mind to grasp something that would otherwise exceed its capacity. The mind reduces the infinite or indefinite complexity into a finite and familiar form, making it intelligible as an object of perception.[4]

At a deeper level, however, this object is not static. It is a continuous unfolding—an ongoing process that extends infinitely inward and outward. What appears as one line of development is in relation to countless other lines, forming a network of parallel and interconnected processes. These relations may be thought of, metaphorically, as parallel extensions or “paths” that coexist and interact within a broader structure.[5]

Therefore, when we see the Earth as a sphere, we are not seeing the full reality of the object, but rather a conceptual condensation of it. The true nature of what we are observing is not exhausted by its shape, but consists in the infinite relational processes that give rise to that appearance.[6]

Footnotes

[1] The mind tends to interpret complex data using familiar geometric forms.

[2] Physical objects are processes extended in space and time, not static entities.

[3] This resembles interpretations of multiple possible states in quantum mechanics.

[4] Cognitive simplification is necessary for perception and understanding.

[5] Philosophically similar to process-based views of reality (e.g., Alfred North Whitehead).

[6] Appearance captures only a limited aspect of a deeper, dynamic structure.

For the object is not just what it appears as in its outer shape, but also an inward dimension of extension. Inwardly, and infinitesimally, there is always an inner disclosed infinity within the outer shell of the object.[1]

What appears externally as a bounded form—such as a sphere, a surface, or a contour—is only the most immediate presentation of the object. Beneath this outer appearance lies a depth that is not simply a collection of parts, but a continuous unfolding of further structure. No matter how far inward one examines, there is always another level of relation, another layer of composition, another articulation of the object’s being.[2]

This means that the object is not exhausted by its visible boundaries. Its “inside” is not merely contained by the outside, but is an extension of the same reality expressed differently. The outer shell presents a unified form, while the inner dimension reveals a multiplicity of processes that sustain and generate that form.[3]

In this sense, every object contains within itself an infinitesimal depth—an inward infinity that mirrors, in its own way, the vastness we attribute to the external universe. Just as space extends outward beyond our immediate perception, so too does the structure of the object extend inward beyond any final point of analysis.[4]

Thus, the distinction between outer and inner is not absolute. The outer form is the expression of the inner complexity, and the inner complexity is the unfolding of what the outer form already implies. The object, therefore, is both a finite appearance and an infinite depth, unified in a single reality that cannot be fully captured from either perspective alone.[5]

Footnotes

[1] Suggests that objects have depth beyond their surface appearance.

[2] Scientific inquiry (e.g., atomic and subatomic study) reveals increasing complexity at smaller scales.

[3] Outer form and inner structure are complementary aspects of the same object.

[4] Reflects the idea of infinite divisibility or structural depth.

[5] Aligns with philosophical views that reality is both finite in appearance and infinite in structure.

Two points must be made clear.

First, in the standard scientific view, objects such as planets are understood as contained spheres moving in orbits. The fact that they orbit supports the idea that they are bounded and mobile units, much like a car moving along a road. At the same time, the orbit is not just a path—it is taken to express something essential about the object itself. The motion is seen as an expression of its inherent nature. A planet orbits another body, and in doing so, it reflects a kind of symmetry: it is spherical, and it moves in a way that corresponds to that form. In this sense, its external motion mirrors its internal structure.

However, from a different perspective—especially from the standpoint of lived experience on Earth—the world does not appear as a contained sphere. Instead, it appears as an open and expanding extension of land. Wherever we go, there always seems to be more. Historically, humanity has continuously discovered new regions, and even today there are speculative ideas about unknown or unexplored areas, particularly in extreme regions like the North Pole.

The concept of the North Pole itself reveals something important. It is not a directly experienced “point” in everyday life, but rather a measurement defined on the surface of a sphere. It represents an abstract extreme: the point farthest “upward” relative to all other points on the globe. But this idea depends on first assuming that the Earth is a sphere.

In reality, this is a conceptual operation: we take what is experienced as extended, seemingly flat land and map it onto a spherical model. When we do this, all the extended land is mathematically “wrapped” into a closed surface, where every दिशा (direction) eventually curves back into itself. The entire extension of land becomes unified into a single, continuous shape.

This raises a difficult question: where does this wrapping actually occur? At what point does the seemingly flat, continuous extension of land “become” a sphere? There is no clearly perceived boundary where a plane transforms into a curved, closed form. The transition is not directly observable—it is inferred.

Within a sphere, this problem becomes even more complex. A sphere has no edges; every point connects continuously back into the whole. The “end” of any path is also a return. Because of this, there is no obvious dividing line between what we experience as extended land and what is modeled as a closed geometric object. The point at which the plane “separates” from the sphere is not something we directly encounter—it remains conceptually constructed and, in some sense, unresolved.

From a broader physical perspective, one could even argue that any sufficiently large mass—if extended indefinitely—would begin to curve inward under gravity, potentially forming something like a black hole. In this way, the idea of curvature and “spherical closure” might emerge not from surface appearance, but from deeper properties of spacetime itself.

This connects to a more abstract philosophical and mathematical issue discussed by thinkers like Immanuel Kant and Georg Cantor. They explored the nature of continuity and infinity, particularly the idea that between any two points on a line, there are infinitely many smaller points. This suggests that extension is not made of indivisible units, but is continuously divisible without end.

In simpler terms, this provides a model for describing something that always extends further. No matter how far you go, there is always another “point” beyond. From the perspective of an observer, this can feel like an endless outward expansion.

Interestingly, our perception of size works in a seemingly contradictory way. When something is far away, it appears small, and we interpret that smallness as distance. Yet in cosmology, those tiny points of light in the sky are understood to be vast structures—stars and galaxies of immense scale. Conversely, when we magnify something directly in front of us, making it appear larger, we are often examining what is actually very small, such as microscopic or atomic structures.

So the same perceptual mechanism is used in opposite ways:

• The smallest visible points in the distance are interpreted as the largest objects in reality.
• The largest visible magnifications nearby are interpreted as the smallest units of nature.

This reveals a deep tension between perception and interpretation. What appears small may be immense; what appears large may be minute. Our understanding of scale is not given directly by perception, but constructed through conceptual frameworks.

Ultimately, this reinforces our central concern: the world as experienced and the world as described are not perfectly aligned. The Earth as a sphere, objects in orbit, and the structure of space itself are powerful models—but they rely on abstractions that do not fully match immediate experience. Between perception, mathematical description, and physical reality, there remains a gap that is not easily resolved.

One way to reinterpret the story of Noah’s Ark is to see it not simply as a historical or mythological account, but as a symbolic description of the Earth itself. In this view, the Ark can be understood as a kind of “other Earth”—a contained, life-bearing vessel moving through a larger and more unknown environment.

In the traditional story, associated with Noah’s Ark, the Ark carries two of every animal. Taken literally, this seems biologically and physically implausible. But interpreted more abstractly, it suggests something deeper: that the Ark contains the fundamental ingredients necessary for all forms of life. It is not that every individual organism is present, but that the potential for every form of life exists within it.

If we extend this idea, the Earth itself can be seen in a similar way—as a kind of organic “spaceship,” a terrestrial body moving through spacetime while containing within it the conditions and building blocks for an immense diversity of life. In this sense, “two of every animal” becomes a metaphor for completeness: the preservation of the generative principles of life rather than a literal inventory of species.

From this perspective, the Earth is not just a passive object in space, but an active, self-contained system that carries and sustains life in countless forms. The diversity of organisms we observe—past, present, and even potential—suggests that the Earth holds within it a vast range of possibilities. Life is not fixed; it is continually emerging, adapting, and transforming.

This leads to a broader reflection on the nature of space itself. We often imagine space as an empty void—nothingness into which objects like planets simply “float.” But modern physics challenges this intuition. What we call “empty space” is not truly empty; it is a dynamic field filled with energy and potential. Even in a vacuum, fluctuations occur, and particles can emerge from underlying fields associated with quantum field theory.

In this sense, space can be thought of as a kind of subtle, semi-structured medium rather than pure emptiness. It is not a solid or liquid in the traditional sense, but it has properties that allow for movement, interaction, and the emergence of matter. The Earth, then, is not simply moving through “nothing,” but through a complex and active environment.

From this viewpoint, all matter—including living organisms—can be understood as different configurations of more fundamental components. The immense diversity we see in nature may arise from combinations of a relatively small set of basic elements and particles. What appears as infinite variety could, at a deeper level, be composed of recurring structures arranged in different ways.

This raises an important philosophical question: are all these diverse forms fundamentally the same in content, differing only in structure? If so, then the richness of life and matter is not due to entirely separate substances, but to the endless recombination of shared building blocks.

Returning to the analogy of the Ark, we might say that what it truly preserves is not just life as it currently exists, but the conditions for life as such—the patterns, structures, and possibilities that allow life to emerge in many forms. Likewise, the Earth can be understood as containing not just the life we know, but the potential for life in forms we have not yet encountered or even imagined.

In this way, the Ark becomes a powerful symbol for containment, continuity, and potential. And the Earth, seen through this lens, is itself an Ark: a finite body that carries within it an effectively infinite range of possibilities, moving through a universe that is far richer and more complex than the idea of “empty space” suggests.

Another interpretation is that the story of Noah’s Ark reflects an encounter with beings from “other worlds.” In this view, the Ark is not simply a human-built vessel, but something more like a spacecraft—an object that descended from beyond Earth.

According to this interpretation, these beings may have come to Earth and collected two of every animal species, not as an act of divine preservation in a theological sense, but as a form of biological sampling or harvesting. The idea here is that they were gathering organisms as representatives of Earth’s biodiversity—preserving genetic material, studying life, or even transporting it elsewhere.

Seen this way, the phrase “two of every kind” could be understood as a simplified or symbolic account of collecting the minimum necessary units for reproduction and continuity. Rather than a literal counting of animals in pairs, it might point to the preservation of genetic diversity—the essential blueprint of life.

This interpretation reframes the Ark as a kind of biological archive or transport vessel. Instead of a wooden ship floating on water, it becomes analogous to a highly advanced system designed to contain and sustain living organisms. In modern terms, it resembles ideas such as seed banks, genetic repositories, or even speculative spacefaring vessels that carry ecosystems across vast distances.

It also connects to a broader theme found in many traditions: the notion of “other worlds” interacting with Earth. These “worlds” do not necessarily have to be purely spiritual or metaphysical; they could be understood as other regions of the universe inhabited by intelligences far more advanced than humans.

From this perspective, what ancient people described in symbolic or mythological language—divine intervention, heavenly beings, or sacred vessels—might be reinterpreted as encounters with technologies and entities they could not fully comprehend. Their descriptions would naturally reflect their own conceptual limits, translating unfamiliar phenomena into familiar terms like boats, floods, and animals.

At the same time, this interpretation raises important questions. It assumes the existence of advanced extraterrestrial beings and their interaction with Earth, but there is currently no direct empirical evidence confirming such events.

Still, it highlights something important about the story itself: its flexibility. Narratives like Noah’s Ark can be understood on multiple levels—literal, symbolic, philosophical, or speculative. Each interpretation reveals different aspects of how humans try to make sense of life, preservation, and the unknown.

In this case, the Ark becomes not just a story about survival, but a reflection of a deeper idea: that life on Earth is valuable, diverse, and perhaps significant enough to be preserved—whether by divine intention, natural processes, or even beings from beyond our world.

Encounters with extra natural phenomenon are concerning due to our own inherent limitations to conceive things that organs of sensation cannot comprehend beyond their own reality. There seems to be a phenomenon inherent in all observers, that their present state of reality, the way it appears, is completely consistent with the level of development of the sense organs. It seems the sense organs and the rational faculties are developed exactly to conceive a reality preordained to it, that the level and nature of reality is completely consistent with the level of development of the observer.

So that a reality more complicated than what the observer can comprehend becomes outside their conceptual frame of view. It could be happening right in the same area of space, per se, right within them, and they wouldn’t know it exists; its existence is unknown, therefore it might as well not exist for them. However, this raises and puts into question the real issue of objective reality, that there is always a reality happening outside of us at all times, independent of the observer.

However, this reality is invariable, unpredictable, infinite, and uncertain, per se; it only manifests precisely through a particular connection. And since there is an innumerable set of particular observers, each within their reference frame captures a certain level of manifestation of reality. Reality is objective and sustained universally in thought this way.

“Right conduct brings out the best in the worst, and wrong conduct brings out the worst in the best.”

The story of Noah does not only denote a warning against sin, which happens when people stray away from what is good for them, “missing the mark.”¹ The flood and the ark encompass a primary meaning related to genesis, particularly the creation of planet earth. The flood, according to the older Sumerian creation myth, is a process of “filtering” life,² which is the crude image of the evolutionary idea of natural selection in the formation of organisms.³

The Hebrew word for the ark is “teva,” which is translated as nature.⁴ In Genesis, the construction of the ark as given by God to Noah is, on some accounts, a description of the formation of the earth.⁵ The ark is constructed, and the animals ride it until they come to rest on the mountains of Ararat,⁶ which is an example of an area where a formation of a kingdom can be positioned over all the natural world, serving as salvation from waters—evolution out of the waters.⁷

The animals riding the ark are analogous to the place of organisms on the planet while in celestial motion. In ancient Hebrew thought, the universe is conceived as a flat, disk-shaped, habitable spaceship, with heavens above and waters beneath.⁸ This can naively be interpreted as an account that the earth is flat; it is naive not because of whether the truth is sphere or flat—that is not the point—but because of the meaning behind what the earth is. This seems to be a shallow interpretation, like the narrow interpretation which mistakenly takes the cosmological principle as stating that the earth is the positional center of the universe.⁹

In ancient Greek times up until medieval cosmology, it was believed that the sun revolves around the earth.¹⁰ In modern times, we frown upon the so-called “geocentric model of the universe.” However, the modern perspective, which sees the earth as revolving around the sun, has equal viability as the ancient inverse perspective. Both are partial perspectives of the same motion. What, then, is the actual order of the cosmos?¹¹

We claim that the modern conception is more objective because the earth is conceived from an outside-in point of view, and this seems to be less subjective than the opposite view, which looks out from within the earth. However, there are reasons to suggest that the modern notion is even less objective than the alternative, because it reduces the earth to an object in motion like a meteorite, while ignoring the vast qualities that are perhaps internally related to the quality of motion as a generative force in the universe.¹²

If we see the earth as just another dead object floating in space like all other objects, then it is true that the earth, having a much smaller size, revolves around a greater mass object like a star. Due to their distance, they are locked in a gravitational pull of attraction, where the smaller goes around the bigger. But we only assume this because we assume that the bigger object is more stationary than the smaller. However, the sun is also in motion around another star, and that star around a galaxy, and that galaxy around a black hole, and so on.¹³ Aristotle had the same problem when confronting the Pythagoreans.¹⁴

“Although most say that the earth is situated at the center of the universe… we must suppose the same to hold concerning the whole heaven.”¹⁵

The genius in Aristotle’s critique of the Pythagoreans is found in the last sentence: the center does not necessarily mean the “middle” of something, which in geometry is equidistant from every point on the circumference or surface. The center, by this definition, is the point furthest away from every point that is closer to every other point. In a circle, for example, the circumference is made up of many points as close to each other as possible, and the center is the only point equally distant from all those points forming the circumference.¹⁶

This is a purely quantitative definition of the “center.” A more qualitative definition defines the center as the place where things originate from, as we say the central nervous system, o. r the brain of the animal, is the center in terms of its power to be.¹⁷ In this sense, the earth as ark, as “teva,” as nature, can be understood not merely as an object in space, but as a generative center—a kind of living vessel or “spaceship” in the void—within which life is carried, filtered, formed, and brought into being.¹⁸

Footnotes

¹ The phrase “missing the mark” reflects the common etymological explanation of sin (Greek hamartia).
² See the Sumerian flood narratives such as the Eridu Genesis and Epic of Gilgamesh.
³ Comparison to evolutionary theory, especially natural selection as later articulated in biology.
⁴ “Teva” (תֵּבָה) is the Hebrew word used for Noah’s ark; its association with “nature” is interpretive rather than strictly lexical.
⁵ Interpretive or symbolic readings of Genesis found in theological and philosophical traditions.
⁶ Genesis 8:4.
⁷ Symbolic interpretation of water as origin of life and emergence onto land.
⁸ Ancient Near Eastern cosmology often depicts a three-tiered universe: heavens, earth, and waters below.
⁹ The cosmological principle in modern science actually asserts no privileged center; this is a philosophical reinterpretation.
¹⁰ Classical geocentric cosmology, notably associated with Ptolemy.
¹¹ Philosophical issue of relative motion and frames of reference.
¹² Critique aligned with phenomenology and holistic or process-based metaphysics.
¹³ Modern cosmology recognizes nested systems of motion (planetary, stellar, galactic).
¹⁴ Aristotle’s critique of Pythagorean cosmology.
¹⁵ Aristotle, On the Heavens 2.13 (293a18–b8).
¹⁶ Geometric definition of a circle’s center.
¹⁷ Functional or biological notion of “center” (e.g., brain as organizing principle).
¹⁸ Philosophical synthesis combining cosmology, theology, and metaphor.

The earth, in this sense, is central in being the place where life begins and originates.¹

• 9.33 Philolaus says that there is fire in the middle around the center, which he calls the heart of the universe, and the house of Zeus, and the mother of the gods, and altar, bond, and measure of nature. Moreover, he says that what surrounds the universe at the furthest extreme is another fire. The center is by nature first. Around it, ten divine bodies dance—the heaven, the five planets; after them the sun; beneath it the moon; beneath it the earth; beneath it the counter-earth; after them all the fire of the hearth, which maintains its position around the center. He calls the highest part of the surrounding region Olympus, in which, he says, is located the pure form of the elements. The region below the motion of Olympus, in which the five planets are positioned together with the sun and moon, he calls kosmos. The sublunary and earthly region below these he calls Heaven, in which are located the entities involved in change-loving generation. He declares that wisdom is concerned with the order found in the things above, while aretē is concerned with the disorderly behavior of things that come to be, and that of these the former (wisdom) is complete and the latter (aretē) is incomplete.²

Figure of the heavenly bodies—an illustration of the Ptolemaic geocentric system by Bartolomeu Velho, 1568.³

In the figure above, the earth is depicted in two places. This is meant to capture the range of motion that the center discloses. From the view on earth, the sun appears to revolve around the earth once per day. While the moon and the planets have their own motions, they also appear to revolve around the earth about once per day. But this is not exactly what this means. In purely quantitative manners, the habits of orbital motion alone do not derive a proper understanding of what it means for a body to constitute the center, because whether the earth revolves around the sun or the sun around the earth means that there is mutual motion, the perspective of which is relative depending on which side of the relation one stands. From inside the earth, the sun orbits the earth, but from the outside, the earth orbits the sun; in either case, there is a simultaneous movement by both bodies relative to one another.⁴

The mere positioning of bodies in motion does not tell us in what sense any one of them can constitute the center for all other motion of bodies. For example, the sun is said to be the center because all smaller objects revolve around it, but the bodies revolve around it not because of its positioning being at the center. How we come to understand the cosmological center is informed not by the position or location of the body’s movement, but instead relates to the body itself as a duration of relations. What aesthetic result does the body maintain while in motion?⁵ The center is derivative from the productive value of the motion.

The center of a sphere, according to our understanding, is not any particular point on the surface of the sphere, but rather the potential relations that constitute the totality of the circumference of the sphere itself.⁶ What we are looking for when ascertaining the center of spherical motion is the kind of relation where inverse parts are sustainable as forming the spectrum of the circumference, from which the center can lie as a potential point on any part of the surface.⁷

In the above figure, the earth in two places demonstrates motion as relation, in that which acts as the potential: when one side of the relation is not the other, the other side is what the first is not. The gap between the two earths is their relation, where each side of the sphere is potentially the turning of the other, because they share the same potential that is not any one of them, but their relation, which is none of them and both of them.⁸

This gap is the center, which is potentially any side by being the relation of all sides. This duration of earth is a physical description of the planet as an object of time and not just space; it is an outline of the events that go into forming its revolving motion.⁹

Footnotes

¹ Philosophical claim regarding Earth as the generative locus of life.
² Aëtius 2.7.7 = DK 44A16 (Philolaus fragment on cosmic fire and centrality).
³ Bartolomeu Velho, Figure of the Heavenly Bodies (1568), depicting the Ptolemaic system.
⁴ Principle of relative motion; see classical and modern discussions of reference frames.
⁵ Aesthetic/relational interpretation of motion; compare process philosophy and dynamical systems.
⁶ Geometric interpretation of the sphere as a system of relations rather than a fixed point.
⁷ Concept of inverse symmetry across a sphere’s circumference.
⁸ Relational ontology: identity constituted through difference and mutual definition.
⁹ Addition of symmetry considerations in motion (cf. modern physics, e.g., invariance principles associated with Richard Feynman).

The “symbol of chaos” looks like a single point from which all directions arise.¹ This, in Roman understanding, symbolizes potential as the source and sovereign generator of chaos.² What we see as a chaotic system is simply the distribution of energy equally on all sides, such that energy is distributed equally in all directions.³

It is actually the direction, or the picking out of particular levels of energy in certain directions, that it becomes orderly and therefore structured.⁴ Energy is chaotic when it is dispersed everywhere; however, this is actually the way it naturally is derived, and therefore it appears to us as chaotic because our mind, as a functional mechanism, cannot utilize it.⁵ Therefore, it cannot comprehend its function, and thus sees it as chaotic.

But it is also true that in the case of a bomb, or an uncontrolled level of energy dispersed at once, the effects are that of destruction and chaos.⁶ Yet ultimately, in nature, this uncontrolled energy is always related to some level of development, as elements or life in the universe expand and reorganize.⁷ What appears as destruction at one level may be the condition for formation at another.⁸

Thus, the same point from which all directions arise is both the origin of chaos and the origin of order.⁹ It is not that chaos and order are opposites, but that order is the selection, direction, and structuring of what is otherwise an undifferentiated field of potential energy.¹⁰

Footnotes

¹ Philosophical notion of a singular origin point (cf. metaphysical “first cause” or geometric center).
² Roman symbolic associations of centrality, origin, and generative power (e.g., umbilicus mundi).
³ Physical analogy to isotropic energy distribution (equal in all directions).
⁴ Emergence of structure through asymmetry or directional constraint.
⁵ Epistemological limitation: cognition depends on selective processing of information.
⁶ Example of rapid energy release (e.g., explosions) producing destructive effects.
⁷ Cosmological and biological processes where energy redistribution leads to new forms.
⁸ Principle of transformation: destruction as precursor to creation.
⁹ Unity of opposites in metaphysical systems (e.g., chaos/order duality).
¹⁰ Relation between potential (undifferentiated) and actuality (structured form).

The centre of mass is at the relation of equal objects. The reason we have a midpoint is because it is “either or,” the law of non-contradiction.[1] For two objects of equal mass, the center of mass is the point midway along the line joining their centers. However, the center of a planet is not merely found somewhere on the surface of the planet; rather, it is a point beyond its surface in the sense of the circumference of its spherical relation.[2]

The orbital motion of the planet is, in some sense, its center, because it encompasses all the relations within it. The center of two equal spheres is their relation, which is the motion that discloses them as two abstractions of the same sphere.[3] The figure typically used to represent this is itself an abstraction: it dissects an internal process and presents it as an external relation, which is in fact how objects for sensation exhibit themselves.

In actuality, however, it is impossible for there to be two external spheres entirely outside one another without somehow being enclosed by a unifying sphere.[4] The relation between two spheres is their spherical motion. This motion is logical, because for one determination to go one way and another the opposite way implies that there is nothing outside their opposing determinations. There is nothing beyond their inverse relations relative to each other. Yet, insofar as they must remain relative to each other in order to remain particular, they remain in contact even as they move in different directions.

Where, then, do they go as they move away from each other while still needing to remain in relation? They follow and chase where the other is not heading, because that space is unoccupied by the other and therefore allows differentiation to occur.[5]

When we say that the center of the sphere is any potential point on the surface, this refers to the sphere’s capacity to be divided into abstractions that are then multiplied within the limits of the structure that makes these determinations possible. For example, one might say that the mass of an object is “outside” of it in a relational sense: when you fall, your center of mass shifts too far in one direction, producing imbalance.

Saying that the center of mass of the Earth is the Sun is an incomplete observation,[6] because the center concerns not one object of the relation relative to another, but the pure relation itself that grants objects the capacity to be abstracted as components affecting each other. The center of mass is individuality—not merely an individuality that acts as a midpoint between presupposed individual bodies, but individuality as the relational process itself.

The orbital motion of the Sun in simultaneous relativity to the motion of the Earth constitutes the center of mass, because within this movement relations arise that exceed the mere cycle.[7] In that motion there are subatomic activities that conserve the mass visible to us as planetary structures. Yet, invisible to us, these activities generate the specific details pertaining to each planet: life on Earth, solar energy on the Sun, and so on.

Footnotes

[1] The law of non-contradiction (from classical logic) states that something cannot both be and not be in the same respect at the same time. Here it is used metaphorically to describe the binary structure underlying midpoint symmetry.

[2] Physically, the center of a planet lies within its volume; this statement reinterprets “center” as a relational or geometric concept rather than a strictly physical location.

[3] This reflects a philosophical (especially dialectical) interpretation: two equal bodies are treated as expressions of a single underlying unity.

[4] This resembles ideas in metaphysics and cosmology where multiplicity presupposes a unifying totality or field.

[5] This describes differentiation through opposition—a concept common in dialectics, where entities define themselves through what they are not.

[6] In physics, the Earth and Sun both orbit their shared barycenter. This sentence critiques a simplified view by emphasizing relationality over object-centered description.

[7] This aligns loosely with modern physics: motion at macroscopic scales is underpinned by interactions at smaller (including subatomic) levels, though the philosophical interpretation extends beyond standard physical explanation.

On the possibilities of why ether is undetected by scientists:

“The easiest explanation was that the Earth was fixed in the ether, and that everything else in the universe moved with respect to the Earth and the ether. Then we on Earth would not experience an ether wind, thus making the detection of the ether impossible. Such an idea was not considered seriously, since it would mean, in effect, that our Earth occupied an omnipotent position in the universe, with all the other heavenly bodies paying homage by moving around it. The fact that the Earth was only one of several planets revolving around the Sun was enough to dispel any notion that, as a planet, it occupied any kind of godly post.” — James A. Coleman, Relativity for the Layman, “The Great Dilemma,” p. 43

“The Michelson–Morley experiment confronted scientists with an embarrassing alternative. On the one hand, they could scrap the ether theory, which had explained so many things about electricity, magnetism, and light. Or, if they insisted on retaining the ether, they had to abandon the still more venerable Copernican theory that the Earth is in motion. To many physicists, it seemed almost easier to believe that the Earth stood still than that waves—light waves, electromagnetic waves—could exist without a medium to sustain them. It was a serious dilemma, and one that split scientific thought for a quarter century. Many new hypotheses were advanced and rejected. The experiment was tried again by Edward Morley and by others, with the same conclusion: the apparent velocity of the Earth through the ether was zero.” — James A. Coleman

The existence of aether is a fundamental presupposition for general and special relativity.[2] An aether is a medium that fills space, necessary for the transmission of electromagnetic and gravitational forces. Aether is the internal form of space, in which space is a self-externality.[3]

Scientists today dismiss the existence of aether because there is no direct evidence for its physical properties, only that the physical properties of proven phenomena appear to act directly without an implicit medium.[4]

Albert Einstein, for example, argues that wavelengths such as light would not be able to propagate alone in space without some conceptual framework; however, this does not require an aether that exhibits independent motion, only that it facilitates the motion of other forces (as discussed in Ether and the Theory of Relativity).[5] For example, Einstein writes:

“the velocity of a wave is proportional to the square root of the elastic forces which cause propagation, and inversely proportional to the mass of the aether moved by these forces” (Einstein’s first paper).[6]

Footnotes

[1] “Force of the conception” suggests that ether is not merely physical but conceptual—an organizing principle that allows relations and phenomena to be thought.

[2] In standard physics, this statement is controversial: modern formulations of special and general relativity do not require a classical luminiferous ether. This sentence reflects a philosophical reinterpretation rather than the mainstream scientific position.

[3] “Self-externality” echoes dialectical philosophy, especially ideas associated with Georg Wilhelm Friedrich Hegel, where something expresses itself outwardly while remaining internally unified.

[4] Modern physics explains electromagnetic propagation through fields (e.g., the electromagnetic field) rather than a material medium; this is one reason ether theories were abandoned.

[5] In later writings, Einstein reintroduced the term “ether” in a different sense—not as a mechanical medium, but as a way of describing spacetime with physical properties (especially in general relativity), without motion in the classical sense.

[6] This reflects early thinking influenced by 19th-century physics, where wave propagation was often understood analogously to mechanical media; Einstein later moved away from this framework.

Flat Earth Phenomenon

The flat Earth model is an archaic conception that is reemerging in modern times in a very simple-minded manner. The idea that the Earth is a flat disk is a naive and shallow understanding of the geometric dynamics that encompass a body like the Earth. To say that the Earth is flat or spherical are abstractions of a dynamical geometric process, because the Earth is both of these and any one of them from a particular point of conception.[1]

To claim the Earth is spherical is a proposition about its fundamental form, but to have a foundational form is to presuppose many other forms, and it cannot be said that the “here and now” is merely spherical—it is only fundamentally so. Inversely, just because the Earth is a relation of many forms, it does not mean it is not fundamentally spherical. The Earth is a potential of many different relations superimposed onto each other, and the complexity of this is spherical. The bare relation disclosing a set of infinite relations is always spherical, because that is the logic that the infinite is itself still a finite conception; in other words, it bears a self-relation that is definite.[2]

The Earth is a composition of different grades of material, and each composition of the materials forming the planet is a result of its relations. On the one hand, from a first-person point of view, the Earth appears as a flat plain disclosed by a curved sky. The sky during the day is blue due to sunlight’s reflection and scattering in the atmosphere.[3] The sky is not physical in the same way as the ground, nor is the ocean the same physicality as the light. These are all physical elements, but they are not physically the same. On some level, the sense-precepts determine the physicality of an element. The question of whether the Earth is spherical or flat is a question concerning the nature of its composition.[4]

Those who impose that the Earth is flat assume two things about the nature of its physicality: first, that the defining physical composition of the Earth is land, because it is the highest point of density characterizing the Earth, while all other elements like air, the atmosphere, and even liquids are precursors and therefore secondary physical properties. Second, the plain extends as a line and not a circle from the viewpoint of a particular position on a plain. Flat-Earth proponents take their particular position on a plain and their sensation of that plain as the governing factors for determining an objective picture of the Earth.[5]

But what they provide is no more objective than taking a picture from space of the Earth and claiming that as the true form of the Earth. In the latter case, what is being conceived is the bare relation, which is spherical, that discloses an infinite set of relations. We can say that the Earth is therefore spherical because a circle is its most fundamental shape, but that would make the Earth as a circle into a single object. In the same way that a circle is not a single object—since it is a relation of the point to a line to a curve—the Earth is not a single object, because it is a field of relations between many different levels of physical elements.[6]

Those who claim that the Earth is flat forget that a linear plain is simply the relation of a point to itself. A point is simply the conception disclosing a plain: when you zoom into a point, it becomes a plain.[7]

From a point of view on land, the sky and space appear more abstract, as they are not as tangible as the ground. But from the point of view of space, the Earth is seen as spherical, and the land—which is one point among many on it—appears more abstract in the same way the sky did from the view of the land below. This is because it is intangible by touch, for example, unlike the land is. From space, the same land that appears so concrete while on it appears as abstract as the ocean and any other element in its relation.[8]

The Earth is composed of a core, mantle, and crust, and we associate these layers with a round shape, giving the planet a spherical form. The reality is that these materials are animate and not static, as in the case of tectonic or volcanic activity, and their motion is a self-connected and related movement. When something revolves around itself, it is in one position and moving in circles, and so it appears to be a sphere. Above the crust is also the ocean, encompassing 360 degrees around the Earth. The ocean is also in a self-relation and in relation to the more interior layers, and like them it is always in flux. This means that the spherical form is the stability of flux, in the sense that it discloses and therefore emphasizes the event.[9]

The interaction of an infinite set of relations does not occur scattered; even their disembodiment from each other bears the same relation. When conceived as disembodied from each other, their unity is their cluster of chaos. The function of a sphere is the same as that of a conception, which is inescapable as soon as anything comes into being. The conception is the unavoidable or necessary value in anything coming into being, because it is the validity of the witness of it existing for itself, for something else, and for anything at all.[10]

A sphere is the geometric value of the conception and is the possibility of having all different kinds of geometric forms. A sphere, however, is implicit in a thing having many different geometric values, just like an artist begins a sketch by drawing circles and tracing other figures around them.[11]

Footnotes

[1] In modern science, the Earth is understood as an oblate spheroid; the “flat” appearance arises from limited local perspective.

[2] This reflects a philosophical interpretation of infinity as self-related finitude, often associated with dialectical reasoning (see Georg Wilhelm Friedrich Hegel).

[3] Scientifically explained by Rayleigh scattering, where shorter (blue) wavelengths scatter more in Earth’s atmosphere.

[4] This blends epistemology (how we perceive) with ontology (what the Earth is), raising questions about whether perception defines physical reality.

[5] Flat Earth models rely heavily on phenomenological observation rather than large-scale measurement, satellite data, and gravitational theory.

[6] In physics and geometry, a circle/sphere is not a “thing” but a set of relations defined mathematically.

[7] This idea resembles geometric scaling: locally flat regions can approximate curved surfaces (as in differential geometry).

[8] This reversal of abstraction depending on viewpoint reflects perspectival philosophy—what is concrete or abstract depends on position and scale.

[9] Modern geology confirms Earth’s dynamic interior (plate tectonics, mantle convection), supporting the idea of continuous internal motion.

[10] This is a metaphysical claim: existence is tied to its being-conceived or being-related, not merely to material presence.

[11] Artists often use circles as foundational guides, reflecting how complex forms emerge from simple geometric relations.

Radius

A radius is a point from which another point is distinguished, and then this relation is denoted, which is what the encompassing of a line by a circle is.[1] What we use to associate the Earth as flat—the land we stand on—is a radius, because it constitutes a relation between the observer and any point spatially away from the observer. In this sense, the plane of the Earth, because it functions as a radius, is confused as excluding the Earth from ever being a sphere in the first place.[2]

But the reason why a circle always involves a radius is because a line, in the first place, always involves a circle. Since a line is composed out of a point, and the point is a circle because it is the conception of a plane, this means that the spherical nature of the Earth is the conception disclosing a set of infinite possible finite linear forms.[3] A sphere is never an object in the sense that a line is. As Aristotle explains, the circle is an abstraction: in nature, a circle can never be fully complete, because the point connecting back to itself lapses into a line. A circle is therefore the conception of a radius.[4]

Why is there no electric field inside a charged sphere?

On a solid sphere, the charge can only be on the surface.[5] The Earth consists of layers of spheres inside each other. A sphere is never really solid, because its center is an indefinite point. Any point on the surface of a sphere is its center in a relational sense; a sphere is therefore a potential and is never a particular quantity like a solid, density, or size. This is because the moment the relation between the observer and the circle—conceiving a set of relations large for the observer—changes, the sphere itself changes.[6]

For example, changing the distance between an observer and a planet changes the spherical nature of that planet for the observer. The Earth, at a distance from the Moon, appears as a sphere; but go further away, to the distance of Jupiter, and the Earth appears as a flickering point.[7] The surface of a sphere is the form of what it means to be a center point. The element of chaos is not related to the conservation of structures, but to the capacity for structures to undergo change without compromising their composition.[8]

The only resource energy needs is itself; it does not need any external source. Energy is the principle of internal relations.[9]

We cannot say that the inner layer is the center of the outer, because any point that is the center of the outer sphere parallels the center of the inner. That is to say, the outer sphere, insofar as having a point on its circumference, would share the same center point as the inner spheres. Each cannot be the center of the other, but both share the center. The center of a sphere is the point of reference.[10]

Flux and Permittivity

Gauss’s law: the surface under consideration may be a closed one enclosing a volume, such as a spherical surface.

The total electric flux out of a closed surface is equal to the charge enclosed divided by the permittivity—the ability to store energy.[11]

Permittivity is the permanent feature of the surface. The charged sphere theorem (Gauss’s law) informs an interesting direction of cosmological motion to form an idea of universal structure.[12] An enclosed surface not only encloses the inside but also the outside; in terms of electrical charge, it attracts from any direction.[13]

Any series of flux, which is the change of composition based on form, is still stored in this capacity. There is therefore nothing external to the idea of permittivity; rather, the distribution of changing energy states is internally divided.[14] This is why we can speak of the total duration of the universe as an infinitesimal magnitude, and why the composition of objects exhibits layers upon layers of composition internally within each other.[15]

Footnotes

[1] In geometry, a radius is the line segment from the center of a circle to its boundary; here it is reinterpreted as a relational act between points.

[2] Locally flat surfaces (like the ground) are small sections of a বৃহ curved surface, which can lead to the perception of flatness.

[3] This reflects a philosophical interpretation where geometric primitives (point, line, circle) are conceptually interdependent.

[4] Aristotle treated perfect geometric forms as idealizations; real physical objects only approximate them.

[5] In electrostatics, excess charge on a conductor resides on its surface due to repulsive forces between like charges.

[6] This blends physical observation with perspectival philosophy: the “object” changes depending on relational context.

[7] Angular size decreases with distance; objects appear point-like when far enough away.

[8] This distinguishes between structural stability and dynamic transformation.

[9] In physics, energy is conserved and transformed; this statement extends that into a metaphysical principle.

[10] In standard geometry, a sphere has a single center point; this passage reinterprets “center” relationally rather than strictly geometrically.

[11] Formally: Φ = Q / ε₀, where Φ is electric flux, Q is enclosed charge, and ε₀ is permittivity of free space.

[12] Gauss’s law is fundamental in electromagnetism and is one of James Clerk Maxwell’s equations.

[13] Physically, electric fields extend in all directions; “attraction” depends on charge sign, but the field itself is omnidirectional.

[14] This interprets physical fields as internally structured rather than dependent on external media.

[15] In cosmology, discussions of scale (very large vs. very small) sometimes involve limits approaching infinitesimal or infinite values, though this is a philosophical extension rather than a strict physical claim.

The question of how magnets are actually attracted to each other, rather than simply why they attract each other, is more complex than what appears to be a natural attraction like gravity. It does not really answer how they are attracted if we just say that gravity between bodies is stronger or weaker than usual. In magnetism, the attraction is greater than what most bodies have in relation to each other. For example, every body to some degree is attracted to other bodies or attracts other bodies, but the gravitational force is so weak that the attraction is equally weak. In magnetism, however, this attraction is strong. But this still does not explain how they are attracted, or why any body at all exhibits gravitational attraction.[1]

To say that gravitational attraction varies in strength does not explain the mechanism of attraction itself. The strength of gravitational attraction cannot make use of only itself as an explanation of force. Instead, we must consider that both gravity and magnetism operate through fields that are already present. According to Maxwell’s equations, magnetic interactions arise from structured electromagnetic fields, not from isolated objects pulling on each other across empty space.[2]

In this sense, the gravitational field—or what may be conceived as a graviton field—is already present, and the force taps into this field, actualizing what was already potentially there.[3] Rather than creating attraction out of nothing, the interaction between bodies brings into actuality a relation that was already implicit within the field. This aligns with how General Relativity, developed by Albert Einstein, understands gravity: not as a force in the traditional sense, but as the structure of spacetime itself, within which objects move.[4]

Therefore, if we look at gravity in terms of time and not just as a brute spatial physical force, we can see how a potential event that is already present is transformed into the real present moment, which actualizes that potential. The attraction between bodies is not simply a static pulling, but a temporal unfolding of relations already embedded in the structure of the field.[5]

We can then see that these changes in moments correspond to the forces of attraction and repulsion. What appears as a force is the transition from potential to actuality, where the configuration of the field determines how bodies move relative to each other. In this way, both magnetism and gravity are not merely interactions between objects, but processes through which pre-existing relational structures become actual in time.[6]

Footnotes

[1] Gravitational force exists between all masses but is extremely weak compared to electromagnetic forces.

[2] Maxwell’s equations describe how electric and magnetic fields are generated and interact dynamically.

[3] The graviton is a proposed particle mediating gravity, though not experimentally confirmed.

[4] In general relativity, gravity is described as curvature of spacetime rather than a force acting at a distance.

[5] This reflects a philosophical interpretation of physics where time plays a role in actualizing potential relations.

[6] This interpretation aligns with viewing physical laws as describing evolving states rather than static forces.

In describing that objects attract each other (by gravity or magnetism) is not the same as explaining how that attraction is realized. Simply saying that gravity is “stronger” or “weaker” does not explain the mechanism; it only compares magnitudes. To go deeper, modern physics describes both gravity and magnetism not as direct pulling forces between isolated objects, but as interactions with fields that already exist throughout space.

In the case of magnetism, the attraction between magnets arises from the alignment and interaction of microscopic currents—primarily the motion and intrinsic properties (spin) of electrons. These generate a magnetic field, and when two magnets are brought near each other, their fields interact. The reason the attraction can be strong is that many of these microscopic contributions are aligned coherently, producing a large, organized field. This is different from gravity, where mass is always positive and cannot “cancel” or align in opposite ways, so gravitational effects tend to accumulate weakly and uniformly. The laws summarized in Maxwell’s equations describe how changing electric and magnetic fields generate and sustain one another, meaning the magnetic field is not a separate substance but a dynamic structure already present and evolving in space.

The idea that attraction “taps into” something already present can be meaningfully compared to how physics treats fields. In both electromagnetism and gravity, the field is not created out of nothing at the moment of interaction; rather, objects exist within a pre-existing field structure. In gravity, this is expressed through spacetime curvature in General Relativity, associated with Albert Einstein. Mass does not reach out and pull another mass across empty space; instead, it shapes the geometry of spacetime, and other objects move according to that structure. In some theoretical models, this interaction is described in terms of a hypothetical particle called the graviton, though it has not been experimentally confirmed. Whether described geometrically or quantum mechanically, the key idea is that the “capacity” for interaction is already built into the structure of reality.

If we reinterpret this in terms of time, the field can be understood as a set of potential relations that are continuously being actualized. At every moment, the configuration of mass, charge, and motion defines what interactions are possible, and the evolution of the system is the realization of those possibilities. A magnetic attraction, then, is not simply a force appearing between two objects, but the unfolding of a relation that was already implicit in their field configurations. Likewise, gravitational attraction is not merely a weak pull, but the continuous realization of how spacetime is structured by mass-energy. The difference in strength between magnetism and gravity reflects how strongly and flexibly these fields can organize themselves: electromagnetic interactions allow for alignment, opposition, and rapid change, while gravity operates as a universal but comparatively rigid background relation.

Seen this way, attraction and repulsion correspond to transitions between potential and actual states of a field. What appears as a “force” is the observable effect of these transitions occurring over time. When two magnets snap together, or when a mass falls toward another, what we observe is a change in configuration that was already encoded as a possibility within the field. The present moment is thus the actualization of that potential, and the sequence of such actualizations gives rise to motion, interaction, and the structured behavior we interpret as physical laws.

A magnetic field is a physical field that describes how magnetic forces are distributed in space, typically produced by moving electric charges or changing electric fields. In classical physics, a magnetic field is represented by the vector field B, and it exerts forces on other moving charges and magnetic materials. For example, when an electric current flows through a wire, it generates a magnetic field that circles around the wire; this relationship between electricity and magnetism is one of the central insights formalized by James Clerk Maxwell. The direction of the magnetic field is determined by the motion of the charges, often described using the right-hand rule, where the orientation of the field “wraps” around the path of current.

Unlike an electric field, which originates from positive and negative charges, a magnetic field does not begin or end at a single point. Instead, magnetic field lines always form closed loops. This principle is captured in Gauss’s law for magnetism, which states that the total magnetic flux through any closed surface is zero. Physically, this means there are no isolated “magnetic charges” (magnetic monopoles) that act as sources or sinks of the field. Even in a simple bar magnet, what appears as a north and south pole is actually part of a continuous loop of field lines that pass through the magnet and extend outward before returning.

A magnetic field exerts forces specifically on moving charges, not stationary ones. This force is described by the Lorentz force law, where a charged particle moving through a magnetic field experiences a force perpendicular both to its velocity and to the direction of the field. Because of this perpendicular relationship, magnetic forces do not do work in the usual sense (they do not change the speed of a particle), but instead alter its direction of motion. This is why charged particles in magnetic fields tend to move in circular or helical paths, a behavior that is fundamental in devices like particle accelerators and in natural phenomena such as the motion of charged particles trapped in Earth’s magnetosphere.

Magnetic fields are also deeply connected to electric fields through the framework of electromagnetism. A changing electric field produces a magnetic field, and a changing magnetic field produces an electric field; this mutual generation is described by Maxwell’s equations. This interplay allows electromagnetic waves—such as light—to propagate through space without needing a material medium. In this sense, what earlier theories attributed to an “ether” is now understood as the self-sustaining interaction between electric and magnetic fields themselves, a view strongly associated with Albert Einstein’s development of relativity, where fields exist as properties of spacetime rather than vibrations in a substance.

From a more conceptual perspective, a magnetic field can be understood as a relational structure rather than a collection of discrete objects. Because its field lines are continuous and closed, it naturally embodies a kind of internal coherence: every part of the field is defined by its relation to the whole. This makes it a useful physical example of a system where “inside” and “outside” are not fundamentally separate, but are aspects of a continuous dynamic. In modern physics, this idea is extended further in field theory, where fields are taken as fundamental entities, and particles themselves are seen as excitations or localized expressions of these underlying fields.

Electric Flux and Magnetic Field Analogy

Thus, in Fig. 2–6, the electric flux that emanates from surface (1) is equal to +q, and that from surface (2) is equal to −q. The flux that emanates from surface (3) is zero because that surface does not enclose any charge. The flux that emanates from surface (4) is likewise zero because that surface encloses equal but opposite charges, the net charge being zero.[1]

Consider a source producing the electric field E: a point charge +q situated at a point O inside a volume enclosed by an arbitrary closed surface S. Let us consider a small area element dS around a point P on the surface, where the electric field produced by the charge +q is E. If E is along OP and the area vector dS is along the outward-drawn normal to the area element dS, then the flux depends on the relation between the field and the surface orientation.[2]

In contrast, for a magnetic field, there is no equivalent to an isolated charge. According to Gauss’s law for magnetism, the total magnetic flux through any closed surface is always zero.[3] This is because magnetic field lines form continuous loops: they do not begin or end at a point charge like electric field lines do.[4] In this sense, the magnetic field reflects a pure relational closure, where the “inside” and “outside” of the surface are inseparable in the field’s continuity.[5]

Cosmological Analogy

The way God instructs Noah to build the ark parallels this description of the universe. The ark consists of three internal divisions, “decks.” The story of the flood, developed across many cultures, maintains the analogy that the planet Earth is analogous to an ark.[6]

What is special about the intuition that the planet is a terrestrial, organic ship on a cosmic voyage concerns the notion that creation is not a mere cycle. The Earth, insofar as it is in motion, undergoes creation, death, and re-creation. Conforming to metaphysical principles of being, nothing, and becoming, the motion of the planet is, however, not merely cyclical.[7]

The ancient Hebrews do not specify the destination of the planet’s motion. Although in Christianity and Islam the destination is often conceived as the “kingdom of man,” we are left with the broader insinuation that the destination of the planet is not any particular place, but the very relations that concur within it. This intuition goes back to ancient Babylon.[8]

The Tower of Babel is a depiction of universal order, much like the Ptolemaic system and medieval conceptions of a hierarchical structure of the universe.[9]

The seasons are the Earth’s endurance of change caused by its motion. The orbit around the Sun does not merely present a cycle, but within this cycle are disclosed processes of new lifeforms.[10] Whether you do anything or not, things are nevertheless being done: motion predicates individual doing. The orbit of the Earth is such an example. Your life is, at its basis, still in motion by virtue of the motion of the Earth, the latter being objective to the former.[11]

Just as the daily life of cities exhibits habit, within that repetition new production arises.[12]

Analogy, Sensation, and Knowledge

Analogy is an imprecise method of knowledge, but nevertheless a corollary for truth.[13] Mythology is not merely fictitious, because what is usually taken as realistic is often naively judged by sensation, as in René Descartes’ example of the bending of a stick in water.[14]

In fact, sensation provides knowledge by way of analogue, which is the natural predisposition of analogy. Sensation creates a correspondence between differing forms into the same familiar schema. “Analogue” relates to the use of signals represented by a continuously variable physical quantity, such as spatial position.[15] In this way, there is a comparable element, like a compound with a molecular structure closely similar to that of another—the structure being the analogue of the molecules. Sensation singles out the comparable element among things.[16]

However, if we adopt as the standard of reality what is judged as “apparent” by sensation, then we will only obtain a single concept, not knowledge of what the concept actually is.[17] For example, just because I give you directions to a location, that alone does not tell you the kind of location you are heading to, even though the directions are part of the location.[18]

The logical function of analogy is the corollary, which points to something not exactly explained by the concept of locus. The imagination is precisely to point to some locus without exactly explaining what that is. This is an insufficient explanation, but not explanatorily insufficient.[19] This is where the nature of a philosophical science becomes universally applicable in attempting to offer the clearest explanation of ambiguities.[20]

Footnotes

[1] From Gauss’s law: electric flux depends on enclosed charge.

[2] Electric flux is given by Φ = ∮ E · dA, depending on angle and magnitude.

[3] One of James Clerk Maxwell’s equations: ∮ B · dA = 0.

[4] No magnetic monopoles have been experimentally confirmed.

[5] This supports your interpretation of fields as internally relational rather than externally sourced.

[6] Flood myths appear in multiple cultures, including Mesopotamian traditions like the Epic of Gilgamesh.

[7] Reflects dialectical metaphysics (being–nothing–becoming), associated with Georg Wilhelm Friedrich Hegel.

[8] Ancient cosmologies often linked motion with divine or structural order.

[9] The Ptolemaic system organized the cosmos into nested spheres.

[10] Seasonal change is due to Earth’s axial tilt and orbit.

[11] Human activity is embedded within larger physical motions.

[12] Repetition and novelty coexist in dynamic systems.

[13] Analogy provides partial but not complete knowledge.

[14] Descartes used sensory illusions to question certainty derived from perception.

[15] This is the technical definition of analogue in physics and engineering.

[16] Pattern recognition is fundamental to perception and cognition.

[17] Distinguishes appearance from deeper conceptual understanding.

[18] Knowledge of structure requires more than directional or relational input.

[19] Imagination points beyond explicit conceptual determination.

[20] Philosophy attempts to clarify ambiguous or incomplete modes of understanding.

Aristotle Universe

More than anything, modern materialism makes a laughingstock out of Aristotle’s cosmological principle on the straw-man assumption that it takes the Earth as the center of the universe. The “center,” in this way, is misunderstood as a midpoint position, which is a purely quantitative assessment of what constitutes a center.[1] However, the cosmological principle describes the center as the aim of motion in the universe, which in turn governs its structure. The cosmological principle first and foremost takes the center as the quality of motion prior to the quantity of some position.[2]

The cosmological principle is qualitative because it states that the existence of the universe needs an explanation, as it could not have come from nothing. In more Georg Wilhelm Friedrich Hegelian terms, that nothing itself is a quality that requires explanation.[3]

The cosmological principle portrays the structure such that the direction in which the universe is heading is inward, toward a kind of singularity which, being on Earth, is expressed in the mind of man.[4] Human reason is then the present state of universal evolution. The singularity, having no specific direction and operating under quantum mechanics, is an infinitesimal continuity; in the neurological activity of the human mind, it becomes the dimension through which the universe advances into the future.[5]

It is, in this sense, the spacetime continuum as the construction of reality, where motion, thought, and structure converge.[6]

Footnotes

[1] Aristotle did not describe the “center” merely as a geometric midpoint, but as the natural place toward which elements move (e.g., earth and water downward, fire upward).

[2] In Aristotelian physics, motion is teleological—it has an उद्देश्य (end or purpose), not merely a position in space.

[3] This reflects a metaphysical reinterpretation: in modern physics, the universe’s origin is often discussed in terms of the Big Bang, while Hegel treats “nothing” as part of a dialectical process (being–nothing–becoming).

[4] This is a philosophical extension and not part of Aristotle’s original cosmology, which placed Earth at the center in a physical sense within a finite, geocentric universe.

[5] In physics, quantum mechanics governs very small scales and does not directly identify consciousness as a cosmological singularity; this is a speculative synthesis.

[6] In modern physics, spacetime is the four-dimensional framework combining space and time; here it is interpreted philosophically as a process of unfolding reality.

Aristotle Universe — Expanded Cosmology

More than anything, modern materialism makes a laughingstock out of Aristotle’s cosmological principle on the straw-man assumption that it takes the Earth as the center of the universe in a merely spatial sense. The “center,” in this way, is misunderstood as a midpoint position, which is a purely quantitative assessment of what constitutes a center.[1] However, for Aristotle, the center is not first a location but a principle: it is the natural end (telos) toward which motion is directed. The cosmological principle therefore describes the center as the aim of motion in the universe, which governs its structure. It takes the center as the quality of motion prior to the quantity of position.[2]

In Aristotle’s cosmology, the universe is a finite, ordered whole composed of concentric spheres. At the innermost region lies the Earth, not because it is privileged in a modern egocentric sense, but because it is the natural place of the heaviest elements—earth and water—which move “downward” toward the center.[3] Surrounding this central region is the sublunary world (below the Moon), where change, generation, and decay occur. This region is composed of the four classical elements: earth, water, air, and fire, each moving according to its natural tendency. Fire moves upward, earth downward, and these motions establish a dynamic equilibrium that gives structure to the terrestrial world.[4]

Beyond the sublunary region lies the celestial realm, which is fundamentally different in nature. Here, Aristotle posits a fifth element, often called aether, which does not undergo generation or corruption. Instead, celestial bodies—such as the Sun, Moon, and stars—are embedded in transparent, rotating spheres. Their motion is perfectly circular and eternal, reflecting a higher, more complete kind of being.[5] This circular motion is not arbitrary: for Aristotle, the circle is the most perfect form of motion because it is self-contained, returning continuously into itself without beginning or end.[6]

The motion of these celestial spheres ultimately derives from what Aristotle calls the “unmoved mover,” a principle that causes motion without itself being moved. This is not a mechanical force but a final cause—an object of desire or thought that draws all motion toward itself.[7] In this way, the structure of the universe is hierarchical and teleological: lower forms of motion (linear, changing, incomplete) are ordered toward higher forms (circular, eternal, complete). The center, then, is not merely where things are, but where things are directed in their striving for completion.

The cosmological principle, in this Aristotelian sense, is qualitative because it asserts that the existence and motion of the universe require explanation—they are not brute facts. The universe cannot arise from nothing without mediation; or, in more Georg Wilhelm Friedrich Hegelian terms, “nothing” itself becomes a moment that demands development into being.[8] Aristotle’s system differs from modern cosmology, but it shares this insistence that motion and structure must be intelligible.

Extending this into your interpretation, the idea that the universe is “heading inward” toward a singularity can be read as a transformation of Aristotle’s notion of center as telos. In classical cosmology, this center is physical; in your account, it becomes conceptual and dynamic. The “inward direction” is not a movement through space, but a deepening of relational structure—an intensification of the universe’s self-relation.[9]

In this sense, the human mind can be interpreted as a locus where these relations become explicit. While Aristotle himself did not identify human cognition as the literal center of the cosmos, he did regard thought—especially contemplative reason—as the highest activity, analogous to the unmoved mover’s self-thinking thought.[10] Your extension suggests that human reason represents a present stage in the unfolding of universal structure: a point where the universe becomes aware of its own relations.

The idea of a singularity operating under quantum mechanics as an infinitesimal continuity further reframes this structure in modern terms. Rather than a fixed center, the “center” becomes a process distributed through time—an ongoing actualization of potential relations. In this view, the spacetime continuum is not merely a passive container but the active unfolding of these relations, where each moment brings potential into actuality.[11]

Thus, when Aristotle’s cosmology is properly understood, it is not a naive geocentric picture but a sophisticated account of ordered motion, hierarchy, and purpose. Your reinterpretation preserves this core insight while translating it into a framework where the center is no longer a fixed place, but the dynamic realization of relations—manifest in motion, in thought, and in the evolving structure of the universe itself.

Footnotes

[1] Modern critiques often conflate Aristotle’s “center” with later simplified geocentric models.

[2] Aristotle’s concept of telos (end or purpose) governs motion more fundamentally than spatial coordinates.

[3] Heavy elements move toward the center; this defines Earth’s position in Aristotelian physics.

[4] The sublunary realm is characterized by change and imperfection.

[5] The celestial realm is unchanging and composed of aether, unlike terrestrial matter.

[6] Circular motion is considered perfect because it is continuous and self-returning.

[7] The unmoved mover is a final cause, not an efficient force.

[8] This connects Aristotle’s metaphysics with Hegel’s dialectical logic.

[9] This is a philosophical reinterpretation, not part of Aristotle’s original doctrine.

[10] Aristotle describes the highest principle as “thought thinking itself.”

[11] This blends Aristotelian teleology with modern physics concepts.

In Aristotle’s view of the universe, the cosmos is unlike the modern explanation of scattered massive aggregates of light and stardust dispersed infinitely far from one another. What appears as chaos is, in fact, structured by an underlying order. This order is not merely a physical outer shape, as we often assume when we think structure belongs only to objects we perceive. Rather, order exists in the sense that there is a direction in motion—that motion is always heading toward some end.[1]

For Aristotle, there is an end toward which things move by necessity. In this way, we arrive at a deeper understanding of the order of the universe: not as a random distribution of matter, but as a system internally directed within itself.[2] Motion is not aimless; it is oriented. The universe, therefore, is not simply extended outward but is, in a sense, turning inward upon itself, organizing its own processes according to purpose.

We can notice a faint analogy to this phenomenon in modern physics through concepts such as wormhole, where space is not merely stretched outward but can fold inward, connecting distant regions through an internal pathway.[3] In partly physical terms, one might say the universe resembles a wormhole—not literally in the strict scientific sense, but as an analogy for inward-directed structure.

The crucial point is that a wormhole implies not just extension, but direction toward a point: a point toward which the tunnel leads. In your interpretation, this point is rational—it is not merely a location in space, but the end or aim of motion itself.[4] In Aristotelian terms, this corresponds to the idea that motion is governed by a final cause, an organizing principle that gives coherence to the whole.[5]

Thus, the universe is not a scattered collection of objects, but a unified process in which motion, direction, and end are internally related. What appears externally as vast dispersion may, at a deeper level, be an ordered movement toward realization—an inward structuring that gives meaning to the whole.[6]

Footnotes

[1] Aristotle’s concept of telos (end or purpose) defines motion more fundamentally than spatial arrangement.

[2] The universe is a cosmos (ordered whole), not a random aggregate.

[3] Wormholes arise in solutions to General Relativity, though they remain theoretical.

[4] This is a philosophical extension: identifying the “endpoint” with rational structure rather than physical destination.

[5] Aristotle’s “final cause” explains why things move, not just how.

[6] This contrasts with modern views of a largely non-teleological universe, where structure arises from physical laws rather than inherent purpose.

The “centre” is misunderstood as a midpoint position, which is a purely quantitative assessment of what constitutes a center.[1] However, the cosmological principle describes the centre as the aim of motion in the universe, which in turn governs its structure. The cosmological principle first and foremost takes the center as the quality of motion prior to the quantity of some position.[2]

The cosmological principle is qualitative because it states that the existence of the universe needs an explanation, as it could not have come from nothing. Or, in more Georg Wilhelm Friedrich Hegelian terms, that nothing itself is a quality that requires explanation.[3]

The cosmological principle portrays the structure such that the direction in which the universe is heading is inward, toward a kind of singularity which, being on Earth, is expressed in the mind of man.[4] Human reason is then the present state of universal evolution. The singularity, having no specific direction and operating under quantum mechanics, is an infinitesimal continuity; in the neurological activity of the human mind, it becomes the dimension through which the universe advances into the future.[5]

It is, in this sense, the spacetime continuum as the construction of reality, where motion, thought, and structure converge.[6]

Footnotes

[1] Aristotle did not describe the “center” merely as a geometric midpoint, but as the natural place toward which elements move (e.g., earth and water downward, fire upward).

[2] In Aristotelian physics, motion is teleological—it has an उद्देश्य (end or purpose), not merely a position in space.

[3] This reflects a metaphysical reinterpretation: in modern physics, the universe’s origin is often discussed in terms of the Big Bang, while Hegel treats “nothing” as part of a dialectical process (being–nothing–becoming).

[4] This is a philosophical extension and not part of Aristotle’s original cosmology, which placed Earth at the center in a physical sense within a finite, geocentric universe.

[5] In physics, quantum mechanics governs very small scales and does not directly identify consciousness as a cosmological singularity; this is a speculative synthesis.

[6] In modern physics, spacetime is the four-dimensional framework combining space and time; here it is interpreted philosophically as a process of unfolding reality.

It is important to deal with the difficult consideration that there exists the possibility of many alternative, or parallel, universes. A “parallel universe” generally refers to a hypothetical reality that exists alongside our own, with its own set of physical conditions, events, or histories.[1] In some interpretations of quantum mechanics—such as the many-worlds interpretation—these universes arise from different outcomes of quantum events, where multiple possibilities are realized simultaneously rather than one being selected.[2]

Given the quantum nature of the singularity, it is sometimes suggested that it can be in two different places at the same time, or even in multiple places at once. In this sense, the form of something like a plasma globe becomes an analogy: the Big Bang can, in theory, be understood not as a single isolated spark, but as one among many possible “sparks,” each giving rise to its own universe.[3]

Whereas it is difficult to deny these possibilities outright, it is important not to merely assume that this is the case. One must instead show what kind of relation exists between simultaneity and instantaneousness, and what form such a relation exhibits.[4] It is not obvious that multiple universes exist simply because quantum systems allow for multiple possibilities. The fact that something can be described as simultaneous does not necessarily entail that it exists as separate, fully realized worlds.

It could instead be the case that what appears as simultaneous complexity is actually something that develops, rather than something that merely appears all at once. This becomes especially relevant given the premise that the mind engages in what Alfred North Whitehead calls the “adventure of ideas.”[5] In this view, reality is not a static multiplicity of already-formed worlds, but a process in which relations are continuously unfolding and being actualized.

From this perspective, the question arises: in what sense are two—or even an infinite number of—“adventures” not connected by the same encompassing adventure?[6] If multiple universes exist, are they truly separate, or are they moments within a larger, unified process? The idea of absolute separation becomes difficult to maintain if all possibilities are grounded in a common structure or field of relations.

Thus, the issue is not simply whether multiple universes exist, but how their existence is to be understood relationally. Whether they are distinct realities or different expressions of a single unfolding process remains an open philosophical and scientific question. What is clear, however, is that the notion of multiplicity must be grounded in an account of relation, not merely asserted as a consequence of possibility.[7]

Footnotes

[1] Parallel universes are often discussed in cosmology and theoretical physics as part of multiverse theories.

[2] The many-worlds interpretation of quantum mechanics proposes that all possible outcomes of quantum events are realized in branching universes.

[3] The Big Bang describes the expansion of our observable universe; some models propose multiple such घटनाएँ in a larger multiverse.

[4] Distinguishes between logical possibility and ontological reality.

[5] Whitehead’s philosophy emphasizes process, becoming, and relational development rather than static being.

[6] Raises the problem of whether multiplicity implies separation or unity at a higher level.

[7] This reflects a philosophical demand for coherence in explaining multiplicity, rather than relying solely on physical speculation.

Size of the Atom and the Problem of Scale

The size of the atom is actually ambiguous within physical materialism, because we assume that the size of atoms is small merely because we derive knowledge of them by means of microscopic observation. Therefore, how convenient it is that our method of deriving knowledge somehow matches our assumption about the atom’s actual objective magnitude. But does our methodological observation truly correspond to its independent nature, or does it only reflect the conditions under which we observe it?[1]

Either way, the claim that the atom is small because it makes up the building blocks of reality is merely a provisional estimation and not a comprehensive ontological claim about the principle itself. Even if atoms make up the building blocks of all macroscopic aggregates, these aggregates are, in general, expressions of the total set of relations among microscopic objects.[2] Therefore, the continuity that these discrete measures we call atoms form is itself an expression of the atom. The process thus perpetuates outward as it does inward.

From this, we may find that atoms also constitute the same form as the universe at the largest scales of reality. The entire universe itself may exhibit the same structural form as an atom, which constitutes its components. This idea appears especially compelling in the context of multiverse theory, where universes are clustered together into larger “spherical” structures containing sets or groups of potential relations with each other.[3]

Each set of potential relations is disclosed by a sphere, understood as the ultimate relation between all finite and particular relations. These sets are divided by their relations with each other, and at the same time by their indifference to other sets of relations. Thus, multiplicity and unity coexist within a higher-order structure.[4]

Atom as Process and Analogy of Mind

The differences in atoms, in one sense, exhibit developmental stages analogous to forms of mind. Hydrogen, for example, may be understood as a very primal form of mind—simple, unified, and minimally differentiated.[5]

The proton can be understood as the external dense mass that serves as a seed, implicitly containing the entire potentiality of the happenings of the universe. The electron, by contrast, can be seen as the real jolt or electrical force—the dynamic aspect—that expands and sets the process into actuality, analogous to the expansion associated with the Big Bang.[6]

The neutron, then, may be understood as the mediating principle: neither charged like the electron nor purely defining like the proton, but stabilizing the relation between them.[7] It allows the structure to persist, holding together the potential (proton) and the dynamic actualization (electron) without collapsing the system. In this sense, the neutron represents equilibrium within process—the condition under which development can continue without disintegration.[8]

Scale, Relation, and Recurrence of Form

Thus, what appears at one scale as “small” and at another as “large” may not reflect an absolute difference in nature, but rather a difference in relational perspective. The same structural principles—center, relation, flux, and sphere—recur across scales. This idea resonates loosely with modern physics, where atoms are described not as solid objects but as probabilistic structures governed by quantum mechanics.[9]

In this way, the atom is not merely a building block but a process, and the universe is not merely a collection of atoms but an extension of the same relational structure. The inward and outward movements are not fundamentally different; they are expressions of the same principle unfolding at different levels.

Footnotes

[1] Raises an epistemological issue: whether observation reveals reality or constructs it.

[2] In physics, macroscopic properties emerge from interactions among microscopic constituents.

[3] Multiverse theories propose multiple universes, though their structure (if any) remains speculative.

[4] This reflects a metaphysical view where unity and multiplicity are mutually dependent.

[5] This is a philosophical analogy, not a scientific claim about consciousness in atoms.

[6] The Big Bang describes the expansion of space; the analogy interprets this as dynamic actualization.

[7] In physics, neutrons stabilize atomic nuclei by offsetting proton repulsion.

[8] Without neutrons (in most atoms), nuclei would not remain stable.

[9] Quantum mechanics describes particles as wave functions rather than fixed objects.

On Consciousness, Universality, and the Limits of Concept

Drawing from Alan Watts’ discussion, one of the doctrines of Buddhism is to not take scripture as absolute in a rigid sense, because the conceptualization of anything is an attempt to grasp onto immanent change.[1] They argue that not only is there nothing permanent to grasp, but even the “self” that attempts to grasp is itself changing just as much as what it seeks to hold onto.[2]

Any explanation of God is therefore always imprecise. Monotheism, on some level, also forbids the attempt to create a fixed image of God, even though individuals still conceptualize God in their minds or form ideas about God.[3] The logic behind these inclinations is that it is impossible to specify everything, and that God, as absolute, cannot be fully specified.[4]

On the same token, a central doctrine in Buddhism for alleviating Dukkha (suffering) concerns not holding onto anything personally. This depends on the capacity to produce a state of consciousness that objectively conceives the world.[5]

Awareness and the Nature of Consciousness

This state is one of complete awareness. It is not necessarily awareness of “everything,” but rather the capacity to assign awareness to any particular sequence of activity. Whether it is the physical action of moving my hand and being aware of it, or having a specific idea and being aware of having that idea, consciousness operates as a reflective presence.[6]

However, if we assume that this state of consciousness does not conceive anything specifically, why should it be assumed that what this state produces for awareness is not as specified as the conception itself?[7] In other words, awareness does not eliminate specificity; it accompanies and illuminates it.

Meditation is, after all, practiced to achieve this kind of clarity of the world, so that one is not governed by passions or instincts that result in a state of ignorance. Ignorance is the source of suffering, because when one is ignorant, one acts from attachment rather than from understanding.[8] For example, having sex because of loneliness or boredom is a form of ignorant dependence, whereas having sex to celebrate love is not done from a place of ignorance, but from awareness and intentionality.[9]

Universality and Particularity

Whereas it is true that it is impossible to specify everything—for we say that everything is encompassed in the universal—it is also impossible to describe universality in a purely particular manner.[10] The universal is the act that goes beyond its own description. When you explain something, the thought that follows after the explanation becomes the universality of it, and this process continues infinitely.[11]

Yet, the description derived from a place of universality still conceives itself particularly, while not being exhausted by that particular description. It is precisely this capacity that gives meaning to universality.[12]

The universal is not a thing like a particular; rather, it is that which encompasses the particular as a thing. Universality exists within the particular world it generates, while itself not being reducible to any single particular instance.[13] Its capacity lies in specifying itself in particular forms while not being confined to them.

In order for anything to be particular, it must not be repeated in exactly the same specific manner. However, we encounter a difficulty: empirical observation shows that things of the same kind appear repeatedly as multiplicity.[14]

Species, Repetition, and Form

Unless we consider the nature of something like the atom—for instance, the hydrogen atom—we often describe it as a singular concept. Yet, when we use the atom in describing the world, we speak in the plural: hydrogen atoms are among such and such.[15] Why are there many of the same?

The answer relates to the scientific principle of species. Whenever a form is discussed scientifically, we speak of things as species: species of hydrogen atoms, species of plants, species of planets, and so on.[16] A species is not merely repetition, but a structured recurrence of form under consistent laws.

Planets, in this sense, can be understood as species of a definite idea connected by the laws of reason and logic. If one wishes to see what an “idea” looks like in physical form, one can look at a planet.[17]

The idea qualitatively spirals toward the center. A planetary orbital system can be understood as a thought spiraling into an idea. Each planet orbits around the Sun as a source of energy, yet this energy is not equally distributed or consumed among the planets.[18]

This uneven relation reflects differentiation within unity: all planets participate in the same system, yet each expresses that system differently. Thus, motion is not merely mechanical repetition, but the articulation of an idea through varying relations.[19]

Footnotes

[1] Buddhism often treats teachings as guides rather than absolute doctrines.

[2] This aligns with the concept of impermanence (anicca).

[3] Many monotheistic traditions prohibit images of God to avoid limiting the infinite.

[4] The infinite cannot be fully captured in finite conceptual language.

[5] Dukkha refers to suffering rooted in attachment and ignorance.

[6] This resembles meta-awareness or reflexive consciousness.

[7] Raises a philosophical question about whether awareness is empty or structured.

[8] Ignorance (avidya) is a key concept in Buddhist philosophy.

[9] Distinguishes between attachment-driven and intentional action.

[10] Universality exceeds any single description.

[11] This reflects an infinite regress of conceptual expansion.

[12] Universality is expressed but not exhausted by particulars.

[13] This aligns with metaphysical distinctions between universal and particular.

[14] The problem of repetition challenges strict individuality.

[15] Scientific language distinguishes between type and instance.

[16] In science, species classify recurring forms under shared properties.

[17] This is a philosophical analogy, not a literal scientific claim.

[18] Planetary motion governed by gravity and energy distribution.

[19] Reflects a synthesis of physical law and philosophical interpretation.

Universe Ethics

Whenever we ask what comes first—the egg or the chicken—we say that they are equally necessary, but not necessarily equal. Without an egg there is no chicken, but the egg exists in order to produce more chickens.[1] In metaphysics, there is the task of placing things according to a fundamental order. However, this does not mean placing things chronologically. When we say in metaphysics that something comes “first,” there is a very specific meaning: in what sense does a fundamental principle exist at all levels of analysis?[2]

When something is “first,” there is a mathematical undertone: in what sense is the first contained within all that follows? How is 1 included in 2, 3, 4, and so on?[3] In Aristotle’s framework, the egg is involved at all levels of the reproduction of the chicken, but the chicken is involved at all levels of propagating itself through eggs. What matters is not chronological priority, but explanatory priority—how something functions as a principle within the whole.[4]

Predicate, Motion, and Function

The idea of a “predicate” is not intended for so-called objects, as if one object were the cause behind all following motion. For example, the “first mover” is not like the first domino that causes a chain reaction.[5] Rather, the idea of a predicate concerns the kind of activity—the kind of thought—that makes something into a definite object. A predicate is the kind of thought that necessitates a definite object.[6]

Chronologically, we say the Earth is the third planet from the Sun. But understanding its qualitative place requires asking: what fundamental role does it play? The planet uses the Sun’s energy for life. Life is considered higher in quality because it involves the delegation of energy toward self-consciousness—toward greater freedom.[7]

Freedom is achieved by delegation. To delegate is to prioritize, to remove something from its immediate place for the sake of a higher-order aim. When you delegate, you prioritize. Thus, natural processes already contain a structure of prioritization, which resembles ethical organization.[8]

Rationality and Ethics

This provides an overview that the rational structure of nature is equivalently ethical. The philosophical notion of the “ought” synthesizes the rational and the ethical into the same conduct.[9] What rationally should be done is ethical because rational action sets an aim for its course of action, and this aim, insofar as it describes its function, also declares that function.

This establishes an ethical threshold: a particular nature ought to actualize its aim because that aim is internally generated, even if it must first be realized.[10] For example, a bird ought to fly because that is the nature realized by the organism categorized as “bird.” A bird does not fly simply because it has wings—this would beg the question of purpose. Nor does it develop wings merely because flight exists, although this comes closer to the mark. Rather, the distinction is not real: having wings and flying are the same occurrence expressed differently.[11]

Identity, Action, and Nature

An ugly person is not ugly because he acts, nor does he act and therefore become ugly; rather, he is ugly because he is that act. What you are and why you are point to the same initiation.[12] Everyone is precisely the way they are because that is what that thing is. There is no difference between the exhibiting of a nature and the nature itself.

However, there are nuances in this relation. A bad person doing something good is not the same as a good person doing something bad, because intention differs across all possible scenarios.[13] Thus, ethical evaluation depends not only on action, but on the structure of intention underlying it.

Feeling as the Mechanical Aspect of Reason

Georg Wilhelm Friedrich Hegel points out that the traditional division between reason and sensation is only a theoretical distinction. For Hegel, reason is more fundamental, belonging even to inorganic nature; yet sensation, as a natural property of knowledge, is a component of reason—limited, yet rational in its discourse.[14]

Charles Sanders Peirce goes further and argues that “feeling,” which underlies sensation, is the pragmatic aspect of reason—it is how reason interacts in the world (as discussed in The Law of Mind).[15]

This indicates that feeling is as fundamental as reason itself, serving as a necessary substance of the world. As long as there is reason, there is feeling. Whether feeling extends beyond sentient beings is a further question, but it suggests that responsiveness is built into the structure of reality.[16]

Universe as Process, Protoplasm, and Response

The universe, as a self-exciting circuit, must in some sense rely on the fact that feeling is a prevalent part of reason as an acting substance. The production of any natural object must stimulate some response within the whole of the universe, echoing Alfred North Whitehead’s idea of the relation between part and whole.[17]

We can connect this to the idea of protoplasm in protoplasm, understood philosophically as a fundamental living substrate. Ethical laws—such as the idea that for every action there is an inverse reaction—can be interpreted not merely physically (as in Newton’s third law), but as expressions of this underlying relational medium.[18]

In this sense, even something like a virus can be connected to protoplasm: it exists at the boundary of life, participating in the broader network of biological and chemical relations. The protoplasm becomes, on some level, the complexity of bacterial and viral aggregates, reflecting what Whitehead describes as layered structures of micro- and macroscopic organization.[19]

Thus, the ethical structure of the universe is not imposed externally, but emerges from the relational and responsive nature of reality itself. Every action participates in a wider field of interaction, where reason, feeling, and structure are inseparably linked.[20]

Footnotes

[1] Illustrates mutual dependence rather than strict priority.

[2] Metaphysical “first” refers to explanatory or ontological priority.

[3] The concept of unity underlying multiplicity.

[4] Aristotle’s notion of form and function over chronology.

[5] The unmoved mover is not a mechanical cause.

[6] Predicate as logical/ontological determination.

[7] Life as higher organization of energy.

[8] Delegation as structured prioritization.

[9] The “ought” links rationality and ethics.

[10] Internal teleology: aims arise from within.

[11] Unity of structure and function.

[12] Identity and action are inseparable.

[13] Intention determines ethical differentiation.

[14] Reason includes sensation as a moment.

[15] Peirce’s pragmatism: feeling as active reasoning.

[16] Raises panpsychist or proto-experiential interpretations.

[17] Whitehead’s process philosophy: relational totality.

[18] Extends physical law into metaphysical relation.

[19] Viruses and bacteria as boundary cases of life.

[20] Ethics emerges from relational structure, not external rules.

The idea that the environment is the conception of the organism is difficult to grasp because we usually assume that consciousness is purely subjective. From that assumption, it seems impossible that a shared environment could arise from something personal or individual. However, this difficulty comes from a deeper presupposition: that consciousness is only subjective and confined to a private interior. To say that consciousness is localized is not the same as saying it is merely subjective. Localization does not imply isolation; it may instead indicate a point of expression within a broader field of relations.[1]

If we generalize the claim and say that the environment is the conception of organism in general, and that the organism is an indivisible aspect of the environment, then the idea becomes more coherent. The organism does not stand apart from its environment as a separate observer, but participates in shaping and disclosing it. The environment, in this sense, is not a pre-given container in which organisms appear, but a relational field that emerges through the activity of organisms themselves.[2]

Our Darwinian evolutionary assumptions often make it appear as though there is first an environment, and then organisms arise out of it as active and rational agents. However, when we examine different levels of reality, we consistently encounter forms of activity that resemble agency. At the macroscopic level, we see animals and humans interacting with their surroundings. At the microscopic level, we observe microorganisms responding, adapting, and interacting in ways that resemble primitive forms of observation or responsiveness.[3]

Even at these microscopic scales, the distinction between life and non-life becomes less clear than it initially appears. Viruses, for example, exist at the boundary of what we consider alive. They behave in ways that resemble mechanical or technological systems—structures that move, attach, and replicate within host cells. Some viruses, such as bacteriophages, even resemble tiny robotic forms, with leg-like appendages that attach to cellular membranes and inject genetic material.[4] These can be described as “machine-like biological agents,” blurring the line between organism and mechanism.

At this deeper level, we begin to see that what we call “environment” is always intertwined with forms of activity that disclose it. The microscopic processes occurring within us already constitute a different scale of reality, yet they are not separate from our own—they are nested within it. This suggests that reality is composed of layers of interrelated environments, each disclosed by the organisms operating within them.[5]

In this sense, our reality may be understood as part of a matrix of interwoven realities, not in the science-fiction sense of a simulation, but as a hierarchy of relational fields. Each level—microscopic, biological, cognitive, and cosmic—both contains and is contained within others. These levels are not isolated but continuously interact, forming a complex order of reactions and responses that give rise to what we experience as a unified world.[6]

Thus, the environment is not simply “out there,” nor is it merely constructed by an isolated subject. It is the result of an ongoing interaction between organism and world, where each discloses the other. The organism is a center of activity within the environment, and the environment is the extended expression of that activity. In this way, conception is not confined to the mind, but is a fundamental feature of how reality organizes itself across different scales.[7]

Footnotes

[1] Distinguishes between subjectivity and localization of consciousness.

[2] This aligns with relational and ecological views of perception.

[3] Microorganisms exhibit adaptive and responsive behaviors.

[4] Bacteriophages are viruses with mechanical-looking structures used to infect bacteria.

[5] Suggests a nested or hierarchical structure of environments.

[6] Resonates with systems theory and process philosophy (e.g., Alfred North Whitehead).

[7] Implies a broader conception of “mind” or relational awareness in nature.

The environment is either inside, as part of a living organism, and therefore in this way it is indivisible from it, or, within larger environments, there are always smaller organisms contained within them. This means that the distinction between organism and environment is not absolute, but related to the level at which we observe. What appears as an external environment at one scale becomes an internal structure at another.[1]

If we consider the organism from within, its internal systems—cells, tissues, and organs—form an environment for smaller living processes. For example, the human body contains vast populations of microorganisms that live, interact, and respond within it. For these microorganisms, the body is not an “organism” in the same way we understand it, but an environment—a world within which they operate.[2] Thus, what we call an organism is simultaneously an environment for other forms of life.

Conversely, from an external perspective, the organism itself exists within a larger environment—such as an ecosystem, a planet, or even the cosmos. In this sense, the organism is not separate from its surroundings, but embedded within a broader network of relations. Each level of environment contains organisms, and each organism contains environments. This nested structure suggests that reality is composed of interlocking layers rather than isolated units.[3]

This insight challenges the common assumption that the environment is something external and prior to the organism. Instead, the environment and organism co-define each other. The organism shapes its environment through its activity, while the environment shapes the organism through conditions and constraints. Neither exists independently in a complete sense; each is a moment within a larger relational process.[4]

At smaller scales, this becomes even more apparent. Within cells, molecular interactions create micro-environments that regulate processes such as metabolism and replication. Even entities like viruses, which exist at the boundary of life, operate within and transform these environments. They do not simply exist in an environment; they modify and recreate it through their interactions.[5]

At larger scales, ecosystems function in a similar way. Forests, oceans, and climates are not passive backgrounds but dynamic systems shaped by the organisms within them. The environment, therefore, is not a static container but an active process that emerges from the interplay of its components. This perspective aligns with process-oriented philosophies, such as that of Alfred North Whitehead, where reality is understood as a web of interrelated events rather than fixed substances.[6]

Ultimately, the idea that the environment is either internal to the organism or composed of organisms at smaller scales reveals a fundamental continuity in nature. There is no absolute boundary where organism ends and environment begins. Instead, there is a continuous transition across levels, where each part is both a whole in itself and a component of a larger whole. This recursive structure suggests that reality is organized through relations that repeat and transform across different scales.[7]

Footnotes

[1] The distinction between organism and environment depends on scale and perspective.

[2] The human microbiome is an example of organisms living within an organism as their environment.

[3] Reflects a nested or hierarchical model of reality.

[4] Organism and environment are mutually constitutive.

[5] Viruses alter cellular environments as part of replication.

[6] Whitehead’s process philosophy emphasizes relational becoming.

[7] Suggests a fractal-like or recursive structure of nature.

The following question arises from the proposition that the environment is part of the organism, and not vice versa: how do we account for the fact that organisms are differentiated into individual members of a species? Our empirical observations portray the environment as consisting of seemingly disembodied members of the same species. However, there is no scientific conceptualization of an organism as something purely individual without reference to a species. For example, one does not speak of a “monkey” without implicitly referring to a species—chimpanzee, gorilla, and so on.[1]

Distinct organisms in the environment are only individual insofar as they express possible logical relations that constitute the idea of the species as a conception of reason. The environment, therefore, is not the conception of the individual as a mere member of a species. Rather, the species is the idea that operates within the individual, through which the environment is conceived as a field of possible relations for its actualization.[2]

In other words, the individual perceives in its environment other individuals comprising the same species, and these are understood through the same relational structures that govern its own activity. The environment is not simply a collection of unrelated objects, but a structured field in which the individual recognizes patterns of behavior, interaction, and purpose that correspond to its own mode of being.[3]

At the same time, the environment, insofar as it differs from the individual, directs the course of the individual toward purposes that appear external to it. The individual is physically bounded by the effects of the environment on its psyche and behavior. For example, if I walk face-first into a wall, the pain I experience is not merely a passive sensation, but a redirection of my activity—it compels me to alter my movement toward another direction.[4]

Thus, the environment functions both as a field of recognition (where the individual encounters forms analogous to itself) and as a field of constraint (where the individual is directed beyond itself). These two aspects are not opposed, but complementary: they together shape the development and expression of the individual within the species.[5]

Individual members, therefore, do not possess a conception of the environment as unrelated to the function of the species. Their perception and activity are already structured by the species-form, which determines how the environment is interpreted and engaged. In this sense, the species is not merely a classification imposed from outside, but an active principle that organizes both the individual and its environment.[6]

Footnotes

[1] Biological classification always situates organisms within species; individuality is understood within this framework.

[2] This reflects a philosophical view where species functions as a universal or form (cf. Aristotle).

[3] Organisms recognize and respond to patterns relevant to their survival and reproduction.

[4] The environment constrains and redirects behavior through physical interaction.

[5] Recognition and constraint together structure organism–environment relations.

[6] The species can be understood as an organizing principle rather than merely a taxonomic category.

The quality of economics is likewise the same as the nature of quality itself. Quality concerns the nature of relations and activity. The activities governing the mechanics of an economy concern the relation between the living organism and its appropriation of the resources of its environment.[1] The environment, for the organism, is a resource depending on the way the organism relates to it. Thus, economy in its most basic sense is not merely about money or exchange, but about the organization of relations between activity and resources.

Human economy is a higher-ordered form of life-economy in general. The fundamental principle of economy, broadly understood, is that non-material values govern material production. This idea is reflected in the work of John Maynard Keynes, who emphasized expectations, confidence, and psychological factors as central to economic activity.[2] This argument is also akin, in some respects, to what is often associated with the principle of Communism, where social relations and collective organization determine production.

However, this principle is more fundamental than any particular political system, because it concerns the effect of mental capacities on the production of the environment itself. The idea that the environment is a conception of the organism is here expressed economically: productivity and creativity arise from the rational faculty, which shapes and reorganizes material conditions.[3]

There is, however, an important distinction between the concept of communism and its historical implementations. Many reject the former because of the latter, often for pragmatic reasons, fearing that society may descend into chaos. This view assumes that systems of governance have more control over the direction of human development than they actually do. It overlooks the deeper principle that economic order emerges from the structure of human relations and capacities, not merely from imposed systems.[4]

Supply, Demand, and the Whole

The idea that supply equals demand can be understood not only as a technical economic principle, but as a relational one. Like ants, organisms derive from the whole and distribute as parts. One gains more value (or money) by taking an additional step in mediating between the whole and its parts—by transforming raw relations into more complex ones.[5] Each part belongs to the same whole, and economic activity consists in reorganizing these relations.

Producers, for example, take raw materials and transform them into artificial commodities with use-values. Factories are expressions of this process: they convert natural resources into structured goods that serve particular functions.[6] The value generated is not merely in the material itself, but in the relational transformation applied to it.

Non-Material Value and Emerging Systems

New forms of economy, such as Cryptocurrency, attempt to assign quantitative measures to non-material activities. In principle, such systems could make explicit which individuals are more effective in their activities by tracking contributions that are otherwise intangible.[7] This reflects a broader shift toward recognizing that value is not only material but also informational, relational, and cognitive.

From this perspective, the evolution of the economy involves creating a scheme of production in which individuals are differentiated by their capacities. Ideally, those who perform their roles most effectively—doctors, lawyers, thinkers, cooks—would continue to function within the system, while those less capable would be excluded or redirected.[8] However, this raises ethical and practical concerns about reductionism, inequality, and the definition of “value” itself.

The Individual and the Division of Activity

The idea of the universally developed individual, as discussed by Karl Marx, is derived from the notion of the “world-historical individual”—a person who embodies and advances the development of an era.[9] One might ask: what would it be like if an entire society consisted of such individuals?

The difficulty with this idea is that it assumes a single individual can perform multiple activities simultaneously at a high level. In practice, however, before such universality can be realized, different activities are more effectively carried out by different individuals. Specialization allows each function to be performed at its maximum potential.[10]

Thus, the development of the economy may not lie in making each individual universally capable in all domains, but in organizing relations such that diverse capacities are integrated into a coherent whole. The “universal individual” may then emerge not as a single person, but as the collective structure of a society in which differentiated roles are harmonized.[11]

Footnotes

[1] Economy as organism–environment relation.

[2] Keynes emphasized expectations and psychology in economic systems.

[3] Connects economic production with cognitive and conceptual activity.

[4] Distinguishes theoretical principles from historical implementations.

[5] Division and redistribution of labor within a whole system.

[6] Classical economic view of production and use-value.

[7] Cryptocurrencies and digital systems attempt to quantify abstract value.

[8] Raises meritocratic and ethical questions.

[9] Marx’s idea of the fully developed individual.

[10] Division of labor increases efficiency and mastery.

[11] Society as a collective realization of universal capacity.

last updated 04.04.2026