Cosmology is a Conceptual Principle

The cosmological principle is one of those principles that we all agree to as true without exactly knowing how it is true or why it is true. In modern cosmology, it is commonly accepted as the assumption that the universe is uniform and isotropic on large scales. Yet this agreement often hides a deeper philosophical issue. If we were to examine the principle more carefully, we would realize that the most fundamental and first principle of cosmology, the study of the universe, is not merely a physical claim but actually a rational principle.

What this means is that the cosmological principle is logically related to the faculty of reason itself. It is not only a statement about objects in space but about the relation between the object and the subject. In this case, the object is the universe and the subject is the observer who discloses the universe through observation. The principle therefore expresses an indivisible relation between the phenomenon observed and the observer observing it. Without this relation the idea of a uniform universe would not even arise, because the concept of uniformity itself presupposes a standpoint from which such uniformity can be conceived.

In the relation between the phenomenon, the object, and the observer, we therefore encounter a dynamic between the universal and the particular. The universe extends infinitely outward in magnitude and infinitely inward toward infinitesimal scales. Yet the idea of these magnitudes is always mediated by a center point, which is the observer. From the standpoint of observation, the universe appears as an infinite extension radiating outward in all directions from a particular vantage point.

This idea can be compared to what was historically attributed to Aristotle and later interpreted in cosmological thinking. In early interpretations of the cosmos, the vantage point of observation was assumed to be fixed on the Earth. From that standpoint the heavens appeared as a surrounding sphere. Later thinkers misunderstood this relation and treated the center as an absolute physical location rather than as a logical relation between observer and observed. In doing so they misused the deeper philosophical implications of Aristotle’s cosmological ideas.

When the observer looks outward from a given point, the field of observation expands in every direction. The field of vision extends around the observer in a full circumference. If we imagine this as a sphere of perception, the observer stands at its center, while the circumference represents the potential field of all possible directions in which the universe can be conceived.

From the vantage point of the observer standing on Earth, the field of perception appears as a surrounding horizon extending in all directions. The sphere of possible observation forms a complete circumference around the observer. Although the human eye does not see all directions at once, the conceptual field of vision can be imagined as a full circular or spherical range of possible perception.

This means that from the observer’s position a circumference of possible observation extends outward indefinitely. The universe appears as an infinitely extended field of potential forms and relations that the observer can conceive. Yet this entire field originates from a single point of perspective.

However, the deeper implication of this idea is that any point on the circumference can itself become a center. If an observer were located at another point in space, that location would equally function as the center of its own field of observation. In other words, every point in the universe can potentially become the center of its own observational field.

This is precisely the deeper meaning of the cosmological principle: that the universe has no privileged center, because every point can function as a center relative to an observer. The centre is therefore not a fixed physical location but a logical relation between observation and the observed universe.

Thus the cosmological principle is not simply a statement about physical distribution of matter in space. At its most fundamental level, it expresses a rational relation between consciousness and the universe, between the observer and the infinite extension of reality that the observer attempts to understand.

This is why the cosmological principle can alone be used to navigate through space. The centre point then becomes the vantage point, or the area of space you want to get to or arrive at from your own position. Therefore the center is not just the position you occupy during the present moment, not only the position you are at right now, but also the potential position where you will be or arrive at is also a center point.

Therefore your relation is between the point you are occupying during the present and the position you will occupy in the future as that present moment. To navigate toward other areas of space requires that a certain point on the circumference is viewed as a center place of arrival. The arrival point therefore is an extension between going from one place to another.

This is not merely a change in locomotion or a simple motion of positional change, but also a continuous process throughout time and space. Every point becomes imprinted in a traced sequence as going from past to future. It is not simply that it takes time to arrive somewhere and therefore one must wait or traverse through a set of points.

In another sense, it does not actually have to move necessarily, but only allow the spacetime around its circumference to pass by. In the extension of size or magnitude, that which cannot be infinite must be a finite point, while the infinite extension of spacetime around you itself passes by. This occurs either by aging or by allowing time to traverse forward.

Therefore the point in the middle, not affected by this speeding up or changing of time, appears to traverse toward another point in time. Although it remains in the same position, the same position itself is no longer the same. The present position is changed as an event, and therefore the location is also changed.

Now, as to how well we can determine this point toward an actualized realization of the present moment, emerging from the past into the future, this still remains unknown.

The cosmological principle is much deeper than it sounds. It states that the “center” on a sphere can be anywhere from which the point is determined. Meaning that when viewed on a sufficiently large scale, the properties of the universe are the same for all observers. In other words, the conception of the universe at the broadest level is isotropic, such that the conception of the universe becomes one and the same observation for any observer.¹

The cosmological principle does not provide the quantitative measure of the center of the universe in the sense of the relative position of bodies to each other. If the universe were taken as a plane, a central body might be quantitatively evident, because positions could be measured relative to it. But the cosmological principle does not concern itself with this type of measurement. Instead, it provides the qualitative measure of observing the universe.

In other terms, the cosmological principle can be understood as describing the form of observation itself. The principle reveals something about the structure of consciousness built into the very object that is observed. The universe appears uniform because the act of observation itself situates the observer at a center of reference. Thus the principle indirectly reveals that the observer is always placed at a conceptual center relative to the observable universe.

In this way, the cosmological principle informs us about the true form of the universe. It does not simply describe how matter is distributed but describes how the universe appears when observed from any possible position. The observer becomes the constant point of reference, not in the sense of a fixed physical location, but in the sense of a universal standpoint from which the universe becomes intelligible.

Modern cosmology also proposes that the total energy of the universe is constant, meaning that although energy may transform between different forms—such as matter, radiation, or gravitational energy—the total quantity remains conserved.² This idea reinforces the sense that the universe operates according to underlying principles that remain stable despite the changing forms of physical events.

The abstract principle behind these ideas can be stated simply: the particular is the point encompassing the magnitude of the universal. The individual observer, or particular point of observation, contains within its conception the structure of the whole universe. From this standpoint, the end determines the means. The mind first knows something in a general way, and then it proceeds to prove it through investigation.

The proof therefore works toward the truth that was first conceived in a general form. This means that the truth exists as the most general principle, while every particular instance represents the internalization or manifestation of that principle. Each observation reflects the universal structure that underlies it.

The concrete principle, however, states that the predicate is fundamental to what follows in their total relation. That is, the qualities or determinations that define something become the basis for further developments and relations. In this sense, the particular carries within it the conditions for understanding the universal.

This raises an important philosophical question: does this contradict the idea of final causation described by Aristotle?³ Final causation states that things develop according to an end or purpose toward which they move. If the universal lies within the particular, it may appear that the end is already present in the beginning.

Yet this does not necessarily produce a contradiction. Rather, it suggests that the universal and the particular exist in a reciprocal relation. The universal provides the general form or end toward which things move, while the particular embodies that universal in concrete existence. The universal therefore becomes visible only through the particular, and the particular becomes intelligible only through the universal.

Thus the cosmological principle, when interpreted philosophically, reveals not only a scientific statement about the universe but also a deeper insight into the relation between consciousness, observation, and the structure of reality itself.

Footnotes

Final Cause – One of Aristotle’s four causes; it refers to the purpose or end toward which something develops.

Cosmological Principle – A foundational assumption in cosmology stating that on sufficiently large scales the universe is homogeneous and isotropic, meaning it appears the same in all directions and from all locations.

Conservation of Energy – A fundamental law of physics stating that the total energy in an isolated system remains constant, although it may change forms.

The Smallest Are the Most General

The smallest are the most general.

This means that whatever concepts we take to be the most abstract are actually the general operations of the particular. In other words, the particular object is the operation or manifestation of its abstract principles.

For example, if we take the biological function of a nerve, we see that a nerve is present inside a human individual body and that it transmits impulses of sensation to the brain. We might say that without the individual body, how can there be nerves? The question then arises: how is the nerve more fundamental than the animal that contains it?

Quantitatively, the nerve and the body presuppose each other. Even the nerve itself is a fiber body that transmits information. Yet the function of the nerve is more fundamental than the individual body that contains it. The function of transmitting information to some computing source is, at a deeper level, how the individual body itself operates. The organism depends upon the transmission of information in order to coordinate movement, sensation, and cognition.

For the mind, therefore, the nerve appears more general than the individual body, because the principle of information transmission is what makes the organism capable of functioning as a unified system. In this sense the nerve represents a more abstract principle, while the individual body is a concrete expression of that principle.

Internal Relations

Internal relations, in turn, represent the internalizing process. This process operates as the principle of taking turns in logical development. It is the alteration and mediation of negation within logical contradiction.

To mediate means to take something as a beginning and move onward to a second thing, such that reaching the second thing depends upon something else that distinguishes itself from the first.¹ Mediation therefore involves a transition in which one concept leads to another through difference.

Internal relation is therefore the activity of generation. It is the process through which concepts develop from one another by means of contradiction and transformation.

This process can also be understood as an inward movement of particularization. The evolution of consciousness becomes increasingly internal with each stage of its development.

At the earliest stage, the object only portrays a particular logical structure of thought, and therefore its external and internal aspects appear almost the same. Consciousness does not yet distinguish clearly between the object and the structure of thought through which the object is known.

As consciousness develops and objects begin to particularize and contradict each other, they become external to one another. At the same time, an internal relation arises between them that maintains their connection.

As self-consciousness develops further, the object that was once external to another object begins to develop internally within itself a complex of relations that mirror those external relations. In this way, relations that once existed between separate objects become internalized within the structure of a single object.

Thus an external object becomes an internal relation for a source of external relations. The object contains within itself the relations that previously existed outside it.

Internal and External Development

In contradiction, inverse principles appear unlike external relations, which represent the expanding process of the universe. External relations describe how objects extend outward and interact with other objects.

Internal relations, however, explain the abstract principle underlying this expansion. They show that the qualitative difference of a concept determines its fundamental place in the universe.

In the abstract principle, what we take to be the most abstract and infinitesimal concepts in the world actually constitute the broadest structures of the universe. The smallest principles become the most universal because they govern the functioning of all larger systems.

This idea appears clearly in modern physics. Quantum properties, which are often said to be the most microscopic or “smallest” elements in the world, actually determine the most general structures of the universe.² The behavior of particles at quantum scales governs the formation of atoms, molecules, stars, and galaxies.

Thus the smallest elements produce the largest structures.

In this respect, the idea of size becomes confusing. In the abstract sense, small and large are not absolute principles in the way we might think when observing physical objects such as stars or planets. What appears large in physical magnitude may depend upon principles that are extremely small in scale.

The relative extent of something in the abstract is governed not by its physical size but by the fundamental role that its function plays. The more universal a function is, the more general it becomes in determining the structure of reality.

Thus the smallest principles are often the most general, because they operate at the foundation of all larger forms of existence.

Footnotes

Quantum Properties – The behaviours of matter and energy at extremely small scales, studied in Quantum Mechanics, where particles exhibit probabilistic and wave-like characteristics that influence larger physical structures.

Mediation – A central concept in the philosophy of Georg Wilhelm Friedrich Hegel, referring to the process through which concepts develop through relations and contradictions.

The Law of Mind, developed by Charles Sanders Peirce, states that ideas spread continuously, affecting related ideas. As they spread, they gradually lose intensity while gaining generality and association. This principle is rooted in Peirce’s doctrine of synechism, the view that continuity is the fundamental condition of reality.¹ According to this doctrine, mental action does not occur as isolated events but as a continuous process in which ideas influence and develop out of one another across time.

If we see the mind as an element in nature, belonging to nature rather than existing outside it, then mind must participate in the same processes that govern natural phenomena. In this sense, mind is part of time. In another sense, mind actually determines time, because time becomes meaningful only through the development and succession of ideas. The spread of ideas across time is therefore not merely a subjective process but reflects a deeper structure in which thought and temporal succession are intertwined.

In this framework, the way ideas spread across time resembles a field of distribution of potential moments. Each idea connects with others, forming a spectrum or wavelength of possibilities that extend outward from the present moment. These possibilities do not exist as isolated points but as a continuous range of potential developments, much like a wave spreading through space.

Within this spectrum of possible developments, different pathways of realization appear. Each observer encounters this field of possibilities and determines, through their own perception and reasoning, which moment becomes the present moment of their life. The present therefore emerges from a continuous field of potential moments, where the mind selects and actualizes one path among many possibilities.

From this perspective, the present moment is not simply a fixed point in time but the actualization of a possibility within a continuum. Ideas spread, influence one another, and gradually develop into more general forms of thought. As they lose their immediate intensity, they gain wider connections and broader significance. In this way the development of ideas mirrors the structure of time itself: a continuous unfolding in which the present arises from the mediation of past possibilities and future potentials.

Seen in this way, the Law of Mind suggests that space and time themselves may reflect the same principle of continuity that governs thought. Just as ideas spread and interconnect, events in space and time form a continuous field of relations. The observer, situated within this field, experiences the present moment as the point where the ongoing development of possibilities becomes an actual event.

Footnotes

Synechism – A philosophical principle proposed by Charles Sanders Peirce asserting that continuity is fundamental to reality, meaning that mind, matter, and processes in nature are connected through continuous relations rather than isolated substances.

We usually come to understand one basic structure of the world in relation to another basic structure. This is a feature of our understanding: we understand one part of the world by comparing it with another part. Although necessary, this function of the understanding can produce confused notions of the world if it is not checked by reason. Every fact about the world must therefore pass through the question: is the fact actually the way the world is, or are we seeing the world in that particular manner? This distinction becomes antithetical only if it is not properly reconciled.

When we try to understand one basic part of the world by looking at another, we automatically commit the error of consciousness bias produced by the object. This occurs when consciousness takes on the identity of one part of the world and sees the other part through that identity. When we conceive the atom as the most basic unit of matter, we begin from the macroscopic position we embody, and we look into the state of matter generally. From there we abstract the most basic possible form of relations and call that the most basic unit.

In this way, the notion of the infinitesimal is often defined as the “externally small,” or the smallest state, because we abstract from matter the most basic relations and represent that as the smallest unit. This definition of the infinitesimal is only partially true. The idea that an atom is small is only true because it is an abstraction from the total qualities of matter.

When we define the atom as the smallest unit, what we are really doing is abstracting the nature of matter into qualities. This allows atoms of different kinds to be categorized—hydrogen, helium, and so on. However, from the perspective of reason universally, there is a developmental accumulation in the qualities of matter.

If one asks, how many atoms are in the universe? the answer would surely be uncountable, or at least extraordinarily large. Scientists often estimate that the observable universe contains roughly (10^{80}) atoms.¹ In this sense, the atom as a totality constitutes the largest unit of matter when understood in terms of numerical quantity.

From the same scale in which we define the atom as the smallest unit, recognizing that it is also the most numerous likewise tells us that it is the largest aggregate structure of the universe. The total number of atoms constitutes the greatest quantity in the world, even if each individual atom is small.

The quantitative nature of the atom, however, allows us to understand something very peculiar about the way mind works in the universal sense. For the mind, the atom is the smallest unit not because of its size, but because it represents the most general function.

What we take to be the smallest unit is the most general function for mind. What we take to be the most general—like cells—is the most specific for mind.

Consider the sequence: atom, molecule, cell. From our infinitesimal standard this appears as smallest to largest. We identify the distinction between them based on their size. Yet the correlation between size (quantity) and structure (quality) is often overlooked.

If we take size alone to understand the infinitesimal, then saying the atom is the smallest unit becomes misleading. In aggregation the atom becomes the largest structure in terms of quantity, while the cell becomes comparatively smaller in number.

The infinitesimal must therefore be understood through its qualitative properties. What we see in this sequence is a developmental advancement: in each stage, reason particularizes a universal form. The atom, being the most general, is particularized into the molecule, and the molecule into the cell.

Charles Sanders Peirce proposes the Law of Mind to explain the way time operates as a function of mind. According to this view, ideas spread and influence each other continuously.² Mind can therefore be understood as the future of matter, while matter is the past of mind. The idea in the mind represents the future form, while its materialization represents the process of its past—its actualization. The present moment is simply this process taking place.

If the Law of Mind is true for time, it may also be true for space. When mind zooms into matter microscopically, matter for mind becomes macroscopic; the more mind goes inward, the more matter seems to expand outward. Conversely, when mind zooms outward macroscopically, matter becomes microscopic for mind.

This relation illustrates some very strange notions about reality that may appear uncomfortable to common sense. For example, what we take to be a cell—the smallest unit of a living organism—may also be seen as the largest unit of the living organism when viewed from another conceptual scale.

What we take to be microscopic, that our bodies contain cells, could also be interpreted in the opposite direction: that cells contain our bodies. This idea is not merely metaphorical but attempts to express a reversal in perspective. What we take to be our body holding cells could equally be understood as a cell existing within a larger body.

In this sense, the whole of nature could be described as a cell-like structure, where the universe itself functions as a body and we are cells within it. Nature becomes the organism, and we become the living units that compose it.

Thus we can say that we are in the womb of nature, much like a baby is in the womb of its mother. We are bodies that exist within a larger organ of nature itself.

After cells come organs, and after organs come organisms. How then can we say that organisms are particularizations of cells? In this view, organisms represent the ideas of cells, or the qualitative form that emerges from the quantitative accumulation of cells.

Cells function as quantity, while organisms represent the quality that arises from that quantity. Cells combine together into the forms of their ideal structures. Cells pixelate together to form organs, much like pixels combine to form an image.

Another way of seeing cells is through the structures they form. What they form is at the same time the cell itself. A skin cell is skin. The individual cell and the structure it forms are therefore not entirely separate, but expressions of the same underlying organization.

Footnotes

Law of Mind – A concept developed by Charles Sanders Peirce stating that ideas spread continuously and influence one another, gradually becoming more general while losing individual intensity. This idea is tied to Peirce’s doctrine of continuity, known as synechism.

Atoms in the Universe – Cosmological estimates suggest the observable universe contains roughly (10^{80}) atoms, derived from measurements of baryonic matter distribution.

Chip

The idea that a method is used to bring about knowledge that is independently true is somewhat difficult as an abstraction. This is because, in one sense, we see in daily experience that an instrument plays a necessary part in producing a result that later becomes independent on its own.

For example, a computer chip is a circuit of small transistors that process “information.” To process information in this sense means to transport information by altering its physical composition through the addition of a unique common denominator that can be communicated to and apprehended by another source.

With most common forms of exchange, there is the physical action of an object being transported between two spatial positions. In the realm of technological exchange, however, electric currents within computer chips are the physical medium that facilitates this exchange.¹ This process is not directly observable in the same way as, for example, one person throwing a banana to another person.

We use computers and constantly exchange information, but we do not see the actual exchange happening. We only see the result that is received or transferred, such as a picture or a text message. The exchange is nonetheless still a physical process. In other words, some form of conception is being transferred from one position to another.

The difference is that the object being transferred is not moved positionally but is rather replicated. Replication is a form of motion at the microscopic level.

Micro and Macro Abstraction

The development of computers is one of the greatest technological achievements in human history because it enables the exchange of objects at the micro level. Objects at micro levels are more abstract than objects at the macro level, which are perceivable and touchable.

This may, however, be a relative conception. For example, you cannot touch a rock in a picture; you can only see it, whereas a real rock is both touchable and visible. Yet both involve matter occupying space and time, and this is the most general standard of what it means to be physical.

How Computers Transfer Information

The way a technology like a computer makes a transfer is as follows: there is a capability, such as a camera or a program like a word file, which allows a specific conception from reality—either an image or a thought—to be abstracted in a universally communicable manner.

This conception, such as an image captured by a camera, is stored in the computer’s hard drive.

The information is transferred using code called “encryption,” which assigns distinct codes such as 0 and 1 to pieces of information like images or documents.² We know that code is used to move information from one chip to another. These languages include programming systems such as C++, BASIC, and C.

A computer chip—also called an integrated circuit—contains many transistors that make up a processor.³ There can be millions, even billions, of transistors on a single chip. These transistors represent possible routes of action.

Code is the abstract side corresponding to these transistors, which are its physical side. It is not simply that one code corresponds to one image. Rather, code is a sequence of distinct numbers, where each variable corresponds to a distinguishable part of a single conception.

For example, a picture is made up of pixels.

Pixels and Resolution

The word “pixel” means a “picture element.” Pixels are the smallest units of information that make up an image. They are typically arranged in a two-dimensional grid.

These pixels are organized in such a way that they capture each conceivable part of an object; they are an abstraction of a moment. The more pixels there are, the more the image resembles the original object.

The number of pixels in an image is called the resolution, which defines the quality of the image. The term “resolution” implies a generality: a series of components arranged in a specific order, sharing a common connection, whose result is the complete image.

Each pixel is assigned a unique code, or rather, the image is embedded within these codes for transfer.

Megabytes as Substratum

Images and all forms of digital information occupy megabytes, which represent the “space” or “matter” of the digital realm. Megabytes function as a kind of substratum for digital information.

We are accustomed to thinking of substratum as ordinary matter—something with weight and tangibility. However, tangibility is not the ultimate measure of substratum. Even matter at the molecular level is not directly felt but is understood through rational structure.

Similarly, megabytes function as substratum because they exhibit a mathematical order. A megabyte is approximately 1,000,000 bytes (or 1,048,576 bytes in binary measurement).⁴

This reflects the principle of derivation: that from a single identifiable unit, an infinite number of structures can be generated.

Conception and Generation

What we learn from this principle is that one identifiable conception can give rise to an indefinite number of derived forms. From one, many can emerge.

We often say that things do not come “out of thin air,” implying that their source must be known. Yet in another sense, the act of conception itself necessitates existence. Once something is conceived, it becomes a standard from which other things are derived.

However, once a product exists before us, we no longer describe it as coming from nowhere. We instead trace it to causes—atoms, materials, origins. Yet this can be misleading. To say that a megabyte causes an image is incorrect; rather, the image consists of megabytes.

The image is a conception in itself, but it is expressed through many distinct elements: megabytes, hardware, and the original object it represents.

Electricity and Transmission

The quality of this information—such as an image—is transported using numbers and electricity, which are more abstract and less dense than the objects they represent.

Just as air, a light substance, can carry leaves and move heavier objects, electric currents can transport microscopic structures of information. At even the atomic level, electrons facilitate interactions between particles.⁵

The important point is that there is a feature in reality where an instrument transports a result that becomes distinct from the instrument itself.

Wavelength and Particle

When an image or document is transferred between devices, it is not moved like an object in a river. Instead, it is replicated through a continuous process.

The object becomes extended into a kind of wavelength, a derivative form that allows it to exist across systems. This continuity constitutes the relation between two distinct systems.

Electric current carries the object in this extended state, and when it reaches another system, it appears again in its particle state—as a discrete image on a screen.

We do not see the image as stretched or continuous; we see it as a finished object, because the system processes it into a stable form.

Each pixel or letter is assigned a part of the code. For example, a word like “back” can be represented through numerical distinctions. These numbers serve only to distinguish parts so they can be transported and reconstructed.

Quantum Extension

Modern developments such as quantum computing introduce the concept of the qubit, which incorporates uncertainty into computation.⁶ This allows systems to process multiple possibilities simultaneously, increasing computational capacity.

A hammer brings about a house, yet the hammer and the house are entirely different objects. What connects them is the human being who uses them. The human being is the unifying element that relates method and result.

What we take as separate variables presupposes a relation that is often ignored. The human agent is where method and knowledge derive and become unified.

Organism and Idea

The giraffe is the idea of its cells.

To us, development appears as a progression from smallest to largest. In reality, it is a progression from the most general to the most particular.

Cells combine into organs, organs into organisms. Yet organisms are the ideas of cells, the qualitative expression of quantitative elements.

Cells act as quantity, while organisms represent quality. Cells “pixelate” together to form organs, just as pixels form images.

The present state of mind is the idea of itself.

Footnotes

Qubit – The basic unit of quantum information, capable of representing multiple states simultaneously due to superposition.

Electric Current – The flow of electric charge (usually electrons) through a conductor, forming the basis of all electronic communication.

Binary Code – A system using 0s and 1s to represent data in computing.

Integrated Circuit – A semiconductor device containing many transistors, fundamental to modern electronics.

Megabyte – A unit of digital information equal to about 1,000,000 bytes (or 2²⁰ bytes in binary systems).

Electron Interaction – In atomic physics, electrons mediate electromagnetic interactions between charged particles.

What does the cosmological principle ultimately tell us?

The cosmological principle does not only have the pragmatic effects of interstellar space travel or navigation within outer space. As we stated earlier, the cosmological principle is a guide into how we can travel in space. But traveling in outer space is not like traveling on land on Earth.

When we traverse landscapes on Earth, we measure distance in kilometres, which is a spatial extension. We do not take into account the time difference of that travel, because the distance is relatively insignificant. When I travel for 2 hours and arrive at my destination, we do not consider the fact that I aged 2 hours in order to get there, because this passage of time is insignificant. We do not say that we underwent change, even though on a microscopic level we have changed.

However, in outer space, the difference in space on interstellar scales equates to significant differences in time—differences that surpass any human lifetime. Therefore, travel in space cannot be understood only in terms of space, but must also be understood in terms of time. This means that we must either alter the time the observer is in, or keep the observer’s time constant while accelerating the time around them. In this way, we can increase the effective speed of the object, either by moving faster through space or by altering the temporal conditions around it.

In either scenario, the cosmological principle states that any point on the surface of a circumference of a sphere can be taken as the center point. This means that any point the observer occupies in the present becomes the center point for that observer. Because the center point is always derived from the point of view of the observer, we cannot truly say that there is an objective center point that exists independently of any observer.

Modern science often makes the objective claim that centers in the universe are regions of greatest density, where the heaviest objects occupy the center and lighter ones are positioned farther away. This reflects older ideas, where what goes up is lighter and what falls toward the Earth is heavier. However, even these scales are abstractions from the totality of the universe and do not necessarily provide a fully comprehensive view.

As we stated earlier, according to Newton’s idea of general gravitation, all objects in space tend toward one another, suggesting that they would eventually occupy the same area of space. This would imply that the universe is finite in the sense of forming a determinate mass. However, within this mass arises the problem of infinity, which challenges this idea.

There are always objects within objects—microscopic structures—and always objects beyond objects—macroscopic structures. Whenever we identify the largest star, there appears to be an even larger one. At some point, we encounter supermassive black holes, which may be the largest structures we know. It is even possible that we exist within a larger structure, such as a black hole, without realizing it.

These ideas together suggest that the world presents itself as a finite mass, where smaller and lighter objects are attracted to greater and heavier ones, forming a unified system. Yet within this finite appearance, the universe is also infinite in another sense. It can combine and configure itself into an indefinite number of possibilities, and its events form a field of infinite potential.

The universe therefore exhibits a system of infinite possibilities, all expressed through finite abstractions.

When we look at the nature of chips and transistors and how they transport information, this tells us something about the nature of the universe itself. The universe appears to have a kind of “grain,” like resolution. Physical objects are formed by atoms, much like pixels form an image. These atomic “units” constitute the content of the universe in a way analogous to how pixels constitute the content of a digital screen.

If we take the digital world as an analogy—or perhaps even as a real representation of deeper structures of reality—then travel is not simply the traversing of space from one location to another, like moving from the Earth to the Moon. Instead, travel may be better understood as an alteration of spacetime itself, similar to how pixels are altered to display different images on a screen. In computers, change does not occur by moving the image across a surface, but by reconfiguring the underlying elements that generate the image. In a similar way, movement in the universe may involve a transformation in the structure of spacetime rather than simple displacement within it.

From this perspective, to “travel” through space may require altering time itself. This leads to a paradox. If an event occurs such that we travel to a future time, then by the moment we arrive, that future event would already be completed or changed—it would no longer be the same future we intended to reach. The future we aimed for would have become the past by the time we arrived.

This creates a fundamental problem: how can one arrive at a future moment if that future, relative to the traveler, becomes a past upon arrival? This is a puzzling issue within spacetime physics. In order to arrive at a specific future time, it seems that we would have to already know or predict that time in advance. But to know it in advance would imply that the future is already determined.

This leads to two possibilities. Either time is predetermined, meaning that future states already exist in some form, or time is produced through the activity of observers and events themselves. If the future is predetermined, then travel to it would simply be movement within a fixed structure. If the future is not predetermined, then it must be generated in the process of its unfolding.

Modern physics, especially Quantum Mechanics, introduces an important idea here: the observer is not completely separate from the phenomenon being observed. Observation can affect the system. This suggests that reality is not entirely independent of the act of observation, but is in some sense co-determined by it.

This raises a deeper question: do we determine the future we are trying to arrive at through space travel?

A possible resolution is that the future is not a fixed point waiting to be reached, but a range of possibilities. When we “move” toward the future, we are not traveling to a pre-existing moment, but rather participating in the actualization of one possibility among many. In this sense, the future does not exist in a fully determined way prior to arrival; it becomes determined through the interaction between the observer and the conditions of reality.

Thus, space travel, understood at its deepest level, may not be about reaching a fixed destination in spacetime, but about navigating a field of potential realities. The act of observation, measurement, and interaction helps select which of these possibilities becomes actual.

In this way, the analogy with digital systems becomes clearer. Just as an image on a screen is not moved but re-rendered through underlying code, the universe may not “move” objects through space in the way we imagine, but instead continuously reconfigures states of reality. What we experience as motion and time may be the unfolding of these successive configurations.

Therefore, the paradox is resolved not by assuming a fixed future that we must reach, but by understanding that the future is generated in the very act of approaching it.

last updated 03.17.2026