Information: The Primordial “Stuff” of Reality

Can information be more fundamental than matter? In other words, is information the basic thing from which everything else (even physical stuff) is built? This might sound abstract, but we can explore it step by step using a Socratic method – asking simple questions that lead us to profound conclusions. Along the way, we’ll see that this isn’t just wordplay or philosophy; modern physics actually backs up the idea that bits of information underlie all existence. And don’t worry – we’ll keep things in plain language even as we touch on some key scientific concepts (with a few necessary technical points explained clearly).

Step 1: Recognizing That Something Exists

Question: “Can you deny that something exists?” – Try to answer this for yourself. If someone answers “Yes, I deny that anything exists,” we have a logical problem. Who is doing the denying? The very act of denial implies a denier – you exist to make the denial. In other words, you cannot meaningfully claim “nothing exists,” because the moment you do, you’ve proven that something (at least you, the thinker) definitely exists. This is a classic self-refuting idea. So our first fundamental point (let’s call it P0.1) is simply:

Something exists rather than nothing. (It might seem obvious, but it’s an essential starting axiom.)

If absolutely nothing existed, we wouldn’t be here to even ponder it. So existence is undeniable.

Step 2: Existence Implies Distinction

Now that we’ve established something exists, consider the next question:

Question: “Can something exist without being distinguishable from nothing?” – In other words, could there be an “existing something” that is exactly the same in every way as nothingness?

If you say “yes,” then ask yourself: How would that ‘something’ be any different from nothing at all? If it has no features, no differences, no way to tell it apart from nothingness, then effectively it is nothing. We realize that to exist means to stand out in some way, to have an identity or property that distinguishes it from non-existence.

This leads to P0.2: Existence requires distinction. Any existent thing must have at least one distinguishing feature that marks it as “something” rather than “nothing.” Philosophically, you might say to be is to be distinct.

An easy way to picture this: imagine a completely dark room. If literally nothing is in the room, you see pure black. Now imagine something is in the room – say, a faint glow or a single dot of light. Now it’s not “nothingness” anymore; it’s distinct. That point of light is a distinction from the dark. If it made no difference – emitted no light, had no size, no effect – then you wouldn’t ever know it’s there, and for all practical purposes it isn’t. So something that is truly indistinguishable from nothing might as well not exist. Thus, anything that exists must differ in some way (no matter how subtle) from nothingness.

Step 3: Distinction = Information

We’ve said existence requires a distinction. But what exactly is a “distinction”? Let’s break it down:

A distinction is basically a difference or a separation between two states. It could be the difference between being here or not being here, between one state and another state. If something exists, it has to differ from nothing; that difference is a distinction.

Now, in the language of information theory, the most basic unit of difference is a bit. A bit is defined as an answer to a yes-or-no question, a fundamental binary choice between two possibilities. In fact, “bit” was famously described as coming from “binary digit,” but you can also think of it as short for “a little bit of information.” A bit is literally the record of a distinction: yes vs. no, 1 vs. 0, something vs. nothing.

For example, if I have a coin that can be heads or tails, one coin toss gives one bit of information (heads or tails). If I ask, “Is there a light on in the room?” and you answer yes or no – that single yes/no (on/off) is one bit. As a physicist might put it, the basic unit of classical information is the bit, which is the answer to a yes-or-no question.

So any distinction – any way of carving out “this” separate from “that” – can be thought of in terms of information. Claude Shannon, the founder of information theory, showed that we can quantify information by how many yes/no distinctions are needed to describe something. This is measured in bits. For instance, if something has two equally likely states, you need 1 bit to specify its state (because you answer one yes/no question). If it has four equally likely states, you need 2 bits, and so on. The details aren’t crucial right now; what matters is that “distinction” isn’t just a vague idea – it can be made precise as information. As one science writer neatly put it, “Information is the resolution of uncertainty,” essentially the outcome of distinguishing one possibility from others.

Therefore, we arrive at P0.3: A distinction is information. Whenever you identify a difference, you have created or observed information. Even the simplest existence – “there is something rather than nothing” – is one bit of information (the answer to “Does anything exist?” is Yes).

This might seem like a leap, so let’s solidify it: John Archibald Wheeler, a renowned physicist, coined the phrase “It from bit” to capture this idea. He said every physical “it” (every particle, field, or anything) derives its function, meaning, and very existence entirely from binary choices, from bits. In Wheeler’s words: “all things physical are information-theoretic in origin”. That’s a fancy way of saying distinctions (bits) are at the bottom of everything – reality arises from yes/no informational building blocks.

So, if something exists, it’s distinct; if it’s distinct, that distinction can be viewed as information. Our everyday world is obviously made of a vast web of such distinctions and information (even a single atom has various properties that distinguish it from other things).

Step 4: Whatever Exists Is Intelligible (Knowable in Principle)

One more step: We often assume that if something exists, in principle it can be known or understood (at least in part). Let’s frame it as the next question in our Socratic chain:

Question: “Can something exist that is in principle completely unknowable and unintelligible?”

Suppose someone says “Yes, there’s something out there that exists but no one can ever know anything about it, not now, not ever, not even theoretically.” We then should ask: “If absolutely nothing about it can be known or observed, how do we even assert that it exists?” To say it exists means we’re at least claiming some knowledge (namely that it is there). If truly no information about a thing could ever be obtained by any means, it’s equivalent to it having no distinction, no impact, no evidence – which brings us back to the situation of being indistinguishable from nothing. It would be a purely speculative ghost with no footprint in reality.

This doesn’t mean we humans currently know about every existing thing, of course. It just means that whatever exists must be intelligible in principle, meaning it has some definable properties or law-like behaviors that could be discovered (by us or by any intelligence), at least in theory. This idea is sometimes phrased as “Whatever exists, is intelligible.” We’ll call that P0.4. It’s a philosophical axiom going back to the idea that the universe is orderly enough to be understood – an assumption that underlies all of science. (If things could exist that have no rhyme or reason even in principle, there’d be little point in searching for understanding.)

So, to recap our logic so far:

P0.1: Something exists rather than nothing. (Can’t deny existence – denying it affirms it.)
P0.2: Existence requires distinction. (If something exists, it must differ in some way from nonexistence or we couldn’t tell it’s there.)
P0.3: Distinction is information. (A difference is basically a bit of information – a yes/no that tells us something.)
P0.4: Whatever exists is intelligible (knowable in principle). (If something truly had no information and could never be known in any way, we’d have no grounds to say it exists.)

Conclusion from P0.1–P0.3: Information is ontologically primitive. That’s a fancy way to say information is a fundamental constituent of reality. You can’t have existence without distinctions, and distinctions are information – so you can’t have existence without information. Reality, at its most basic level, might be made of bits (differences, yes/no signals) just as much as it’s made of “stuff.”

In fact, some theorists argue that information is the stuff, and what we think of as “matter” or “energy” are forms that information takes. Wheeler again summed it up with a slogan: “It from Bit”, meaning every “it” (object) comes from bits (binary information). We’ll explore some scientific angles on this shortly.

Conclusion from P0.4: If everything that exists can be described by information (in principle), then the universe is ultimately something we can try to understand. There’s a logos (a rational structure) to reality – it isn’t sheer nonsense or chaos. This doesn’t mean we know everything; just that everything could be known or defined by some set of information.

Next, let’s look at how modern science supports this view that information is fundamental. You might be surprised how many scientific principles and discoveries tie into these simple “axioms” we reached.

Scientific Perspectives: “It from Bit” in Physics

The idea that information sits at the core of reality is not just abstract philosophy. Scientists and mathematicians have independently arrived at this viewpoint from different directions. Here are some key insights and discoveries:

Wheeler’s It from Bit – Physicist John Archibald Wheeler (who worked with Einstein and others) proposed that every physical thing (“it”) ultimately arises from binary choices (“bits”). In his words: “every it – every particle, every field of force, even the spacetime continuum itself – derives its function, its meaning, its very existence entirely […] from bits” – yes/no questions asked and answered. He even phrased it as “all things physical are information-theoretic in origin”, symbolized by the phrase “It from Bit.” This wasn’t idle speculation; Wheeler was pointing out how quantum physics seems to behave. In quantum experiments, what we call a “phenomenon” (like a photon being detected) only becomes real when it’s observed – essentially when a yes/no question is asked of nature. “No phenomenon is a real phenomenon until it is observed,” Wheeler said. Observation in physics is basically the acquisition of information. So at the quantum level, the existence of an event is intimately linked to an information-gathering act.
Shannon’s Information Theory – In 1948, Claude Shannon mathematically defined what information is. He showed that information can be quantified in bits, and he related it to the idea of entropy (uncertainty or disorder). Without diving into equations, one key takeaway is that information isn’t just a vague idea; it’s something you can measure and calculate. Shannon’s work laid the groundwork for our digital age (every text, image, or song on your computer is ultimately bits), but it also found surprising echoes in physics (for example, the concept of entropy in thermodynamics turned out to be closely related to Shannon’s information entropy). The link is so strong that in physics we often say entropy is missing information. If you know every detail (all information) about a system, its entropy is zero. If you lack information, entropy is higher. The main point: information is a real, quantitative aspect of the world, not just “semantics.” We can literally count bits of reality.
Landauer’s Principle: Information is Physical – Rolf Landauer was a physicist who worked for IBM, and in 1961 he made a profound point: when you erase a bit of information, it has a physical effect. Specifically, erasing one bit of information in a computing device will release a tiny amount of heat – at least kT·ln2 of energy (Boltzmann’s constant * temperature * ln2) to the environment. This is known as Landauer’s Principle, and it has been experimentally confirmed. In plain terms, Landauer famously said “information is physical”. A bit isn’t just an abstract 1 or 0 – if you flip a bit or erase a bit in a computer, something physically measurable happens (energy is dissipated). Conversely, to reliably store information, physical resources (energy, space) are needed. This principle bridges the gap between intangible information and tangible matter-energy. It tells us information can’t exist apart from a physical substrate – you need some physical system (electrons in a chip, magnetic domains on a disk, or the state of a photon, etc.) to hold that bit. So when we say information is fundamental, we’re not denying the physical world. In fact, it’s the opposite: we’re saying the physical world obeys information laws. Every information process has a physical cost, and every physical process can be understood in terms of information. Landauer’s insight also resolved a paradox in physics (Maxwell’s Demon paradox) by showing that gaining information can offset entropy, but erasing information increases entropy, preserving the Second Law of Thermodynamics.
Quantum Mechanics and the Observer Effect – Quantum physics has revealed that what we call “reality” at the microscopic level isn’t set in stone until it’s measured (observed). Before measurement, particles exist in superpositions – they have potential states. When measured, they “choose” an outcome. This act of measurement is essentially an act of gaining information. For example, in the famous double-slit experiment, a photon will create an interference pattern (wave-like behavior) if you don’t observe which slit it went through. But if you do measure (gain the information of which path it took), the interference pattern disappears and the photon behaves like a particle that went through one definite slit. Reality “chooses a state” when information is obtained. Wheeler’s delayed-choice experiment took this further: you can even choose to observe or not observe after the photon has passed the slits, and it’s as if the photon’s past behavior is determined retroactively based on whether information was acquired! Wheeler interpreted this very boldly: “The photon does not even really exist in a definite way until it is observed” – hence “no phenomenon is a phenomenon until it is observed.” This doesn’t mean our consciousness magically creates reality, but it does mean information (in the sense of physical measurement) is fundamental in making reality take shape at the quantum level. In short, the act of getting information (an observation) is central to how quantum events become real. The universe seems to be participatory – our questions (yes/no measurements) help produce the physical answers.
Bekenstein Bound and Black Hole Information – In the 1970s, physicist Jacob Bekenstein discovered something remarkable about black holes that ties physics to information theory. He found that the entropy (and thus information content) of a black hole is proportional not to its volume, but to the surface area of its horizon. This led to the Bekenstein Bound: for any physical system with a given energy and size, there’s an upper limit on how much information (or entropy) it can contain. In other words, you can only pack so many bits into a region of space. If you try to pack more, you’d exceed that energy or you’d form a black hole. The bound can be expressed as a formula, but qualitatively it implies that information is a key quantity in physics – even in extreme conditions like black holes. It suggests that spacetime and energy have information “storage limits.” One interpretation is: the maximum information needed to describe a physical system is finite if the system’s volume and energy are finite. So physical reality isn’t infinitely continuous at the tiniest scales; it seems to have an information-granularity. This was a huge hint that bits underlie physics. Bekenstein’s work laid groundwork for thinking of black holes (and possibly the universe) in terms of information.
Holographic Principle – Building on Bekenstein’s ideas, scientists like Gerard ’t Hooft and Leonard Susskind proposed the holographic principle. It suggests that all the information within a volume of space can be thought of as encoded on the boundary of that region (like a hologram encoding a 3D image on a 2D surface). For example, the information inside a black hole (which you might think of as a 3D interior) is somehow encoded on its 2D surface area (the event horizon). More wildly, in certain theoretical models of the universe, everything inside our 3D world could be described by information on a distant 2D boundary of the universe. In Sabine Hossenfelder’s plain words: “the information about any volume in our universe is encoded on the boundary of that volume.” This is a deep (and still not fully proven) concept from string theory and quantum gravity research. But again, note the emphasis: information is the currency here. The holographic principle basically says our usual idea of “stuff filling space” might be like a hologram image emerging from underlying information written on a surface. It blurs the line between what’s fundamentally real – is it the 3D “thing” or the information on the 2D boundary? Many physicists suspect that information might be the more fundamental description, with spacetime and matter emerging from it (rather than the other way around).
Digital Physics and the Computational Universe – Some scientists and mathematicians have pushed the information idea to its logical extreme: what if the universe is essentially a giant computer? Not a computer sitting in someone’s lab, of course, but a self-running computation. This view is often called digital physics or the computational universe hypothesis. As early as 1967, the German pioneer of computing Konrad Zuse suggested that “the universe itself was running on a cellular automaton or similar computational structure”, essentially that physics might be discrete computations ticking along. Later, physicist Ed Fredkin advocated a “digital philosophy” where the universe’s evolution is like a computer program executing step by step. Stephen Wolfram (known for Mathematica software and A New Kind of Science) also argued that simple computational rules (like cellular automata) could underlie the complexity we see in nature. In the 1980s, John Wheeler mused about the universe as a gigantic information processor. More recently, people like Seth Lloyd have entertained the idea that the universe is a quantum computer computing itself.

Now, these are speculative ideas and not yet verified by experiments. But they show a trend: many thinkers are exploring the possibility that “matter” is not the most fundamental thing – instead, bits and processing of bits (information) might generate what we call matter. For instance, if the universe is a cellular automaton, then space and particles are kind of like pixels in a computation. As the Reality Matters summary of digital physics explains: “below the quantum scale, the universe might be discrete and everything we perceive – space, time, matter, energy – are generated by a computational process. The fundamental components of our universe would then be data plus rules for processing that data.”. This doesn’t mean we live in The Matrix or someone’s video game per se; rather, it’s saying the deepest layer of reality might be bits flipping according to algorithmic rules. If true, that would mean information is not just describing the world – information is the world.

It’s important to note that digital physics is an ongoing research area. It hasn’t given us a final “Theory of Everything” yet. In fact, many mainstream physicists are cautiously interested but also a bit skeptical, because it’s hard to test these claims experimentally. Still, the fact that serious people even consider this shows how far we’ve come from the old view of matter as tiny solid billiard balls. Now it’s more common to think of a particle as something like an excitation of a field – essentially, information in a field. As one proponent (physicist Carlo Rovelli, a founder of loop quantum gravity) has said: “The world is not made of stones, it’s made of events” – and events are essentially interactions that convey information.

We’ve now built a picture that the physical world is deeply intertwined with information at all levels: from quantum experiments that depend on observation, to limits on information in physical systems, to theories that the universe is a kind of information processor.

But whenever a bold claim is made (“information is the core of everything”), it’s bound to face some push-back. Let’s address a few common objections or counterarguments one might raise, and see how to respond:

Addressing Common Objections

“This is just wordplay or semantics – you’re just redefining ‘information’ to make your point.”
Response: It’s not just wordplay. The concept of information is rigorously defined in math and physics. Claude Shannon gave us a precise way to measure information in 1948. We can calculate information in bits and use it to predict outcomes, compress data, etc. Shannon’s formula for information (often related to entropy) is used in everything from telecommunications to cryptography. Even more compelling, information has physical effects. As discussed, Landauer’s principle shows that erasing a single bit necessarily releases a tiny amount of heat. In 2010s experiments, scientists have measured this minuscule heat for single-bit erasures, confirming that Landauer’s limit is real. This means information isn’t just in our heads – it’s something a physical device can’t ignore. As Rolf Landauer said, “information is physical”. In physics, information is tied to entropy, which is very much real (your refrigerator and your car engine attest to that!). So, talking about information as fundamental isn’t a pun or semantic trick; it’s recognizing a measurable aspect of reality. Bits are as real as joules or kilograms in their effects. In fact, some physicists argue that the most robust way to describe physical laws is in terms of information – for example, the famous second law of thermodynamics (that entropy tends to increase) can be seen as “overall, the information you don’t have (missing information about microstates) tends to increase.” That’s not wordplay; that’s a deep insight connecting information and physics.
“Surely matter or energy is more fundamental than information. You’re not going to tell me a rock is just information, right?”
Response: We’re used to thinking of matter as solid “stuff” and information as something abstract (like a pattern or a message). But modern physics has shown that what we call matter is, at the tiniest scales, quite ethereal. An electron isn’t a little marble; it’s a quantum state, which is basically a set of numbers (information) that we plug into equations. To fully specify a single electron, you need to give information: its mass, charge, spin, its quantum state, etc. If you strip away all that descriptive information, there’s nothing left to talk about. As one philosopher-physicist, Carl Friedrich von Weizsäcker, boldly put it: “Mass is information; energy is information.”. He had a theory of fundamental binary choices (“ur-alternatives”) underlying physics. Likewise, Wheeler said not even space and time are truly fundamental – they too might emerge from information. It might help to think of it this way: Matter and energy are “states” described by information. If I tell you a chunk of matter has a mass of 10 kg, temperature of 300 K, made of these molecules arranged in this structure – I’m giving you information that essentially is the thing’s reality. We can’t conceive of “matter” without properties, and those properties are information. Even field theories (like the electromagnetic field) are expressed in terms of information at each point (field values). So, rather than saying “matter vs. information: which is fundamental?”, modern thinking suggests matter is a form of information. It’s information incarnate, so to speak. We are not denying the reality of matter – we’re explaining it. The physical stuff is real, but when you look closely, what’s “stuff” made of? It’s made of properties and relations – in short, bits of information. If you disagree, try to describe what matter is without using any information (no numbers, no qualities)… you’ll find it’s impossible.
“What about the vacuum of space? Isn’t that basically nothing? Yet quantum theory says even vacuum (empty space) has energy and virtual particles popping in and out. How does that fit? Isn’t that a counterexample of ‘something from nothing’?”
Response: The quantum vacuum is often misunderstood. It’s not the same as philosophical “nothingness.” The vacuum in quantum field theory is actually a roiling sea of activity. Even when you remove all matter and radiation, you’re left with underlying quantum fields. Those fields have a ground state (lowest energy), but thanks to the Heisenberg uncertainty principle, they can’t be perfectly still – they fluctuate. These tiny fluctuations can briefly manifest as “virtual particles” or contribute measurable effects like the Casimir effect (a small force observed between uncharged metal plates due to vacuum energy). In fact, when physicists try to calculate the energy of the vacuum, the numbers are enormous. Some theoretical estimates of vacuum energy density come out to about 10^113 joules per cubic meter – a ridiculously high number (that’s 1 with 113 zeros after it!). Now, in reality, we don’t observe such a huge energy (there’s an unresolved discrepancy – the cosmological constant problem – since the observed value associated with dark energy is about 10^−9 joules/m^3, vastly smaller). But the point is: the vacuum is not an empty blank. It has a rich structure – fields, fluctuations, latent energy. It’s more like a constantly shifting foam. So the quantum vacuum is “something” that contains lots of information (it has properties like energy density, field correlations, etc.). It’s nothing like the plain “void” of classical thought. Therefore, it doesn’t violate our earlier logic; if anything, it reinforces that even what we thought was nothing is actually a sea of distinctions once we examine it at the quantum level. True nothing (as a philosophical concept) would mean no space, no time, no fields, no potential – and quantum physics gives us no reason to believe such a state exists or ever existed. As far as science can tell, “nothing” isn’t an option – even empty space boils with information-laden activity. So when someone asks “why is there something rather than nothing?”, one could cheekily answer: because “nothing” appears to be unstable – it inevitably spawns something, according to quantum theory! And that “something” (vacuum fluctuations) is again describable by information and physics.
“Saying information is fundamental sounds like idealism (the philosophy that only ideas or information exist and physical things are illusions). Are you denying physical reality? People still stub their toes on rocks – that’s real!”
Response: We are not denying the reality of the physical world. We eat food and breathe air; those atoms are quite real! The claim “information is fundamental” isn’t the same as saying “only mind or ideas exist” (which is what philosophical idealism often suggests). Instead, we’re saying that at the most basic level, what we call “physical” can be understood in terms of informational patterns. Another way to put it: the universe is made of information, but information requires a physical substrate. This might sound paradoxical, but think of a simple analogy: A DVD or a flash drive contains digital information (movies, songs, etc.). That information is certainly real – it can be copied, measured in megabytes, etc. But it always resides on something physical (the plastic DVD or the silicon memory chip). Likewise, the “information” that makes up a rock is encoded in physical states of quantum fields and particles. We’re not getting rid of the rock; we’re just saying the rock is this organization of information in those fields. There’s no magic ghost entity called “matter” beyond the properties we can measure. Information and physicality are two sides of the same coin. Landauer’s motto “information is physical” cuts both ways: yes, information manifests only in physical systems, but conversely, physical processes can be described by information. We’re basically advocating a form of information realism: the idea that the most objective, observer-independent description of reality might be in terms of information. This doesn’t negate realism about the external world; it just states the nature of that external world in a different language. Far from being anti-physical, this view has been fruitful in physics (e.g., thinking of black holes in terms of information led to the holographic principle and advancements in quantum gravity). If anything, it’s a unifying view – bridging the gap between the material and the abstract. It says the “physical” and the “informational” are deeply linked. So yes, we absolutely accept that rocks and stars exist and affect us; we’re just pointing out that what they are, at base, may be informational patterns when you dig down to quantum bits. The logos (orderly information) underlies the physis (physical nature).
“Gödel’s incompleteness theorem shows that not everything can be proven or known within a system (like mathematics). If math (information) can’t even prove itself fully, how can information be the foundation of reality? Doesn’t this imply there must be something beyond any informational system – maybe something like God or the ‘Logos’ – to ground it?”
Response: This is a fascinating point. Gödel’s incompleteness theorems (1931) indeed show that any sufficiently complex formal system (like arithmetic) is incomplete: there are true statements in the system that cannot be proven within the system’s rules. And the second theorem shows such a system can’t prove its own consistency. One way to interpret this is: no self-contained set of rules can explain itself entirely – you always need to step outside to a higher perspective to see the full picture. As one writer summarized Gödel’s result in plain language: “Anything you can draw a circle around cannot explain itself without referring to something outside the circle.”. If we view “the universe and its laws” as a kind of system, Gödel might imply that to fully explain why those laws (or that system) exists and is consistent, you might need to refer to something outside the system – something beyond the physical universe’s self-description. Some argue this “something outside” is indeed akin to the Logos (a term used by philosophers and theologians to mean an ultimate reason or word underlying reality, often associated with a divine principle). In other words, Gödel’s theorem has been used philosophically to suggest “the universe cannot be its own ultimate explanation.” It might need an external ground or source of consistency.

How does this support our information thesis? Well, if the material universe is an information system, Gödel says such a system can’t be complete and self-explanatory. This hint actually aligns with the idea that the material universe isn’t all there is – there might be a deeper informational or logical layer (some would personify that as God, others might say it’s a multiverse or something, but it’s a matter of interpretation). Our focus here is that reality being informational doesn’t eliminate mystery – it actually formalizes it. It tells us that if the universe is like a giant information processing system, there will always be truths about it that aren’t derivable from within the system. This encourages the idea that an outside perspective (an ultimate knower or a higher-order truth) is needed – which is exactly what many people mean by the Logos: an ultimate mind or rationale that contains the truth which the “lower” system alone cannot see. In a sense, Gödel’s theorem is a humbling reminder that logic itself points beyond itself. For our argument, we take it as supportive: it’s not undermining the informational view, it’s saying information can’t just exist in a vacuum; it begs for a higher context. If you will, the bits need a Mind to ground them (or at least a deeper logical structure). Whether one interprets that theologically or not, the key takeaway is that recognizing information as fundamental does not answer everything – it actually raises the deep question of why the information is the way it is. So Gödel leaves room (some would say necessitates) for a fundamental principle beyond brute matter or brute information. In short, it dovetails with our claim that “whatever exists is intelligible” – because if it weren’t, we couldn’t even formulate the system, and Gödel suggests that intelligibility (truth) always slightly exceeds any formal description. Many see in that a hint of the divine or at least a realm of truth beyond mechanism.

To sum up: Gödel’s theorem doesn’t defeat the idea of an informational universe; rather it enriches it by indicating that information alone, in a closed system, can’t account for its own existence. Reality might ultimately require an external reason – which complements the notion that the universe is fundamentally information structured by an external Logos.

In conclusion, we journeyed from simple undeniable facts (something exists) to a grand idea: that information is a fundamental building block of reality. This doesn’t make the world any less real – it makes it more wondrously structured. The atoms and stars around us can be seen as bits in an enormous cosmic information tapestry. By understanding that tapestry, we’re not doing mere wordplay; we’re uncovering the source code of the cosmos.

John Wheeler believed that by asking yes/no questions (doing experiments), we participate in the ongoing creation of reality – a poetic, but profound image of a participatory universe. Whether or not the universe is literally a computer, thinking in terms of information has unified areas of science from thermodynamics to quantum mechanics. It has provided new insights into old mysteries (like black holes and the origin of space-time).

And perhaps most deeply, it reminds us that the universe is intelligible. It runs on logic that we can, at least partially, grasp. As we continue to explore, every new distinction we find – every new “bit” of knowledge – is both a discovery about the world and a confirmation that indeed it’s information all the way down.

Sources: Fundamental ideas and quotations have been drawn from the works of John A. Wheeler (proposing that reality arises from yes/no bits), Rolf Landauer (establishing the physical nature of information), and various developments in physics such as quantum theory, black hole thermodynamics, and digital physics hypotheses. These illustrate and support the claim that information is central to the fabric of existence. Gödel’s incompleteness theorem is referenced to acknowledge the philosophical depth of this view. The holographic principle and related concepts are explained in accessible terms by physicist Sabine Hossenfelder. All these sources reinforce the narrative that while physics uses different language, it is increasingly speaking in terms of information – lending credence to the idea that distinctions (bits) underlie “things” (its) in our universe.

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