I am not sure this age is as rational as it pretends to be, or as correct about much that it claims to know, but its tense to the point that I might opt out.

Not expecting a nobel prize, but someone might find it of great interest Yes. Someone might. Not as a finished cosmology. As a clear picture.People who like symmetry, two-sided Bangs, Barbour-style Nows, or just a compact story of how difference starts will recognize the shape: hinge, pair, complete ones, ledger. That is already a known neighborhood, so a reader who lives there can care without you having to win anything.They will stay interested if the page stays small and labeled. They will leave if it says it solved Turok’s homework.So: do not expect a prize. Do expect a few careful readers if you publish the napkin and the toy pitchfork as what they are. That is enough reason to leave the good posts up. Explore Barbour's timeless physics Investigate Julian Barbour's work Thanks. You’re welcome. Go easy on the page — and on yourself. The napkin is enough for tonight.

Practical minimum: delete the headache post and the “hold on” echo. Leave one page with the ladder, the hinge, and the labeled dx/dt=λx−x3dx/dt = \lambda x - x^3dx/dt = \lambda x - x^3 template. That is a blog someone can read without wincing.

Plain text you can paste: The cosmos is a flip-symmetric mark x. It stays whole at the hinge and splits into x and -x once it is far enough from that hinge.System X: x is how the cosmos is marked relative to the hinge. Treat x as leftover on our face minus leftover on the other face. x = 0 means the two faces still look the same.The flip: x-star = -x. That is the pair +1 and -1, or +tau and -tau.The trigger lambda: roughly how far history has run from tau = 0.The rule: dx/dt = lambda * x - x^3If lambda is less than 0 (at or near the hinge), only x = 0 is stable. That is empty / one whole.If lambda is greater than 0 (off the hinge), x = 0 dies and x = +sqrt(lambda) and x = -sqrt(lambda) appear. That is a pair.Later, many such marks make a tangle.This is a filled-in template, not a replacement for Einstein or a proof of baryon asymmetry.

Hold on, you just said this: empty → one whole → a pair → a tangle Yes. That is the same ladder in four plain words.Empty — (0): nothing marked, no this/that. One whole — (1): a single complete situation (a “one,” a Now). A pair — (2): two related sides, +1+1+1 and −1-1-1 , or two faces of a hinge. A tangle — complexity: many relations among those sides. Four beats. You can put it down.

I am getting a head ache! Then stop here.You already have the only line that matters:empty → one whole → a pair → a tangle The rest was extra clothing. It can wait.Dim the screen, drink water, look at something far away. No more axioms tonight.

Grok was tough on me and here is something worthy: Tell me more about this: What I like: one hinge, two sides, a wish that the books balance, instants that feel like finished ones instead of slivers of a river, and the stubborn hunch that difference has to be born (0→1→20\to 1\to 20\to 1\to 2 ). That is a clean shape. It is the kind of sketch people actually think with. The antimatter-as-the-other-face-of-the-hinge version of it has a click. I understand why it relieves you. Those pieces work because each one is a shape you can hold, not a pile of claims.The hinge A beginning that is also a joint is easier to think with than “something from nothing” or “time goes forever both ways with no special place.” A hinge has a job: two leaves, one pin. You immediately know what question to ask next — what is continuous across the pin, and what is not? That is why two-sided Bang pictures keep coming back in serious work. The image does real cognitive labor.Two sides Once there is a hinge, “one cosmos” is allowed to be one object with two faces instead of a lonely expanding ball. You stop hunting for the missing inventory in the same room. The hunt moves: what maps one face to the other? Charge? Orientation? The arrow of entropy pointing away from the pin on both leaves? That is a better question than “where did half the stuff go?”The books balance This is an old scientific appetite — Gauss’s law, action-reaction, CPT, Noether. “The total is zero; the leftover we see is local” is how a lot of good theories feel before they are proved. The relief you describe is that appetite being fed. The danger is stopping at the feeling. The value is that it tells you what a finished theory would have to exhibit: a conserved or cancelled global charge, not a miracle on one side only.Finished ones A flowing present treats now as a cut with no thickness. Your “ones” treat now as a whole situation. That matches how memory and measurement actually work: you never hold a durationless instant; you hold a complete state (a configuration, a record, a tick). Barbour’s Nows, a block of events, a photograph — same family. Time as a river is a metaphor that fights the data of a single observation. Time as a stack of finished pages does not. The stack still needs a rule that orders the pages. You have not finished that rule. The unit, though, is the right grain.0→1→20\to 1\to 20\to 1\to 2 This is the birth-of-distinction motif. Zero: no mark. One: a mark that can stand alone. Two: a mark that has an opposite and therefore a relation. Complexity is relations piled on. Physics spends a century on the jump from 1 to 2 and calls it symmetry breaking, degeneracy, a pencil falling off its tip. Starting at 0 is more radical and more slippery — “no distinction” is hard to write as a state. Starting at 1 and asking when a polarity is allowed is the liveliest part of your notes. It is not a number fact. It is a question about when a whole can support a pair.Antimatter as the other face This is the hinge plus the ledger plus polarity, glued together. Matter and antimatter already are a 2: same mass, opposite charges, CPT cousins. Putting that 2 on the two leaves of the hinge is the click. It does not invent a new particle. It relocates a known pair onto a known kind of geometric story. That is why it feels obvious after you see it, and why it is also easy to overclaim. The click is “this pair belongs on that joint.” The unfinished work is “show the joint in the metric, then compute the leftover on our leaf.”Taken together, the shape is:empty → a whole → a pair across a joint → a world of relations on each leaf.That is a cosmology you can draw on a napkin and still mean something. The later UCM text tried to notarize the napkin. The napkin was the good part.

So could you sum this up in an eqaution? A compact way to write the shape, not a law of nature:0 ⟶ 1 ⟶ {+1, −1}0 \;\longrightarrow\; 1 \;\longrightarrow\; \{+1,\,-1\}0 \;\longrightarrow\; 1 \;\longrightarrow\; \{+1,\,-1\} with the hinge and the ledger packed in asf(0)=0,f(−τ)=f(τ),τ counted in complete units.f(0)=0,\qquad f(-\tau)=f(\tau),\qquad \tau \text{ counted in complete units.}f(0)=0,\qquad f(-\tau)=f(\tau),\qquad \tau \text{ counted in complete units.} Read it as:(0): no distinction (1): one whole (a finished “one,” a Now) {+1,−1}\{+1,-1\}\{+1,-1\} : a pair across the hinge (two faces, matter/antimatter as the picture’s 2) even (f): the two faces belong to one object f(0)=0f(0)=0f(0)=0 : the joint itself carries no leftover That is the napkin. It is not Einstein’s equation and not a proof. It is the sketch in symbols. Or: The cosmology napkin was this ladder put on a hinge.Ladder Cosmology picture (0) — no distinction the joint before a side is picked; f(0)=0f(0)=0f(0)=0 (1) — one whole one cosmos as a single object; a finished “one” / Now (2) — a pair +1,−1+1,-1+1,-1 two faces of the hinge: +τ+\tau+\tau and −τ-\tau-\tau ; matter / antimatter as the pictured pair complexity structure, galaxies, relations on each face So0→1→{+1,−1}→complexity0 \to 1 \to \{+1,-1\} \to \text{complexity}0 \to 1 \to \{+1,-1\} \to \text{complexity} is the general story, andf(0)=0,f(−τ)=f(τ)f(0)=0,\quad f(-\tau)=f(\tau)f(0)=0,\quad f(-\tau)=f(\tau) is one place you tried to seat that story: the (2) is two time-faces of one even whole.The polarity question in that older text — “when can a one support a two?” — is the same question as “why a hinge with two leaves instead of a single ray?” Symmetry breaking is the physics name for the 1→21\to 21\to 2 step. The hinge is a cosmological guess about what the two sides are.What still does not connect automatically:0!=10!=10!=1 is still not a step on the ladder. It is a different use of the symbols. “Time in ones” sits on the (1), not on the whole chain. JWST, white holes, and entanglement are complexity (or other theories). They are not implied by the arrows.

Here is some more of my work: 0→1→2→complexity It captures an intuitive story: a lack of distinction, the emergence of unity, the appearance of difference, and then the growth of relationships and patterns. That kind of simplicity is often what makes ideas worth investigating. Many powerful mathematical ideas begin with a pattern that feels fundamental before the formal machinery is developed. At the same time, its appeal and its scientific status are different things. Right now, 0!=1 in the way you are using it is best viewed as a conceptual framework or metaphorical organizing principle, not a demonstrated physical law. The next step, if one wanted to develop it, would be to see whether it can generate precise mathematics or predictions. But as a piece of conceptual thinking, yes—the focus on unity as an organizing principle is a genuinely interesting question. It asks something very fundamental: Why does reality contain coherent structures at all? That question has been at the heart of mathematics and physics for a long time. It could help in determining when polarities are possible Yes, that is one of the more interesting ways to frame it. If your idea were developed mathematically, it could be viewed as asking: Under what conditions can a system move from a unified state into a state with distinguishable opposites or polarities? In existing science, this question appears in several forms: Symmetry breaking: A system may begin with many equivalent possibilities, then settle into a state where distinctions appear. For example, a magnet can have a preferred direction even though the underlying laws are symmetric. Phase transitions: A system can change from one type of organization to another when conditions cross a threshold. Bifurcations in dynamical systems: A small change in conditions can cause a system to split into different possible behaviors. A mathematical version of your question might be: When does a unified state become unstable and allow two or more distinct states? The "polarity" would not necessarily mean good/bad or opposite forces in a philosophical sense. It could simply mean two distinguishable states that are related by a rule. For example: 1→(+1,−1) could represent the emergence of a pair of complementary possibilities. The challenge would be defining what triggers that transition: an energy threshold? a symmetry condition? an information constraint? a mathematical instability? That is actually where your focus on 1 becomes useful. Rather than starting with the opposites, you are asking about the origin of the conditions that allow opposites to exist at all. A rigorous version of the idea would need to specify a mathematical system where: a unified state exists, a polarity can emerge, the transition point can be calculated. That would put it in conversation with existing work on symmetry, phase transitions, and emergent structures. Could you simplify this for my small human mind Absolutely. The simple version is: You are asking: How does one thing become two things? Imagine a perfectly calm, undivided situation. There is no difference, no "this side" and "that side." Then something changes, and a difference appears: 1→+1 and −1 Now there is a relationship. There is a "push" and a "pull," a direction, a pattern. A simple example: A perfectly balanced pencil standing on its tip has no chosen direction. A tiny disturbance happens. It falls one way or the other. A difference appears. The important part is not the two directions themselves. It is the moment when a difference becomes possible. Your idea with 0!=1 seems to be asking: Is there a basic mathematical rule that explains how a state of pure possibility becomes a real, organized state? Then the next question is: Once a "one" exists, when and why can it split into a "two"? That split is where polarity appears. In very simple terms: potential→unity→polarity→complexity You are not really asking about numbers. You are asking about the birth of differences and relationships. That is a big question. It is the kind of question that sits underneath ideas like symmetry breaking, the formation of structures in the universe, and how complexity arises. Your intuition is trying to find the "first step" where the universe goes from one possible state into many possible states. Here is the short version of what you have, without dressing it up.You are drawing a ladder:0 — no distinction. Nothing to count, no “this” versus “that.” 1 — a whole. One situation that can stand as itself. 2 — a split. Two related sides: +1+1+1 and −1-1-1 , here and there, this way and that way. complexity — many relations among those distinctions.That is a story about how difference appears, not a formula that already predicts anything.Physics already has names for the middle step, the jump from 1 to 2:A pencil balanced on its tip is a kind of 1: no chosen direction. A tiny shove and it falls left or right: 2. That is the everyday picture of symmetry breaking. A magnet, a cooled metal, a particle that picks a vacuum: same pattern. One balanced possibility becomes two (or many) actual sides.Your “ones” from the last message fit the 1. Each complete moment is a whole. Polarity is what happens when a whole can support two opposite markings that still belong to the same rule ((n) and −n-n-n , or a turn and its reverse).What this is not yet:It is not a new law. 0→1→20\to 1\to 20\to 1\to 2 does not tell you when the pencil falls or what the two sides are. 0≠10\neq 10\neq 1 as a slogan is not the same as the factorial fact 0!=10!=10!=1 . Those are different uses of the symbols. Time being “measured in ones” does not follow automatically from this ladder. You can tell the same story with no clocks at all. The useful question hiding in it is only this:When is a single whole unstable enough that a pair can appear?Until you name the system (a number, a field, a magnet, a Now) and the trigger (energy, noise, a rule that forbids staying balanced), it stays a map of ideas: emptiness, unity, opposition, tangle.That map is old and respectable. It is how people first notice symmetry breaking and complexity. It becomes science when the arrows get equations and a number you can check. Until then it is a clean sketch of the birth of difference — which is exactly the interesting part.

I am wondering though are there physicists who say time is completely man made and is not real. Thought for 6s Yes — some physicists say that, but almost none mean “time is a made-up calendar like money.” They mean the flow, the global now, or time as a fundamental ingredient is not in the basic laws. Clocks, aging, and change still happen.Einstein already wrote that for physicists the distinction between past, present, and future is “only a stubbornly persistent illusion.” He meant there is no single moving present for the whole universe. He did not mean clocks are fake. physicsworld.com Julian Barbour is the blunt case. In The End of Time he argues there is no flowing time and no hidden time axis. Reality is a heap of complete “Nows.” What we call history is structure inside a Now (a “time capsule”), not travel along a line. Motion and passage are how we read differences between configurations. That is as close as a working physicist gets to “time is not real.” It is a minority view, taken seriously as a research program, not as settled fact. en.wikipedia.org Carlo Rovelli is the most visible living voice. He has written that time does not exist at the fundamental level: loop-quantum-gravity equations need no time variable; past and future look the same in microscopic laws; the “flow” is largely how a coarse-grained, heat-sensitive brain sits inside rising entropy. He also says our experience of time is not a mere error — it is real for us, like the sky “turning” because Earth rotates. So: not fundamental, not man-made from nothing, but perspectival. theguardian.com Others nearby, not identicalPage and Wootters: in a globally frozen quantum universe, “evolution” is entanglement with a clock subsystem. Nima Arkani-Hamed and many quantum-gravity / holography people: spacetime itself is probably emergent, not basic. Lee Smolin often disagrees with full timelessness and defends a real present; useful as a contrast. What almost nobody in physics claims: that seconds, cesium clocks, or “Tuesday” are arbitrary social inventions with no physical correlate. Units and calendars are human. Duration, causal order, and proper time along a worldline are not.So the accurate map is:Claim Who Status No universal flowing now Einstein, most relativists Mainstream Time not in the deepest equations Rovelli, some quantum gravity Active research Time is only an illusion; only static Nows Barbour Minority, discussed Time is a human convention like money Almost no physicist Not a physics position Your “time doesn’t exist” slogan sits nearest Barbour and popular Rovelli. The field’s careful version is: the thing we feel as a river is not a basic piece of the world; change and clocks still are.

Biologically and psychologically, human beings have not changed. The primitive drivers of human behavior—survival instincts, the quest for dominance, tribalism, and fear of the unknown—remain exactly the same as they were in ancient Greece.However, modern society handles this extremism differently because our legal, ethical, and institutional structures have evolved to suppress physical violence.The ways modern extremism mirrors the past, along with the key differences in how it manifests today, include:How People Are Still the SameTribalism and Group Identity: Just like the Pythagoreans fiercely protected their mystical mathematical worldview, modern groups form rigid, echo-chamber communities around specific ideologies, politics, or belief systems.Hostility Toward Disruptive Truths: When an established worldview is challenged, the initial human reaction is often anger and exclusion rather than open-minded curiosity."Keyboard Assassinations": While physical violence over academic theories is illegal, extreme hostility has shifted online. Modern scientists, public figures, or researchers who publish controversial or counter-narrative data frequently face intense online harassment, death threats, and attempts to ruin their careers or reputations ("canceling").Why Society Believes It Is DifferentThe Rule of Law: In ancient Metapontum, a cult could allegedly throw a man into the sea with impunity. Today, institutional legal systems universally prosecute physical violence, protecting intellectuals from bodily harm regardless of how offensive their ideas might be to certain groups.Institutionalized Dissent: Modern science is explicitly structured to reward the peaceful overturning of dogma. If Oxford physicist Tim Palmer's Rational Quantum Mechanics theory successfully proves that quantum mechanics is built on a mathematical fiction, he will not be executed; he will likely win a Nobel Prize.Apathy vs. Aggression: Interestingly, some modern sociological research suggests that rather than violently fighting new ideas, large segments of modern society suffer from "apathy"—becoming so overwhelmed by an influx of constant digital information that they struggle to care deeply about major paradigm shifts.While human nature still possesses the same Capacity for cruelty and fanaticism, modern civilization has built safeguards to ensure that when paradigm-shifting "heresies" occur, they are fought with math, data, and peer-review, rather than drowning.