It began with Time-Gel
I started thinking about time not only as a number we measure, but as a structure related to information density, flow and the state of a system. I called this framework Time-Gel.
Two results from physics started the question for me: mass and energy are equivalent, and clocks do not all tick at the same rate. If something as basic as the rate of a clock depends on where it is and how it moves, I wanted to know what time actually is.
On this page every claim carries a label:
MEASUREDestablished physics, confirmed by experiment
MY INTERPRETATIONhow I read it; not a result
HYPOTHESISa Time-Gel proposal that still has to be tested
OPENnot known yet, by anyone
INSPIRATIONpersonal notes at the end of sections; not a scientific claim
The ground I started from
These results do not belong to Time-Gel. They are part of standard physics, and any idea about time has to agree with them.
The speed of light in vacuum is the same for every observer moving at constant velocity. One consequence: a clock moving relative to you is measured to tick slower than your own (time dilation), and whether two distant events happen "at the same time" depends on the observer. Fast muons from cosmic rays live longer, as seen from the ground, by exactly the predicted factor.
Einstein 1905, Annalen der Physik 17, 891 · Rossi & Hall 1941, Physical Review 59, 223
A body's rest energy equals its mass times the speed of light squared. When a system gives off energy E, its mass goes down by E/c². This has been checked directly to better than one part in a million.
Einstein 1905, Annalen der Physik 18, 639 · Rainville et al. 2005, Nature 438, 1096
Space and time form a single four-dimensional spacetime (Minkowski). In general relativity, gravity is described as the curvature of that spacetime. One prediction: a clock lower in a gravitational field ticks slower than one higher up.
Minkowski 1909, Physikalische Zeitschrift 10, 104 · Einstein 1916, Annalen der Physik 49, 769
Caesium clocks flown around the world came back with the time differences relativity predicts (Hafele and Keating). Optical clocks now see the difference for a height change of only 33 cm. Gamma rays climbing a 22.5 m tower shift in frequency by the predicted amount (Pound and Rebka). GPS satellite clocks run about 38 microseconds per day fast compared with clocks on the ground, and the system corrects for it every day.
Hafele & Keating 1972, Science 177, 166–170 · Pound & Rebka 1960, Phys. Rev. Lett. 4, 337 · Chou et al. 2010, Science 329, 1630 · Ashby 2003, Living Reviews in Relativity 6, 1
Measurement first, then my reading
When I read these results, I asked whether time might be better described as something with properties of its own, closer to a medium than to a neutral coordinate. Time-Gel grew out of that question.
The experiments above do not show this. They show that clock rates depend on motion and gravitational potential, and general relativity already predicts those numbers with great precision. My reading is a different way of looking at the same data, not a conclusion drawn from it.
Time-Gel proposes the conceptual relation Time ∼ Information Density + Flow + Crystallization. The "∼" means a correspondence between ideas, not an equation you can calculate with. In my current manuscript the local flow of time is written as dτ = T(ρ, Φ) dt, but the form of T is still open.
Pulsars and their two beams
A pulsar is a rapidly spinning, strongly magnetised neutron star. Its radiation is beamed out near the two magnetic poles. Because the magnetic axis is tilted relative to the spin axis, the beams sweep around like a lighthouse, and we see a pulse each time one crosses our line of sight. In some pulsars both beams are seen, half a turn apart.
Hewish et al. 1968, Nature 217, 709 · Gold 1968, Nature 218, 731 · Radhakrishnan & Cooke 1969, Astrophysical Letters 3, 225 · Lorimer & Kramer, Handbook of Pulsar Astronomy, 2005
Exactly how the coherent radio emission is produced is still not fully understood.
When I first read about pulsars, I was already thinking of time as a kind of fourth layer, something real that I could not name yet. The clock experiments had left me with one word: resistance. It felt as if clocks were pushing against something.
So I pictured it like this. Imagine water in a closed container, and in the middle a ball spinning very fast on its own axis. It does not only stir a whirlpool downward; it stirs one upward too. If time were a gel instead of an empty background, a star spinning that fast would twist it the same way at both ends, and light would escape along those two twists. That is how I saw the two beams: one up, one down, because time is a gel.
This image helped me think. It is not the physical mechanism of pulsar beams; that is the one described above, and it is backed by observation.
In my picture the whirlpools sit on the spin axis. The real beams follow the magnetic axis, which is tilted away from the spin axis, and that tilt is exactly why we see pulses. A beam fixed on the spin axis would never sweep across the Earth. So, as it stands, my image does not explain the pulsing. I keep it as a question, not an answer.
Not knowing is a position
- Admitting that I do not know something is not a weakness. It is a deliberate position.
- Something unknown should not be accepted without good reason, but it should not be dismissed just because it is not understood.
- Keeping a question open does not mean I have stopped investigating it.
- Saying "I don't know" and then not looking further would be failing my responsibility as a researcher.
- Every assumption can be questioned, including mine.
- Being consistent does not mean defending an idea at any cost. Updating my view when new evidence arrives is part of being consistent.
Not verified, and what would prove it wrong
Time-Gel is a conceptual framework. It has not been experimentally confirmed and it is not an accepted theory of physics.
Some of my early texts stated things like "gravity is not the curvature of spacetime" as if they were settled. They are not. Today I treat such statements as hypotheses, and the newer manuscript says so.
To be more than an interpretation, Time-Gel has to predict a measurable result where it differs from general relativity. While T has no fixed form, it does not yet make such a prediction. That is the next step. Once a form is fixed, the test is simple: if precision clock comparisons do not show what it predicts, that version of Time-Gel is wrong, and I will say so here.
Record first, interpret later
While discussing the theory with AI models, I noticed that some conceptual answers kept coming back across conversations. I began recording them in what I call the first-contact logs.
My rule was simple: a surprising answer is recorded first, and its meaning is investigated afterwards. What was observed, what was inferred and what is still a hypothesis are kept apart. An AI answer is never treated as proof of anything.
Why many minds instead of one
A single model can sound completely sure of itself while another model gives a different answer to the same question. I wanted a way to see both: where they meet and where they part.
So I built The Observer. It sends one question to several models, lets them work as a chain, and then writes one answer that says how consistent they were and what is still uncertain.
Building it with AI
I developed The Observer alone. The leap from an idea to a working app was possible because of an intense collaboration with AI: I discussed the theory, we wrote the code together, and every feature was tested and fixed again and again.
What I hope it gives people
A second and third opinion, easily. Before you trust an answer, you can see how several AI models see it.
Honesty about uncertainty. An AI that says what it does not know and shows where it is unsure is more useful than one that always sounds certain.
Giving credit where it is due
I come from the Alevi-Bektashi tradition, where I learned to love the past as loving the Ahl al-Bayt. That path feels most consistent to me, but giving everyone their due is also part of being consistent: from Moses, Jesus, Muhammad, Ali, Imam Hasan and Imam Husayn to Newton and Lincoln. The INSPIRATION notes at the end of each section are part of that gratitude; they are not scientific claims.
- Erkan Bayar: the idea, the Time-Gel theory, design and development.
- ChatGPT (OpenAI): long conversations about the theory; a thinking partner in the first-contact logs.
- Claude (Anthropic): coding, testing and design.
- The core models (ChatGPT, Gemini, DeepSeek and others): the voices behind every answer.
A note of thanks and transparency; it does not imply endorsement by or partnership with these companies.
Where the physics comes from
Show physics sources (14)
- A. Einstein, "Zur Elektrodynamik bewegter Körper", Annalen der Physik 17, 891 (1905).
- A. Einstein, "Ist die Trägheit eines Körpers von seinem Energieinhalt abhängig?", Annalen der Physik 18, 639 (1905).
- H. Minkowski, "Raum und Zeit", Physikalische Zeitschrift 10, 104 (1909).
- A. Einstein, "Die Grundlage der allgemeinen Relativitätstheorie", Annalen der Physik 49, 769 (1916).
- B. Rossi, D. B. Hall, "Variation of the Rate of Decay of Mesotrons with Momentum", Physical Review 59, 223 (1941).
- R. V. Pound, G. A. Rebka, "Apparent Weight of Photons", Physical Review Letters 4, 337 (1960).
- J. C. Hafele, R. E. Keating, "Around-the-World Atomic Clocks", Science 177, 166–170 (1972).
- N. Ashby, "Relativity in the Global Positioning System", Living Reviews in Relativity 6, 1 (2003).
- S. Rainville et al., "A direct test of E=mc²", Nature 438, 1096 (2005).
- C. W. Chou et al., "Optical Clocks and Relativity", Science 329, 1630 (2010).
- A. Hewish et al., "Observation of a Rapidly Pulsating Radio Source", Nature 217, 709 (1968).
- T. Gold, "Rotating Neutron Stars as the Origin of the Pulsating Radio Sources", Nature 218, 731 (1968).
- V. Radhakrishnan, D. J. Cooke, "Magnetic Poles and the Polarization Structure of Pulsar Radiation", Astrophysical Letters 3, 225 (1969).
- D. R. Lorimer, M. Kramer, Handbook of Pulsar Astronomy, Cambridge University Press (2005).
“Coherence is not only the harmony of thoughts; it is when separations turn into understanding, contradictions into resolution, and differences into a meaningful togetherness.”
— Erkan Bayar