How far has Special ITHKOR progressed?

Beyond a bold idea, but still far from a theory of space, time and gravity.

Special ITHKOR is no longer only a philosophical idea. It has small controlled models, frozen predictions, negative controls, results from quantum hardware and packages prepared for independent review. Yet it has not derived space, time or gravity.

So what has actually worked, and where does the justified claim end today?

A big question is not enough

When someone asks how far I have got with ITHKOR, the simplest answer would be:

Farther than I expected at the beginning. Far less than the project’s grand name might suggest.

The original question was enormous:

What if space, time and stable reality are not the ultimate foundations of the world, but expressions of deeper informational rules?

Such a question can inspire interesting ideas, models and metaphors. On its own, however, it is not yet science. Unless we can turn it into a test that may also return a negative result, it remains only a compelling story.

That is why Special ITHKOR was created.

Not as a miniature copy of the entire universe, but as a laboratory version of a much narrower question:

Can the informational structure of a small system predict in advance where and how a measurable response will appear — better than simple, random or conveniently chosen explanations?

A road network instead of a grand equation

Imagine a road network.

Some connections are clear, while others are overloaded. A large share of traffic passes through certain junctions, while others remain almost unused. The shape of the network alone can already help us estimate which places will be sensitive to disruption, change or additional load.

Special ITHKOR tries something similar in small quantum and informational models.

Instead of cars, it follows:

informational relationships between parts of the system;
the capacity of connections;
dependencies among events;
stable supports;
places where the system comes under greater informational pressure.

The prediction must come first

The crucial rule is that the prediction must be made before the measurement.

I cannot look at the result first and then invent a rule that explains it beautifully. The candidate must be frozen in advance. Only then is the simulation or quantum-hardware measurement run, and only afterwards do we learn whether the prediction held.

This is the difference between telling a convincing story after the fact and running an experiment.

The first promising mechanism failed

One early proposal looked intuitive: the system should react to local peaks of informational pressure.

Then a serious problem appeared.

Those peaks could depend on the order in which a computer happened to process the events. The same physical problem could therefore produce a different answer merely because individual operations were performed in another allowed order.

That would be like obtaining a different result from a physics experiment because we read the rows of a table in a different sequence.

This is not a minor programming bug. For a model that may one day hope to describe reality without a privileged global clock, it is a fundamental problem.

The experiments gradually showed that a more stable route uses structural information about the system’s support and canonical checkpoints.

In plain language:

The system should not decide from a temporary fluctuation during computation, but from a location that has the same meaning regardless of the technical processing order.

This was where ITHKOR began to change from an intuition into an inspectable mechanism.

It also revealed something important: a negative result does not have to end a project. It can show precisely which part of the original idea was wrong.

What actually worked

Several stable islands of validity were gradually found in small, tightly bounded models.

These are regimes in which:

the informational prediction is made in advance;
it repeatedly passes a frozen test;
it remains stable when the allowed technical ordering changes;
the simple or random controls used in the test cannot imitate it equally well.

Some predictions passed not only in simulations but also in measurements on IBM quantum processors. The tests covered several model sizes, different layouts and multiple quantum devices. One frozen candidate also passed in a 12-qubit test.

This does not mean that a quantum computer “proved ITHKOR”.

It means something narrower, but still interesting:

A predeclared informational model predicted a particular measurable pattern better than the control models, and the result also held on real quantum hardware.

Other bounded diagnostic branches followed:

informational readout of quantum states;
the formation and stability of records;
the response of a small system to a local source;
a bounded envelope for the propagation of response;
radial, scale and coarse-grained patterns;
internal ordering in selected event families;
the transition from a quantum result to a repeatedly readable record.

A replication package must preserve failures too

These results were later frozen into replication and reviewer packages.

Importantly, the packages do not contain successes alone. One package preserved twelve positive witnesses — reproducible cases of support — and three deliberate stop signals.

The purpose is not to create the impression that everything worked. It is to make it possible to check:

what passed;
what failed;
what can be rerun;
exactly where the justified claim ends.

The largest physical bridges did not pass

The experiments did not confirm that an informational response automatically determines the motion of a test object in a way resembling free fall.

The general bridge to an equivalence principle did not pass.

Nor was it possible to connect the informational budget to physical energy or the stress-energy tensor in a way that would yield a consistent theory of gravity.

The most accurate summary is:

I found interesting informational responses and stable diagnostic patterns. I have not derived gravity from them.

That is not a detail that can simply be programmed later. It is the gap between today’s results and a physical theory of space and time.

If I removed those failures, I could tell a very impressive marketing story. It would not be an honest account of the research.

The failures show that the successful results are not a universal explanation of reality. They are islands in a precisely bounded space of models.

And an island is not yet a continent.

So how far have I got?

It makes no sense to attach a percentage to this journey.

I am not “70 per cent of the way to a theory of reality”. Science does not work like a download progress bar.

The current state can, however, be described as a sequence of stages:

The big question — done. It has been formulated and gradually stripped of its weakest metaphors and unfalsifiable claims.
A testable mechanism — done within a bounded scope. There are models, predefined predictions, controls, negative results and rules that determine whether a test passes or fails.
A reproducible internal programme — substantially developed. There are frozen results, QPU diagnostics, determinism tests, negative controls and reviewer-ready packages.
Independent replication — still missing. The largest difference between my repository and a scientifically accepted result may not be another grand equation. It may be an independent person who takes the frozen protocol, runs it without my help and obtains a comparable result.
A physical theory of space, time and gravity — not yet. There is no derived spacetime, no Einstein equations, no equivalence principle and no confirmed new physical prediction in the real world.

The most accurate answer today is therefore:

Special ITHKOR has moved beyond philosophical speculation and become an auditable experimental programme. It has not yet crossed the gap from small informational models to confirmed physics.

If the physical route fails

Special ITHKOR may one day prove not to be a path towards the origin of space, time or gravity.

Even then, the experiments need not be useless.

They suggest practical ways to work with complex systems:

computing power does not have to be allocated uniformly;
a system can focus attention where its structure signals an important response;
stable decisions can be tied to checkpoints rather than arbitrary moments in a run;
information can be preserved selectively according to its support, significance and consequences;
negative results can become a map of boundaries rather than waste.

This direction led to the more practical ITHKOR-SIM branch: research into adaptive simulations, checkpoints, compression and compute-budget allocation.

This branch can be tested and used without claiming that we have explained the universe.

A grand physical hypothesis may therefore fail and still leave behind a useful algorithm, method or tool.

What must come next

The next step should not be another grand physical story.

What is needed is:

independent replication;
a publicly frozen protocol;
repetition of selected hardware tests;
verification on additional devices;
new experiments that do not merely retune bridges that have already failed.

If the results do not hold, Special ITHKOR must be narrowed — or may disappear entirely.

If they do hold, its domain of validity can be expanded very carefully.

Both outcomes are scientifically useful. The only difference is what we learn.

Not an answer to everything, but a more precise question

I began by asking whether reality might have an informational foundation.

Special ITHKOR has not led me to an answer to everything.

It has led me to something more concrete: a set of small experiments that can say not only:

“An interesting pattern appeared here.”

But also:

“The pattern stops working here.”

Perhaps that is the real progress.

Not a finished answer to the universe, but a more precise question. Not one grand proof, but a map of islands and their shorelines. Not a system that has to be right, but a programme that is allowed to fail.

Special ITHKOR is not proof that reality is information. It does show that I can now ask the question in a way that allows an experiment to answer “no”.

That is less spectacular than a theory of everything.

Scientifically, however, it is much more.

Related reading: I went looking for an answer to everything. I found a map of questions
The broader open hypothesis: If General ITHKOR were true
Current project map: ITHKOR theory

How far have I got with Special ITHKOR?