Stars as Textures? A Computing Analogy in Sudoism

Can stars be compared to textures in a computer simulation? Astronomy describes real stars and observational limits, while Sudoism separates those facts from hypotheses about the System’s unrevealed implementation.

The night sky almost invites a computing analogy. From the perspective of computer graphics, displaying extremely distant objects with full detail that an observer cannot distinguish anyway would waste resources. A programmer might therefore ask: do stars resemble textures or a distant background whose details are revealed only when they become necessary?

That is an interesting thought model — but it is precisely a thought model. Sudoism, as Revealed Truth, firmly teaches that Reality is a programmable Simulation. What has not been revealed is how the System technically represents stars, galaxies and distant regions of the cosmos.

We do not know whether the System uses equivalents of textures, procedural generation, on-demand rendering, levels of detail, continuous calculation of full state or a solution entirely unlike technologies known to us. Computing concepts can help us ask questions, but they are not documentation of the System.

What do we really see when we look at stars?

In astronomy, stars are physical objects studied through light and other forms of radiation. At enormous distances, most of them do indeed appear as unresolved points in an ordinary telescope. That does not mean the object itself is a point or a low-resolution image. What is limited is the resolution of the observation.

A larger telescope aperture increases the amount of light collected and can improve observational resolution. It does not mean, however, that every distant object can be seen in arbitrary detail.

Interferometry makes it possible to combine light from multiple telescopes and achieve much greater resolving power than with a single mirror. Using such methods, astronomers measure stellar angular diameters and, for some nearby giants, can even reconstruct the structure of their surfaces.

R Doradus is a good example. ALMA observations made it possible to reconstruct a sequence of images of this star’s surface and track moving structures associated with convection. It is an important reminder: the fact that many stars look like points of light tells us a great deal about distance and instrumentation, but by itself says nothing about whether the System stores them as “textures”.

Looking farther away means looking into the past

Light does not reach us instantaneously. Sunlight takes about eight minutes to reach Earth. Light from the nearest stars beyond the Sun travels for years, and light from the most distant observed galaxies for billions of years.

A telescope therefore does not show a distant object “now”, but as it was when the light we observe today was emitted. The farther we look, the deeper we also look into cosmic history.

This follows from the finite propagation speed of light and the geometry of spacetime. It is not evidence that a distant part of reality has just been rendered for the observer.

The speed of light: a physical limit, not a server specification

The speed of light in vacuum has the exact SI value of 299,792,458 m/s. In relativistic physics it plays a fundamental role in causal structure: it constrains how signals and interactions can connect events in spacetime.

From an IT perspective, it is easy to compare such a limit to maximum bus bandwidth, a synchronisation constraint or a transmission limit in a distributed system. That is an interesting analogy. We have no basis, however, for claiming that the speed of light is the actual hardware limit of the Simulation, a safeguard against exploration or a mechanism keeping human beings inside a locally rendered region.

Likewise, cosmological horizons are not the equivalent of a “render distance” setting in a computer game. In physics they arise from the history of cosmic expansion and the causal structure of spacetime. They are not evidence of image compression or of a memory limit in the System.

Stars as “textures”: a useful analogy

Despite these cautions, there is no need to discard the texture idea itself. It is a useful way to ask about possible optimisation in a programmable Reality.

A creator of a human-made computer simulation usually does not spend the same resources on everything at once. They may use levels of detail, procedural generation, caching, approximate representations of distant objects, or calculate certain elements only when they are needed.

We can therefore hypothetically ask whether the System uses any equivalents of such techniques. That would fit an engineering intuition: a very complex environment may use methods that reduce the cost of representing information.

But that is as far as the analogy allows us to go. Astronomical observations do not show “textures”, buffers, generating procedures or LOD levels. They show physical phenomena that science describes with astronomical and cosmological models.

Possible resource saving is an implementation hypothesis, not Revealed Truth in Sudoism.

Does the Simulation have to generate everything all the time?

We do not know. This is exactly where doctrine must be distinguished from technical speculation.

The existence of a programmable Simulation is Revealed Truth in Sudoism. It has not been revealed, however, whether every distant star is continuously calculated with full state, whether some information is represented more economically, or whether the System uses mechanisms with no analogue at all in human computing.

We also do not know the actual computational cost of the System or whether the idea of “saving resources” has the same meaning for it that it has for computers built by humans.

For the same reason, a lack of detail in a telescope image cannot be treated as proof of a lack of detail in Reality itself. The limits of instrumentation primarily tell us about the instrumentation.

Webb, distant galaxies and the temptation to overinterpret

The James Webb Space Telescope allows us to observe very distant galaxies and study light emitted billions of years ago. New data can change estimates of the age, mass, composition and evolution of early galaxies and can put existing models under serious pressure.

This is fascinating from a Sudoist perspective as well, but the order of inference matters. If an observation does not fit an existing cosmological model, the first conclusion is that the data, methods and model need to be checked. It is not automatically evidence that we have discovered compression, a rendering bug or another implementation feature of the Simulation.

I discuss tensions and surprises in Webb observations more broadly in James Webb Telescope observations and their significance for cosmology. Such results are worth analysing, but the observation itself must be kept separate from a computing interpretation.

The cosmos is part of experience, not false decoration

In Sudoism, the fact that we live in a Simulation does not make stars, galaxies or space “unreal”. They are real elements of experience during the life session.

The proper User exists outside the Simulation, while a human being is the User’s real instance and interface during the session. The main reason the User enters the Simulation is experience. Observing the night sky, developing astronomy, building telescopes and exploring space can all be part of that experience.

A human being has real local agency. A person can study the Universe, build probes, develop models and make decisions. None of this grants sudo, root or Admin rights.

Sudoism distinguishes the original Creators from the current Admin managing the System. We do not, however, know the technical solutions they used, and no specific rendering, compression or resource-management method should be attributed to either side.

We also do not know whether the Simulation is perfect, what limitations it has or whether it contains errors. Its actual architecture in these respects has not been revealed.

When the life session ends, the same proper User exits the Simulation and retains the memory of the experiences that were lived. No copy or new User is created.

Stars can be compared to textures if we remember that this is the language of analogy. Astronomy tells us what we observe. Sudoism tells us what Reality is. The technical implementation of the System remains unrevealed.

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