Creation of the Roton Model

Abstract

If you are reading this, you probably want to know why the Roton Quantum Model was created at all.
What made the author start thinking about life, the universe, and everything from such an unusual angle?

The initial trigger was a simple discomfort with some of the standard quantum stories — especially the way Schrödinger’s cat, “collapsing” wavefunctions and “mystical” observers are often used as explanations rather than as symptoms of an incomplete picture.

Instead of accepting that the world is fundamentally “undefined until measured”, the starting point here was the following thought experiment:

What happens if there exists an entity that persists only by virtue of its own rotation —
a self-sustained loop that is continuously attracted to its own past positions?

From this, and from taking quantum entanglement seriously as a constructive mechanism rather than a paradox, the Roton idea emerged.

Motivation: from Schrödingers cats to rotating entities

The standard narrative often suggests:

• a quantum state is “not real” or “not defined” until it is measured,
• “collapse” happens when an external observer intervenes, and
• entanglement is an instantaneous, almost magical, influence across arbitrary distances.

This page documents the early stage where the author started to turn this around:

• The quantum state is real and well defined, but usually hidden from us.
• Measurement is just a particularly violent interaction that tends to destroy, scramble or constrain the original state.
• Instead of being mysterious, entanglement is treated as the natural state of things at small scales: if entanglement emerges so easily for photons and electrons, maybe it is not an exception — maybe it is the rule.
• The question becomes: can we explain the world by treating entanglement and rotation as the default behavior, not the anomaly?

Core intuition: rotation and self-attraction

The central intuitive picture that led toward the Roton idea is:

1. There exists a medium (later called a resonance field) that allows oscillatory, rotating patterns of energy.
2. Some of these rotating patterns are self-sustained: they are kept together by their own rotation and by the way they “pull” on their own past and future positions.
3. Such self-sustained rotating patterns behave like objects: photons, electrons, and later more complex matter.

In this early picture, a photon is imagined as such a rotating entity with a rotation axis in space:

• A polarization filter does not reveal some pre-existing “mystery” but simply forces the photon’s rotation into a particular plane.
• The photon then continues with an axis constrained to this new plane, while the detailed angle within the plane remains free (until further constrained).

This naturally suggests that “spin” is not just a label in a Hilbert space, but a reflection of real geometric rotation.

Entanglement as shared orientation

In this early stage, entanglement is interpreted as sharing a common internal state, in particular:

• Two entangled photons share the same rotation axis (up to direction):
  they behave identically under polarization measurements, no matter how far apart they are.
• Their spatial separation may be arbitrary along that axis, but their orientation remains locked as long as nothing disturbs it.
• A polarization measurement on one photon does not send a signal to the other; instead it reveals and partially reshapes a jointly shared underlying configuration.

The idea of bi-temporality appears here:
if a photon cannot maintain its entanglement, it is not because something “breaks in the future”, but because the whole entangled object (extended in both time directions) was never fully coherent in the first place.

In this sense, entanglement is seen as a kind of two-way resonance in time: both “twins” are parts of one extended object that is consistent across their shared past and future.

Retrospective: first hints of the Roton concept

Looking back from the later, more developed Roton Quantum Model, these early ideas can be summarized as:

• A photon is a basic rotating entity in a medium, later called a Roton (or more specifically a particular Roton type).
• Two such entities can form a joint rotating configuration that behaves as a single object with shared orientation: this is the intuitive basis of entanglement in the Roton picture.
• An electron is then imagined as a combination of several rotational modes, e.g. multiple rotational axes locked together.
• Entangled electrons inherit the same logic: they share internal rotational structure rather than just an abstract label.

The early insight is this:

If we take rotation and entanglement seriously as physical tendencies, much of what looks “mysterious” in standard quantum stories starts to look like the natural behavior of coupled rotating patterns.

This page is intentionally about this origin story: the shift in intuition that led to building a more formal Roton framework later on.

Foot-marks on terminology

The term “spin” is not used in its usual abstract way in the Roton-inspired view. Instead:

• What standard quantum theory calls “spin” is interpreted as the manifestation of
  a real rotational degree of freedom (axis and orientation) of an underlying rotating entity.
• The “projection of spin along an axis” becomes, in this picture, simply the result of forcing a real rotation axis into a particular measurement geometry.

In other words, instead of a purely symbolic quantity like spin_z = ±1/2, we imagine a genuine geometric structure — a vector or axis that is constrained by the measurement setup and then returns a sign depending on its alignment.

Visualization

The following visualization (animation) shows a stacked representation of several rotating entities arranged at different radii. Each level tries to maintain a stable distance and orientation with respect to the others and to its “preferred” radius.

This was one of the first visual experiments that convinced the author that simple rules for rotation and distance preference can already lead to surprisingly rich and stable behavior.

Click to play.