Simulation
Interaction and Bonding of Two Particles
INTERACTIVE SIMULATION
This simulation runs directly in your browser using Three.js and HTML. You can use it on a smartphone or computer, with no installation required.
English
Publication
2 October 2026
Launches
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Overview
Description of My Simulation — Interaction and Bonding of Two Particles
The simulation illustrates the interaction between two directional particles.
Each particle contains an oscillating center, a small internal core that shifts from side to side, showing the natural instability of an isolated particle. This oscillation is essential: it demonstrates that as long as the particles remain separate, their centers search for equilibrium without ever achieving it.
Phase 1 — Oscillation of the Internal Centers
At the beginning of the simulation, the two particles are apart.
Their internal centers:
oscillate laterally,
move from one pole to the other,
generate visible directional tension,
reveal that each particle is trying to stabilize its core.
The oscillation is intentionally amplified to make the phenomenon clear. It represents the internal directional tension of an unbound particle.
Phase 2 — Progressive Approach
As the simulation continues, the two particles begin to move closer.
You can observe:
a reduction in the oscillation amplitude,
a gradual synchronization of their internal movements,
a directional attraction between the two centers.
The particles do not approach randomly;
their internal tension guides them toward each other.
Phase 3 — Center Contact at the Edge
The key moment occurs when:
the two internal centers meet,
exactly at the edge of both particles,
forming a perfect directional contact point.
This contact point is crucial:
it is the instant when the internal poles align.
Phase 4 — Directional Bonding
When the two centers touch at the edge:
the oscillations stop,
internal tension stabilizes,
the two particles bind into a single structure.
The bonding is not a full fusion;
it is a directional connection, where both particles now share a stabilized common center.
This demonstrates the fundamental principle:
Two particles bond when their internal centers meet and align at the edge.
Final Result
The simulation visually demonstrates:
the instability of isolated particles,
the progressive synchronization between two particles,
the directional meeting of their centers,
the formation of a stable bond.
It is a simple but powerful representation of directional particle behavior within my physical model.
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