Space

1. The Steel Table

Put your hand on a steel table. It is solid. There is no space in it. Your hand stops at the surface. Push harder and the table pushes back. Every experience you have tells you this is a solid, continuous object.

Now take a piece of that steel and look at it under a powerful microscope. The solid surface becomes a landscape — grains, boundaries, gaps between crystal structures. Zoom further. The grains become lattices of atoms. Between the atoms, there is nothing. The solid table is mostly empty. The atoms that make it up are separated by distances that, relative to their size, are vast.

The table did not change. What changed was the viewpoint. At human scale, the table is solid. At atomic scale, the same table is a sparse arrangement of tiny particles with enormous proportional gaps between them. Both observations are true. The difference is only the scale at which the observer is looking.

2. Inside the Atom

Now go further. Pick one atom from the steel table and look inside it.

The nucleus sits at the centre — protons and neutrons held together. The electrons occupy regions far out from the nucleus. How far? If the nucleus were the size of a marble sitting on the centre spot of a football pitch, the nearest electron would be somewhere in the stands. Everything between the marble and the stands is — what? Empty space? Something else? Nothing at all?

The same question applies. At the human scale, the atom is the tiniest particle of matter — so small that we think of it as a point. At the subatomic scale, it is a vast structure with proportional distances that rival a solar system. Same atom. Same particles. Different viewpoint. The "space" inside the atom appeared when the observer changed scale.

3. The Hubble Lesson

Now go the other direction. Look up at the night sky. Find a faint star. It is a single point of light — small, dim, and far away.

Now look at that same point of light through the Hubble Space Telescope. The single star becomes a galaxy — a hundred billion stars, spanning a hundred thousand light-years, with structure and motion and depth that were invisible a moment ago.

The galaxy did not change. It was always there, exactly as it is. What changed was the viewpoint. The observer's instrument improved, and with it, the perception of dimension changed entirely. What was a point became a universe. The "space" around and within that galaxy appeared when the viewpoint's resolution increased.

4. What Space Actually Is

Three observations at three scales — table, atom, galaxy — and the same thing happened each time. The object did not change. The observer's viewpoint changed, and with it, the perception of dimension.

This is not a trivial point about microscopes and telescopes. It goes deeper than instrumentation.

Space requires two things to exist: at least one particle, and a viewpoint to observe it. The particle provides something to see. The viewpoint provides the act of seeing. The relationship between them — the viewpoint's perception of the particle's dimension — is what we call space.

Move the particle. Space changes — because the viewpoint's perception of dimension changes. Add a second particle. Now there is a relationship between two things, observed from a position relative to both. The distance between them is not a property of the particles or of some invisible container they sit in. It is what the viewpoint perceives when it observes both particles and registers their dimensional relationship.

Without a viewpoint, there is no observation. Without observation, there is no perception of dimension. Without perception of dimension, there is no space. Space is not a thing. It is an experience — a viewpoint of dimension.

5. Anchor Points

Consider how you actually navigate space in daily life.

You walk into an unfamiliar room. What do your eyes do first? They find the walls, the floor, the furniture. These become reference points — fixed positions from which you establish dimension. The far wall is over there. The table is here. The door is behind you. From these reference points, you construct a spatial picture of the room and begin to move through it with confidence.

Now step outside on a clear night. Your eyes find the stars. Each one becomes a reference point, and from those points, you perceive the vastness of the sky.

Notice what is happening. The reference points come first. The perception of space follows. Without the reference points — in total darkness, in sensory deprivation, in featureless fog — spatial perception collapses. You lose your bearings. The "space" you were confident about a moment ago becomes uncertain, disorienting, effectively gone. The reference points return, and so does the space.

This raises a question worth sitting with: does space exist independently of the reference points and the observer who uses them? Or does the observer's perception — finding reference points, registering dimensional relationships — create the experience of space in the first place?

The three examples in this note do not answer that question for you. But they offer something to examine. The steel table did not change — only the viewpoint changed, and space appeared within it. The atom did not change — only the viewpoint changed, and vast dimension appeared inside it. The galaxy did not change — only the viewpoint changed, and a point of light became a universe.

In each case, the space was not there until the viewpoint revealed it. Whether that means the viewpoint is discovering space or creating it is a question each reader will have to resolve through their own observation.

6. What This Means for the Field

Spectrum Energy Research has proposed that the quantum field is the base medium of the universe — the underlying structure through which all electromagnetic energy travels (Research Note 002). Electric and magnetic are the two fundamental terminals operating on that base, each with its own polarity, and what we call gravity is the product of their interaction at large scale — not a separate force requiring unification (Research Note 014, Research Note 022).

If space is a perception rather than a container, then the quantum field does not exist inside space. There is no "space" for it to exist inside, until a viewpoint observes particles within the field and perceives dimensional relationships between them. The field is the underlying reality. Space is what an observer experiences when looking at things within the field.

This resolves a puzzle that has troubled physics since quantum entanglement was confirmed. When two paired electrons are separated and one is measured, the other instantly reflects the corresponding state, regardless of the distance between them. Physicists ask: how does the information cross that distance so fast?

The question assumes the distance is a real barrier the connection must overcome. But if distance is the viewpoint's perception of dimensional relationship, not an independent property of reality, then the question dissolves. The field-level connection between the paired electrons does not need to cross distance. It exists at a level where distance — the observer's perceptual construct — is not the governing constraint. The observer perceives two particles far apart. The field has no such limitation.

7. Open Questions

© 2026 David R. Young — Spectrum Energy Research Foundation