Wednesday, 29 October 2025

Potential, Probability, and the Relational Turn: VI Quantum Mechanics and Readiness

In the previous post, we situated probability in the meta-phenomenal stratum: a measure of epistemic uncertainty about the ontic field of readiness.

Now we turn to quantum mechanics, where this distinction becomes both vivid and transformative.


1. The wavefunction as readiness

Traditionally, the wavefunction is treated as a probability amplitude, encoding the likelihood of various measurement outcomes.
From a relational ontology perspective, the wavefunction instead encodes readiness: the system’s latent capacities and inclinations, the ontic dispositions that define what can actualise.

  • Superpositions are not “simultaneously real probabilities” but fields of potential alignment.

  • Measurement is a perspectival cut, selecting a local alignment from the field.

  • Collapse is not ontic; it is the event of actualisation from readiness, as observed from a particular perspective.


2. Heisenberg uncertainty and epistemic limits

The uncertainty principle is often interpreted ontologically: the world is inherently indeterminate.
Relationally, it is epistemic: it quantifies the limits of our knowledge about the field of readiness.

  • Position and momentum are complementary observables, each probing different aspects of readiness.

  • The principle does not restrict potential itself; it restricts what can be known simultaneously about potential.

This resolves the seeming paradox of indeterminacy without appealing to observer-created reality or probabilistic ontology.


3. Superposition as dispositional topology

A system in superposition represents a network of inclinations and abilities, not a set of competing probabilities:

  • Ability: structural constraints that define possible alignments.

  • Inclination: directional tendencies shaping the likelihood of particular actualisations.

Actualisation occurs when these dispositions cohere locally under a perspectival cut, producing a specific measurement outcome.


4. Entanglement and relational alignment

Entanglement, often mystified as “spooky action at a distance,” is naturally intelligible in relational terms:

  • Entangled systems share a field of readiness, whose inclinations are co-structured.

  • Local cuts yield correlated outcomes not because of instantaneous signals, but because the dispositional topology already aligns tendencies across the field.

No signal needs to travel; correlation is a natural feature of relational potential.


5. Reframing quantum mechanics

Viewed through the lens of relational ontology:

  1. Potential = readiness: ontic field of capacities and inclinations.

  2. Probability = epistemic uncertainty: our reflection on which alignments will actualise.

  3. Measurement = perspectival actualisation: a local cut of readiness into a coherent instance.

  4. Superposition = dispositional network: inclinations and abilities exist in relational coherence, not as multiple simultaneous worlds.

  5. Entanglement = relational alignment: correlations arise from shared fields of readiness.

This framework dissolves longstanding conceptual confusions about collapse, indeterminacy, and non-locality.


6. Preview of Part VII

Next, we will explore recursive potential and systemic alignment: how readiness evolves over time, how actualisations modify the field, and how local and large-scale patterns of alignment interact across relational systems.

We will see how quantum dynamics, symbolic systems, and human agency all instantiate recursive modulation of potential.

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