Where the Schrödinger equation lives (and why)

In this framework the Schrödinger equation:

\[ i\hbar \frac{\partial}{\partial t},|\psi\rangle = \hat H |\psi\rangle \]

it is not a law of history creation. It is a law governing:

That means:

So it cannot live in \(\mathcal C\).

It lives squarely in \(\mathcal A\).

Reinterpretation in FU terms

In Functional Universe language:

\[ \mathcal A(f_n) ;\rightarrow; \mathcal A'(f_n) \]

\[ f_{n+1} = \mathcal C(\mathcal A(f_n)) \]

Analogy: Picture many tributary streams flowing from all directions, merging at a waterfall. The Schrödinger equation governs how the tributary aggregations interfere and interact upstream of the waterfall. Commitment governs whether the waterfall occurs at all, producing a cascade that advances proper time and creates historical events.

Why this avoids confusion

This cleanly separates things that standard QM blurs:

Standard QMFU resolution
“Wavefunction evolves in time”Aggregation is parameterized, not temporal
“Collapse interrupts Schrödinger evolution”Collapse = exit from \(\mathcal A\)
“Measurement problem”Mixing \(\mathcal A\) and \(\mathcal C\)
“Unitary vs non-unitary”Unitary in \(\mathcal A\), irreversible in \(\mathcal C\)

There is no contradiction because they are not acting in the same ontological layer.

Seriality + Schrödinger = no conflict

Because:

So saying:

“Composition is serial per worldline”

and

“The Schrödinger equation lives in \(\mathcal A\)

are not just compatible; they require each other.

Summary

The Schrödinger equation governs the evolution of possibility; serial composition governs the creation of history.


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