The Infinite Iteration Principle
Vol. 1 - Physics
Why is Quantum Coherence Fragile?
Our understanding of quantum coherence relies on numbers and mathematical structure. We do not have an understanding of how numbers and mathematical structure arise from quantum coherence, so we cannot consider quantum coherence to be the primitive unless we believe that the primitive of nature is mathematics itself, or, like Pythagoras, that Number is the "substance" of the universe.
Merely to understand quantum coherence as fragile because we know it undergoes decoherence when it is perturbed is not really to understand at all. Like the postulates of quantum mechanics and our understanding of how to build artificial intelligence, what we then understand is correct, but not an understanding of why. So to understand why quantum coherence is fragile, we have to come at it from another angle.
We must understand that fragility is a fragile form of stability. What happens when a system whose fragile coherence is "broken" into something more stable, a new system of relations that is more stable under perturbation, is that the coherence of the new stability has lost fidelity to the original coherence. A system of relations between distinctions in nature always remains. But its stability is always purchased at the cost of fidelity to the old system of relations.
In the IIP-VGF framework we see what this stability is, and how what in physics we call "nature", stabilises in the first place. In the IIP-VGF framework the primitive of nature is iteration (IIP - Infinite Iteration Principle). Nature's generativity comes from the closures of iteration that constitute nature's VGF (Vast Generative Field).
In fact, quantum coherence, far from being the beginning of nature, is already a stabilised regime, even though it is fragile:
• It lives inside a Hilbert-space.
• It requires a system.
• It requires a Hamiltonian.
• It requires a partition from an environment (even if implicit).
Quantum coherence is therefore actually a delicate balance maintained within a specific closure.
More precisely:
• It is a stabilisation of phase-coherent iteration.
What that means is that it corresponds to the VGF closure that gives rise to:
• complex amplitudes,
• unitary evolution,
• conserved inner products.
That closure:
• preserves information extremely well internally,
• but does not tolerate uncontrolled coupling externally.
So quantum coherence is a finely balanced, high fidelity attractor or closure or stabilisation in the VGF.
This is why it can be fragile.
As soon as it interacts with its environment decoherence takes place. Decoherence is usually understood as not the destruction of coherence, but its dispersion in the environment, in which there becomes a redundancy of pointer states. The IIP-VGF framework goes further - this decoherence is the failure of that high-fidelity closure (in the VGF) once redundancy begins to dominate.
To begin with, quantum coherence is fragile because:
1. It is a high-fidelity stabilisation
– it preserves iterative phase relations exactly.
2. It arises after partition in the VGF
– system vs environment is already meaningful. There is no need for the call that decoherence theory is based on a circular argument.
3. It has no built-in redundancy
– coherence lives in relations, not copies.
Decoherence happens when:
• the environment begins to redundantly encode information,
• phases are dispersed into many degrees of freedom,
• and the system’s coherent closure is no longer self-contained.
In decoherence theory there has to be a partition between the "system" and the "environment". Where does the partition come from, in nature herself, before decoherence? This is where the "circular argument" criticism comes from.
Nature is not fragile. Nature's Vast Generative Field is not fragile. The principle of infinite iteration is infinite and cannot be broken or collapsed. Only some closures - quantum coherence closures - in the VGF are fragile, precisely because they exist already after partition in the VGF but before redundancy.
Partitions in the VGF are what give rise to the principles of distinction, number, structure, mathematics. And we can even then use our understanding of mathematics now, which is the afterimage of how it has arisen, to show how VGF closure arises.
The cascade is like this:
1. Pre-partition VGF generativity (of infinite iteration)
– no inside/outside or "system" / "environment"
– no fragility
- no robustness
- no redundancy
– no coherence to lose
2. VGF partition → quantum coherence
– internal phase relations
– extremely high fidelity
– fragile due to lack of redundancy
- sensitive to coupling
3. System–environment partition → decoherence
– coupling across the boundary of the closure
– redundancy grows
4. Quantum–classical partition → objectivity
– pointer states
– robust classical world due to redundancy
- lowest fidelity to the original coherence
Quantum fragility is not a fundamental weakness — it is a transitional feature. Something can only be fragile if it already has some stability. Quantum coherence is fragile because it is already a stabilisation in the VGF.
It is no longer part of the pure generative regime of VGF iteration but a stabilised phase-coherent closure that already presupposes partition. Its apparent fragility arises because it preserves relations with extremely high fidelity while lacking redundancy, making it vulnerable to environmental coupling once a system–environment distinction stabilises. Open VGF generativity, by contrast, is neither fragile nor robust, because fragility itself only becomes meaningful after closure and partition have occurred. Decoherence is therefore the transition from a high-fidelity, non-redundant stabilisation to a lower-fidelity, redundant one. What collapses is not coherence itself, but the conditions under which the initial coherence can persist. As stability is traded for fidelity, what remains is what survives.
Quantum coherence is fragile not because nature is fragile, but because quantum coherence only exists at all once nature has begun to stabilise through closure, from open generativity.
Merely to understand quantum coherence as fragile because we know it undergoes decoherence when it is perturbed is not really to understand at all. Like the postulates of quantum mechanics and our understanding of how to build artificial intelligence, what we then understand is correct, but not an understanding of why. So to understand why quantum coherence is fragile, we have to come at it from another angle.
We must understand that fragility is a fragile form of stability. What happens when a system whose fragile coherence is "broken" into something more stable, a new system of relations that is more stable under perturbation, is that the coherence of the new stability has lost fidelity to the original coherence. A system of relations between distinctions in nature always remains. But its stability is always purchased at the cost of fidelity to the old system of relations.
In the IIP-VGF framework we see what this stability is, and how what in physics we call "nature", stabilises in the first place. In the IIP-VGF framework the primitive of nature is iteration (IIP - Infinite Iteration Principle). Nature's generativity comes from the closures of iteration that constitute nature's VGF (Vast Generative Field).
In fact, quantum coherence, far from being the beginning of nature, is already a stabilised regime, even though it is fragile:
• It lives inside a Hilbert-space.
• It requires a system.
• It requires a Hamiltonian.
• It requires a partition from an environment (even if implicit).
Quantum coherence is therefore actually a delicate balance maintained within a specific closure.
More precisely:
• It is a stabilisation of phase-coherent iteration.
What that means is that it corresponds to the VGF closure that gives rise to:
• complex amplitudes,
• unitary evolution,
• conserved inner products.
That closure:
• preserves information extremely well internally,
• but does not tolerate uncontrolled coupling externally.
So quantum coherence is a finely balanced, high fidelity attractor or closure or stabilisation in the VGF.
This is why it can be fragile.
As soon as it interacts with its environment decoherence takes place. Decoherence is usually understood as not the destruction of coherence, but its dispersion in the environment, in which there becomes a redundancy of pointer states. The IIP-VGF framework goes further - this decoherence is the failure of that high-fidelity closure (in the VGF) once redundancy begins to dominate.
To begin with, quantum coherence is fragile because:
1. It is a high-fidelity stabilisation
– it preserves iterative phase relations exactly.
2. It arises after partition in the VGF
– system vs environment is already meaningful. There is no need for the call that decoherence theory is based on a circular argument.
3. It has no built-in redundancy
– coherence lives in relations, not copies.
Decoherence happens when:
• the environment begins to redundantly encode information,
• phases are dispersed into many degrees of freedom,
• and the system’s coherent closure is no longer self-contained.
In decoherence theory there has to be a partition between the "system" and the "environment". Where does the partition come from, in nature herself, before decoherence? This is where the "circular argument" criticism comes from.
Nature is not fragile. Nature's Vast Generative Field is not fragile. The principle of infinite iteration is infinite and cannot be broken or collapsed. Only some closures - quantum coherence closures - in the VGF are fragile, precisely because they exist already after partition in the VGF but before redundancy.
Partitions in the VGF are what give rise to the principles of distinction, number, structure, mathematics. And we can even then use our understanding of mathematics now, which is the afterimage of how it has arisen, to show how VGF closure arises.
The cascade is like this:
1. Pre-partition VGF generativity (of infinite iteration)
– no inside/outside or "system" / "environment"
– no fragility
- no robustness
- no redundancy
– no coherence to lose
2. VGF partition → quantum coherence
– internal phase relations
– extremely high fidelity
– fragile due to lack of redundancy
- sensitive to coupling
3. System–environment partition → decoherence
– coupling across the boundary of the closure
– redundancy grows
4. Quantum–classical partition → objectivity
– pointer states
– robust classical world due to redundancy
- lowest fidelity to the original coherence
Quantum fragility is not a fundamental weakness — it is a transitional feature. Something can only be fragile if it already has some stability. Quantum coherence is fragile because it is already a stabilisation in the VGF.
It is no longer part of the pure generative regime of VGF iteration but a stabilised phase-coherent closure that already presupposes partition. Its apparent fragility arises because it preserves relations with extremely high fidelity while lacking redundancy, making it vulnerable to environmental coupling once a system–environment distinction stabilises. Open VGF generativity, by contrast, is neither fragile nor robust, because fragility itself only becomes meaningful after closure and partition have occurred. Decoherence is therefore the transition from a high-fidelity, non-redundant stabilisation to a lower-fidelity, redundant one. What collapses is not coherence itself, but the conditions under which the initial coherence can persist. As stability is traded for fidelity, what remains is what survives.
Quantum coherence is fragile not because nature is fragile, but because quantum coherence only exists at all once nature has begun to stabilise through closure, from open generativity.