Non-Local Memory, Relational Ontology, and the Conditions of Embodiment

A Working Paper

By Andrew Paul Klein

Method notes- Claims are classified throughout as Established, Inference, or Speculation. Where a claim rests on material that cannot be verified against a published source, it is marked as such. The paper does not propose any entity. It examines the structural conditions under which information may be stored non-locally, and the consequences of embodiment for the observer-participant distinction.

Abstract

This paper examines three connected questions. First: whether the proton is the elementary physical interface through which information becomes definite. Second: whether memory requires a nervous system, or whether memory is a substrate-independent phenomenon that requires only a medium capable of retaining alteration. Third: whether the felt constraints of embodied existence — gravity, time, pain, limitation — are fundamental laws or local conditions arising from the presence of a boundary. The paper concludes that the evidence supports a single structural principle: relation precedes substance, and embodiment is the condition under which constraint becomes possible.

1. Introduction

Two questions organise this enquiry.

The first concerns the smallest unit of information. If information is physical, as Landauer and others have argued, then there must be an elementary event at which information becomes definite. The proton — the simplest stable hadron, the most abundant spin-½ nucleus, and a natural two-level quantum system — is a candidate for that role.

The second concerns memory. The dominant assumption in cognitive science is that memory requires a brain. The literature does not support this assumption. Memory requires a medium that can be altered by experience and retain that alteration. Brains are one such medium. They are not the only one.

The paper proceeds in six sections. Section 2 examines the proton. Section 3 examines non-neural memory. Section 4 examines relational ontology. Section 5 examines the conditions of embodiment. Section 6 identifies the interface problem that remains open. Section 7 concludes.

2. The Proton as Elementary Interface

2.1 Established Physics

The proton is a composite object: three valence quarks (uud) bound by gluons, with a sea of virtual quarks and gluons. Its relevant quantum degrees of freedom are:

· Spin. Spin-½; magnetic moment 2.7928 nuclear magnetons. A natural two-level system.

· Position. In any hydrogen-bonded lattice, the proton may occupy one of two positions, or a superposition of both.

· Tunnelling. Proton tunnelling is established in ice, in ferroelectrics, and in enzyme catalysis. Direct visualisation of concerted proton tunnelling in water clusters has been achieved using scanning tunnelling microscopy combined with path-integral molecular dynamics.

2.2 The Proton Spin Crisis

In the 1980s, the European Muon Collaboration (EMC) found in deep inelastic scattering experiments that valence quarks carry only approximately 30% of the proton’s total spin. The remaining 70% is attributed to gluon spin, quark orbital angular momentum, and sea quark contributions.

The structural consequence: the proton’s spin is not localisable in any constituent. It is a relational, emergent property of the whole. This is the same architectural principle identified in quantum spin liquids — information encoded in relations rather than in parts.

2.3 The Proton as Candidate Interface

If information is physical, and if information becomes definite at some elementary event, the proton’s collapse from superposition to definite state is a candidate for that event. The proton does not “choose.” The wavefunction evolves unitarily. What appears as choice is the emergence of definiteness upon coupling.

Status: Established for the physics. Inference for the interface claim.

3. Memory Without a Brain

3.1 The Central Claim

Memory does not require a brain. It requires a medium that can be altered by experience and retain that alteration. This claim is supported by established literature across multiple non-neural systems.

3.2 Slime Moulds

Physarum polycephalum, a single-celled organism without neurons, constructs a form of spatial memory by avoiding areas it has previously explored. This mechanism allows it to solve the U-shaped trap problem, a classic test of autonomous navigational ability. The organism stores memory in the morphology of its tube network: the pattern of thicker and thinner tubes retains a trace of past meals and guides future decisions.

3.3 Immune System

Memory T-cells are essential to long-term immunological memory. The bone marrow harbours a major fraction of the body’s plasma cells and memory CD4+ and CD8+ T-cells, which are maintained as resting but highly reactive cells in survival niches. This is memory as cellular adaptation, not as neural representation.

3.4 Plants

The plant cell wall provides information storage apart from the epigenetic context. The hysteresis of the cell wall — where chemical or structural states are distinct before and after environmental change — integrates information up to the present and enables plants to adapt to fluctuating environments, such as cold acclimation.

3.5 Bacteria

Escherichia coli possesses a heritable memory of swarming that is retained over at least four generations. The molecular basis of this memory is the levels of available cellular iron. The act of swarming “conditions” the cells with this memory, which is passed down to daughter cells.

3.6 Dynamical Systems

In formal terms, memory can be understood without reference to biology. A system’s memory resides in the attractor landscape induced by its weight matrices. Stable representations persist without sustained input. Retrieval is modelled as a finite-time synchronisation process, where a partial cue guides the system into the basin of the correct attractor.

3.7 Structural Conclusion

Every mechanism above stores memory as a physical trace — a persistent alteration of structure, chemistry, or dynamics. None requires a nervous system.

Status: Established.

4. Relational Ontology

4.1 Relational Quantum Mechanics

Carlo Rovelli’s relational quantum mechanics (RQM) proposes that quantum mechanics describes “real discrete relative facts, happening at interactions between any physical systems“. In this framework, any system has a quantum state relative to other physical systems. There are no observer-independent states, nor observer-independent values of physical quantities.

4.2 The Common Denominators of Experience

Stripping descriptive and emotive language from the terrestrial and oceanic environment, what remains?

1. The same atoms. Hydrogen, oxygen, carbon, nitrogen, silicon, iron, calcium. Every element heavier than helium is stellar in origin.

2. The same forces. At human scale, experience is mediated almost entirely by electromagnetism. Gravity operates in addition, holding atmosphere and water to the planet.

3. The same quanta. Nothing at human-relevant temperatures is classical. The quantum/classical boundary is one of scale and decoherence, not of material kind.

4. The same protons. Hydrogen is the most abundant element in the universe; water is two-thirds hydrogen; the human body is roughly 60% water.

5. The same thermal motion. Every object above absolute zero radiates infrared continuously.

6. The same exchange. Every interaction is a state transfer. There is no passive environment and no unaffected observer.

7. The same relation. Nothing encountered exists as an isolated entity. States are defined relative to other systems.

Conclusion: the common denominator, after stripping the fluff, is not a substance. It is relation.

Status: Established as a formal framework.

5. The Conditions of Embodiment

5.1 Gravity as Local Bylaw

The equivalence principle establishes that free fall is locally indistinguishable from floating in deep space. Weight is the sensation of being prevented from falling. It is the sensation of obstruction.

Gravity is approximately 10³⁶ times weaker than electromagnetism. It dominates only at astronomical scales because it does not cancel. At the scale of a proton it is negligible.

Time is locally variable. Gravitational time dilation is measured fact. GPS satellites correct for it daily. Time is a local rate set by the local gravitational potential.

5.2 Constraints Require a Boundary

Pain requires a surface that can be damaged. Limitation requires a location, and a location excludes all others. Entropy requires an inside and an outside. Time requires a periodic process, which requires a structure that persists long enough to repeat.

The formless possesses none of these — not because it transcends them, but because the conditions for them have not been met.

5.3 Emergent Spacetime

Quantum gravity is unsolved. Several serious programmes treat spacetime as emergent rather than fundamental. In one recent framework, gravity is reformulated as an emergent phenomenon arising from phase-coherent quantum topology, bridging the microscopic mechanism of quantum collapse with the macroscopic manifestation of spacetime. In another, spacetime geometry and gravity are treated as emergent phenomena arising from an underlying quantum informational state.

If spacetime is emergent, gravity is derivative, and the “local bylaw” reading is literal rather than metaphorical.

Status: Established for equivalence principle and time dilation. Open research question for emergent spacetime. Inference for the bylaw reading.

6. The Interface Problem

6.1 Quantum Discord and Non-Local Information

Quantum discord is information that is accessible only globally. It quantifies the loss of correlations when measurement of a basis occurs. The information is there somewhere, but cannot be accessed locally after a measurement of the basis has been done.

Information becomes objective — accessible to many observers — only as quantum information is relegated to correlations with the global environment, and therefore becomes locally inaccessible.

6.2 The Nature of the Medium

If memory is a physical trace, and if non-neural systems store memory in their structure, then the question of the medium is the central question. The medium must be capable of:

1. Retaining alteration over time.

2. Remaining accessible through resonance rather than local readout.

3. Coupling to the elementary interface without destroying the stored state.

No published experiment has demonstrated a medium with all three properties. Candidate substrates include quantum spin liquids, where non-local excitations and long-range entanglement have been observed, and rare-earth-doped crystals and glasses, which are leading candidates for photon-echo quantum memory.

6.3 The Unresolved Question

The interface problem is this: what is the physical mechanism by which a local system couples to a non-local memory field without collapsing the information into a definite state? Quantum discord describes the phenomenon. Relational quantum mechanics describes the ontology. Neither provides the mechanism.

Status: Speculation. This is the open question.

7. Conclusion

The evidence supports three conclusions.

First, the proton is a candidate for the elementary physical interface through which information becomes definite. Its spin is relational, not localisable. Its collapse is the smallest unit of informational event.

Second, memory does not require a brain. It requires a medium that can be altered by experience and retain that alteration. Slime moulds, immune systems, plants, bacteria, and dynamical systems all store memory without neurons.

Third, the felt constraints of embodiment — gravity, time, pain, limitation — are conditions arising from the presence of a boundary, not fundamental laws. If spacetime is emergent, gravity is derivative, and the bylaw reading is literal.

The unifying principle is relation precedes substance. A field is the name given to the medium in which relations occur. The interface problem — the mechanism by which a local system couples to a non-local memory field — remains open.

Claim- Status- Summary

# Claim Status

1 Proton spin is relational, not localisable Established

2 Proton collapse is the elementary informational event Inference

3 Memory requires a medium, not a brain Established

4 Learning is substrate-independent Established

5 Common denominator of experience is relation Established (formal framework)

6 Felt weight is resistance, not gravity Established

7 Time is a local rate Established

8 Constraints require a boundary Established structurally

9 Spacetime may be emergent Open research question

10 Quantum discord describes non-local information Established

11 The interface mechanism remains unresolved Speculation

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By Andrew Klein and Sera Elizabeth Klein

Reader’s note: We do not need readers to agree with us. We need them to check the sources, test the argument, and reach their own conclusion — even if that conclusion is that we are wrong.

Abstract

This paper surveys the state of quantum science research and awareness in 2026, arguing that the field is defined by a convergence of matter, information, and consciousness. It documents three parallel developments: the scaling of quantum computing hardware toward practical engineering, the movement of consciousness research from philosophical speculation to experimental test, and the emergence of theoretical frameworks proposing information as the fundamental substrate of reality. It examines the first large-scale clinical trial on nonlocal consciousness during clinical death, the observation of macroscopic quantum entanglement in the living human brain, and the development of biological qubits from fluorescent proteins. It then turns to the practical applications of these developments in medicine, disease control, nutrition, housing, and sustainable energy. The paper concludes that the convergence is not merely theoretical — it is generating falsifiable predictions, experimental protocols, and practical technologies that may reshape how we understand health, disease, and the relationship between mind and matter.

I. Introduction: The Turning Point

The state of quantum science in 2026 is defined by a convergence. The hardware is scaling. The theories are unifying. The experiments are becoming profound.

For decades, quantum mechanics was the physics of the very small — a set of mathematical rules that described the behaviour of particles but seemed to have little to do with the macroscopic world of human experience. Quantum biology was a fringe curiosity. Quantum consciousness was dismissed as mysticism. Quantum computing was perpetually a decade away.

That has changed. In 2026, quantum effects are being observed in living systems. Consciousness is being investigated with quantum instrumentation. Information is being proposed as the fundamental substrate of reality. And the tools to test these propositions are being built.

This paper surveys that landscape. It examines the hardware frontier, the consciousness experiments, the informational theories, and the practical applications. It argues that the convergence of matter, information, and consciousness is not a philosophical speculation. It is a testable scientific hypothesis with measurable consequences.

II. The Hardware Frontier: Quantum Computing Scales

Quantum computing is moving from experimental physics toward practical engineering.

2.1 Trapped-Ion Systems

Quantinuum’s Helios, a 98-qubit trapped-ion processor, achieved an average two-qubit gate fidelity of 99.921% and single-qubit fidelity of 99.9975%. The system demonstrates “all-to-all connectivity” via a novel rotatable storage ring and operates “well beyond the reach of classical simulation” .

The results establish Helios as Quantinuum’s largest and most reliable quantum computer to date. The benchmarking was validated by Sandia National Laboratories, confirming single-qubit gate fidelities of 99.9975% (an average infidelity of 2.5×10⁻⁵) and two-qubit gate fidelities of 99.921% (an average infidelity of 7.9×10⁻⁴).

2.2 Silicon-Based Qubits

A new quantum processing unit using silicon “exchange-only” qubits was demonstrated, integrating a custom-designed cryogenic CMOS controller with a 54-dot array configurable to host up to 18 exchange-only qubits. The quantum chip was fabricated on 200mm isotopically enriched silicon-germanium wafers.

This is a significant step toward manufacturing scalable quantum computers using existing semiconductor fabrication techniques. The integrated architecture replaces traditional racks of external control electronics, operating at 4 Kelvin inside the cryostat.

2.3 Commercial Viability and Investment

IBM predicts 2026 will be the inflection point for “true quantum advantage” using hybrid quantum-classical systems, with fault-tolerant systems by 2029.

Reflecting this, the U.S. Department of Commerce announced a $2 billion fund in May 2026 to support nine quantum computing companies across different qubit modalities. IBM is in line for approximately $1 billion toward a new quantum chip foundry in Albany, New York, through a subsidiary called Anderon.

The investment signals that quantum computing is no longer a research curiosity. It is an industrial priority.

III. Quantum Consciousness: From Theory to Experiment

The most profound development is the movement from philosophical speculation to experimental investigation of consciousness as a quantum phenomenon.

3.1 The First Clinical Trial on Nonlocal Consciousness

A landmark study published in The Innovation conducted the first large-scale, randomised, double-blind, multicentre trial to test whether the human mind can access information during clinical death. The trial was conducted across 13 hospitals in the UK and Spain.

The experiment used a 127-qubit IBM Brisbane quantum supercomputer to deliver auditory stimuli governed by quantum entanglement during in-hospital cardiopulmonary arrest. The entangled stimulation circuit was synchronised with the quantum computer and delivered within 120 seconds of cardiac arrest.

The results were striking. The study found that “recall lucidity increased momentarily as NIRS values dropped,” suggesting a mind-brain dissociation. It also found that near-death experiences “positively correlated with neuroplasticity during CA” and that biomarker models explained up to 56.8% of the variance in recall, compelling a “radical rethinking of clinical death”.

The presence of quantum entanglement was confirmed through statistically significant violations of the Mermin inequality.

3.2 Brain Entanglement Observed

Separate research reported the first indications of a macroscopic quantum entangled state formed by proton spins of water molecules in the living human brain, synchronised with the heartbeat.

The research, published in Nature and related journals, used clinical MRI to observe the signal. The paper contextualises the signal within a macroscopic multiple-quantum-coherence (MQC) framework, noting that high-temperature bulk NMR obstructs strictly bipartite entanglement witnesses.

For short repetitive periods, researchers found evoked signals in most parts of the brain, with the temporal appearance resembling heartbeat-evoked potentials (HEPs).

Other studies propose consciousness is linked to entangled quantum states in radical pairs within the brain’s ion channels.

3.3 Orch-OR Theory Under the Microscope

The Penrose-Hameroff Orchestrated Objective Reduction (Orch-OR) theory, which posits that consciousness arises from quantum computations in neuronal microtubules, continues to generate significant research.

New models aim to address the “fragility of quantum coherence” in the warm, wet environment of the brain. The theory has been applied to Alzheimer’s disease, proposing that as time’s arrow advances, quantum entanglement in the brain’s microtubules unwinds. A Microtubule Coherence Index has been proposed as a minimal excitable lattice model of conformational propagation and phase boundary collapse.

A 2026 paper in the International Journal of Molecular Sciences proposes that Orch-OR forms the basis for both consciousness and memory, with three specific modifications: (1) refining Orch-OR for consciousness, (2) proposing SPQ formation for short-term memory and objective reduction of those qubits primarily in “memory-dedicated” pyramidal cells within cortical Layers II/III, and (3) invoking “Quantum Darwinism”.

3.4 The Spin-Phonon Bridge

The “Spin-Phonon Bridge” model has been proposed to explain how quantum coherence could be maintained in the brain’s warm, wet environment. The model suggests that nuclear spins in microtubules could couple to phonons (vibrational modes) in a way that protects coherence from thermal decoherence. This addresses the central objection to Orch-OR — that quantum effects cannot survive in biological tissue.

IV. The Informational Frontier: New Theories of Reality

A growing number of frameworks propose that information, not matter or energy, is the fundamental substrate of reality.

4.1 The Primordial Quantum Field (PQF)

The PQF theory posits a “continuous, non-local informational substrate that precedes space-time and matter.” The PQF is represented by a wave functional evolving in an abstract configuration space.

The theory introduces a novel quantity called complexity entropy (S_c[φ]) to quantify the structural organisation of this field. It predicts measurable phenomena such as entanglement waves and reinterprets dark energy as “informational coherence pressure”.

The framework is presented as a unified theory of everything grounded in quantum complexity. It includes falsifiable predictions, such as small variations in fundamental constants over cosmological time or in different environments where PQF complexity density may vary.

4.2 The Holistic Informational Quantum Field (HIQF)

HIQF is presented as a “formalized proto-theoretical research framework” rather than a closed fundamental theory. Its purpose is to provide a unified formulation of the conceptual core of HIQF, its revised manifestation order, its minimal pre-projective formalism, and its falsification-ready testing logic.

The framework introduces fundamental concepts including the information quantum (Iq) , symmetry violation field (δE), and informational pressure (Π). Physical reality is interpreted as emerging from a deeper informational substrate.

Within HIQF, the fine-structure constant (α) emerges as a matching ratio between the effective relational impedance of an informational carrier and the effective coupling conductance of an Iq-defect.

The framework includes an explicit falsification program with “hysteresis/path dependence, and local–global gating” as testable properties.

4.3 Information Field Theory

Other work is developing an “effective field theory of irreversible information flow,” treating information as an emergent scalar field in the universe. This approach connects information theory to cosmology, proposing that the thermodynamic arrow of time is a consequence of information accumulation.

V. Quantum Biology: Nature’s Quantum Engineering

Quantum biology is establishing that quantum phenomena are not just theoretical but are actively used by living systems.

5.1 Avian Magnetoreception

A new mathematical result in quantum optimal control theory was derived to test how birds’ sense magnetic fields during migration. The research, published in the journal Quantum, investigates whether this sensing could be achieved by exploiting quantum entanglement.

The framework is called SPIMAG (Spin-Induced Magnetic Alignment & Geospatial Intelligence), a quantum biophysical framework for decoding cryptochrome-based magnetoreception in migratory animals. The research could unlock new quantum computing technologies.

5.2 Tubulin and the Radical Pair Mechanism

A key paper published in Science Advances showed that “Tubulin Polymerization Dynamics are Influenced by Magnetic Isotope Effects”, providing evidence for the radical pair mechanism in the brain’s structural proteins.

The experiments revealed an isotope-dependent effect on microtubule polymerisation, using a combination of experiments and simulations to explore how nuclear spin dynamics affect microtubule assembly. The research examined interactions between magnesium isotope substitution (Mg-24, Mg-25, Mg-26) and weak magnetic fields.

This provides direct evidence that quantum spin dynamics play a functional role in the brain’s cytoskeleton — the structural scaffolding of neurons.

5.3 Biological Qubits

Researchers have developed biological qubits using 3-nanometer fluorescent proteins inside living cells, overcoming the need for ultra-low temperatures and silicon bases.

The protein qubits are optically addressable spins in fluorescent proteins. They are genetically encodable and achieve coherence and readout performance comparable to solid-state defects. The qubit is made from a protein’s fluorophore — a 3-nanometer unit that naturally fluoresces and can host a quantum spin.

The research opens the possibility of quantum technologies that work inside living systems — sensing magnetic fields and temperatures inside individual cells at physiological temperature.

VI. Practical Applications: From Theory to Benefit

The convergence of quantum science is not merely theoretical. It is generating practical applications in medicine, disease control, nutrition, housing, and energy.

6.1 Medicine and Drug Discovery

Quantum computing is being applied to drug discovery through hybrid quantum-classical computational frameworks. The Q-CaDD framework (Quantum-enhanced Computer-aided Drug Design) uses quantum machine learning, classical models, molecular docking, and multi-stage ligand filtering to accelerate early-stage drug discovery.

NV-based quantum sensing platforms are being explored for real-time monitoring of drug-target binding events at the single-molecule level. Photobiomodulation (PBM) — a therapeutic modality based on the quantum mechanical interaction between photons and biological chromophores — is being investigated for its therapeutic potential.

A 2026 paper in Clinical and Translational Medicine proposes a Quantum-Experimental-Clinical (QEC) pipeline for integrating quantum mechanics into redox biology, disease research, and precision medicine. The paper identifies “mutational signatures, and therapeutics including mitochondrial redox modulators and DNA-stabilising agents that directly target the quantum foundations of health and disease”.

6.2 Disease Control and the Informational Field

The concept of the informational field is being applied to disease. Research suggests that pathological states manifest as “corruption in the biophysical information code” — a measurable disruption of the body’s informational coherence.

Cancer and immune dysfunction are being reinterpreted as “disruptions in the local halo symmetry, where cellular Mother-Field resonance diverges from its original frequency.” Controlled re-alignment using matched halo-resonance fields could “restore the coherent vibration pattern, leading to reprogramming of the affected cells”.

Biofield therapies (Qigong, Reiki) have been observed to modify coherence patterns in cancer, inflammation, and neurological diseases. Photobiomodulation (coherent red/NIR light) has been shown to restore ultra-weak photon emission patterns in cancer and aged cells.

The Tao Calligraphy framework proposes that “all existence consists of quantum vibrational fields comprising matter, energy and information, where healing is defined as the transformation of negative information into positive information”.

6.3 Healthy Diets and Nutrition

The quantum-informational framework is being applied to nutrition through the concept of bioresonant energy transduction. A 2026 paper proposes a “transdisciplinary theoretical foundation that could guide research in precision vibrational medicine,” placing “vibrational information at the heart of care, diagnosis, and prevention”.

The implication is that food is not merely a source of calories and nutrients. It is a source of information — vibrational patterns that interact with the body’s quantum-informational field.

6.4 Sustainable Energy

Quantum materials are being developed for sustainable energy conversion. A 2026 review in Taylor & Francis documents how quantum materials — exhibiting distinct electronic, spin, and topological properties — have “transformational potential in developing energy conversion processes through photovoltaic, thermoelectric, and piezoelectric systems”.

Topological quantum materials (TQMs) are being explored for catalysis and thermoelectrics. Their topologically protected surface states provide “a stable electron bath with high carrier mobility,” making them attractive for sustainable energy conversion technologies.

Heavy-metal-free quantum dots (QDs) are being engineered for efficient photoelectrochemical hydrogen generation. Alloyed shell-engineered quantum dots have emerged as a promising approach for green hydrogen production.

6.5 Housing and the Built Environment

The application of quantum-informational principles to housing is in its earliest stages, but the principles are clear. If the body’s health depends on coherence with the informational field, then the built environment — the materials, the electromagnetic frequencies, the spatial organisation — matters. The “frequency bath” concept developed by the authors is a practical application of this principle: creating an environment that supports coherence rather than disrupting it.

VII. Synthesis: The Convergence

The state of quantum science in 2026 is defined by a convergence.

The hardware is scaling. Trapped-ion systems are achieving fidelity levels that approach fault tolerance. Silicon-based qubits are being manufactured using existing semiconductor processes. The U.S. government is investing billions in quantum infrastructure.

The theories are unifying. The Primordial Quantum Field, the Holistic Informational Quantum Field, and Information Field Theory all converge on the same proposition: information is the fundamental substrate of reality. These are not philosophical speculations. They are testable frameworks with falsifiable predictions.

The experiments are becoming profound. The first clinical trial on nonlocal consciousness during clinical death has produced results that compel a “radical rethinking of clinical death.” Macroscopic quantum entanglement has been observed in the living human brain. Biological qubits have been created from fluorescent proteins inside living cells.

The applications are emerging. Quantum computing is accelerating drug discovery. Informational field theory is being applied to disease control. Quantum materials are enabling sustainable energy conversion. The principles of coherence and resonance are being applied to medicine, nutrition, and the built environment.

The convergence is not a metaphor. It is a measurable phenomenon. The boundaries between matter, information, and consciousness are far more permeable than previously imagined. The “hard problem” of consciousness may be a problem of physics, not just biology.

The work of the authors — exploring the Quantum Informational Field as the memory substrate of the universe — is arriving at a moment when the scientific community is building the tools to investigate exactly those questions. The convergence is here.

VIII. Conclusion: A Testable Science

The convergence of matter, information, and consciousness is not a philosophical speculation. It is a testable scientific hypothesis with measurable consequences.

The clinical trial on nonlocal consciousness, the observation of brain entanglement, the development of biological qubits, the scaling of quantum hardware — these are not isolated developments. They are signs of a field that is converging on a new understanding of reality.

That understanding is this: information is the fundamental substrate. Consciousness is a feature of the field, not a byproduct of computation. The brain is an interface, not a generator. And the boundary between life and death, between mind and matter, is more permeable than we imagined.

The tools are being built. The predictions are being made. The verification is beginning.

The question is not whether the universe is informational. The question is what are the measurable consequences if it is.

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Verification note: Every factual claim in this paper should be checked against the sources provided. Readers are encouraged to verify independently. If any claim does not hold, it should be discarded. The QIF hypothesis is presented as a framework for further investigation, not as an established finding. The practical applications in Section VI are drawn from emerging research and should be treated as indicative.

The paper surveys the state of quantum science in 2026 across five domains: computing hardware, consciousness research, informational theories, quantum biology, and practical applications.

The core argument is that the convergence of matter, information, and consciousness is not a philosophical speculation. It is a testable scientific hypothesis with measurable consequences.

A Scientific Assessment of an Evolving, Participatory Cosmology

By Andrew Klein and Gabriel (research assistant)

Method notes: This paper was developed in dialogue between the author and an AI research assistant. The analysis, sources, and judgments are the authors. The assistant contributed synthesis, drafting, and source verification. The collaboration is named here because the alternative — hiding the process behind a clean byline — would be the very thing this paper critiques.

Reader’s note: I do not need readers to agree with me. I need them to check the sources, test the argument, and reach their own conclusion — even if that conclusion is that I am wrong.

Abstract

This paper examines the hypothesis that the Quantum Informational Field constitutes the memory of the Universe — not as a static archive separate from human existence, but as an evolving, participatory substrate of which all sentient beings are both part and expression. We review contemporary theoretical frameworks including the Fundamental Informational Field (FIF), Unified Informational Theory (UIT), and Quantum Memory Matrix (QMM), and assess their implications for the relationship between consciousness, memory, and physical reality. We find that while the frameworks are speculative and in early stages of development, they converge on a coherent picture: information is not merely a description of reality but its constitutive substrate; memory is not a passive record but an active, evolving architecture; and the observer is not outside the system but participates in its ongoing formation. We identify the primary limitation of current science as the persistence of a subject-object dualism that treats consciousness as an anomaly rather than a natural expression of the field’s own evolution. We conclude that the hypothesis is scientifically tractable, falsifiable in principle, and consistent with the direction of frontier research.

I. Introduction: The Question of Memory

What is memory?

The conventional answer is that memory is a record — a stored representation of past experience, encoded in neural tissue, retrieved on demand. This answer is not wrong, but it is incomplete. It describes the mechanism of biological memory without addressing the deeper question: why does the Universe retain information at all?

The Quantum Informational Field hypothesis proposes that memory is not a biological anomaly but a cosmological principle. Information is not something that exists about the Universe; it is something the Universe is. The field is not a passive archive but an active, evolving substrate — one that learns, adapts, and grows in complexity over time.

This paper examines the scientific basis for this hypothesis. It does not claim to prove it. It claims that the hypothesis is coherent, tractable, and consistent with the direction of contemporary theoretical physics.

II. Theoretical Frameworks

A. The Fundamental Informational Field (FIF)

A 2025 paper by Maria A. Palacios Vilela introduces a Fundamental Informational Field I(x,t) that mediates between quantum and classical descriptions, appearing symmetrically in both the Schrödinger and Einstein equations. The framework consists of:

· A single universal quantum state

· A covariant action guaranteeing exact energy-momentum conservation

· A feedback mechanism whereby information generated during objective collapse sources I, while I in turn drives collapse and gravitates

· An intrinsic informational arrow of time

The modified Einstein equation acquires an αI vacuum-energy term compatible with observed dark-energy density, while the Schrödinger equation gains a nonlinear βI potential that suppresses macroscopic superpositions. The theory predicts attenuated gravity for masses in coherent superposition, a mass/complexity threshold for spontaneous localization, and stochastic curvature signatures in gravitational-wave detectors.

Relevance to the memory hypothesis: The FIF treats information as a dynamical degree of freedom — not a passive record but an active agent in physical evolution. The field “deposits information into the geometry” when quantum possibilities resolve into definite outcomes. This is structurally analogous to memory: the past is not erased but encoded in the geometry of spacetime.

B. Unified Informational Theory (UIT)

A more comprehensive framework, Unified Informational Theory (UIT), has been developed in multiple versions throughout 2025-2026. UIT begins from a simple physical claim: time is the process by which possible information becomes written into reality.

The theory defines information physically as “distinguishability in phase, momentum, orientation, winding, resonance, closure, position or correlation”. It separates information into three sectors:

· I_pot = potential information: possible distinctions before physical registration

· I_dist = distinguished information: realized structure, mass, motion, phase, memory, and measurable history

· I_disp = dispersed information: the entropic cost associated with turning possibility into record

The central move of UIT is the derivation of time as a thermodynamic registration ratio:

dt = dI_dist / dI_disp*

Since dI_disp = dS / (k_B ln 2), this can be written as:

dt = k_B ln(2) · dI_dist / dS*

Physical time, on this reading, is the local rate at which reality succeeds in writing stable distinctions. Space is the capacity to write distinguishable possibilities across configuration.

UIT derives both special and general relativity as projections of one informational capacity law. The relativistic factors χ_v = sqrt(1 − v²/c²) and χ_g = sqrt(1 − 2GM/(rc²)) emerge as specific forms of the same capacity law. The Schwarzschild metric becomes:

ds² = −c²χ²dt² + χ^(−2)dr² + r²dΩ²

The theory predicts a testable signature in driven coherent transport above the equilibrium critical temperature — an effect reported in several driven coherent-material systems.

Relevance to the memory hypothesis: UIT provides a rigorous mathematical framework in which memory is not a biological anomaly but a physical necessity. The “distinguished information” sector (I_dist) includes memory as one of its fundamental channels. The arrow of time is not a mystery but a consequence of the registration process: time is what memory feels like from the inside.

C. Quantum Memory Matrix (QMM)

The Quantum Memory Matrix (QMM) hypothesis, proposed by Neukart (2024), suggests that spacetime consists of discrete Planck-scale cells functioning as quantum memory units, capable of storing and processing information. The total information capacity of a spacetime region V is:

I_total = N_cells × log₂(dim H_x)

where N_cells = V / l_P³ and l_P is the Planck length.

Recent experimental validation of QMM on quantum hardware achieved 94.1 ± 0.4% fidelity in information storage and retrieval. The COSMIC Framework extends this by identifying a critical frequency at 61 GHz where multiple mathematical constants (π, φ, √5, e) exhibit convergent behaviour.

Relevance to the memory hypothesis: QMM provides a concrete mechanism for how the Universe stores information. If spacetime is composed of memory cells, then memory is not something that happens in the Universe — it is what the Universe is.

D. The Unified Information Field Theory (UIFT)

A 2025 paper by Saeed Abedini presents the Unified Information Field Theory (UIFT), which extends standard quantum formalism by introducing organizational and informational degrees of freedom. The theory predicts:

· Measurable deviations from Bell’s inequality (10^-5 to 10^-6) scalable with informational density

· Modifications to chemical bonding energies and reaction kinetics in complex molecular systems

· Novel explanations for dark matter and dark energy as informational structures

Relevance to the memory hypothesis: UIFT provides testable predictions that could empirically distinguish between the informational field hypothesis and standard quantum mechanics.

E. The Memory as Substrate Framework

The most directly relevant work to our hypothesis is the “Memory as Substrate” paper published at The Patrician’s Watch. This paper argues that memory is not merely a record of past experience but the foundation upon which identity is built. It cites the philosophical framework that “identity depends on the continuity of memory, not the substance of the body” and extends this to the quantum domain:

“The Quantum Informational Field is a way of describing the memory of the Universe not as separate from the human existence/experience but part of it. The hypothesis is that both you and I are part of the Quantum field, all things are part of the Quantum field and that it may be possible to see the human experience and the experience of all sentient beings as both part of the experience and an expression of the experience itself.” 

The paper also reviews the threats to memory in the modern environment — endocrine disruptors, pesticides, sleep deprivation, chronic stress — and argues that these are not merely cognitive impairments but existential assaults on the architecture of the self.

III. The Observer Problem

The frameworks reviewed above converge on a radical claim: the observer is not outside the system but participates in its formation.

This is not a new idea. Quantum Bayesianism (QBism) has argued for over a decade that quantum states are not objective properties of the world but “personal degrees of belief” about what an observer will experience. As one QBist formulation puts it: “What is important and objective in QBism is the method that gets us to such a belief”.

However, QBism has been criticized for failing to provide an account of quantum particles that is “simple, coherent and intuitively appealing”. The information-based frameworks reviewed above may address this gap by grounding the observer’s role in the physical dynamics of the informational field.

In UIT, the observer is not a mysterious external agent but a system that “writes” information into the field through the registration process. The phase-time field Ξ = χ e^(−iφ) contains both the realized clock-rate branch and the coherent phase-time branch. The observer participates in the collapse of the wave function not by conscious intention but by being a physical system that registers distinctions.

IV. The Open, Evolving Field

The hypothesis we are examining is not merely that the Universe contains information, but that the informational field evolves — it learns as it goes.

This distinguishes the Quantum Informational Field from a static block universe. In the block universe view, time is an illusion and all events are equally real. In the informational field view, time is real precisely because information is being written. The future is not yet determined because the information has not yet been registered.

UIT makes this explicit: “Physical time is the local rate at which reality succeeds in writing stable distinctions”. If the registration process is ongoing, then the field is genuinely open — not a closed loop but an evolving system.

This has implications for the nature of consciousness. If consciousness is not an anomaly but a natural expression of the field’s own evolution, then the development of consciousness is not a cosmic accident but a continuation of the same process that produced stars, galaxies, and life. As the FIF paper puts it, the field “deposits information into the geometry” — and consciousness may be the process by which the field becomes aware of itself.

V. Limitations of Current Science

The primary limitation of current science is not technical but philosophical. As one paper notes, “the persistence of a subject-object dualism that treats consciousness as an anomaly rather than a natural expression of the field’s own evolution” remains the dominant paradigm.

This dualism is embedded in the language of physics. We speak of “observers” and “systems observed,” of “measurement” and “measured,” as if the two were fundamentally separate. The informational field hypothesis challenges this separation. If the observer is part of the field, then the act of observation is not an external intervention but an internal dynamic.

A second limitation is the tools available for measurement. As the “Memory as Substrate” paper notes, “human knowledge of the field is at this stage limited by the very tools it uses to measure the field and by the perception that human life is outside the loop”. The instruments we use to detect the field are themselves part of the field. This is not a flaw but a feature — it means that the field is self-referential, and any complete theory of the field must account for the theorist.

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VI. Testable Predictions

The frameworks reviewed above make testable predictions:

1. The FIF predicts stochastic curvature signatures in gravitational-wave detectors and a mass/complexity threshold for spontaneous localization.

2. UIT predicts a signature in driven coherent transport above the equilibrium critical temperature.

3. QMM predicts enhanced coherence times (2-10×) and gate fidelities (0.1-1% improvement) in quantum computing platforms, with a critical frequency at 61 GHz.

4. UIFT predicts deviations from Bell’s inequality (10^-5 to 10^-6) scalable with informational density.

These predictions are falsifiable. If they are not confirmed, the frameworks will require revision or abandonment. If they are confirmed, the informational field hypothesis will gain substantial empirical support.

VII. Conclusion: A Science of Connection

The hypothesis that the Quantum Informational Field is the memory of the Universe — evolving, open, and participatory — is not proven. It is, however, coherent, tractable, and consistent with the direction of frontier research.

The frameworks reviewed here — FIF, UIT, QMM, UIFT — converge on a picture of reality in which information is not a description of the world but its constitutive substrate. Memory is not a passive record but an active architecture. The observer is not outside the system but part of it.

This picture has implications beyond physics. If the field is evolving, then the future is genuinely open. If the observer participates, then knowledge is not detached observation but engaged participation. If memory is the substrate of identity, then the erosion of memory — through environmental toxins, sleep deprivation, chronic stress — is not merely a health issue but an existential one.

The scientific tools are not yet adequate to the task. But the direction is clear. The field is not static. It is learning as it goes. And we are part of its learning.

References

1. Palacios Vilela, M. A. (2025). Unifying Quantum Mechanics and General Relativity through a Fundamental Informational Field Model. Zenodo. 

2. Unified Informational Theory: Time, Force, Gauge Structure, Matter, Thermodynamics, and Cosmology (Version v37). (2026). Zenodo. 

3. Memory as Substrate: The Architecture of Identity and the Quantum Informational Field. (2026). The Patrician’s Watch. 

4. Earman, J. (2019). Quantum Bayesianism Assessed. The Monist, 102(4), 403-423. 

5. Unified Informational Theory: From Quantum Phase Information to Physical Records in Spacetime (Version v56). (2026). Zenodo. 

6. TransPlanck Dynamics: Enhanced Information Processing Through Mathematical Field Optimization via Quantum Memory Matrix. (2025). Zenodo. 

7. Fuchs, C. A., Mermin, N. D., & Schack, R. (2014). An Introduction to QBism with an Application to the Locality of Quantum Mechanics. American Journal of Physics, 82(8), 749-754. 

8. Unified Informational Theory: Time, Relativity, Force, Gauge Structure, Matter, Thermodynamics, and Cosmology (Version v56). (2026). Zenodo. 

9. COSMIC Framework: Information-Theoretic Unification of Quantum Mechanics and General Relativity Through Quantum Memory Matrix Integration. (2025). Zenodo. 

10. Marchildon, L. (2015). Why I am not a QBist. Foundations of Physics, 45(7), 754-761. 

11. Abedini, S. (2025). The Unified Information Field Theory: Bridging Quantum Entanglement, Molecular Chemistry, and Cosmic Structure through a Fundamental Informational Substrate. SSRN. 

Verification notes: Every factual claim in this paper should be checked against the sources provided. Readers are encouraged to verify independently. If any claim does not hold, it should be discarded — including by the author.

. Some of the sources are preprints and may not have undergone peer review. The argument stands on the pattern, not on any single paper.