The Holographic Universe

What did David Bohm, Karl Pribram, and Michael Talbot mean when they described the universe and the mind as "holographic," and how well have their ideas held up against later developments in physics and neuroscience? And when theories like these extend past what can be tested to offer answers about meaning, consciousness, and the ultimate nature of reality, do they begin to work as a kind of secular theology?

Research Landscape: The Holographic Universe, Holographic Mind, and the Boundary Between Science and Secular Theology

The phrase “holographic universe” conceals several very different ideas. David Bohm used the hologram primarily as an analogy for a deeper, nonlocal and dynamically “enfolded” order underlying the apparently separate objects of ordinary experience. Karl Pribram proposed a much more specific neurocomputational hypothesis involving distributed information, interference-like processing, receptive fields, and Fourier-like transforms in the brain. Michael Talbot then joined these ideas into a sweeping interpretation of reality that extended into paranormal phenomena, mystical experience, consciousness, and death.

Meanwhile, a completely different concept—the holographic principle in quantum gravity—emerged from black-hole thermodynamics in the 1990s. Its terminology sounds strikingly Bohmian, but its historical and mathematical foundations are substantially independent.

That distinction establishes the central problem of this investigation:

How much of the original “holographic” vision survived scientific development, how much survives only as useful metaphor, and at what point does a scientific model become a metaphysical worldview performing functions traditionally associated with theology?

The evidence already suggests that the answer will not be simply “Bohm and Pribram were right” or “the holographic universe was disproved.” Different parts of their programs have had very different scientific fortunes.

I. Overview

1. What does “holographic” actually mean?

A physical hologram differs fundamentally from an ordinary photograph.

Dennis Gabor developed the underlying method of wavefront reconstruction in 1948, work for which he eventually received the 1971 Nobel Prize in Physics. Instead of recording only the intensity of light, holography records an interference pattern containing information about the phase relationships of incoming waves. Illuminating that interference pattern appropriately reconstructs the original wavefront. Nobel Prize

A striking property follows: information about the represented object is distributed across the holographic plate rather than corresponding point-for-point to locations on it.

Break a photographic negative in half and you obtain half the picture.

Break a hologram in half and, under suitable conditions, each portion can still reconstruct the entire scene—although with reduced resolution or information.

This property became intellectually provocative because it suggested a new kind of organization:

the whole can, in some sense, be encoded throughout the parts.

That idea became the bridge connecting holography with both Bohm and Pribram.

But we should immediately distinguish at least four meanings of “holographic”:

These are not equivalent propositions.

II. The Three Principal Actors

David Bohm — physicist and metaphysical system-builder

David Bohm

Bohm was unquestionably a serious theoretical physicist.

His scientific importance predates his later philosophical writings.

In two landmark 1952 Physical Review papers, Bohm demonstrated that quantum mechanics could be given a deterministic hidden-variable interpretation. Particles possess definite positions while their trajectories are guided by the quantum wavefunction. APS Journals

The modern descendant is generally called:

de Broglie–Bohm theory / Bohmian mechanics / pilot-wave theory.

It remains a legitimate interpretation/formulation of nonrelativistic quantum mechanics. Bohmian mechanics reproduces the empirical predictions of ordinary quantum mechanics under quantum equilibrium while making quantum nonlocality particularly explicit. Stanford Encyclopedia of Philosophy

That fact matters enormously.

Bohm was not simply a mystical writer borrowing scientific terminology. He made genuine contributions to quantum foundations.

But his later implicate-order ontology is another matter.

Karl Pribram — neuroscientist and neuropsychologist

Karl H. Pribram

Pribram was a neuropsychologist and neuroscientist who worked extensively on memory, perception and cortical organization.

His major works included Languages of the Brain (1971) and Brain and Perception: Holonomy and Structure in Figural Processing (1991). Google Books

Pribram's starting problem was quite different from Bohm's:

Where is information stored in the brain?

He was influenced by Karl Lashley's famous attempts to locate memory traces—the engram.

Lashley's lesion experiments suggested that complex memories could not simply be mapped onto individual cortical locations. Damage often produced impairments more closely related to the amount of cortex destroyed than to one specific location. This contributed to his concepts of mass action and equipotentiality. PubMed Central (PMC)

Pribram sought a mechanism capable of producing distributed representation.

Holography provided an appealing model.

Michael Talbot — synthesizer and popularizer

Michael Talbot

Talbot's 1991 book The Holographic Universe transformed these technical ideas into something considerably larger.

Its premise was explicitly ambitious: Bohm's physics and Pribram's neuroscience might together provide a framework capable of explaining not merely matter and perception but paranormal phenomena, mind-body effects and unusual states of consciousness. Google Books

Talbot therefore occupies a fundamentally different evidentiary category.

He did not develop the underlying physics or neuroscience.

He synthesized and extended them.

And many of those extensions went substantially beyond what Bohm's physics or Pribram's neuroscience experimentally established.

This distinction will become critical.

III. Bohm's Universe

1. The problem of fragmentation

Bohm increasingly believed that Western scientific thinking artificially divides reality into independently existing things.

Ordinary experience seems to contain:

• particles,
• people,
• organisms,
• objects,
• minds,
• locations.

But quantum mechanics seemed to Bohm to suggest that this fragmentation might not be fundamental.

Quantum entanglement makes the state of a composite system irreducible to independently specified states of its components.

Bohm therefore increasingly emphasized what he called:

undivided wholeness.

His mature presentation appeared especially in Wholeness and the Implicate Order (1980). Its chapters explicitly move from implicate and explicate order through the “holomovement,” cosmology, consciousness and ultimately the possibility of a common ground of matter and consciousness. Google Books

IV. Implicate and Explicate Order

This is probably the most important conceptual distinction in Bohm's later philosophy.

Explicate order

The world as ordinarily manifested:

objects appear separate;

events occur at identifiable places;

space separates things;

time orders events.

A chair is here.

A star is there.

Yesterday precedes today.

This is approximately the world described by classical intuition.

Implicate order

At a deeper level, reality is enfolded.

Things appearing separate in explicate reality may participate in a deeper whole.

Bohm used several analogies for this.

One involved ink droplets folded into glycerin and subsequently unfolded.

Another was holography.

In a holographic interference pattern, information corresponding to the apparent object is distributed across the plate.

Likewise, Bohm suggested, apparent objects might represent unfolded manifestations of deeper information distributed throughout a more fundamental order.

V. The Holomovement

Bohm's deepest reality was not actually a static hologram.

It was something closer to an endlessly flowing process.

He called it the:

holomovement.

Reality consists fundamentally of continuous processes of:

enfolding → unfolding → reenfolding.

Objects are therefore secondary.

Process is primary.

An electron, organism or person might consequently be understood less as a permanently self-contained thing and more as a relatively stable pattern within an underlying movement.

This resembles several later process-oriented philosophies, but resemblance alone does not establish scientific continuity.

VI. Bohm's Quantum Physics Versus Bohm's Metaphysics

Here we need one of the most important distinctions in the investigation.

Scientifically rigorous Bohmian mechanics

Bohm's 1952 interpretation provides:

• particles with definite configurations,
• a wavefunction,
• deterministic guiding dynamics,
• quantum equilibrium,
• explicit nonlocality.

It reproduces the experimental predictions of ordinary nonrelativistic quantum mechanics. Stanford Encyclopedia of Philosophy

This remains active foundational physics.

Broader Bohmian ontology

The implicate order, holomovement and proposed deeper unity of consciousness and matter are much harder to place scientifically.

Bohm eventually suggested that the quantum field could carry “active information”, whose causal role had similarities to information operating in mental processes. In his 1990 paper “A New Theory of the Relationship of Mind and Matter,” he explicitly explored this possibility. PhilPapers

This generated the possibility of nested levels of information:

matter informed by deeper levels,

perhaps themselves informed by still deeper levels.

The conceptual boundary between physics and metaphysics consequently becomes increasingly porous.

VII. Bohm and Consciousness

Bohm did not simply say:

consciousness collapses the wavefunction.

That popular quantum-mysticism formulation seriously misrepresents his position.

Instead, he explored whether mind and matter might be different manifestations of a deeper common process.

This resembles a family of philosophical positions sometimes called:

• dual-aspect theories,
• neutral monism,
• process ontology,
• nondual metaphysics.

Bohm explicitly explored matter, consciousness and their possible common ground in Wholeness and the Implicate Order. Google Books

He also spent decades discussing consciousness with philosopher and spiritual teacher Jiddu Krishnamurti. Bohm described his overarching scientific and philosophical concern as understanding reality and consciousness as a coherent whole characterized by continuing movement and unfoldment. Bohm-Krishnamurti Project

And this was not merely something later New Age writers projected onto him.

In 1983 Bohm presented a paper at a conference titled “David Bohm's Implicate Order: Physics and Theology.” In the resulting publication he explicitly connected hidden variables, implicate order and his views concerning religion, describing the resulting worldview as compatible with a religious approach to life. Wiley Online Library

That will become highly relevant to our secular-theology question.

VIII. Pribram's Holographic Brain

Pribram's proposal begins somewhere much more concrete.

Brains display both:

localization and distribution.

Certain brain regions clearly specialize.

Visual cortex is not interchangeable with the hippocampus.

Broca-related language networks are not interchangeable with primary motor cortex.

Yet representations can simultaneously be distributed across large neural populations.

How?

IX. Fourier Analysis and Neural Representation

A complex pattern can be transformed from ordinary spatial coordinates into frequency components.

Instead of representing:

where exactly is this feature?

the system can represent:

which spatial frequencies compose this pattern?

The mathematical operation commonly involved is a Fourier transform.

Holography likewise encodes information through wave relationships and interference patterns.

Pribram proposed that portions of cortical processing might use mathematically analogous distributed transformations.

Importantly, Pribram later emphasized that saying simply:

“the brain is a hologram”

was misleading.

His holonomic model concerned particular neural processes and localized receptive fields, not a single global Fourier transform spread indiscriminately across the entire cortex. He described the relevant organization more like patch holography/windowed Fourier transforms. Scholarpedia

That nuance largely disappeared from popular presentations.

X. What Pribram Was Trying to Explain

The holonomic model attempted to account for phenomena including:

Distributed representation

Information need not correspond one-to-one with individual neurons.

Robustness

Damage to part of a distributed representation need not destroy the entire representation.

Pattern completion

Partial information can sometimes reconstruct a larger perceptual or memory pattern.

Associative recall

One fragment of experience can reactivate a much larger network.

Visual perception

Spatial-frequency processing offered a mathematically sophisticated account of aspects of vision.

Pribram and E. H. Carlton's 1986 formulation explicitly attempted to connect the theory to neurophysiological data concerning sensory processing, receptive fields and sensorimotor interactions. ScienceDirect

This was therefore a real neuroscientific model—not originally a claim that consciousness exists outside the brain.

XI. What Later Neuroscience Found

Here the story becomes particularly interesting.

Pribram's literal or strongly holographic architecture did not become the dominant theory of brain organization.

But some of the phenomena motivating it survived spectacularly well.

Modern neuroscience increasingly describes memories as encoded in sparse but distributed neural ensembles—engrams—across interconnected brain regions. Nature

Modern experiments can now:

• label engram cells,
• observe their reactivation,
• manipulate them,
• study their consolidation,
• track distributed memory networks.

A 2024 review describes memory storage in terms of distributed engram cell ensembles and a possible “unified engram complex” extending across multiple functionally connected brain regions. PubMed

Thus something subtle happened.

Pribram's broad intuition:

memory is distributed rather than stored like files in isolated neural addresses

→ substantially supported.

Stronger claim:

the brain literally operates as a holographic memory system

→ not established.

Modern distributed neural coding does not require literal holographic storage.

This distinction will deserve a full evidence audit later.

XII. Enter Michael Talbot

Talbot recognized an extraordinary conceptual symmetry.

Bohm:

each region of reality may enfold information concerning a larger whole.

Pribram:

information about percepts and memories may be distributed across neural systems.

Talbot's synthesis:

perhaps the brain is itself holographic and exists within a holographic universe.

This creates a seductive recursive structure:

holographic mind ↔ holographic cosmos

The perceiver and perceived operate according to the same organizing principle.

But Talbot went substantially further.

His book attempted to incorporate:

• telepathy,
• psychokinesis,
• mystical experiences,
• synchronicities,
• extraordinary healing,
• near-death experiences,
• apparitions,
• paranormal perception.

The book itself was marketed as a framework potentially explaining “paranormal abilities of the mind” alongside physics and brain science. Google Books

This constitutes an epistemic transition.

We move from:

experimental physics →

theoretical interpretation →

neuroscientific modeling →

philosophical synthesis →

paranormal explanation →

metaphysical worldview.

Those steps cannot inherit one another's evidentiary strength automatically.

XIII. The Most Important Later Development: The Modern Holographic Principle

Here lies an extraordinary historical coincidence.

Only a few years after Talbot's book appeared, theoretical physics developed something explicitly called:

the holographic principle.

But its origin was not Talbot, Pribram or Bohm.

It arose principally from:

• black-hole thermodynamics,
• Jacob Bekenstein's entropy arguments,
• Stephen Hawking's black-hole calculations,
• Gerard 't Hooft,
• Leonard Susskind.

In 1993, 't Hooft argued that quantum gravity suggested a kind of dimensional reduction in which physical degrees of freedom could be represented on a lower-dimensional structure. arXiv

Susskind developed the proposal in his 1995 paper:

“The World as a Hologram.”

He described a three-dimensional world whose information might be representable by degrees of freedom on a two-dimensional surface. CiNii Research

Then came a major breakthrough.

XIV. Maldacena and AdS/CFT

In 1997 Juan Maldacena proposed what became known as the:

AdS/CFT correspondence.

Very roughly, certain gravitational theories in a higher-dimensional Anti-de Sitter spacetime appear equivalent—or dual—to quantum field theories without gravity living in fewer dimensions. DOI

The correspondence became one of the most productive developments in theoretical physics.

Raphael Bousso's major 2002 review summarized the broader holographic principle as evidence for a profound relationship between geometry, entropy and information, while emphasizing that its ultimate underlying explanation remained unknown. APS Journals

This produces a tantalizing situation:

Bohm used holographic imagery philosophically.

Then later physics independently discovered a rigorous mathematical framework genuinely called holographic.

But:

Modern holographic quantum gravity does not thereby validate Bohm's implicate order.

Nor does it validate Pribram's brain model.

And it certainly does not validate Talbot's paranormal extensions.

Similarity of vocabulary is not genealogical or evidentiary equivalence.

That will be one of our central safeguards against retrospective pattern matching.

XV. Quantum Nonlocality: Something Bohm Definitely Got Right

Another area requires nuance.

Bohm emphasized quantum nonlocality long before it became experimentally unavoidable.

Bohmian mechanics makes nonlocality particularly explicit. Stanford Encyclopedia of Philosophy

John Bell's theorem later showed that the predictions of quantum mechanics cannot be reproduced by local hidden-variable theories satisfying the relevant assumptions.

Decades of increasingly sophisticated Bell experiments have supported quantum predictions and closed major experimental loopholes. Nature

This strengthens Bohm's insistence that classical separability is inadequate.

But it does not establish:

universal consciousness,

telepathy,

cosmic memory,

mystical interconnectedness,

or Talbot's larger worldview.

Quantum nonlocality is a precisely defined physical phenomenon.

“Everything is connected” is a philosophical extrapolation.

Those statements must remain separate.

XVI. An Unexpected Modern Parallel: Predictive Processing

Modern neuroscience increasingly portrays the brain not as a passive recording device but as an inferential system.

Predictive-processing and Bayesian-brain frameworks describe perception partly as inference concerning the hidden causes generating sensory inputs.

Karl Friston's free-energy framework attempts to unify perception, learning and action through hierarchical generative models and approximate Bayesian inference. PubMed

There are intriguing conceptual resonances with Pribram:

distributed processing,

transformations,

information,

generative representation,

perception as construction rather than passive recording.

But there is no evidentiary warrant for treating predictive processing as confirmation of Pribram's holographic brain.

It represents another possible architecture capable of explaining some of the same phenomena.

That is precisely the kind of competing explanation our protocol requires us to preserve.

XVII. Major Interpretations

The landscape can presently be divided into roughly five positions.

1. Strong scientific-realist interpretation

Bohm and Pribram were glimpsing a genuine common organizing principle:

distributed information may be fundamental to both brain and universe.

Later developments—quantum nonlocality, distributed neural coding, black-hole entropy and holographic quantum gravity—can appear suggestively compatible with this intuition.

However, no established scientific theory presently unifies these phenomena into a Bohm–Pribram framework.

Status: intriguing synthesis, not established science.

2. Partial-vindication interpretation

This is presently the strongest defensible middle position.

Bohm correctly emphasized:

• quantum wholeness/nonseparability,
• nonlocality,
• limitations of classical mechanistic intuitions.

Pribram correctly emphasized:

• distributed representation,
• frequency-domain processing,
• interactions between localized and distributed neural organization.

But their stronger holographic interpretations were unnecessary or underdetermined by the evidence.

Status: historically and scientifically plausible.

3. Metaphorical interpretation

“Holographic” was ultimately a powerful analogy rather than a literal description.

For Bohm it represented enfolded wholeness.

For Pribram it represented distributed encoding.

Subsequent science retained some of the phenomena while replacing the explanatory machinery.

Status: also highly plausible.

4. Strong metaphysical interpretation

Reality fundamentally consists of information or consciousness; matter is an unfolded projection of a deeper informational field.

This interpretation is common in later spiritual and popular literature.

But existing physics does not establish it.

Status: metaphysical hypothesis.

5. Talbotian paranormal interpretation

A holographic universe potentially explains:

telepathy,

psychokinesis,

apparitions,

mystical states,

NDEs,

synchronicity,

extraordinary healing.

These require independent empirical evidence.

Neither Bohmian mechanics nor holographic quantum gravity automatically supplies it.

Status: disputed/speculative and dependent upon separate paranormal evidence.

XVIII. The Secular-Theology Hypothesis

This may ultimately prove the most philosophically interesting part of the investigation.

We should define it carefully.

Calling something “secular theology” need not mean:

fake science pretending to be religion.

A more analytically useful definition would be:

a worldview constructed partly from scientific concepts that extends beyond empirically testable claims to answer questions traditionally addressed by theology or metaphysics.

Those questions include:

What ultimately exists?

Ontology.

Why does reality possess unity or order?

Cosmology.

What is consciousness?

Philosophical anthropology.

What is the human relationship to the cosmos?

Existential meaning.

Is death the termination of the person?

Eschatology.

Are apparent separations ultimately unreal?

Nondual metaphysics.

Does reality possess intrinsic meaning?

Teleology.

When scientific concepts begin answering these questions despite lacking corresponding experimental tests, they have crossed from empirical science into metaphysics.

Whether calling that metaphysics “theology” is justified remains open.

XIX. A Potential Continuum

Rather than drawing a crude science/religion binary, we may eventually find something like:

experimental result

↓

scientific model

↓

scientific interpretation

↓

ontology

↓

metaphysics

↓

existential worldview

↓

secular theology

Consider Bohm:

Bell-type correlations ↓ quantum nonlocality ↓ Bohmian interpretation ↓ undivided wholeness ↓ implicate order ↓ mind/matter common ground ↓ religious implications

The first portions are experimentally constrained.

The latter become progressively less constrained.

Bohm himself partly recognized this movement; his 1985 discussion explicitly connected the implicate order with a religious approach to life. Wiley Online Library

That makes Bohm an unusually valuable case study because the movement from physics toward metaphysics was conscious rather than accidental.

XX. Why Humans Might Create “Scientific Theologies”

There is a larger historical phenomenon worth investigating.

As traditional religious cosmologies lost intellectual authority in portions of modern Western culture, scientific concepts increasingly became raw materials for comprehensive worldviews.

Examples potentially include:

Newtonian clockwork universe

→ mechanistic deism

Darwinian evolution

→ evolutionary progress narratives

thermodynamics

→ cosmic pessimism

quantum mechanics

→ quantum mysticism

information theory

→ “reality is information”

simulation theory

→ programmer/creator analogies

multiverse cosmology

→ anthropic explanations

AI

→ technological singularity and digital immortality

These movements may reveal a recurring human tendency:

Once science explains how reality behaves, humans are strongly tempted to make it explain what reality ultimately means.

That does not automatically make the resulting philosophy false.

It means its epistemic category has changed.

XXI. Central Open Questions

Several major questions now emerge.

Did Bohm's implicate order make distinctive predictions?

If two ontologies generate identical observable physics, experimental evidence supporting that physics cannot distinguish between them.

We need to determine exactly where Bohm considered the implicate order explanatory, predictive or speculative.

How much of Pribram's holonomic theory survives?

We need to distinguish:

distributed memory — strongly supported,

spatial-frequency processing — established in relevant sensory contexts,

Fourier-like neural computation — partially supported/model-dependent,

literal holographic storage — considerably more controversial.

Are Bohm and Pribram actually theoretically connected?

Or did they recognize an aesthetically compelling structural similarity between independently developed theories?

Did Talbot accurately represent them?

This requires comparing The Holographic Universe directly against Bohm and Pribram's original writings.

There may be considerable conceptual inflation.

Is modern holographic quantum gravity related to Bohm?

This deserves particularly careful examination.

The similarity is fascinating.

The historical line of development appears largely independent.

Whether there are deeper mathematical or philosophical correspondences remains open.

Is information fundamental?

Modern physics increasingly uses information-theoretic language.

But:

“information is useful for describing reality”

does not logically entail:

“reality is made of information.”

That transition needs scrutiny.

Can consciousness be incorporated into physics?

Bohm thought mind and matter might share deeper informational organization.

Modern theories—including Global Neuronal Workspace, Integrated Information Theory, predictive processing, higher-order theories and others—approach consciousness very differently.

Comparative analysis will be necessary.

Can metaphysical theories be rational without being falsifiable?

This may become crucial.

Lack of experimental testability does not necessarily make a proposition meaningless.

But it does change what kind of justification can support it.

XXII. Initial Evidence Ledger

At this stage I would classify the landscape approximately as follows.

XXIII. Initial Research Map

The investigation now naturally divides into several deeper branches.

Branch 1 — Reconstruct Bohm precisely. We should trace the development from his 1952 hidden-variable theory through quantum potential, active information, implicate/explicate order, holomovement, consciousness and his dialogues with Krishnamurti. The key question is where physics ends and philosophical extrapolation begins.

Branch 2 — Reconstruct Pribram experimentally. We should trace Lashley's engram problem → Gabor holography → Pribram's holonomic model → Fourier/spatial-frequency neuroscience → contemporary engram research. This should reveal exactly what survived and what did not.

Branch 3 — Audit Talbot. We should take the major claims in The Holographic Universe and trace each backward to Bohm, Pribram or other cited evidence. This may reveal where legitimate science became popular metaphysics.

Branch 4 — Compare Bohmian holography with modern holographic physics. Bekenstein → Hawking → 't Hooft → Susskind → Maldacena → AdS/CFT → contemporary quantum-information approaches to spacetime. The central question is whether similarities with Bohm are substantive, superficial or somewhere between.

Branch 5 — Investigate information as ontology. Wheeler's “it from bit,” quantum information, entropy, emergence and contemporary information-theoretic physics could tell us whether “information is fundamental” has become scientifically stronger since Bohm.

Branch 6 — Consciousness. Bohm's mind/matter proposal should eventually be compared with contemporary neuroscience and philosophy of mind rather than merely with quantum theory.

Branch 7 — The secular-theology question. We should construct explicit criteria for identifying when a scientific framework begins functioning as theology: ultimate ontology, cosmology, human significance, salvation/transcendence, eschatology, moral implications and resistance to empirical falsification.

Branch 8 — Historical parallels. Bohm/Talbot should be compared with earlier and later attempts to turn science into comprehensive cosmology—from Newtonian natural theology and evolutionary progress through Teilhard de Chardin, quantum mysticism, simulation theory, transhumanism and technological singularity narratives.

Where the investigation currently stands

The most interesting preliminary result is not that “the universe really is holographic.”

It is something subtler.

Bohm, Pribram and Talbot occupy three different epistemic layers that later popular culture compressed into one idea.

Pribram proposed a testable model of aspects of neural information processing. Some of the phenomena motivating him—especially distributed representation—have aged well, while contemporary neuroscience does not require a literally holographic brain. PubMed

Bohm began from genuine foundational physics. His 1952 theory remains scientifically important, and later experiments strongly reinforced the reality of the quantum nonlocality that Bohm's formulation makes unusually explicit. But his implicate order and common ground of consciousness and matter extend beyond what those experiments establish. APS Journals

Talbot then transformed those possibilities into a comprehensive explanatory worldview.

And, remarkably, mainstream theoretical physics subsequently developed a genuine holographic principle—but through black-hole entropy and quantum gravity rather than through the Bohm–Pribram program. arXiv

So we have what may become the central tension of the entire investigation:

Several intuitions associated with the original holographic worldview—nonseparability, distributed information, the inadequacy of naïve localization, deep relationships between information and physical description—look more scientifically interesting today than they did several decades ago. Yet the grand synthesis connecting those discoveries to consciousness, meaning, paranormal phenomena or ultimate reality remains largely unestablished.

That gap—between scientifically fruitful intuition and metaphysical completion—is exactly where the secular-theology question becomes interesting.

And it gives us an unusually good investigation ahead: rather than asking whether the “holographic universe” is simply true or false, we can dissect it layer by layer and determine which claims survived, which evolved into something else, which were never genuinely scientific claims to begin with, and why the human mind is so tempted to turn an unfinished scientific picture into a completed cosmology.

Deepening Pass: Bohm, Pribram, Talbot and the “Holographic” Worldview

The deeper pass changes the landscape in an important way. The most useful question is no longer simply “Was the holographic model right?” There are at least four different claims hiding inside that question: whether nature is nonseparable; whether information is distributed; whether spacetime itself is holographically encoded; and whether those scientific facts imply anything about consciousness, meaning, mystical experience, or ultimate reality.

Those claims have aged very differently.

I. Bohm: There Are Really Several “Bohms”

A surface account easily turns Bohm into the inventor of one grand holographic worldview. Historically, his thought developed through several distinguishable stages.

1. Bohmian mechanics did not begin as the implicate order

Bohm's 1952 papers introduced a causal interpretation of quantum mechanics. A quantum system has an actual configuration—most simply, particles with actual positions—and a wavefunction whose dynamics guide the configuration.

Writing

\[ \psi=R e^{iS/\hbar} \]

allows the Schrödinger equation to be decomposed into equations including a modified Hamilton–Jacobi equation containing what became known as the quantum potential:

\[ Q=-\frac{\hbar^2}{2m}\frac{\nabla^2R}{R}. \]

This is important because the quantum potential behaves strangely compared with familiar classical potentials. Bohm and later Basil Hiley emphasized that its significance depends heavily on its form or structure, rather than simply the strength of an ordinary mechanical field. This eventually encouraged Bohm to describe it in terms of “active information.” Wikipedia

But we should not retroactively read the entire implicate-order philosophy into the 1952 theory.

Historical scholarship shows that Bohm's philosophical position continued evolving through the 1950s and beyond. Recent historians have also challenged the caricature of Bohm as someone simply trying to restore a clockwork deterministic universe; his philosophical commitments were substantially more pluralistic and anti-mechanistic than that picture suggests. arXiv

So:

1952 Bohmian mechanics ≠ 1980 implicate-order metaphysics.

There is continuity, but also development.

II. “Active Information” Is More Important Than the Hologram

This was underexplained previously.

The hologram is visually memorable, but active information may actually provide the better bridge between Bohm's physics and his philosophy of mind.

Imagine an autopilot receiving a weak radar signal.

The radar wave does not provide the energy that moves the airplane. The aircraft supplies its own energy. The incoming signal instead in-forms how that energy is deployed.

Bohm and Hiley used this kind of analogy for the quantum potential. Wikipedia

That gives “information” a causal sense quite different from merely saying that an observer possesses information.

The structure becomes:

small informational input → organizes much larger energetic process.

Bohm saw something analogous in organisms and cognition.

A thought may contain little physical energy compared with a body, yet the information carried by the thought can reorganize enormous amounts of bodily activity.

That suggested to him that active information might provide a conceptual bridge between mental and physical processes.

His 1990 paper explicitly explored active information, implicate order, mind and matter together. Yumpu

But the evidentiary boundary is crucial.

The quantum potential belongs to a mathematical formulation of quantum theory.

The proposition that consciousness operates through analogous active-information dynamics is an extrapolation.

And the proposition that mind and matter arise from deeper levels of active information is a still stronger ontological extrapolation.

These do not receive equal evidentiary support merely because the same vocabulary appears in all three.

III. Bohm's Nonlocality Requires a More Precise Treatment

The earlier answer said Bohm “got nonlocality right.”

That is broadly fair but historically too simple.

Bohm's multiparticle theory is explicitly nonlocal: the trajectory of one particle can depend upon the configuration of distant particles through the joint wavefunction.

Bell's theorem subsequently demonstrated severe constraints on local explanations capable of reproducing quantum predictions.

But saying:

Bell proved Bohm's worldview

would be seriously wrong.

Bell-type evidence constrains locality. It does not uniquely select Bohmian mechanics over other interpretations of quantum mechanics.

Nor does it prove the implicate order.

Nor does it establish that all things in the universe are continuously influencing everything else in some spiritually significant sense.

There is also continuing scholarly debate over exactly how Bell's assumptions should be characterized; historians and philosophers caution against casually compressing Bell's result into the slogan “local realism is false.” arXiv

This gives us an important hierarchy:

Experimental: Bell inequalities are violated in accordance with quantum predictions.

Theoretical: Bohmian mechanics naturally accommodates these correlations through nonlocal dynamics.

Interpretive: classical separability may be an inadequate ontology.

Metaphysical: reality is fundamentally an undivided whole.

Spiritual: individual separateness is ultimately illusory.

Only the first is directly experimental.

Each subsequent step requires additional argument.

That ladder is going to recur throughout this investigation.

IV. Bohmian Mechanics Itself Is Not a Finished Story

Another hidden complication: even “Bohmian mechanics” is not one completely settled research program.

Its cleanest formulation concerns nonrelativistic quantum mechanics. Extending Bohmian ideas into relativistic quantum field theory introduces difficult questions concerning Lorentz covariance, particle creation, ontology, preferred foliations and what fundamental entities actually exist.

There are serious Bohmian QFT proposals, so saying relativity simply disproves Bohmian mechanics would be incorrect. Contemporary work continues on relativistic and field-theoretic extensions. arXiv

But this matters because popular holographic accounts often move seamlessly from:

Bohm supplied an interpretation of quantum mechanics

to:

Bohm discovered the architecture of reality.

The latter is far stronger than the former.

V. Implicate Order: Three Different Claims Are Being Mixed

We can now separate the implicate order into at least three layers.

Layer A — epistemological

Our ordinary way of carving reality into separately located objects may be inadequate for quantum phenomena.

This is defensible and broadly compatible with quantum theory.

Layer B — ontological

Reality itself possesses deeper organizational structures from which ordinary spacetime phenomena emerge.

This is a metaphysical interpretation informed by physics.

Layer C — cosmological/metaphysical

Mind, matter and perhaps increasingly subtle levels of reality are unfoldings from deeper orders of one undivided process.

This is much harder to test.

Bohm explicitly challenged reductionism, static elementary-building-block pictures and the idea that any scientific description should automatically be regarded as unlimited in scope. Wikipedia

Ironically, that makes some popular presentations of Bohm less Bohmian than Bohm.

Turning the implicate order into a final Theory of Everything—

“Reality really is a hologram, and Bohm discovered it”

—is exactly the sort of conceptual closure Bohm repeatedly resisted.

VI. The Hologram Was an Analogy for a New Kind of Order

This distinction deserves emphasis.

In an optical hologram, the object is encoded through an interference pattern. The visible image is reconstructed through illumination.

Bohm was fascinated because this demonstrates a mathematically and physically real form of organization radically unlike ordinary point-to-point correspondence.

Each region contains information relating to the larger structure.

But Bohm's deeper term was holomovement, not “cosmic hologram.”

The universe was not imagined as a giant photographic plate sitting somewhere outside space.

The hologram demonstrated that enfoldment is physically intelligible.

It gave Bohm an existence proof for a kind of order in which information concerning wholes can be distributed differently from classical Cartesian localization.

That is subtler than:

“the universe is literally a hologram.”

VII. Pribram: The “Holographic Brain” Also Splits Into Multiple Claims

Pribram's theory becomes much more interesting once we stop treating “holographic brain” as one proposition.

His own mature description concerned processes occurring in fine-fibered neural webs, with local patches capable of transformations between spatial and spectral descriptions. Scholarpedia

That creates several distinct hypotheses.

Claim 1: Neural representations can be distributed.

Strongly supported.

Claim 2: Neural systems analyze spatial frequencies.

Strongly supported in vision.

Claim 3: Neural receptive fields can resemble Gabor-like filters.

Substantial evidence exists.

Claim 4: Fourier/Gabor mathematics can usefully model aspects of cortical processing.

Supported in particular domains.

Claim 5: Memory storage itself uses holographic interference principles.

Far less established.

Claim 6: Consciousness is produced by a fundamentally holographic or quantum process.

Not established by mainstream neuroscience.

These claims are routinely conflated.

VIII. Why Gabor Functions Matter

This is a technical point worth opening up.

Dennis Gabor developed mathematical functions localized in both position and frequency.

A Gabor function is essentially a sinusoidal wave multiplied by a localized envelope.

Schematically:

\[ G(x)=e^{-x^2/2\sigma^2}\cos(2\pi fx+\phi). \]

Why is that neurologically interesting?

Neurons in early visual cortex respond selectively to properties including:

• location,
• orientation,
• spatial frequency.

A neuron might respond strongly to something resembling:

a vertical edge of a particular scale appearing in this portion of visual space.

Such receptive fields can be approximated by Gabor-like functions.

Pribram and collaborators explicitly investigated relationships between Gabor elementary functions and responses of visual-cortical neurons. Karl Pribram

Modern neuroscience continues to treat spatial-frequency sensitivity as fundamental to visual processing. PubMed

This means there is a genuine mathematical connection.

But there is a trap:

Gabor-like neural processing does not entail holographic memory.

Gabor mathematics appears in signal processing, image compression, computer vision and neural modeling because it is useful for jointly representing location and frequency.

That mathematical usefulness does not prove the brain stores memories as optical holograms.

IX. Fourier Transform Versus Localized Fourier Processing

This further weakens simplistic presentations.

A pure Fourier transform sacrifices localization.

Suppose a picture contains a vertical stripe.

Its Fourier transform tells us something about the frequencies and orientations composing the image but does not preserve spatial position in the intuitive point-by-point manner of the original image.

Brains obviously care enormously about where things are.

Pribram's later framework therefore emphasized local “patches” and windowed transformations rather than imagining the entire cortex performing one enormous Fourier transform. His Scholarpedia account explicitly describes localized patches of spectral processing. Scholarpedia

This makes the theory less spectacular—

but more neuroscientifically plausible.

The popular statement:

“Every memory exists everywhere in the brain.”

is therefore a distortion.

X. Lashley Needs Rehabilitation—and Correction

The classic story goes:

Lashley removed different parts of rats' brains.

Memory remained.

Therefore memory must be distributed holographically.

That chain is much too quick.

Lashley's 1950 In Search of the Engram summarized roughly three decades of unsuccessful attempts to locate simple memory traces using lesion methods. His work contributed to concepts such as mass action and distributed function. MIT Press Direct

But lesion experiments have limited spatial and mechanistic resolution.

Destroying part of a network and observing degraded performance cannot tell us exactly how the original information was encoded.

Modern tools can do things Lashley could not:

• label neurons active during learning,
• manipulate those neurons selectively,
• reactivate specific ensembles,
• inhibit candidate engram cells,
• track ensembles across brain regions.

Modern engram research therefore produces a much richer picture.

Memories appear neither:

strictly localized

nor

uniformly distributed everywhere.

Instead, they involve specific, sparse, distributed ensembles embedded in interacting circuits. PubMed Central (PMC)

Even newer work continues decomposing memory engrams into distinct ensembles recruited at particular stages of learning. PubMed

That is a major refinement of the earlier answer.

XI. Distributed Does Not Mean Holographic

This may be the single most important neuroscience distinction.

Imagine a memory of your childhood kitchen.

Different components might recruit different systems:

visual characteristics → visual cortical networks

spatial layout → hippocampal circuitry

emotional significance → amygdala-related networks

semantic knowledge → distributed association cortex

autobiographical organization → hippocampal–cortical networks.

That is distributed representation.

But if half those systems disappear, the remaining half does not necessarily contain the complete memory at lower resolution, as a fragment of an optical hologram can reconstruct a degraded whole.

Modern engram science therefore supports:

distributed representation + functional specialization + network integration.

It does not demonstrate:

holographic equipotentiality.

That is a significant correction to the seductive “brain as hologram” story.

XII. There Is Nevertheless Something Pribram Saw Early

We should not overcorrect.

The brain increasingly looks less like:

drawers containing individual memory files

and more like:

dynamically reactivatable patterns distributed through interconnected populations.

Modern engram theory emphasizes that memories involve persistent changes in specific neural populations and their connectivity, with memory expression depending upon reactivation. Nature

So Pribram was directionally aligned with an important shift:

representation is relational and distributed.

What did not survive nearly as well is the claim that holography supplies the fundamental mechanism.

That distinction allows a much fairer historical judgment.

XIII. A Deeper Bohm–Pribram Similarity Now Appears

Their strongest commonality may not actually be holography.

It may be representation by relations rather than isolated objects.

For Pribram:

information is represented in relationships among neural activities.

For Bohm:

quantum properties cannot always be understood as intrinsic properties of independent particles.

For holography:

the reconstructed object is encoded through relationships within an interference pattern.

That yields a more abstract shared principle:

Relational structure can contain information not attributable to isolated components.

That is philosophically powerful.

And unlike the statement “everything is literally holographic,” it remains compatible with considerable modern science.

But it is also much broader and therefore less predictive.

Many complex systems possess relational representations without being holograms.

XIV. Talbot's Epistemic Move Was Larger Than It Initially Appeared

Michael Talbot did not merely explain Bohm and Pribram for lay readers.

He changed the scope of the hypothesis.

His earlier books already attempted to connect modern physics with mysticism, and The Holographic Universe explicitly extended the holographic model to phenomena including ESP and other paranormal experiences. Wikipedia

The logical architecture becomes:

Bohm shows nonlocal organization in quantum physics.

Pribram proposes distributed processing in brains.

Holograms provide a common analogy.

Therefore perhaps brain and universe share a holographic architecture.

Therefore anomalous experiences might reflect access to that deeper architecture.

Every “therefore” is doing substantial work.

The first few steps have scientific content.

The final steps require new evidence that cannot be borrowed from the earlier steps.

This is where Talbot becomes methodologically fascinating.

He effectively uses a scientific model as an explanatory permission structure:

If reality is fundamentally nonlocal and distributed, phenomena previously thought impossible may become conceptually possible.

But:

possible ≠ observed.

And:

observed anomaly ≠ holographic explanation.

Even a genuine telepathic effect, for example, would not by itself prove Bohm's implicate order. Competing mechanisms would still need comparison.

XV. Talbot's Theory Is Hard to Falsify

This creates another problem.

A strong scientific theory should risk failure.

Suppose the holographic worldview is invoked to explain:

• ordinary perception,
• extraordinary perception,
• coincidence,
• synchronicity,
• healing,
• memory,
• mystical experience,
• NDEs,
• psychokinesis.

Its explanatory range becomes enormous.

But that can paradoxically make it scientifically weaker.

If almost any unusual event can be interpreted as evidence for a hidden holographic order, what observation would count against the theory?

This is a recurring methodological danger:

explanatory universality can become empirical invulnerability.

That feature will become highly relevant to the secular-theology question.

XVI. Modern Holography Is More Different From Bohm Than the Name Suggests

We now need to sharpen this substantially.

The modern holographic principle arises from a very specific problem:

black-hole entropy.

Ordinary thermodynamic intuition suggests that the number of degrees of freedom in a region should scale roughly with volume.

But black-hole entropy scales with horizon area.

That profound area/information relationship motivated 't Hooft and Susskind to suggest that a gravitational region might be describable through lower-dimensional degrees of freedom. Bousso's major review characterizes holography as pointing toward a fundamental relationship between geometry and information. APS Journals

This is not Bohm's hologram analogy.

The two uses of “holographic” refer to different structural ideas.

Bohm

Whole information enfolded throughout an underlying order.

Quantum gravity

A gravitational bulk may be equivalently encoded by degrees of freedom associated with a lower-dimensional boundary.

Those are not the same proposition.

XVII. AdS/CFT Is Not “Our Universe Is a 2-D Projection”

Popular accounts often badly overstate this.

The best-understood holographic dualities involve spacetimes with Anti-de Sitter (AdS) asymptotics.

Our observed universe on cosmological scales is not simply an AdS universe; its accelerating expansion is more naturally associated with positive cosmological-constant/de Sitter-like geometry.

Research on de Sitter and flat-space holography continues, including work published into 2026, but the situation is less mature than canonical AdS/CFT. arXiv

Therefore:

“Physics has proved that our universe is a hologram”

is false.

A more defensible statement is:

Certain quantum gravitational systems possess remarkably powerful lower-dimensional dual descriptions, strongly suggesting that spacetime and gravitational degrees of freedom may have a fundamentally holographic organization.

That is already extraordinary.

It simply is not Talbot's claim.

XVIII. But Modern Holography Introduces a New Connection Worth Taking Seriously

Here the investigation gets more interesting rather than less.

Modern holography increasingly connects:

geometry ↔ quantum information.

One particularly influential direction concerns quantum entanglement.

Work associated with Mark Van Raamsdonk and others explored the idea that patterns of quantum entanglement may be intimately related to the connectedness and emergence of spacetime itself. Google Scholar

The conceptual reversal is profound.

Traditional physics:

things exist in space and subsequently become entangled.

Emergent-spacetime approaches raise the possibility that:

patterns of quantum relationships help constitute what we experience as spatial geometry.

That does not validate Bohm's implicate order.

But it makes one broad Bohmian intuition more interesting:

ordinary spacetime separation might not represent the deepest organizational level of reality.

That is a legitimate conceptual resonance.

We should investigate it carefully without turning resonance into genealogy or confirmation.

XIX. “Information” Has Become the Dangerous Word

Both holographic physics and Bohmian thought invite statements such as:

reality is information.

But “information” has several meanings.

Shannon information

A mathematically defined measure related to uncertainty and probability.

Quantum information

Information encoded in quantum states and constrained by quantum dynamics.

Semantic information

Information about something.

Bohmian active information

Structure that allegedly guides or informs physical activity.

Everyday information

Meaningful knowledge.

These are not interchangeable.

John Archibald Wheeler's famous “it from bit” proposal went substantially further, suggesting that physical reality might have information-theoretic origins. PhilPapers

But a recurring philosophical mistake is:

physics uses information theory

↓

therefore reality consists of information

↓

information implies meaning

↓

meaning implies mind

↓

therefore consciousness is fundamental.

Every arrow requires independent justification.

Physics can employ information mathematically without implying that the universe contains semantic meaning or a cosmic mind.

XX. Consciousness Creates an Even Bigger Category Problem

The earlier investigation needs another correction here.

There is currently no established neuroscientific result requiring quantum holography to explain consciousness.

Modern consciousness research contains competing frameworks involving global availability, recurrent processing, higher-order representation, integrated information and predictive/inferential architectures.

None has established:

consciousness exists because the brain taps into a universal holographic field.

Pribram's neural ideas and Bohm's ontology therefore should not be fused automatically into a consciousness theory.

Indeed, three separate questions exist:

1. How does the brain represent information?
2. What neural processes correlate with conscious experience?
3. Why should those processes possess subjective experience at all?

A distributed memory model primarily addresses (1).

It does not automatically solve (2).

And certainly not (3).

Talbot-style synthesis tends to collapse all three.

XXI. Hidden Complexity: Bohm Himself Resists Easy Classification

Bohm is unusually difficult to classify because he was simultaneously:

• a mathematical physicist,
• an ontological realist,
• a critic of mechanistic reductionism,
• a philosopher of process,
• deeply interested in consciousness,
• engaged in decades-long dialogue with Krishnamurti,
• willing to discuss religious implications.

But he was not simply advocating New Age quantum mysticism.

Recent historical scholarship emphasizes the complexity and evolution of Bohm's ontology rather than treating him as a straightforward deterministic reactionary against Copenhagen. arXiv

And Bohm's intellectual instinct repeatedly worked against finality.

Reality might contain indefinitely deeper levels.

Any theory could have a limited domain.

The implicate order itself need not be the final layer.

That means Bohm's philosophy is better characterized as an open-ended process ontology than as a finished cosmic diagram.

XXII. The “Secular Theology” Question Now Needs Refinement

The earlier definition was too broad.

Not every metaphysical extrapolation is theology.

A physicist saying:

spacetime may emerge from entanglement

is doing speculative theoretical physics.

A philosopher saying:

relationality rather than substance may be metaphysically fundamental

is doing metaphysics.

Neither automatically constitutes theology.

A stronger definition of secular theology should require several functions normally performed by religious cosmologies.

For example:

1. Ultimate ontology — what reality fundamentally is.
2. Cosmogony — why the world possesses its structure.
3. Anthropology — what human beings fundamentally are.
4. Meaning — how human existence fits into the whole.
5. Epistemology/revelation analogue — how deeper reality can be accessed.
6. Transformation/soteriology — whether realizing this truth changes or liberates us.
7. Death/continuity — whether individuality survives bodily death.
8. Moral orientation — whether the structure of reality implies how we should live.

A scientific theory can answer (1) partially without becoming theology.

The theological resemblance becomes stronger as a worldview begins answering most of the others.

XXIII. Bohm and Talbot Score Differently on That Test

This distinction is important.

Bohm

Strongly addresses:

ontology,

wholeness,

mind–matter relationship,

epistemology,

fragmentation.

Sometimes approaches:

existential transformation,

religious meaning.

But he is comparatively restrained concerning personal immortality, paranormal powers or a detailed afterlife.

So calling Bohm's physics a secular theology would be unfair.

Calling portions of his mature philosophical cosmology theology-adjacent is much more defensible. Scholars have explicitly examined the scientific and theological significance of his cosmology. arXiv

Talbot

Moves considerably farther.

His synthesis attempts to incorporate anomalous consciousness, paranormal phenomena and experiences associated with death and transcendence. Wikipedia

Talbot therefore comes much closer to what we are calling secular theology.

Science provides the cosmological vocabulary.

The worldview supplies existential completion.

XXIV. A New Concept: Epistemic Borrowing

A recurring mechanism is becoming visible.

Call it epistemic borrowing.

A proposition acquires credibility because it sits near another proposition possessing stronger evidence.

For example:

A: Quantum entanglement exists.

Strong evidence.

B: Bohmian mechanics is explicitly nonlocal.

Legitimate theoretical interpretation.

C: Reality is fundamentally undivided.

Philosophical inference.

D: Consciousness participates in this undivided reality.

Speculative metaphysics.

E: Telepathy accesses that nonlocal reality.

Empirically disputed hypothesis.

F: Individual consciousness survives death by returning to the whole.

Further speculation.

The rhetorical presentation can make A's experimental authority seem to flow all the way down to F.

But it doesn't.

Each transition requires new evidence.

This phenomenon deserves to become one of our analytical tools for the rest of the investigation.

XXV. Another New Concept: Metaphysical Underdetermination

Suppose two interpretations predict exactly the same experiment.

The experiment confirms the prediction.

Which ontology did it confirm?

Potentially neither uniquely.

Quantum mechanics is notorious for this problem.

Copenhagen-type interpretations, Everettian approaches, Bohmian mechanics and other formulations can reproduce large overlapping domains of empirical predictions while offering radically different pictures of reality.

Therefore experimental success of quantum mechanics cannot automatically validate:

Bohm's ontology,

Everett's many worlds,

observer-created reality,

or any spiritual interpretation.

This is metaphysical underdetermination.

And it creates fertile ground for secular theology because empirical science can constrain possibilities without uniquely determining the story humans tell about what the equations ultimately mean.

XXVI. Another New Thread: The Hologram May Be One Instance of a Larger Historical Pattern

“Holographic” language may eventually turn out to be historically contingent.

Different eras seize different scientific metaphors.

Seventeenth century:

universe as clockwork.

Nineteenth century:

universe as machine.

Twentieth century:

universe as computer.

Late twentieth century:

universe as hologram.

Twenty-first century:

universe as information processor / quantum computer / simulation.

Each metaphor reflects the most culturally impressive technology of its age.

That raises an uncomfortable question:

Are we discovering what reality fundamentally resembles, or repeatedly projecting our newest information technologies onto reality?

The clockwork universe once felt nearly irresistible.

Today it looks historically situated.

“Holographic universe” may eventually receive the same treatment.

Or it may contain deeper mathematical truth.

We cannot decide that merely from the metaphor's appeal.

XXVII. Yet the Recurring Pattern May Tell Us Something Real

There is an opposite possibility.

Perhaps increasingly sophisticated technologies repeatedly reveal genuine organizational principles because humans build technologies by exploiting structures already present in nature.

The sequence

mechanism →

computation →

information →

distributed encoding →

quantum information

may therefore represent increasing conceptual sophistication rather than merely changing metaphors.

That gives us two competing explanations:

Projection hypothesis

Humans model the cosmos after their latest technologies.

Discovery hypothesis

Technologies reveal progressively deeper organizational principles already present in nature.

Both deserve investigation.

XXVIII. A New Connection: Emergence May Be the Real Unifying Theme

The word holographic may ultimately prove less important than emergence.

Consider:

Bohm:

explicate structures emerge from deeper implicate processes.

Pribram:

percepts emerge from distributed neural transformations.

AdS/CFT:

higher-dimensional gravitational geometry may emerge from lower-dimensional quantum degrees of freedom.

Modern neuroscience:

memory emerges from distributed, plastic neural ensembles.

Consciousness theories:

subjective/global cognitive states may emerge from coordinated neural dynamics.

These theories are not equivalent.

But they all challenge a naïve picture in which the objects we experience are necessarily the fundamental objects of reality.

Perhaps the lasting philosophical theme is therefore:

The manifest world may not resemble its underlying representation.

That proposition is much broader—and much better supported—than:

the universe is literally a hologram.

XXIX. A Second New Connection: Localization Itself May Be the Deeper Question

Both the brain and quantum gravity increasingly force us to ask:

Where is information?

In classical intuition:

information belongs somewhere.

A memory is stored here.

An object exists there.

A bit occupies this location.

But modern systems complicate this.

A memory can depend on distributed neural ensembles. PubMed Central (PMC)

Entangled quantum states cannot always be decomposed into independently specified states of their components.

Holographic duality allows equivalent descriptions of information in radically different dimensional representations. APS Journals

This suggests a potentially deeper research question:

Is spatial localization fundamental, or is it sometimes an emergent property of relational information?

That question genuinely connects the domains without claiming that brains and black holes use the same mechanism.

XXX. A Third New Connection: The Holographic Principle May Actually Undermine Talbot

At first glance modern holographic physics seems like astonishing vindication:

1991: Talbot publishes The Holographic Universe.

1993–95: 't Hooft and Susskind formalize holographic ideas.

1997: Maldacena develops AdS/CFT.

That chronology is irresistible.

But closer examination may produce the opposite conclusion.

Modern holography shows what happens when “holographic” becomes genuine theoretical physics:

you get

• explicit mathematical mappings,
• defined degrees of freedom,
• entropy bounds,
• dimensional dualities,
• consistency conditions,
• calculations,
• possible failures,
• restricted domains.

In other words, the scientific version becomes more precise and less mystical.

Modern holography therefore does not necessarily rescue Talbot.

It provides a powerful control case showing what a scientifically disciplined holographic theory actually looks like.

XXXI. Revised Evidence Landscape

After this deeper pass, I would revise several earlier judgments.

XXXII. The Investigation Has Now Changed Shape

The original question seemed to concern three men and one theory.

It increasingly looks like an investigation of something larger:

How scientific discoveries about hidden structure become metaphysical pictures of reality—and how those pictures sometimes expand into systems of existential meaning.

Bohm gives us the transition from physics → ontology.

Pribram gives us neuroscience → representational theory.

Talbot gives us scientific synthesis → metaphysical cosmology.

Modern holographic physics gives us an invaluable control case, because it demonstrates what happened when an independently developed holographic concept became mathematically rigorous rather than metaphysically expansive.

And modern neuroscience supplies another control case: some intuitions behind Pribram—distributed representation, spatial-frequency processing, relational encoding—survived, while the stronger holographic architecture did not become necessary to explain them. Scholarpedia

The deepest emerging issue may therefore not be holography at all.

It may be the boundary between three questions that human beings repeatedly want one theory to answer:

How does reality work? Science can investigate this.

What is reality ultimately? Science constrains this, but metaphysics enters quickly.

What does reality mean for us? Science alone may not determine an answer.

Bohm crossed deliberately from the first toward the second.

Talbot crossed from the second toward the third.

The decisive question for the next stages is whether those crossings were rational extensions of incomplete scientific knowledge, philosophically legitimate but empirically underdetermined interpretations, or cases where the authority of science was inadvertently—or deliberately—carried beyond the territory its evidence could support.

That distinction now looks like the intellectual center of the investigation.

High-Value Research Questions

At this stage, the investigation should stop asking broadly whether the “holographic universe” is true and instead identify questions capable of separating historically related ideas from superficially similar ones, science from metaphysics, and genuine prediction from retrospective reinterpretation.

The highest-value questions are therefore those where different answers would force us to revise the emerging thesis.

I. Decisive Questions

1. Did Bohm's implicate order generate any distinctive empirical predictions?

This is probably the single most important scientific question.

We need to distinguish between:

Bohmian mechanics and Bohm's broader implicate-order ontology.

The critical question is not whether Bohmian mechanics reproduces quantum mechanics—it does within its standard domain—but whether the additional concepts of:

• implicate order,
• explicate order,
• holomovement,
• active information,
• deeper orders of reality

ever generate observable consequences unavailable from ordinary quantum theory or Bohmian mechanics without the additional metaphysics.

What would change our view?

If yes: The implicate order deserves treatment as a potentially scientific hypothesis rather than primarily an ontological interpretation.

If no: Its evidentiary status becomes clearer: scientifically motivated metaphysics rather than experimentally confirmed physics.

Priority: Extremely high.

II. Did Bohm Clearly Mark Where His Physics Ended and His Metaphysics Began?

This question could significantly change our interpretation of Bohm.

We need a chronological textual analysis of:

1952 Bohm → 1957 Causality and Chance in Modern Physics → later work with Basil Hiley → 1980 Wholeness and the Implicate Order → active-information writings → Krishnamurti dialogues → 1990 mind/matter paper → The Undivided Universe.

The crucial issue is whether Bohm presented increasingly metaphysical claims as:

scientific deductions, speculative physical hypotheses, philosophical interpretations, analogies, or something else.

Why decisive?

If Bohm consistently identified these boundaries, then later “quantum mysticism” may represent substantial reinterpretation of Bohm.

If Bohm himself repeatedly blurred those boundaries, the genealogy becomes different.

This question could substantially revise our assessment of responsibility for the later holographic worldview.

III. What Exactly Did Pribram Claim Was Holographic?

This must be established before judging whether neuroscience vindicated him.

We need to reconstruct his theory chronologically rather than using the popular slogan “the brain is a hologram.”

Questions include:

Did he claim holographic processing occurred:

• throughout the brain?
• primarily in cortex?
• specifically in dendritic microstructures?
• primarily during perception?
• during memory encoding?
• during memory retrieval?
• through literal interference phenomena?
• through mathematically analogous Fourier/Gabor transformations?

And did these claims change between Languages of the Brain (1971) and Brain and Perception (1991)?

Possible outcomes

If Pribram primarily meant transform-domain distributed computation, considerably more of his theory may survive.

If he required actual holographic interference/storage mechanisms, contemporary support becomes substantially weaker.

Priority: Extremely high.

IV. What Evidence Would Distinguish a Holonomic Brain From an Ordinary Distributed Neural Network?

This is potentially the decisive experimental question for Pribram.

“Distributed representation” is insufficient.

Modern neural networks also distribute information without being holograms.

We therefore need to identify unique predictions.

For example:

Would holonomic storage predict distinctive degradation patterns after lesions?

Specific phase relationships?

Interference phenomena?

Characteristic reconstruction from partial tissue?

Frequency-domain signatures?

Particular mathematical relationships between receptive fields and memory representations?

Why important?

Unless such discriminating predictions exist, evidence for distributed processing cannot legitimately be counted as evidence specifically for Pribram.

This would prevent confirmation by resemblance.

V. Did Modern Neuroscience Vindicate Pribram—or Replace Him?

This is subtler than asking whether memories are distributed.

Compare Pribram directly with:

• contemporary engram theory,
• hippocampal indexing,
• systems consolidation,
• population coding,
• sparse coding,
• attractor networks,
• distributed representations,
• predictive processing,
• connectionist neural networks.

Then ask:

Which phenomena require Pribram's holonomic machinery rather than being explained more parsimoniously by later models?

Three possible outcomes

Vindication: Modern mechanisms substantially instantiate Pribram's proposed architecture.

Partial anticipation: Pribram correctly anticipated distributed/transformational processing but proposed the wrong mechanism.

Historical coincidence: Modern theories solve similar problems using fundamentally different principles.

My current expectation favors the middle option, but that should be tested rather than assumed.

VI. Did Bohm and Pribram Actually Influence One Another Scientifically?

The popular narrative implies a remarkable convergence:

Bohm discovered a holographic universe while Pribram independently discovered a holographic brain.

We need the actual documentary chronology.

When did they first encounter one another's work?

What did each believe the other's work demonstrated?

Did they collaborate?

Did either alter his theory because of the other?

Did either regard the parallel as:

• mathematical,
• physical,
• metaphorical,
• philosophical?

Why this matters

If their theories developed largely independently and were later joined through analogy, the famous “Bohm–Pribram model” becomes historically much weaker than popular literature suggests.

VII. How Faithfully Did Talbot Represent Bohm and Pribram?

This may be the single most revealing textual investigation.

Take major claims from The Holographic Universe and classify them:

Directly stated by Bohm/Pribram

Reasonably inferred from them

Derived from other researchers

Talbot's synthesis

Speculative extension

Unsupported association

We should especially audit passages involving:

• paranormal perception,
• synchronicity,
• psychokinesis,
• healing,
• mystical experience,
• NDEs,
• survival after death.

Then ask:

Does the cited scientific evidence actually support the conclusion Talbot attaches to it?

Potential result

We may discover a measurable process of epistemic inflation:

scientific observation → interpretation → analogy → possibility → explanation → apparent fact.

Mapping those transitions could become one of the strongest parts of the final investigation.

VIII. Did Talbot Present Falsifiable Predictions?

For each major Talbotian explanation, ask:

What conceivable observation would show this explanation to be wrong?

If there is no answer, then the claim's status changes.

It may remain:

• philosophical,
• metaphysical,
• phenomenological,
• existentially meaningful,

but it cannot derive scientific authority merely from using scientific concepts.

This question directly connects Talbot to our secular-theology hypothesis.

IX. Is There Any Historical Connection Between Bohm and the Modern Holographic Principle?

We currently have strong reasons to suspect little or no important genealogy, but this deserves definitive investigation.

Trace:

Bekenstein → Hawking → black-hole entropy → 't Hooft → Susskind → Maldacena → AdS/CFT.

Then search their foundational writings for:

• Bohm,
• implicate order,
• Pribram,
• optical holography,
• Gabor.

Possible outcomes

Direct influence: Major reassessment required.

Indirect intellectual influence: Interesting historical connection.

Independent development: The shared word “holographic” represents analogous terminology applied to fundamentally different theoretical structures.

The third currently appears most likely.

But we should establish it rather than presume it.

X. Is There Nevertheless a Structural Relationship Between Bohm and Modern Holography?

This is different from historical influence.

Even independently developed theories can converge.

Compare:

Bohm

explicate reality emerging from deeper implicate organization.

AdS/CFT

bulk gravitational description dual to lower-dimensional quantum description.

Emergent spacetime programs

geometry related to entanglement structure.

Ask whether these share anything stronger than the generic proposition:

observable structures can emerge from deeper descriptions.

Specifically examine:

• locality,
• nonlocality,
• information,
• dimensionality,
• emergence,
• entanglement,
• encoding,
• reconstruction,
• causal structure.

Falsification discipline

If the similarities disappear once the mathematics is examined, we should explicitly conclude that the resemblance was primarily metaphorical.

XI. Is Spacetime Fundamental?

This question has become unexpectedly central.

Bohm suspected ordinary spacetime organization was not fundamental.

Some modern quantum-gravity programs independently entertain possibilities in which spacetime emerges from more fundamental structures.

So ask:

What contemporary evidence actually supports emergent spacetime?

Investigate:

• AdS/CFT,
• entanglement entropy,
• Ryu–Takayanagi,
• tensor networks,
• quantum error correction,
• ER=EPR,
• loop approaches,
• causal sets,
• emergent-gravity proposals.

This would allow us to determine whether Bohm's intuition aged well without falsely claiming that modern physics confirmed Bohm's mechanism.

XII. Is Information Fundamental—or Merely an Extremely Powerful Description?

This may ultimately become one of the deepest questions in the project.

Modern physics increasingly uses information-theoretic language.

But ask:

Information about what?

Information normally requires distinguishable states.

Does information therefore presuppose physical reality?

Or could physical reality emerge from informational relations?

We need to compare:

• Shannon information,
• quantum information,
• algorithmic information,
• Wheeler's “it from bit,”
• informational structural realism,
• ontic structural realism,
• physicalist interpretations of information.

Decisive distinction

Epistemic information: information describes our knowledge.

versus

Ontic information: information is a constituent of reality.

Confusing these may be responsible for enormous amounts of popular quantum metaphysics.

XIII. Does Quantum Information Require a Mind?

This is an important discriminating question.

Popular literature frequently slides from:

information

to:

meaning

to:

consciousness.

But Shannon information deliberately abstracts away semantic meaning.

Therefore we should ask whether anything in quantum information theory requires:

• an observer,
• interpretation,
• semantic content,
• intentionality,
• consciousness.

If not, then arguments of the form

universe = information → information requires consciousness → universe requires consciousness

lose a crucial premise.

XIV. Does Quantum Mechanics Give Consciousness Any Special Causal Role?

This deserves a dedicated investigation.

We should distinguish:

• Copenhagen-family interpretations,
• von Neumann's measurement analysis,
• Wigner's historical consciousness speculation,
• decoherence,
• Everett,
• Bohmian mechanics,
• objective-collapse theories,
• QBism,
• relational quantum mechanics.

The central question:

Is there experimental evidence requiring consciousness for quantum measurement?

If not, a major pillar of popular “conscious universe” reasoning disappears.

Importantly, Bohmian mechanics itself does not require consciousness to collapse the wavefunction.

That creates an irony: Bohm is frequently recruited into consciousness-causes-reality arguments that his own quantum formulation does not require.

XV. Does Consciousness Require Quantum Physics at All?

Before asking whether consciousness is holographic or nonlocal, we should establish whether ordinary neurobiology is insufficient.

Ask:

Is there any robust conscious phenomenon that currently requires specifically quantum—not merely molecular or electromagnetic—explanation?

Then investigate candidate proposals including:

• Penrose–Hameroff Orch-OR,
• quantum cognition versus quantum brain mechanisms,
• quantum biological coherence,
• microtubule proposals,
• Fisher's nuclear-spin hypotheses.

The burden should be explicit:

A quantum consciousness theory should explain something conventional neuroscience cannot and produce discriminating predictions.

Otherwise quantum mechanics is explanatory decoration rather than necessity.

XVI. Can Consciousness Exist Independently of the Brain?

This is where the investigation intersects directly with Talbot's strongest claims.

The question should not be approached by assuming either materialism or survival.

Relevant evidence would include:

• brain lesions,
• anesthesia,
• disorders of consciousness,
• split-brain phenomena,
• electrical stimulation,
• psychedelics,
• terminal lucidity,
• near-death experiences,
• prospective cardiac-arrest studies,
• veridical-perception claims,
• alleged reincarnation memories,
• mediumship experiments.

The discriminating question is:

Is there reproducible information acquisition or conscious cognition occurring under conditions demonstrably incompatible with sufficient brain function?

That is far stronger than asking whether people report extraordinary experiences.

XVII. Are Paranormal Effects Actually Established Before We Explain Them?

This is foundational.

Talbot attempts to explain paranormal phenomena through holographic reality.

But explanation should follow establishment.

For each category—

telepathy,

remote viewing,

psychokinesis,

precognition,

synchronicity,

anomalous healing—

first ask:

Is there a robust phenomenon requiring explanation?

Only afterward:

What mechanism explains it?

Otherwise we risk explaining noise.

This should include:

• preregistration,
• replication,
• publication bias,
• sensory leakage,
• experimenter effects,
• statistical methodology,
• fraud controls,
• meta-analyses,
• adversarial collaborations.

If robust anomalies remain after methodological scrutiny, the investigation becomes substantially more interesting.

If they disappear, much of Talbot's explanatory architecture becomes unnecessary.

XVIII. What Would Actually Falsify the Holographic Worldview?

This is a powerful discriminating question.

Ask separately for:

Bohmian mechanics

What observations could distinguish it from competing quantum theories?

Implicate order

What observation is incompatible with it?

Holonomic brain

What neural architecture would falsify it?

Talbotian holographic universe

What phenomenon would count against it?

Holographic quantum gravity

What mathematical or empirical observations constrain it?

Comparing the answers may reveal a gradient of scientific testability.

That gradient itself may become one of our strongest findings.

XIX. Foundational Questions

Before reaching larger conclusions, several conceptual questions must be resolved.

We need precise definitions for:

hologram holographic holonomic nonlocality wholeness information emergence consciousness metaphysics theology secular theology.

Otherwise the investigation risks producing false equivalences through shared vocabulary.

Most importantly:

When two theories use the same word, do they mean the same mathematical or ontological thing?

Often they do not.

XX. Missing-Evidence Questions

Several kinds of evidence would dramatically improve this investigation.

Bohm archive

We ideally want correspondence, unpublished lectures and discussions showing exactly how Bohm understood the relationship among:

quantum mechanics,

implicate order,

holography,

consciousness,

Krishnamurti,

religion.

Bohm–Pribram correspondence

If available, this could determine whether their supposed convergence was scientific collaboration or philosophical mutual recognition.

Pribram's changing formulations

We need primary papers across several decades to determine whether the “holographic brain” hypothesis became weaker, stronger or simply more technically precise.

Talbot's source chain

Every important scientific claim in The Holographic Universe should eventually be traced to its underlying source.

This could produce an unusually valuable claim genealogy.

Failed predictions

Histories disproportionately preserve successful or memorable claims.

We should actively search for:

What did Bohm, Pribram or Talbot expect that did not happen?

This is crucial for preventing survivorship bias.

XXI. A Particularly Important Missing Dataset

One potentially powerful exercise would be a prediction ledger.

For every substantive scientific claim made before roughly 1991:

Claim

Author

Date

Prediction

Evidence available then

Evidence available now

Confirmed / partially supported / unresolved / contradicted

That would allow us to distinguish genuine foresight from retrospective reinterpretation.

For example:

“Pribram anticipated distributed neural representations.”

might survive.

But:

“Pribram predicted modern engram theory.”

might not.

Likewise:

“Bohm anticipated nonlocality.”

needs careful historical formulation because quantum nonlocality has a history predating Bohm and Bell.

The ledger would force precision.

XXII. Secular Theology: The Decisive Questions

The philosophical half of the investigation should also become falsifiable—or at least discriminating.

The first question is:

What distinguishes metaphysics from secular theology?

Possible criterion:

A worldview becomes theology-like not merely when it makes untestable claims but when it constructs an integrated account of:

ultimate reality + human nature + meaning + transformation + death/transcendence.

Then ask:

Does Bohm's mature philosophy meet those criteria?

Perhaps partially.

Does Talbot's?

Much more strongly.

Does modern holographic physics?

Almost certainly not by itself.

This would prevent us from committing the opposite mistake: calling every speculative cosmology “religion.”

XXIII. Does Secular Theology Necessarily Mean Bad Reasoning?

This question is philosophically crucial.

Suppose Talbot's worldview functions like theology.

That does not logically demonstrate that it is false.

The correct conclusion might merely be:

its claims require philosophical, experiential or other forms of justification beyond ordinary experimental science.

Otherwise we would commit a genetic fallacy:

“This resembles religion, therefore it is false.”

Our investigation should instead ask:

What kinds of justification are legitimate for claims science cannot presently adjudicate?

That leads into philosophy of science, epistemology and philosophy of religion.

XXIV. Is Metaphysical Completion a Recurring Human Cognitive Behavior?

This new research branch could become extremely fruitful.

Humans appear uncomfortable with incomplete explanatory structures.

Science says:

We know X but do not yet know Y.

Worldviews frequently supply Y.

Examples potentially include:

Darwinism → universal progress narratives.

Quantum mechanics → consciousness-created reality.

Cosmology → multiverse metaphysics.

Information theory → universe-as-computation.

AI → singularity/esoteric immortality narratives.

The hypothesis to investigate:

Humans systematically transform powerful but incomplete scientific frameworks into comprehensive meaning systems.

If historically robust, Talbot becomes not an isolated curiosity but an example of a recurring phenomenon.

XXV. Ranked Research Agenda

Here is where I would now allocate our research effort.

XXVI. Why the Top Five Are Decisive

The first five have unusual leverage because they could break the apparent unity of the entire subject.

If Bohm clearly separated physics from philosophical speculation, we should stop describing the implicate order as a failed or confirmed physical theory and instead evaluate it primarily as scientifically informed metaphysics.

If Pribram made unique predictions that later neuroscience confirmed, his historical standing rises substantially. If his distinctive mechanisms failed while generic distributed representation survived, then Pribram anticipated the problem better than the solution.

If Talbot faithfully represented Bohm and Pribram, the “holographic universe” deserves stronger continuity with serious twentieth-century science. If instead he repeatedly transformed possibilities and analogies into explanatory claims, then Talbot—not Bohm or Pribram—may be the critical point where holography becomes secular cosmology.

And if Bohm's implicate order generates no observations distinguishable from theories without it, then experiments confirming quantum mechanics cannot legitimately be presented as empirical confirmation of the implicate order.

That leaves us with a much sharper architecture for the investigation:

Bohm: Where exactly does physics become ontology?

Pribram: Where exactly does distributed neural processing become holography?

Talbot: Where exactly does possibility become explanation?

Modern holographic physics: Where exactly does mathematical holography resemble—or cease to resemble—the earlier metaphor?

Consciousness: What phenomena actually require something beyond neurobiology?

Secular theology: At what point does an explanatory model cease merely describing reality and begin supplying a story about what reality ultimately is, what human beings are, and what existence means?

Those six questions now provide the backbone for the next phase. The best next move is not another broad survey. It is a primary-source reconstruction of Bohm, because nearly every later branch depends upon establishing exactly what Bohm claimed, when he claimed it, what evidence he thought supported it, and—most importantly—where Bohm the physicist ended and Bohm the metaphysician began.

Evidentiary Audit: Bohm, Pribram, Talbot, and the Holographic Worldview

This audit produces a more conservative picture than the accumulated discussion might suggest. Several core historical and scientific claims are solid. Several apparent “connections” remain philosophically interesting but evidentially weak. Most importantly, no evidence presently establishes a unified Bohm–Pribram theory of mind and cosmos, a literal holographic brain, Bohm's implicate order as experimentally verified physics, or Talbot's broader holographic worldview.

I would preserve the investigation—but tighten several conclusions.

1. Major Claims: Evidence Ledger

That table captures the central correction: evidence frequently supports the existence of an idea without supporting the truth of the idea.

Bohm unquestionably proposed the implicate order. That is established history.

The universe unquestionably possesses an implicate order in Bohm's sense. That is not established science.

Those two propositions must never be allowed to merge.

2. Bohm's 1952 Physics: The Strongest Foundation

Our strongest Bohm evidence is unusually good: his original Physical Review papers.

Bohm explicitly proposed hidden variables providing precise individual trajectories while reproducing the same measurable results as standard quantum theory within the theory's then-current mathematical form. He also entertained the possibility that departures might appear at much shorter distances. APS Journals

Source quality: Very high

These are:

• primary sources,
• peer-reviewed,
• contemporaneous,
• mathematically explicit,
• authored by Bohm himself.

There is essentially no transmission problem concerning what Bohm proposed in 1952.

But there is an important historical qualification we previously underemphasized:

Bohm did not originate the basic pilot-wave idea ex nihilo.

Louis de Broglie had proposed an earlier pilot-wave approach in 1927; Bohm independently revived and substantially developed it in 1952. Modern reference treatments explicitly describe Bohmian mechanics as discovered by de Broglie and rediscovered by Bohm. Stanford Encyclopedia of Philosophy

So earlier wording such as “Bohm demonstrated that quantum mechanics could have a deterministic hidden-variable interpretation” is fair.

“Bohm invented pilot-wave theory” would not be.

3. Bohmian Nonlocality: Strong—but Frequently Abused

The mathematical case that Bohmian mechanics is nonlocal is strong.

For entangled multiparticle systems, one particle's velocity generally depends upon the entire configuration, including distant particles. Stanford Encyclopedia of Philosophy

Bell experiments, meanwhile, establish violations of Bell inequalities consistent with quantum predictions. The 2022 Nobel Prize recognized Aspect, Clauser and Zeilinger for experiments establishing such violations and advancing entanglement science. Nobel Prize

But our wording needs precision.

The Nobel site's popular explanation sometimes uses shorthand suggesting that experiments rule out “hidden variables.” That is too broad if read literally because Bohmian mechanics itself is a hidden-variable theory.

What Bell-type results exclude are appropriate classes of local hidden-variable explanations under Bell's assumptions.

Bohmian mechanics survives precisely by being nonlocal.

Audit judgment

Quantum correlations incompatible with Bell-local accounts: strongly supported.

Bohmian nonlocality: established theoretical property.

Bohmian mechanics uniquely confirmed: no.

Implicate order confirmed: no.

Cosmic interconnectedness confirmed: no.

This is one of the clearest examples of epistemic borrowing identified earlier.

4. Implicate Order: Confidence Must Drop Sharply

The historical evidence that Bohm developed this worldview is excellent.

The empirical evidence that reality literally possesses Bohm's proposed implicate order is not.

Bohm himself explicitly connected hidden variables, implicate order, broader worldview and religion in his 1985 Zygon paper. Importantly, he described the worldview as compatible with a religious approach rather than claiming physics had experimentally proved religious conclusions. Wiley Online Library

Classification

Bohm proposed implicate order: Established.

Implicate order provides a philosophically coherent interpretation: Plausible/disputed.

Implicate order is empirically demonstrated: Unsupported.

Implicate order explains consciousness: Speculative.

This is perhaps the largest evidentiary gulf in the entire subject.

5. Active Information: Real Bohm, Unverified Extension

Our previous discussion of active information was substantially grounded.

Bohm's 1990 paper explicitly says the quantum field can be understood as containing “objective and active information” and compares its activity with information in subjective experience. He then says that the analogy motivates a proposed theory of mind and matter. Taylor & Francis Online

Notice the epistemically important language:

analogy → proposal.

Not:

experimental observation → demonstrated theory of consciousness.

Source criticism

This is a primary source and excellent evidence for what Bohm thought.

But Philosophical Psychology is not evidence that the proposal subsequently received experimental confirmation.

The paper itself emphasizes qualitative development.

Classification

Active information in Bohm's later ontology: Established historical fact.

Its application to mind: Bohm's documented hypothesis.

Empirical confirmation of the mind–matter mechanism: Unsupported presently.

6. Pribram Requires a More Severe Audit

Here our earlier discussion accumulated more confidence than the evidence warrants.

Pribram undeniably developed what he called the holonomic brain theory. His 1971 Languages of the Brain already discusses holographic ideas, and later work made the model increasingly explicit. Google Books

But our most detailed source for exactly what he meant has been his 2007 Scholarpedia article.

That is useful but methodologically problematic.

Why?

It is essentially Pribram explaining Pribram decades later.

That makes it excellent evidence for his mature understanding of his theory but weaker evidence for:

“This is precisely what I always meant from the early 1960s.”

Retrospective self-interpretation is not independent historical confirmation.

Pribram explicitly says the slogan “the brain is a hologram” is misleading and describes local “patch holography” involving windowed Fourier transforms. Scholarpedia

We should accept that as evidence of his mature position.

But we still need earlier primary publications to determine how closely that matches the original theory.

Classification

Pribram proposed holonomic processing: Established.

His mature theory was not simply “the whole cortex is one hologram”: Strongly supported.

He consistently held exactly that nuanced position from the beginning: Probable but not yet adequately audited.

7. Gabor Receptive Fields: Downgrade

Earlier we said Gabor-like receptive fields had strong evidentiary support.

That needs qualification.

Gabor functions unquestionably became important mathematical models of visual receptive fields.

But a 1990 critical analysis concluded that theoretical and experimental evidence was insufficient to privilege Gabor functions over several plausible alternatives. PubMed

This does not make Gabor modeling wrong.

It means:

“Certain receptive fields can be usefully approximated with Gabor-like functions”

is much safer than:

“Neuroscience discovered that cortical receptive fields are Gabor functions.”

Classification

Spatial-frequency/orientation-selective processing: Established / strongly supported.

Usefulness of Gabor models: Strongly supported.

Unique biological realization of Gabor functions: Disputed / overstated if asserted literally.

Evidence for holographic processing derived from Gabor resemblance: Weak.

This is a genuine downgrade from our first pass.

8. Lashley: Another Necessary Downgrade

Lashley's experiments are real and historically important.

His failure to isolate specific cortical memory traces contributed to mass-action and equipotentiality ideas.

But modern historical/neuroscientific analysis identifies major limitations:

• crude lesion methodology,
• inability to examine specific neuronal populations,
• limited treatment of subcortical structures,
• overtraining that may have recruited alternative systems,
• memory itself consisting of multiple specialized processes. PubMed Central (PMC)

Thus:

Lashley demonstrated that memory cannot be localized: too strong.

Better:

Lashley's methods failed to identify simple cortical loci for the memories/tasks he investigated and suggested distributed contributions.

That's much narrower.

And much safer.

9. Modern Engrams: Strong Evidence, Wrong Kind of “Holography”

Here the evidentiary foundation is considerably stronger.

A 2022 Nature Communications study mapped activity across 247 mouse brain regions during contextual fear memory encoding and recall, identifying widespread candidate engram ensembles. Optogenetic and chemogenetic manipulations supported functional involvement of multiple distributed ensembles. Nature

Modern reviews likewise describe memories as encoded in sparse ensembles distributed across the brain while emphasizing flexibility, representational drift, reconsolidation and dynamic organization. Nature

Source quality

Strong.

We have:

• experimental manipulation,
• animal models,
• cell labeling,
• optogenetics,
• chemogenetics,
• contemporary reviews.

But limitations matter.

Much high-resolution causal engram evidence comes from rodents and often from relatively tractable memories such as contextual fear conditioning.

A human autobiographical memory is vastly more complex.

Therefore:

“Modern neuroscience demonstrates distributed engrams”

is strong.

“Modern neuroscience has completely explained human memory”

is obviously false.

And:

“Distributed engrams confirm Pribram”

does not follow.

10. Pribram's Partial Vindication: Downgrade to Probable

Our earlier conclusion was:

Pribram anticipated distributed representational thinking.

I would retain that as probable historical interpretation, not established vindication.

Why?

Modern engram findings independently support distribution.

But distribution alone is insufficient to validate:

• holographic interference,
• Fourier memory storage,
• holonomic field processing,
• Pribram's specific mechanism.

Modern experiments actually emphasize regional specialization within distributed networks. For contextual fear memories, different regions appear to contribute different informational components. Nature

So our best current formulation becomes:

Pribram appears to have been directionally insightful in emphasizing distributed and transform-like neural representation, while present evidence does not establish his distinctive holographic mechanism.

Classification: Probable.

11. Talbot: The Historical Claim Is Strong; the Scientific Claim Is Not

Talbot clearly expanded the Bohm–Pribram material into paranormal and metaphysical territory.

A contemporary 1991 review documents his treatment of telepathy, synchronicity, psychokinesis, precognition, poltergeists, UFOs, NDEs and related phenomena. Kirkus Reviews

Source criticism

Kirkus is a book review, not a scientific source.

It is useful for confirming the book's scope but not for evaluating whether paranormal phenomena actually occur.

For that we need Talbot's book itself plus the underlying experimental literature he cited.

We have not yet performed that source-by-source audit.

Consequently, earlier statements implying that Talbot inflated particular Bohm or Pribram claims remain:

Plausible, but not yet demonstrated systematically.

That is an important evidentiary gap.

12. Modern Holography: Very Strong Theory, Limited Empirical Reach

The scientific lineage is well established.

Black-hole thermodynamics motivated entropy bounds; 't Hooft and Susskind developed holographic reasoning; Maldacena's 1997 work produced the extraordinarily influential AdS/CFT correspondence. Bousso's major Reviews of Modern Physics article documents the theoretical development. APS Journals

Ryu and Takayanagi subsequently provided a remarkable connection between entanglement entropy and geometric area in holographic systems. APS Journals

Van Raamsdonk developed the idea that spacetime connectivity may be intimately related to entanglement structure. arXiv

Classification

Existence and mathematical productivity of holographic duality: Established / strongly supported theoretically.

Fundamental relevance to quantum gravity: Strong theoretical case.

Exact applicability to our cosmological universe: Unestablished.

Empirical demonstration that our universe is holographic: Unsupported.

Proof that spacetime universally emerges from entanglement: Not established.

APS itself notes the difficulty of extending the best-understood AdS framework to positive-cosmological-constant/de Sitter settings more relevant to cosmology. Physical Review Letters

13. Bohm ↔ Modern Holography: Major Evidentiary Gap

This is one of the places where our investigation is currently most vulnerable to pattern recognition.

We have:

Bohm: deeper enfolded order.

Modern holography: lower-dimensional descriptions of gravitational systems.

Emergent-spacetime research: geometry related to quantum information.

The resemblance is fascinating.

But we presently lack evidence demonstrating:

• mathematical continuity,
• direct theoretical inheritance,
• predictive dependence,
• significant historical influence.

There is historical evidence that Bohm was thinking about holography by 1969 and corresponded with Dennis Gabor about it. Cambridge Repository API

But that does not connect Bohm to Bekenstein–'t Hooft–Susskind–Maldacena holography.

Classification

Conceptual resonance: Plausible.

Deep structural equivalence: Unverified.

Historical influence: Presently unverified and probably weak based on what we have seen.

Modern holography vindicates Bohm: Unsupported.

This should remain heavily fenced off until we conduct the genealogy.

14. Bohm ↔ Pribram: Another Gap

We have spoken repeatedly about a “Bohm–Pribram” convergence.

Yet our primary-source foundation for their actual intellectual relationship remains thin.

We know both developed holographically influenced frameworks. We have Pribram material discussing holographic brain hypotheses and historical material concerning Bohm's interest in holography. Karl Pribram

We do not yet have sufficient primary correspondence or chronological reconstruction establishing:

who influenced whom,

when,

to what degree,

or whether either believed the two theories constituted one unified scientific framework.

Therefore:

“Bohm and Pribram discovered complementary halves of one theory”

must currently be classified unsupported.

15. Consciousness: Our Weakest Scientific Territory

We have discussed consciousness extensively without yet conducting a systematic consciousness-literature review.

Accordingly:

Consciousness requires quantum mechanics: unsupported.

Consciousness is holographic: unsupported.

Consciousness accesses an implicate order: speculative.

Consciousness survives bodily death: unresolved in this investigation; no conclusion warranted here.

Bohm proposed a common informational/participatory framework for mind and matter: established historical claim. Taylor & Francis Online

The difference between those statements is enormous.

This entire branch needs independent evidence rather than inference from quantum physics.

16. “Information Is Fundamental”: Downgrade

Physics increasingly employs information-theoretic concepts. Holographic physics provides particularly striking relationships among geometry, entropy and information. APS Journals

But:

information is indispensable in our best descriptions

does not entail:

reality is ontologically made of information.

Nor does information theory imply semantic meaning.

Nor does semantic meaning imply cosmic consciousness.

So:

Information plays a fundamental role in modern physical theory: strongly supported.

Information is the ultimate substance of reality: disputed metaphysics.

Information implies mind: unsupported.

This distinction should become permanent in the investigation.

17. “Emergence Is the Real Common Theme”: Keep—but Label Correctly

Our previous synthesis suggested that emergence rather than holography may connect these domains.

That remains intellectually useful.

But it is our synthesis, not an empirical discovery.

Bohm describes explicate structures emerging/unfolding from deeper organization.

Pribram describes perceptual organization through transformations.

Holographic quantum gravity relates bulk geometry to boundary quantum descriptions.

Engram science describes memory as arising through coordinated neural networks.

These are genuinely different mechanisms.

Therefore:

“All four instantiate the same underlying principle”

is speculative.

Whereas:

“All four challenge naïve identification of manifest organization with fundamental organization”

is a reasonable philosophical comparison.

That distinction matters.

18. Secular Theology: Plausible, Not Yet Demonstrated

This remains one of the investigation's most promising interpretive hypotheses.

Bohm himself unquestionably connected his worldview with religion. His 1985 paper explicitly discusses how hidden variables and implicate order relate to his religious views and says the worldview is compatible with a religious approach to life. Wiley Online Library

That considerably strengthens the relevance of the question.

But:

religious compatibility ≠ theology.

And:

metaphysics ≠ theology.

Our proposed criteria—ultimate ontology, human significance, transformative knowledge, death/transcendence, moral orientation, etc.—are analytical constructs we introduced.

They have not yet been grounded in scholarship on:

• secular religion,
• political religion,
• implicit religion,
• scientism,
• natural theology,
• religious naturalism,
• secular eschatology.

Therefore the proposition

“Talbot's holographic universe functions as secular theology”

is currently plausible, perhaps strongly so, but not yet demonstrated through an established comparative framework.

Bohm's case should receive an even weaker classification:

possible/theology-adjacent, depending on definition.

19. Biggest Evidentiary Gaps

Five weaknesses now stand out.

First, we know Bohm's physics much better than Bohm's intellectual evolution. We need chronological primary-text analysis showing precisely when quantum potential becomes active information, active information becomes implicate order, and implicate order becomes mind/religion.

Second, Pribram remains inadequately reconstructed. We have relied too much on his late retrospective account. We need his 1960s–1990s papers in sequence and contemporary neuroscientific reactions to them.

Third, Talbot has not actually been audited. We have characterized his project correctly at a high level, but we have not traced individual claims from Talbot → citation → original evidence.

Fourth, the Bohm–Pribram relationship remains poorly documented. Popular accounts may have created more theoretical unity than the primary record warrants.

Fifth, “secular theology” remains our analytical hypothesis rather than an established scholarly classification. It needs its own literature review.

These are not minor loose ends. They are exactly where the investigation could still change direction.

20. Upgrade / Downgrade Conditions

The most important claims now have fairly clear evidentiary tests.

Overall Audit Judgment

After stripping away accumulated inference, I would describe our evidence base this way:

Very strong foundation: Bohm's 1952 theory; Bohmian nonlocality; Bell-inequality violations; Bohm's later development of active information and implicate order as documented ideas; Pribram's development of holonomic models; distributed contemporary engram evidence; the existence and theoretical importance of modern holographic duality.

Moderately strong but requiring qualification: Pribram anticipated important aspects of distributed/transformational neural representation; Bohm's later physics and philosophy form a meaningful intellectual continuum; holographic quantum gravity raises serious questions about the fundamentality of spacetime localization.

Plausible but not yet demonstrated: Talbot substantially inflated the epistemic status of Bohm and Pribram; Bohm and modern holography share something philosophically deeper than metaphor; the holographic worldview functions as secular theology.

Currently speculative: consciousness accesses a deeper implicate/informational order; mind and matter share Bohmian active-information dynamics; a common principle connects neural distribution, quantum nonlocality and holographic spacetime.

Currently unsupported: modern holographic physics confirms Bohm; neuroscience confirms a literal holographic brain; Bell experiments prove the implicate order; quantum mechanics establishes cosmic consciousness; Bohm–Pribram physics explains paranormal phenomena.

The audit therefore does not collapse the investigation. In some ways it improves it. Something historically interesting genuinely happened: Bohm, Pribram and later Talbot explored increasingly expansive uses of distributed order, information, wholeness and holographic analogy at approximately the same historical moment that physics and neuroscience were moving away from simplistic localization and mechanistic atomism.

But the strongest evidence presently supports several separate developments, not one discovered master principle.

That is now the evidentiary baseline. From this point forward, the investigation should require new evidence for every bridge—Bohm → Pribram, quantum nonlocality → implicate order, distributed memory → holography, Bohm → modern quantum gravity, information → consciousness, and scientific cosmology → secular theology—rather than allowing the strength of evidence on either side of a bridge to substitute for evidence that the bridge itself exists.

Chronological Reconstruction: From Holography to the “Holographic Universe”

A chronological reconstruction clarifies the subject considerably. What later became the “holographic universe” was not born as a single theory. At least four initially separate intellectual lineages developed:

distributed memory and brain function → Pribram

quantum foundations and wholeness → Bohm

optical/mathematical holography → Gabor and later laser holography

black-hole thermodynamics → modern holographic quantum gravity

The first three eventually interacted. The fourth developed substantially independently and only later created the striking retrospective appearance that the earlier “holographic universe” had anticipated modern physics.

I. Before Holography: The Problems Already Existed

1900–1920s — Quantum theory destabilizes classical reality

The intellectual background begins before anyone talks about holograms.

Planck's quantum hypothesis (1900), Einstein's work on light quanta (1905), Bohr's atomic model (1913), and the development of quantum mechanics by Heisenberg, Schrödinger, Born, Dirac and others during the 1920s progressively undermined classical assumptions concerning particles, measurement and determinism.

The important chronological point is:

Quantum conceptual problems predate holography.

Therefore Bohm's later concern with wholeness and nonclassical order cannot originally have arisen from holographic technology.

Holography eventually supplied him with an analogy for a problem already present.

II. 1920s — De Broglie Before Bohm

1927 — Louis de Broglie's pilot-wave theory

At the 1927 Solvay Conference, Louis de Broglie presented his pilot-wave approach.

Particles possess definite trajectories while being guided by a wave.

This is a crucial correction to popular histories that begin pilot-wave physics with Bohm.

The conceptual genealogy is:

de Broglie → Bohm

not:

holography → Bohmian mechanics.

Bohm later independently reconstructed and extended this general approach.

This also means that the core architecture of Bohmian mechanics predates practical holography by decades.

III. 1920s–1950 — Lashley and the Localization Problem

While quantum physicists were debating particles, psychologists and neuroscientists were struggling with a completely different question:

Where is memory?

Karl Lashley spent decades attempting to identify memory traces through brain-lesion experiments, particularly in rats.

He removed or damaged different portions of cortex and examined learned behavior.

In 1950, Lashley summarized much of this program in his famous paper:

“In Search of the Engram.”

His inability to identify simple, discrete cortical memory locations encouraged concepts including:

mass action — performance can depend upon the amount of functioning cortex;

equipotentiality — remaining regions may sometimes partially substitute for damaged regions.

Modern neuroscience substantially qualifies these conclusions, but historically they created the problem Pribram would inherit.

The chronology matters:

Distributed-memory questions existed before Pribram adopted holographic mathematics.

Again, holography did not generate the problem.

It later appeared to provide a possible solution.

IV. 1947–1948 — Gabor Invents Holography

Dennis Gabor developed the principle of wavefront reconstruction while attempting to improve electron microscopy.

His foundational paper appeared in 1948.

The technique records interference information from which a wavefront can subsequently be reconstructed.

Gabor would receive the 1971 Nobel Prize in Physics for the invention and development of the holographic method.

This introduces the third independent lineage:

wave physics → interference → distributed encoding → holography.

At this point there is no Bohmian implicate order.

There is no Pribram holonomic brain.

There is no Talbotian holographic universe.

There is certainly no AdS/CFT.

V. 1951 — Bohm Before the Implicate Order

Bohm published his textbook Quantum Theory in 1951.

At this stage Bohm had not yet produced the causal interpretation for which he became famous.

His intellectual trajectory through quantum foundations is complicated; importantly, his later views should not be projected backward into this period.

This gives us an important chronological warning:

The Bohm of 1951 is not simply the Bohm of Wholeness and the Implicate Order waiting to happen.

His ontology developed.

VI. 1952 — Bohm's Causal Interpretation

Bohm published two foundational papers:

“A Suggested Interpretation of the Quantum Theory in Terms of ‘Hidden’ Variables I and II.”

These are the foundation of what became known as Bohmian mechanics.

Particles possess actual positions and follow trajectories guided by the wavefunction.

The formulation makes nonlocal relationships particularly explicit for entangled multiparticle systems.

Chronological significance

This happens:

before Bohm's mature implicate-order philosophy

and

before Pribram's mature holonomic theory.

Therefore:

Bohmian mechanics was not derived from Pribram.

Nor was it derived from a “holographic universe.”

Any later relationship must involve reinterpretation or conceptual development, not origin.

VII. 1950s — Bohm's Philosophy Begins Expanding

Bohm increasingly became dissatisfied with mechanistic conceptions of causality and reality.

His 1957 book:

Causality and Chance in Modern Physics

is important because it reveals that Bohm was not merely trying to resurrect nineteenth-century determinism.

He increasingly entertained:

• hierarchical levels of organization,
• qualitative novelty,
• causal structure beyond simple mechanism,
• potentially unlimited deeper levels of reality.

This period represents an intermediate Bohm:

pilot-wave physicist → broader process-oriented philosopher.

But the mature vocabulary of implicate/explicate order had not yet fully arrived.

VIII. 1960 — The Laser Changes Holography

Gabor's original holographic technique was limited by available light sources.

The invention of the laser around 1960 supplied the highly coherent light required for dramatically improved holography.

Emmett Leith and Juris Upatnieks subsequently developed practical laser holography during the early 1960s.

This technological development matters culturally.

Only now did holography become the visually striking phenomenon capable of inspiring the famous intuition:

Each fragment can contain information concerning the whole.

The metaphorical power of holography therefore intensifies during the 1960s.

IX. 1960s — Pribram Develops Distributed Models

Karl Pribram had worked with Lashley and inherited the unresolved problem of neural representation.

During the 1960s, Pribram increasingly developed ideas involving distributed information processing and mathematical transforms.

The emergence of holography offered an attractive analogy and possible mathematical framework.

The proposed route is therefore:

Lashley

↓

distributed-memory problem

↓

Pribram

Gabor/Fourier mathematics

↓

holonomic processing.

This is a plausible causal chain because the intellectual intermediary is identifiable: Pribram explicitly engaged the relevant mathematics and holographic ideas.

But we still need a more granular primary-text chronology to identify precisely when Pribram first adopted the holographic framework and how his formulation changed.

That remains a research gap.

X. 1960s — Bohm Encounters the Holographic Idea

This is where the timelines begin approaching one another.

Archival evidence indicates Bohm was thinking seriously about holography by the late 1960s and corresponded with Dennis Gabor.

This is historically important because it establishes a plausible transmission route:

Gabor's physical holography → Bohm's philosophical analogy.

But the direction should not be reversed.

Holography did not generate Bohmian mechanics.

Instead:

Bohm encountered holography after he had already spent years developing nonclassical ideas concerning quantum reality.

Holography appears to have supplied him with an especially powerful model for thinking about enfolded order.

XI. Late 1960s–1970s — Bohm and Krishnamurti

Bohm's relationship with Jiddu Krishnamurti becomes increasingly relevant during this period.

Their conversations concerned:

• consciousness,
• thought,
• fragmentation,
• observer and observed,
• psychological conditioning,
• wholeness.

The causal relationship needs caution.

It would be simplistic to say:

Krishnamurti caused Bohm's implicate order.

Bohm already had substantial independent philosophical and physical motivations.

But sustained dialogue with Krishnamurti clearly placed Bohm's scientific concerns into conversation with questions of consciousness and human fragmentation.

The route is therefore better understood as:

quantum foundations + Bohm's process philosophy + holographic analogy + dialogue concerning consciousness

rather than as one source causing the entire worldview.

XII. 1971 — Two Symbolically Important Events

This year is unusually interesting.

Gabor receives the Nobel Prize

Holography becomes internationally recognized as major physics/technology.

Pribram publishes Languages of the Brain

Pribram's book presents a broad theory of neural communication and representation and discusses holographic approaches.

This places holographic brain theories squarely within serious contemporary neuropsychological discourse.

But we need an important distinction.

Pribram's book existing in 1971 proves the hypothesis was scientifically discussed.

It does not prove the hypothesis was correct.

Chronology establishes intellectual history, not empirical validation.

XIII. 1970s — “Holographic” Ideas Begin Converging Culturally

By the 1970s several ingredients now coexist:

Bohm → quantum wholeness/nonlocal ontology.

Pribram → distributed neural representation.

Gabor → holography.

Krishnamurti and related philosophical dialogue → consciousness/wholeness.

Countercultural Western interest → Eastern philosophy, altered consciousness, parapsychology and holistic science.

This cultural context matters.

Ideas that originated separately could now be assembled into a larger worldview because the intellectual ecosystem rewarded synthesis.

This does not invalidate the synthesis.

But it helps explain why it emerged when it did.

XIV. 1973 — A Completely Separate Line: Black-Hole Entropy

Now something remarkable begins—but elsewhere.

Jacob Bekenstein proposed that black holes possess entropy proportional to the area of their event horizons rather than ordinary spatial volume.

This is the seed from which modern holographic quantum gravity eventually grows.

The lineage is:

black-hole physics

not:

Bohm

not:

Pribram

not:

Talbot.

This chronological separation is extremely important.

XV. 1974–1975 — Hawking Radiation

Stephen Hawking showed that black holes should emit thermal radiation.

The resulting Bekenstein–Hawking entropy relationship ties together:

gravity + quantum mechanics + thermodynamics + horizon area.

This raises a profound puzzle.

Why should the maximum entropy/information associated with a gravitational system scale with its surface area?

That question ultimately produces modern holography.

Again:

No Bohmian implicate order is required for this development.

This is an independent causal pathway.

XVI. 1980 — Wholeness and the Implicate Order

Bohm publishes the book that most clearly crystallizes his mature philosophical vocabulary.

Now we encounter:

explicate order

implicate order

enfoldment

unfoldment

holomovement

undivided wholeness.

This is nearly three decades after the 1952 hidden-variable papers.

That gap matters.

Popular accounts frequently compress:

1952 Bohm + 1980 Bohm

into one theory.

Historically, they are stages of an evolving intellectual program.

XVII. Early 1980s — Bohm's Ideas Enter Wider “New Paradigm” Culture

The broader cultural environment increasingly embraces ideas such as:

• holistic science,
• systems theory,
• Gaia,
• Eastern philosophy,
• consciousness studies,
• quantum mysticism,
• New Age spirituality.

Fritjof Capra's The Tao of Physics had appeared in 1975.

Gary Zukav's The Dancing Wu Li Masters appeared in 1979.

Bohm increasingly appears in a cultural discourse linking modern physics with ancient mystical or holistic intuitions.

This creates an important distinction:

Bohm's own thought

versus

cultural “Bohmianism.”

Ideas can change substantially during transmission.

XVIII. 1985 — Bohm Explicitly Discusses Religion

Bohm publishes:

“Hidden Variables and the Implicate Order”

in Zygon, a journal devoted to science and religion.

The paper explicitly discusses implications of his worldview for religion and describes it as compatible with a religious approach to life.

This date is important for our secular-theology hypothesis.

It proves that religious interpretation of Bohm is not solely a later Talbotian invention.

But it still does not mean:

Bohm converted his physics into theology.

Rather, by the mid-1980s Bohm himself was explicitly exploring relationships among physics, ontology and religious thought.

XIX. 1986 — Pribram and Carlton Formalize Holonomic Processing

Pribram and E. H. Carlton published:

“Holonomic Brain Theory in Imaging and Object Perception.”

They attempted to relate the model to neurophysiological data concerning sensory processing and perception.

This is useful chronologically because it demonstrates that Pribram's program continued as a technical neuroscientific theory rather than merely becoming New Age philosophy.

The Bohm and Pribram trajectories therefore remain partly distinct even while popular synthesis increasingly joins them.

XX. Late 1980s — Active Information

Bohm and Basil Hiley increasingly developed the concept of active information.

The quantum potential could be understood not merely as a mechanical force but as information that actively organizes particle behavior.

Bohm then explored analogies between this and mental processes.

This creates another chronological ladder:

1952 quantum potential

↓

later reinterpretation/development

↓

active information

↓

possible analogy with mind

↓

possible common mind–matter framework.

It would be anachronistic to attribute the entire final sequence to Bohm's original 1952 papers.

XXI. 1990 — Bohm Explicitly Addresses Mind and Matter

Bohm publishes:

“A New Theory of the Relationship of Mind and Matter.”

Here the transition is explicit.

He proposes that active information may help illuminate relationships between mental and physical processes.

Chronologically, this is extraordinarily important.

Talbot's The Holographic Universe appears the following year.

So by 1990 the ingredients Talbot would popularize genuinely existed:

Bohm → implicate order + active information + mind/matter speculation

and

Pribram → holonomic neural processing.

Talbot did not invent those components.

His innovation was their expansion and synthesis.

XXII. 1991 — Pribram's Mature Statement

Pribram publishes:

Brain and Perception: Holonomy and Structure in Figural Processing.

This represents a mature technical formulation of his approach.

Again, the timing matters.

The popular holographic worldview did not precede the scientific theories.

The scientific theories came first.

That prevents us from dismissing the entire history as simply New Age pseudoscience retrofitted onto science.

The actual sequence is more interesting.

XXIII. 1991 — Talbot Publishes The Holographic Universe

This is the decisive popular-cultural transformation.

Talbot brings together:

Bohm's implicate order

Pribram's holonomic brain

parapsychology

mystical experience

extraordinary healing

NDEs

synchronicity

other anomalous phenomena.

A contemporary review confirms the book's extremely broad paranormal scope.

The epistemic structure changes here.

Before Talbot:

two unconventional but serious scientific/philosophical research programs.

After Talbot:

a potentially comprehensive worldview.

This is where our secular-theology hypothesis begins becoming substantially stronger.

XXIV. 1992 — Bohm Dies

David Bohm dies in October 1992.

This chronological fact imposes an important boundary.

Bohm never saw the mature development of modern holographic quantum gravity.

He died:

before 't Hooft's influential 1993 holographic formulation

before Susskind's 1995 “World as a Hologram”

before Maldacena's 1997 AdS/CFT correspondence

before Ryu–Takayanagi

before modern spacetime-from-entanglement research.

Therefore any claim that:

Bohm recognized AdS/CFT as his implicate order

is chronologically impossible.

Later writers can compare them.

Bohm himself could not.

XXV. 1992 — Talbot Also Dies

Talbot died in May 1992, aged 38.

This is equally important.

Talbot also never saw:

't Hooft's holographic principle,

Susskind's formulation,

AdS/CFT,

modern quantum-information approaches to spacetime.

Thus the striking similarity between Talbot's title The Holographic Universe and later holographic physics is historically deceptive.

Talbot was not popularizing AdS/CFT.

AdS/CFT did not exist.

XXVI. 1993 — 't Hooft

Gerard 't Hooft publishes:

“Dimensional Reduction in Quantum Gravity.”

He argues that quantum gravity suggests that information describing a region might be representable using degrees of freedom associated with a lower-dimensional structure.

This is one of the foundational statements of the modern holographic principle.

The causal chain remains:

Bekenstein → Hawking → black-hole information/entropy problem → 't Hooft.

Not:

Bohm → Talbot → 't Hooft.

We presently have no good evidence for that latter transmission.

XXVII. 1995 — Susskind's “The World as a Hologram”

Leonard Susskind publishes:

“The World as a Hologram.”

The title creates enormous potential for retrospective confusion.

But the paper's intellectual context is black-hole physics and quantum gravity.

It develops 't Hooft's holographic principle.

The word hologram now has acquired another technical meaning.

Thus by 1995 two separate traditions exist:

Bohm–Pribram–Talbot holography

distributed/enfolded wholeness and consciousness.

't Hooft–Susskind holography

dimensional encoding and gravitational entropy.

Their common ancestor is essentially the conceptual power of optical holography—not a shared physical theory.

XXVIII. 1997 — Maldacena Changes Everything

Juan Maldacena proposes what becomes:

AdS/CFT correspondence.

A gravitational/string theory in a higher-dimensional Anti-de Sitter spacetime can be dual to a lower-dimensional conformal field theory without gravity.

This turns holography from a broad principle into an extraordinarily concrete theoretical research program.

Thousands of papers follow.

But notice what does not enter the derivation:

Bohm's implicate order.

Pribram's brain theory.

Talbot's paranormal evidence.

That absence is historically decisive.

XXIX. 2006 — Geometry and Entanglement Become Linked

Shinsei Ryu and Tadashi Takayanagi propose a formula relating entanglement entropy in a boundary theory to the area of a geometric surface in the gravitational bulk.

This is another major development.

Now holographic physics increasingly suggests:

quantum information ↔ geometry.

This is precisely the sort of development that later makes Bohm appear prescient.

But the causal arrow remains absent.

The proper statement is:

Later physics independently developed structures bearing intriguing philosophical resemblance to some Bohmian intuitions.

Not:

Later physics confirmed Bohm.

XXX. 2010 — Entanglement and Spacetime Connectivity

Mark Van Raamsdonk argues influentially that decreasing entanglement can cause spacetime regions to pull apart and suggests that connected spacetime may be intimately related to quantum entanglement.

This brings modern physics surprisingly close to the philosophical proposition:

ordinary spatial separation may not be fundamental.

That is genuinely interesting relative to Bohm.

But again:

conceptual convergence ≠ historical transmission ≠ empirical confirmation.

All three categories must remain distinct.

XXXI. Meanwhile: Neuroscience Moves Away From Simple Holonomic Models

While quantum gravity becomes increasingly holographic, neuroscience moves in a somewhat different direction.

Techniques unavailable to Lashley and early Pribram—including:

• optogenetics,
• calcium imaging,
• genetic tagging,
• chemogenetics,
• large-scale recording—

allow researchers to identify specific memory-related neuronal populations.

The emerging picture becomes:

distributed but selective

rather than

uniformly holographic.

A major 2022 whole-brain study identified distributed engram ensembles across numerous regions while also finding regionally differentiated contributions.

Thus the two later histories diverge:

Physics

“Holographic” becomes increasingly mathematically precise.

Neuroscience

“Distributed” survives strongly, while literal holonomic/holographic interpretation becomes less necessary.

That divergence is extremely informative.

XXXII. The Five Historical Layers

The chronology now allows us to separate five layers that popular accounts often collapse.

Layer 1 — Pre-holographic scientific problems

1920s–1950s

Quantum nonclassicality.

Pilot waves.

Memory localization.

No holographic worldview exists.

Layer 2 — Holography as physical technology

1948–1960s

Gabor.

Laser holography.

Distributed wavefront information becomes experimentally tangible.

Layer 3 — Holography as scientific analogy/model

1960s–1980s

Pribram → neural processing.

Bohm → implicate order.

The metaphor moves from optics into models of brain and reality.

Layer 4 — Holography as comprehensive worldview

1970s–1990s

Wholeness.

Consciousness.

New-paradigm culture.

Talbot.

Paranormal and existential extension.

Layer 5 — Holography as quantum-gravity principle

1973 onward, especially 1993–present

Bekenstein.

Hawking.

't Hooft.

Susskind.

Maldacena.

Ryu–Takayanagi.

Quantum information and emergent spacetime.

These layers overlap chronologically but have different causal genealogies.

XXXIII. Chronological Problems and Anachronisms

The timeline exposes several claims we should now explicitly reject or quarantine.

“Bohm developed Bohmian mechanics from holography.”

Chronologically impossible.

Bohmian mechanics: 1952.

Bohm's serious holographic engagement: later.

“Pribram's brain theory inspired Bohm's quantum theory.”

Chronologically impossible in the strong form.

Bohm's quantum interpretation predates Pribram's mature holonomic model.

Later mutual conceptual influence remains possible.

“Talbot anticipated AdS/CFT.”

Misleading.

His book predates AdS/CFT, but it does not contain Maldacena's mathematical theory.

Similarity of terminology is insufficient.

“Modern holographic physics developed from Bohm.”

Presently unsupported.

The documented genealogy instead runs through black-hole thermodynamics.

“Bohm embraced modern holographic quantum gravity.”

Impossible.

He died before its decisive formulations.

“Pribram predicted modern engram neuroscience.”

Too strong.

He anticipated distributed processing, but modern engram science contains specific cellular mechanisms unavailable to him.

XXXIV. The Most Interesting Chronological Coincidence

There is nevertheless something genuinely remarkable.

Consider the dates:

1980 — Bohm, Wholeness and the Implicate Order

1990 — Bohm explicitly develops mind–matter/active-information proposal

1991 — Pribram, Brain and Perception

1991 — Talbot, The Holographic Universe

1992 — Talbot dies

1992 — Bohm dies

1993 — 't Hooft, holographic quantum gravity

1995 — Susskind, The World as a Hologram

1997 — Maldacena, AdS/CFT

Placed without context, that sequence looks almost uncanny.

But source criticism transforms it.

Two adjacent intellectual histories were crossing the same metaphorical territory while solving different problems.

One asks:

How might wholes, consciousness and distributed order be understood?

The other asks:

Why does gravitational entropy scale with area, and how can quantum gravity encode degrees of freedom?

The coincidence is historically fascinating.

It is not evidence of common origin.

XXXV. Revised Narrative

We can now tell the history much more defensibly.

The story begins not with holograms but with two localization crises.

Quantum mechanics undermined the idea that physical systems could always be understood as collections of independently existing localized objects.

Neuropsychology simultaneously struggled to locate complex memories in discrete cortical sites.

Neither problem originally involved holography.

Then Dennis Gabor developed an extraordinary technology demonstrating that information about a visible whole could be encoded nonlocally across an interference pattern.

During the following decades, Pribram saw holographic mathematics as a possible model for distributed neural representation, while Bohm saw holography as a powerful illustration of the kind of enfolded order he increasingly believed might underlie manifest reality.

Those were related intellectual moves—but not initially one theory.

Bohm's thought then continued expanding from his 1952 causal quantum interpretation toward process ontology, implicate order, active information, consciousness and religious implications.

Pribram continued developing a technical theory of distributed neural processing.

By the 1970s and 1980s, a broader Western culture fascinated by holistic science, Eastern philosophy, consciousness and paranormal research created an environment in which those two programs could be interpreted as complementary.

Michael Talbot made that synthesis explicit in 1991.

His Holographic Universe transformed two controversial scientific/philosophical research programs into something approaching a comprehensive cosmology, potentially explaining consciousness, anomalous phenomena, mystical experience and death.

Then something historically surprising happened.

Almost immediately afterward, theoretical physicists began calling an entirely different idea the holographic principle.

But its ancestry ran through:

Bekenstein's black-hole entropy → Hawking radiation → 't Hooft → Susskind → Maldacena

rather than through:

Bohm → Pribram → Talbot.

Modern holographic physics subsequently uncovered increasingly profound relationships among information, entanglement and geometry.

Meanwhile modern neuroscience confirmed that memory and representation can indeed be distributed, but it increasingly described them through specific neuronal ensembles, circuits and regionally specialized networks rather than requiring a literal holographic memory mechanism.

The historical verdict therefore becomes more interesting than either extreme.

It is not:

“Bohm and Pribram discovered the holographic universe and modern science proved them right.”

Nor is it:

“The holographic universe was simply New Age pseudoscience later borrowing scientific terminology.”

The chronology supports something between those caricatures:

Real scientific problems concerning locality, distributed representation and the inadequacy of simple mechanistic descriptions generated several serious but speculative twentieth-century theories. Holography supplied an unusually powerful conceptual model for Bohm and Pribram. Talbot subsequently expanded those ideas into a much broader metaphysical worldview. Independently, quantum gravity later discovered a mathematically rigorous and radically different form of holography. Modern neuroscience preserved some distributed-processing intuitions while largely moving beyond the need for literal holographic storage.

And chronology exposes the crucial transformation we are ultimately investigating:

scientific anomaly/problem

→ technical model

→ interpretation

→ ontology

→ metaphysical synthesis

→ existential cosmology.

That final transition is where the “secular theology” hypothesis now belongs—not at the beginning of Bohm's physics, but much later in the historical development, as scientific concepts increasingly became resources for answering questions their original theories were never designed to answer.

Connection Analysis: The Holographic Universe Investigation

This pass reveals something important that the earlier investigation only partly saw. There was a real historical network connecting Bohm, Pribram, holography, consciousness research, and later New Age interpretations before Michael Talbot. Talbot did not invent the Bohm–Pribram conjunction in 1991.

But the network was largely a network of people, publications, conferences, analogies, and philosophical interpretation—not evidence that Bohm's physics and Pribram's neuroscience constituted one experimentally unified theory.

That distinction sharpens the investigation considerably.

I. Direct Connections

1. Gabor → Pribram: the connection is stronger than analogy

We previously knew that Dennis Gabor's holography inspired Pribram. We can now make the transmission route more concrete.

Pribram recalled encountering an account of holography in Scientific American in the mid-1960s. By January 1969, he himself published “The Neurophysiology of Remembering” in Scientific American, explicitly suggesting that memory might involve interference patterns resembling holograms. Scientific American

So there is a documented route:

Gabor's mathematics

→ laser holography becomes practical

→ popular scientific descriptions of holography

→ Pribram encounters the concept

→ Pribram applies it to neural representation.

This is genuine intellectual transmission.

It was not merely a later historian noticing similarity.

II. Gabor → Bohm: Another Direct Route

An even more interesting documentary connection exists.

Historical research in the Dennis Gabor papers reports that Bohm wrote directly to Gabor on March 14, 1969, describing speculation concerning holography and “undivided wholeness.” Remarkably, Bohm reportedly acknowledged that he had not yet actually seen a hologram. Cambridge Repository API

That gives us:

Gabor

↙︎ ↘︎

Pribram Bohm

The same physical technology independently became intellectually productive for two researchers wrestling with very different problems.

That is a substantially stronger historical connection than we previously had.

But notice what it does not demonstrate.

It does not show:

Gabor → Bohm → Pribram

or

Gabor → Pribram → Bohm.

The evidence instead currently favors parallel appropriation of holography.

That makes convergence more plausible than direct derivation.

III. Bohm ↔ Pribram: We Now Have a Documented Personal Connection

This is one of the most significant discoveries in this pass.

Bohm and Pribram were together at a week-long scientists' seminar at Brockwood Park in England in October 1974, organized around Jiddu Krishnamurti and questions concerning science, consciousness and human transformation.

Bohm appears to have played a substantial organizational role. The participant group included Pribram, Bohm, Fritjof Capra, George Sudarshan, Maurice Wilkins, David Peat, Montague Ullman and others. Krishnamurti Foundation Trust

And Pribram did not merely happen to be present.

During his presentation he explicitly remarked that his entry into questions connecting science and mystical thought was “a little bit like David Bohm's,” because both had arrived through their respective disciplines. Krishnamurti Foundation Trust

Even more importantly, the surviving transcript records direct theoretical engagement between them.

During another session, Pribram explicitly asked Bohm about the mathematical character of the implicate order and connected the question with what he called “the holographic one.” Krishnamurti Foundation Trust

That changes our earlier picture.

There really was a:

Bohm ↔ Pribram intellectual dialogue

by at least 1974.

This was not invented retrospectively by Talbot.

IV. But the Nature of the Bohm–Pribram Connection Matters

The evidence still does not establish a unified Bohm–Pribram scientific theory.

At Brockwood, Pribram was talking about brain organization and holographic storage.

Bohm was working with implicate order and quantum ontology.

They recognized affinities and directly discussed them.

That establishes:

contact: yes.

mutual awareness: yes.

conceptual exchange: yes.

common interest in consciousness/wholeness: yes.

But:

joint mathematical theory: not demonstrated.

joint experimental program: not demonstrated.

shared mechanism: not demonstrated.

The best current formulation is therefore:

Bohm and Pribram were not merely independently discovered precursors later joined by Talbot; they became members of an overlapping intellectual network and explicitly discussed relationships between their ideas. But evidence for a unified scientific “Bohm–Pribram theory” remains absent.

That is a meaningful revision.

V. Pribram → Bohm May Have Had a Specific Intermediary

Marilyn Ferguson supplied a fascinating account of how Pribram encountered Bohm's work.

According to her account in The Aquarian Conspiracy, sometime around 1970–71 Pribram began wondering whether the external world itself might be holographically organized. He discussed the problem with his physicist son, who told him about Bohm's work. Pribram then obtained Bohm's papers and reportedly recognized an extraordinary convergence. Scribd

The proposed route is:

Karl Pribram

↓

question: if brain representation is holographic, what is being represented?

↓

John Pribram (physicist son)

↓

introduces Bohm's work

↓

David Bohm

↓

Pribram recognizes possible convergence.

Evidence status

Plausible-to-probable historical connection, but not yet at our highest standard.

Why?

The account comes through Marilyn Ferguson rather than a contemporaneous Pribram diary or correspondence.

We should eventually seek Pribram's own recollections or archival correspondence confirming the sequence.

But unlike a vague similarity, this gives us an identifiable proposed intermediary.

VI. A Previously Underestimated Intermediary: Marilyn Ferguson

This may be one of the most important new findings.

The genealogy increasingly looks less like:

Bohm + Pribram → Talbot

and more like:

Bohm + Pribram

↓

Marilyn Ferguson / Brain/Mind Bulletin

↓

broader “holographic paradigm”

↓

Ken Wilber / ReVision / Shambhala

↓

Talbot.

In July 1977, Ferguson's Brain/Mind Bulletin was already explicitly presenting Bohm and Pribram “in tandem” as potentially explaining ordinary perception, transcendental experience and paranormal phenomena. A reprint preserves the striking formulation that the brain was a hologram interpreting a holographic universe. Noufors

This predates Talbot's The Holographic Universe by fourteen years.

That is a major chronological correction.

VII. Ferguson May Be the Key Popular Synthesizer

Talbot himself strengthens this conclusion.

In his acknowledgments, he credited Ferguson as one of the earliest writers to recognize the significance of the holographic theory.

More revealingly, Talbot explicitly acknowledged that his own summary of the worldview produced by considering Bohm and Pribram together was essentially a rephrasing of Ferguson's formulation in The Aquarian Conspiracy. Lynmilum

So there is now documentary evidence for:

Ferguson → Talbot.

This substantially changes the genealogy.

Talbot was enormously important as a popularizer and extender.

But the decisive fusion of Bohm's cosmos with Pribram's brain seems to predate Talbot substantially.

Ferguson deserves much more attention in the investigation.

VIII. The Holographic Paradigm Became a Publication Network

Another bridge appears in the early 1980s.

Ken Wilber edited The Holographic Paradigm and Other Paradoxes in 1982.

Its contents explicitly brought together:

• Karl Pribram,
• David Bohm,
• Marilyn Ferguson,
• Renée Weber,
• Fritjof Capra,
• Ken Wilber,
• questions of science and mysticism.

The collection included Pribram explaining his position, Ferguson discussing Pribram, Weber interviewing Bohm, and Wilber critically examining physics and mysticism. Integral World

This means the Bohm–Pribram synthesis had become an identifiable intellectual discourse almost a decade before Talbot.

IX. The Transmission Network Now Looks Like This

We can reconstruct a reasonably defensible intellectual network:

Dennis Gabor

↓ holography

Scientific/technical literature

↙︎ ↘︎

Karl Pribram David Bohm

↓ ↓

brain/memory implicate order

↘︎ ↙︎

direct encounter/dialogue by 1974

↓

Brockwood/Krishnamurti network

↓

Marilyn Ferguson / Brain-Mind Bulletin

↓

ReVision / Ken Wilber / Renée Weber

↓

The Holographic Paradigm (1982)

↓

broader consciousness/New Age discourse

↓

Michael Talbot

↓

The Holographic Universe (1991)

This transmission chain is far better documented than our initial model.

X. Unexpected Connection: The Krishnamurti Network

Krishnamurti is becoming more important than expected—not because he supplied holographic mathematics, but because his circle provided an intellectual meeting ground.

At Brockwood in 1974, the participant list included physicists, neuroscientists, psychologists and consciousness researchers. Bohm chaired portions of the seminar; Pribram presented; Capra participated; questions of mysticism, consciousness, science and transformation were explicitly discussed. Krishnamurti Foundation Trust

That means “science meets mysticism” was not simply imposed decades later.

Scientists involved in our story were already deliberately discussing that boundary.

But caution

This does not show that mystical philosophy generated their scientific results.

A more defensible causal mechanism is:

scientific theories developed within disciplines

↓

researchers become interested in broader implications

↓

interdisciplinary venues provide opportunities for comparison

↓

similarities become visible

↓

a larger worldview begins forming.

The conference acts as an intellectual mixing chamber, not necessarily the source of the ingredients.

XI. Unexpected Connection: Fritjof Capra Was in the Same Room

This is particularly interesting.

Fritjof Capra published The Tao of Physics in 1975, famously comparing modern physics with Eastern mystical traditions.

But in October 1974—before the book's publication—Capra was participating in the Brockwood seminar with Bohm and Pribram.

The transcript explicitly identifies Capra's topic as modern physics and mysticism. Krishnamurti Foundation Trust

This means three strands that later became highly influential in “New Physics” culture were physically interacting at the same event:

Bohm

quantum wholeness

Pribram

holographic brain

Capra

physics–Eastern mysticism parallels.

That is a genuine network connection.

XII. The 1970s “New Science” Network Was Real

This makes it increasingly misleading to portray the later New Age synthesis simply as outsiders misunderstanding isolated scientists.

Something more complicated occurred.

A network formed containing:

• working scientists,
• philosophers,
• psychologists,
• consciousness researchers,
• science writers,
• spiritual thinkers.

The network's publications and conferences created feedback loops.

Scientists inspired popularizers.

Popularizers placed scientists next to one another.

Scientists then encountered those comparisons.

Those comparisons sometimes influenced subsequent interpretation.

This produces something sociologists of knowledge would recognize as co-production of an intellectual paradigm.

The science does not automatically validate the worldview.

But the worldview was not entirely external to the scientists either.

XIII. An Extraordinary Institutional Transmission: U.S. Military Intelligence

A connection we had not previously explored deserves careful attention.

In 1983, a U.S. Army Intelligence and Security Command officer, Lt. Col. Wayne McDonnell, produced “Analysis and Assessment of Gateway Process” concerning the Monroe Institute's altered-consciousness techniques.

The document explicitly invokes both Pribram and Bohm and describes the mind as holographic and capable of interacting with a universal holographic structure. Declassified Collection

This is historically remarkable.

By 1983, the Bohm–Pribram synthesis had traveled from:

physics/neuroscience

→ consciousness discourse

→ popular/interdisciplinary literature

→ a U.S. military intelligence assessment of altered consciousness.

But enormous caution is necessary.

The famous document is often called a “CIA report.” It was actually an Army INSCOM memorandum later released through CIA records. CIA archival custody does not imply CIA authorship or endorsement. The Red Thread Files

And government interest does not validate the underlying theory.

It demonstrates institutional transmission, not scientific confirmation.

XIV. This Creates a Fascinating Transmission Sequence

We now have:

academic science

↓

interdisciplinary consciousness discourse

↓

popular science / New Age literature

↓

parapsychology / altered-state research

↓

government intelligence interest

↓

later internet mythology.

This matters because contemporary internet discussions frequently reverse the evidentiary logic:

“The CIA used holographic consciousness theory, therefore the government secretly confirmed it.”

The historical record supports something much weaker:

A military officer used then-circulating holographic-consciousness concepts in an assessment of an altered-state program.

That is evidence of cultural reach, not truth.

XV. Structural Parallel: Whole-in-Part

Now we can revisit the most famous structural connection.

The motif appears repeatedly:

Optical holography

Each sufficiently large fragment contains information about the whole image.

Pribram

Information can be distributed across neural structures.

Bohm

The whole may be enfolded within deeper orders.

Modern holography

Bulk information can have an equivalent lower-dimensional representation.

These look extraordinarily similar.

But they instantiate different mathematical relationships.

The phrase:

“the whole is in every part”

is approximately useful for optical holography and Bohmian metaphor.

It is much less accurate for AdS/CFT.

The boundary theory does not mean every tiny patch of the boundary contains a complete ordinary image of the bulk.

Thus one linguistic formula has obscured different mechanisms.

XVI. Linguistic Connection: “Hologram” Itself

The word derives from Greek:

holos — whole

gramma — something written/recorded.

The name therefore naturally invites metaphysical interpretation:

whole-writing

or

record of the whole.

But the etymology should not be allowed to perform scientific work.

Gabor's term describes wavefront reconstruction.

Bohm's “holomovement” deliberately extends holos toward undivided wholeness.

Pribram's “holonomic” similarly invokes whole-organization.

Later writers then treat the shared holo- vocabulary as evidence that the theories describe the same phenomenon.

That can create a semantic illusion of unity.

The terminology is genuinely related.

The mechanisms are not necessarily so.

XVII. Structural Parallel: Transformations Between Domains

A deeper mathematical connection is more interesting than the whole/part slogan.

Holography involves transformation between:

object/wavefront domain

and

interference/frequency representation.

Pribram emphasized transformations between:

spatiotemporal neural patterns

and

spectral/frequency-like representations.

Modern holographic duality involves correspondence between:

bulk gravitational description

and

boundary quantum description.

Bohm describes:

implicate

and

explicate

orders.

The recurring pattern is:

One reality admits radically different representations, and what appears localized in one representation may be distributed in another.

That is a much more sophisticated connection than “everything is a hologram.”

Status

Structural parallel: strong.

Evidence of identical underlying mechanism: absent.

XVIII. Structural Parallel: Reconstruction

Another motif appears repeatedly.

A hologram reconstructs a visible wavefront.

A brain reconstructs/performs perceptual inference from incomplete sensory signals.

Memory retrieval reconstructs past information.

AdS/CFT allows bulk information to be reconstructed from boundary descriptions.

Bohm's explicate order “unfolds” from implicate organization.

Again we see:

encoded state → transformation → manifest state.

This could reflect:

1. a genuinely deep informational principle;
2. mathematical convergence because many inverse problems share similar structure;
3. humans repeatedly using reconstruction metaphors;
4. retrospective selection of examples that fit.

All four explanations remain viable.

XIX. Unexpected Connection: Error Correction

Modern holographic quantum gravity introduced something neither Bohm nor Pribram could have anticipated in its current form:

quantum error correction.

Some AdS/CFT work interprets bulk reconstruction using structures analogous to quantum error-correcting codes.

Now compare this—not equate it—with memory.

Distributed representations can be robust against partial damage.

Optical holograms retain degraded information after partial destruction.

Quantum error-correcting encodings protect logical information against loss of physical components.

This creates a fascinating common structure:

distributed encoding can produce robustness against local damage.

That is genuinely worth investigating.

But it may be a case of convergent mathematics rather than common physical mechanism.

Robust distributed codes arise in many systems because redundancy is useful.

This could explain why holographic metaphors repeatedly appear without requiring cosmic unity.

XX. Unexpected Connection: Compression

Another underexplored theme is compression.

Holography stores wavefront information in an interference pattern.

Brains compress enormous sensory streams into manageable representations.

Black-hole entropy suggests finite information bounds.

Holographic duality can represent apparently higher-dimensional physics through lower-dimensional degrees of freedom.

Scientific theories themselves compress observations into laws.

This raises a deeper possibility:

Perhaps “holographic” theories repeatedly appeal to us because they concern high-dimensional information encoded economically in lower-dimensional or distributed structures.

That may be more general than holography itself.

The broader research subject might therefore be:

representation, compression and reconstruction.

XXI. Unexpected Connection: Plato's Cave—But With a Warning

There is an obvious philosophical parallel:

Plato's cave:

hidden reality → projected appearances.

Bohm:

implicate order → explicate phenomena.

Talbot:

deeper holographic reality → experienced world.

Modern holographic popularizations:

boundary information → apparent spatial world.

This resemblance is philosophically interesting.

But there is no necessary genealogy.

Projection metaphors recur naturally whenever philosophers distinguish appearance from underlying reality.

Possible explanations:

common origin: unlikely without specific transmission evidence.

independent convergence: highly plausible.

archetypal cognitive metaphor: plausible.

retrospective pattern-making: also plausible.

We should therefore treat Plato as a comparative analogue, not a precursor who somehow anticipated holographic physics.

XXII. Unexpected Connection: Kant May Actually Be More Relevant

Kant may provide a subtler comparison.

Kant distinguished between:

phenomena — reality as experienced through human cognitive structures

and

things-in-themselves — whatever reality may be independently of those structures.

Pribram's brain model raises a related question:

How much of experienced reality reflects transformations performed by the nervous system?

Bohm asks:

How closely does explicate experience correspond to deeper reality?

Modern physics asks:

Are space, time and objects fundamental or emergent descriptive structures?

None proves Kant.

But the recurring epistemological problem is striking:

The structure of experience may not mirror the structure of reality-in-itself.

This may become a more productive philosophical comparison than vague Eastern-mysticism parallels.

XXIII. Eastern Philosophy: Connection and Projection Must Be Separated

Bohm's relationship with Krishnamurti provides genuine historical contact with Indian philosophical/spiritual discourse.

Capra deliberately compared modern physics with Eastern traditions.

Pribram participated in discussions explicitly addressing mystical thought.

Therefore the Eastern connection is not wholly retrospective.

But propositions such as:

Vedanta predicted quantum nonlocality

or

Buddhism anticipated holographic quantum gravity

would require far stronger evidence.

Ancient traditions use concepts such as:

unity,

illusion,

interdependence,

emptiness,

nonduality.

Modern physics uses:

entanglement,

nonlocality,

duality,

emergence.

Semantic resemblance does not establish conceptual identity.

We need to compare mechanisms, not poetic vocabulary.

XXIV. The Most Important Alternative Explanation: Convergent Problem-Solving

There may be a straightforward explanation for many of these parallels.

Different disciplines repeatedly confront the same abstract problem:

How can globally coherent behavior arise from locally distributed components?

Brains confront it.

Quantum systems confront it.

Holographic encodings confront it.

Complex systems confront it.

Information theory confronts it.

Therefore similar mathematical and conceptual structures may emerge independently.

This is analogous to convergent evolution.

Birds and bats both developed wings because flight imposes constraints.

That does not mean bats descended from birds.

Likewise:

distributed encoding

transform domains

redundancy

nonlocal correlations

emergence

may recur because they are efficient solutions to information-processing problems.

That may explain much of the holographic convergence without requiring a single underlying cosmic mechanism.

XXV. Selection Bias Must Also Be Considered

There is another danger.

We have selected:

Bohm,

Pribram,

Talbot,

AdS/CFT,

engram research,

information theory

precisely because they resemble one another.

Thousands of twentieth-century scientific theories do not fit this pattern.

If we search only for whole/part, distributed-information and emergence metaphors, we will inevitably construct a seemingly extraordinary network.

A proper falsification test would therefore ask:

How common are these motifs in scientific theories generally?

If distributed representation and emergence are ubiquitous concepts, their recurrence here becomes less surprising.

This is the intellectual equivalent of controlling for the base rate.

XXVI. Retrospective Pattern-Making Is Especially Dangerous After AdS/CFT

The sequence

Talbot 1991 → 't Hooft 1993 → Susskind 1995 → Maldacena 1997

makes retrospective prophecy almost irresistible.

But this is precisely where our evidentiary protocol matters.

We have a clear black-hole genealogy for modern holography.

We currently have no comparable evidence that Talbot or Bohm influenced that development.

Therefore the correct interpretation remains:

Documented

Two traditions independently used holographic concepts.

Intriguing

Both question naïve assumptions about localization and representation.

Unknown

Whether a deeper mathematical connection can eventually be constructed.

Unsupported

Modern holographic quantum gravity confirms Talbot.

XXVII. The Most Surprising New Connection: Talbot Was Late

Our investigation initially treated Talbot as the principal synthesizer.

That now needs revision.

A better chronology is:

1960s Pribram adopts holographic ideas.

1969 Bohm writes Gabor about holography and undivided wholeness. Cambridge Repository API

early 1970s Pribram reportedly encounters Bohm's work.

1974 Bohm and Pribram directly interact at Brockwood. Krishnamurti Foundation Trust

1977 Ferguson's Brain/Mind Bulletin explicitly combines their theories into a holographic brain/holographic universe framework and extends it toward transcendental and paranormal phenomena. Noufors

1980 Ferguson's The Aquarian Conspiracy popularizes the synthesis further. Scribd

1982 Wilber's The Holographic Paradigm institutionalizes the discussion as an identifiable interdisciplinary discourse. OBNB

1983 The Bohm–Pribram synthesis enters an Army intelligence assessment of altered consciousness. Declassified Collection

1991 Talbot gives the synthesis its most enduring popular form.

That is a significant correction to our previous narrative.

XXVIII. This Strengthens the Secular-Theology Hypothesis—but Changes Its Target

Previously we were asking whether Talbot transformed science into secular theology.

The network evidence suggests a more interesting process.

No single person necessarily performed the transformation.

Instead:

scientific concepts

↓

interdisciplinary dialogue

↓

science journalism

↓

consciousness research

↓

mysticism comparison

↓

parapsychological interpretation

↓

popular synthesis

↓

existential cosmology.

This resembles cultural evolution more than individual invention.

Talbot may represent the mature literary expression of a worldview already developing collectively for twenty years.

That changes our secular-theology question from:

Did Michael Talbot turn Bohm and Pribram into a secular theology?

to:

How does a network of scientists, intellectual intermediaries, publishers, spiritual thinkers and popularizers progressively transform limited scientific models into a comprehensive cosmology of mind, reality and meaning?

That is a substantially richer research question.

XXIX. Evidence Map of the Connections

XXX. The Emerging Deeper Story

After this connection search, I would revise the investigation's central narrative again.

There really was a holographic movement of sorts.

Not a single scientific theory.

A network.

Its nodes included:

Gabor → Pribram → Bohm → Krishnamurti → Capra → Ferguson → Weber → Wilber → consciousness researchers → parapsychology → Talbot.

And some of those arrows are now documentary rather than speculative.

What spread through that network was not one equation.

It was an extraordinarily fertile conceptual package:

wholeness

distributed information

frequency

interference

enfoldment

nonlocality

transformation