David Bohm asked why an undivided world appears fragmented to ordinary thought. His physics follows relations that isolated parts cannot explain. His philosophy asks how thought itself maintains apparent separation. Wholeness is an active order from which differentiated forms unfold.
The implicate order describes this deeper relation. Dialogue works on the assumptions through which people reproduce fragmentation. Information, Energy, and Field carries the physical framework; Bohm supplies a philosophical lineage that joins physics, consciousness, and collective meaning.
Life and Intellectual Development
David Joseph Bohm (1917–1992) was born in Wilkes-Barre, Pennsylvania. He completed his doctorate at the University of California, Berkeley, in 1943 under Robert Oppenheimer. He contributed plasma research to the Manhattan Project. His early work on quantum mechanics and plasma behavior established his standing as a theoretical physicist.
Political persecution changed his career. The House Un-American Activities Committee called him in 1949. He was arrested after refusing to testify, then acquitted. He nevertheless lost his Princeton position. His career continued abroad, first in Brazil, then Israel, and finally at Birkbeck College in London.
Exile imposed personal costs while giving him distance from the institutions that had excluded him. During his later career, he pursued wholeness, meaning, consciousness, and human communication alongside physics. These questions crossed boundaries that the postwar establishment guarded. His technical standing did not prevent their marginalization.
The De Broglie-Bohm Pilot Wave Theory
Louis de Broglie proposed pilot-wave theory at the 1927 Solvay Conference. He abandoned the approach after Wolfgang Pauli objected over inelastic scattering. In 1952, Bohm rediscovered it and developed a consistent formulation for many particles. The result supplied a deterministic interpretation of quantum phenomena.
Particles have actual positions in real space, including when unobserved. A deterministic “guiding equation” governs their configuration. The wave function evolves through the Schrödinger equation. Bohm’s quantum potential expresses active information connecting particles across spatial separation. The theory gives particle trajectories a definite ontological role: the equations describe a process occurring in the world.
This approach addresses the measurement problem differently from Copenhagen’s probabilistic instrumentalism. The predictive-tool reading of the wave function encodes what an observer can know. Bohm instead asks what actually exists and moves. His formulation reproduces quantum-mechanical predictions while retaining determinism and realism.
It accepts nonlocality. Changes in one part of a system enter the quantum potential guiding other parts instantaneously, across any distance. Einstein appreciated this aspect of Bohm’s work, while the wider establishment resisted it. Bell’s theorem in 1964 and later experimental confirmations of quantum nonlocality changed the reception of those connections.
The Implicate Order and Holomovement
During the 1970s and 1980s, Bohm developed the implicate order as an account of reality’s deeper organization. Wholeness and the Implicate Order appeared in 1980. With Basil Hiley, he elaborated the account in The Undivided Universe (1993).
Implicate comes from the Latin implicare, to enfold. The implicate order is the primordial ground from which differentiated phenomena emerge. The explicate order is their unfolded, apparently separate presentation. It is secondary to the deeper relation that produces it. Bohm called this continuous movement “holomovement” as forms unfold and enfold.
The torus gives this movement an image. Outward flow gives the implicate an explicate form. Return enfolds experience, memory, and consequence into the next turn. The image does not translate Bohm’s mathematics. Rendering names local presentation, while the living field names the wider continuity in which it participates.
Bohm used an optical hologram to explain enfoldment. Illumination reconstructs a three-dimensional image from interference patterns distributed across a film. Each sufficiently large region can reconstruct the image at lower resolution. This relation shows how a local region can participate in a wider undivided order. The analogy motivates Bohm’s ontology; it does not derive modern gravitational holography.
Philosophical readers disagree about the status of that ontology. One reading identifies a literal implicate domain that causally produces the visible world and requires empirical grounding. Another uses the account to understand systemic interconnection without positing a separately located domain. Its holistic orientation reaches into ecology, systems theory, and philosophy of mind. These receptions differ over what the deeper order must establish.
Why Physics Marginalized Him
Bohmian mechanics is mathematically sound, empirically adequate, and logically consistent. It nevertheless remained largely ignored for decades. Physicists continued to confront the measurement problem, observation, and the relation between determinism and probability. Technical adequacy alone did not determine which questions received attention.
By the middle of the twentieth century, Copenhagen dominated physics education and practice. Its instrumental approach prioritized prediction and avoided many ontological questions. Bohmian mechanics asked theory to describe what actually exists. That demand challenged the prevailing philosophical arrangement within the discipline.
Bell’s theorem ruled out local hidden-variable accounts compatible with quantum mechanics. Its reception also discouraged hidden-variable approaches more broadly. Bell clarified that Bohmian mechanics survives by accepting nonlocality while preserving determinism. Cushing’s Quantum Mechanics: Historical Contingency and the Copenhagen Hegemony (1994) connects Copenhagen’s dominance with historical and sociological conditions alongside evidence.
Bohm’s growing interest in consciousness, wholeness, and dialogue deepened the separation. The postwar discipline often regarded these subjects as threats to mathematical rigor. Gatekeeping prevented serious engagement with this alternative formulation. Renewed work on quantum foundations has since recognized Bohmian mechanics as a legitimate, rigorous interpretation. It remains one approach among others.
The Dialogue Process
During the 1980s, Bohm developed dialogue as collective inquiry into thought. Debate usually asks participants to defend positions and win. Dialogue suspends assumptions, makes room for listening, and lets shared meaning emerge without a predetermined conclusion.
Bohm used “flow of meaning through” to describe dialogue. Its participants encounter the assumptions that fragment their thinking. Explicit thought can be articulated in language. Tacit thought is its unspoken, embodied, often unconscious ground. Genuine change must reach that ground; rearranging spoken ideas alone leaves its organizing reflexes intact.
This relation extends the implicate–explicate account into communication. Tacit consciousness underlies articulate thought as enfolded order underlies manifestation. The practice changes collective meaning by making its hidden organization available to inquiry.
Actual conversation also depends on power, institutional constraints, and embodied differences. These conditions limit any romantic promise that dialogue alone produces truth. Bohm’s practice has entered organizational development, conflict resolution, and consciousness studies. Its task is to cultivate wholeness through inquiry into the conditions that divide participants.
Consciousness and the Holographic Brain
During the 1970s, Bohm’s work met neuroscientist Karl Pribram‘s holonomic brain theory. Pribram proposed memory distributed through interference patterns resembling holograms. Each portion would contain enfolded information about the whole, rather than isolated memories stored in discrete regions.
Pribram supplied spectral and distributed neural processing. Bohm supplied holomovement and the wider ontology. Their conjunction joins transform processing with consciousness, perception, and memory. This remains an unfinished research program, historically and mathematically distinct from gravitational holography. A complete brain–cosmos architecture requires a common mathematical map; the hologram image alone cannot supply it.
Some researchers see a new approach to the hard problem of consciousness: why experience occurs at all. Others object that the analogy moves the explanatory gap. How neural activity produces consciousness becomes how implicate order produces experience. A shared image does not resolve that question.
Consciousness and physical reality belong to one undivided order. This philosophical position gives the inquiry its direction without claiming a completed neural mechanism. The relation between mind and world exceeds the picture of separate machines connected only by external impacts.
Legacy and Contemporary Significance
Bohm’s work reaches physics, philosophy of physics, consciousness studies, communication theory, systems science, and broader critiques of reductionism. It meets Rupert Sheldrake’s morphic resonance hypothesis, Itzhak Bentov‘s vibrational models, and Hermetic correspondence across scales. These convergences identify related questions. They do not establish a shared mechanism by resemblance alone.
Peter Holland, Detlef Dürr, Shelly Goldstein, and others have developed Bohmian mechanics into a more sophisticated framework. The Stanford Encyclopedia of Philosophy recognizes it among the principal quantum interpretations, alongside Copenhagen, many-worlds, and objective-collapse approaches.
Bohm’s projects retain different jobs. Pilot-wave theory is a technical physical formulation. Implicate order gives a wider ontology. Dialogue works on collective thought, while the holonomic program investigates distributed processing. Their shared orientation is an undivided reality that ordinary categories fragment. Understanding requires frameworks that preserve implicit relations while making distinctions clear.
The objection to integrating these projects concerns their different standards of proof. A philosophical account does not acquire the status of technical physics merely by sharing its themes. Development of the implicate order into a predictive research program remains open. Novel predictions, testable hypotheses, and practical applications would give that program further substance.
Bohm kept questions of being, consciousness, and human flourishing within science’s reach. His legacy combines technical accomplishment with that demand. Prediction and control cannot exhaust inquiry into the world or the people who participate in it.
References
- Bohm, D. (1980). Wholeness and the Implicate Order. Routledge.
- Bohm, D., & Hiley, B. J. (1993). The Undivided Universe: An Ontological Interpretation of Quantum Theory. Routledge.
- Williams, G. R. “Quantum Mechanics, Metaphysics, and Bohm’s Implicate Order.” Philosophical Archives, accessed via PhilPapers.
- Dabrowski, I. J. (1995). “David Bohm’s Theory of the Implicate Order: Implications for Holistic Thought Processes.” Issues in Interdisciplinary Studies, 13, 1-23.
- Cushing, J. T. (1994). Quantum Mechanics: Historical Contingency and the Copenhagen Interpretation. University of Chicago Press.
- Bohm, D. (1952). “A Suggested Interpretation of the Quantum Theory in Terms of ‘Hidden’ Variables.” Physical Review, 85, 166–179.
- Bell, J. S. (1987). Speakable and Unspeakable in Quantum Mechanics. Cambridge University Press.
- Bohm, D. (1996). On Dialogue. Routledge.
- Holland, P. (1993). The Quantum Theory of Motion: An Account of the de Broglie-Bohm Causal Interpretation of Quantum Mechanics. Cambridge University Press.
- Pylkkänen, P. (2007). Mind, Matter, and the Implicate Order. Springer.
- Pribram, K., & Bohm, D. (1998). “Holonomy and Structure in the Organization of Perception.” In Brain and Perception. Lawrence Erlbaum Associates.