Quantum Mechanics, Plasma, and Consciousness: Rethinking Reality Through A New Science of Heaven

Introduction

Modern physics has largely been shaped by two monumental revolutions: quantum mechanics, which governs matter and energy at the smallest scales, and relativity, which describes gravity, spacetime, and the large-scale structure of the cosmos. Yet, as Robert K.G. Temple argues in A New Science of Heaven: How the New Science of Plasma Physics Is Shedding Light on Spiritual Experience, there may be a third framework that deserves equal attention: plasma physics.

Temple’s central provocation is not simply that plasma is important—this is already well established in astrophysics—but that plasma may offer a missing bridge between matter, complexity, life-like organization, and even consciousness-related phenomena. While many of Temple’s broader conclusions remain speculative, the book is valuable because it forces an interdisciplinary question that mainstream science has not fully resolved:

If most of the visible universe is plasma, and if plasma can self-organize into highly ordered structures, what role might it play in the emergence of complexity, cognition, and conscious experience?

This post explores that question at the intersection of quantum mechanics, plasma cosmology / plasma self-organization, and consciousness studies, drawing heavily on Temple’s framing while grounding the discussion in related scientific literature.

1. Quantum Mechanics: A Theory of Possibility, Measurement, and Information

Quantum mechanics describes a world in which physical systems are represented by wavefunctions, existing in superpositions of possible states until interaction, decoherence, or measurement yields definite outcomes. At its core, quantum theory replaces classical certainty with probabilistic amplitudes, nonlocal correlations, and observer-dependent measurement outcomes.

Why does this matter for consciousness?

Because consciousness and quantum mechanics share a common philosophical tension: both challenge the idea that reality is fully describable as a set of objective, observer-independent facts. Recent philosophical work has emphasized that both fields force us to rethink what counts as “real,” “observed,” and “experienced.” For example, recent discussions in the philosophy of physics argue that quantum theory and consciousness both place pressure on a purely classical, objectivist worldview.

Temple repeatedly returns to this ambiguity in A New Science of Heaven, especially through figures such as David Bohm, whose ideas about implicate order, wholeness, and hidden structure sit naturally at the boundary between physics and mind. Temple does not claim that quantum mechanics solves consciousness; rather, he treats quantum theory as one part of a larger argument that reality is more layered, relational, and field-like than everyday materialism suggests.

2. Plasma: The Missing Third Pillar?

Temple’s most important contribution is to re-center plasma in the modern imagination of physics. Plasma is the fourth state of matter, consisting of ionized gas with free electrons and ions, and it dominates the visible universe: stars, stellar winds, nebulae, magnetospheres, and much of interstellar space are plasma environments. Temple frames plasma not as a niche topic but as a foundational medium for cosmic structure and behavior.

The scientifically solid part of this story is straightforward:

• Plasma is electromagnetically active, unlike neutral gas.
• It exhibits collective behavior, where local particle motion is shaped by long-range electric and magnetic fields.
• In many settings—especially complex or dusty plasmas—it can form filaments, vortices, crystals, cellular patterns, and other self-organized structures.

This is where Temple’s thesis becomes especially interesting. In A New Science of Heaven, he highlights research suggesting that complex plasmas can produce surprisingly ordered, quasi-biological structures, including helical forms, crystal-like lattices, and dynamic boundaries. Temple uses this body of work to argue that plasma deserves to be taken seriously not just as astrophysical matter, but as a candidate substrate for organization, memory, and perhaps even proto-life.

That framing is not pure fantasy. There is legitimate plasma-physics literature on self-organization in dusty plasmas, including:

• plasma crystals,
• helical dust structures,
• non-equilibrium phase coexistence,
• and emergent ordered states sustained by plasma-mediated interactions.

The leap Temple makes is to ask whether these structures are merely interesting physical patterns—or whether they hint at something closer to information-bearing, adaptive matter.

3. Can Plasma Behave Like Life?

One of the most controversial scientific threads Temple relies on is the work of V.N. Tsytovich and collaborators, especially the paper “From Plasma Crystals and Helical Structures Towards Inorganic Living Matter.” That paper proposed that complex plasmas may naturally self-organize into stable helical structures exhibiting traits loosely analogous to living systems: self-organization, bifurcation-based “memory marks,” energy throughput, and replication-like dynamics.

This is a crucial influence on Temple’s book. In many ways, A New Science of Heaven can be read as a long-form attempt to trace the implications of that idea. Temple does not merely say “plasma is everywhere”; he argues that plasma may be capable of higher-order organization than conventional reductionist models have appreciated. That possibility allows him to reinterpret reports of luminous phenomena, spiritual encounters, and anomalous experiences through a plasma-based lens.

From a technical standpoint, the cautious takeaway is this:

• Mainstream plasma physics absolutely supports self-organization.
• Some authors have argued that certain plasma structures show life-like properties.
• The claim that such structures are literally alive, conscious, or spiritually relevant remains highly speculative and is not established scientific consensus.

That distinction matters. Temple’s value lies less in proving a conclusion than in expanding the conceptual search space.

4. Where Quantum Mechanics Re-enters the Picture

If plasma provides a candidate medium for large-scale self-organization, quantum mechanics re-enters when we ask how information, coherence, and conscious experience arise.

Temple’s argument is not a standard “quantum consciousness” argument in the style of Penrose and Hameroff, but it overlaps with that territory. The underlying suggestion is that mind-like phenomena may not be reducible to classical neural chemistry alone; instead, they may involve a deeper interaction between biological systems and structured electromagnetic / plasma-like fields.

There are at least three ways this question is approached in the literature:

A. Quantum consciousness models

These propose that consciousness depends on quantum-coherent processes in the brain, often associated with microtubules, collapse models, or quantum information processing. These ideas remain controversial, but they persist because they attempt to explain why subjective experience seems difficult to derive from classical computation alone.

B. Plasma brain models

A more unusual line of thought models the brain’s electrical environment using plasma-like collective dynamics, sometimes referred to as Plasma Brain Dynamics (PBD). In this framework, neuronal ensembles and charged particles are treated using kinetic or field-theoretic tools borrowed from plasma physics. One example is Plasma Brain Dynamics II: Quantum Effects on Consciousness, which explores whether quantum-plasma formalisms can describe normal and abnormal conscious states.

C. Field-based / non-classical models of consciousness

These approaches do not necessarily claim “the brain is a plasma,” but they suggest that electromagnetic field organization, coherence, nonlinearity, and relational information flow may be central to consciousness. Temple’s book fits most naturally here. It uses plasma as a physical vocabulary for understanding how structured fields could mediate experiences historically described as mystical, psychic, or spiritual.

5. Consciousness as an Emergent Field Phenomenon?

The most provocative reading of A New Science of Heaven is that consciousness may not be confined neatly inside the skull. Temple’s synthesis implies a broader possibility: that consciousness could be partly understood as an emergent field phenomenon—something shaped by the interplay of matter, charge, electromagnetic organization, and perhaps quantum-level informational constraints.

This is, again, far from consensus science. But it raises a compelling architecture for inquiry:

1. Quantum mechanics tells us that reality is fundamentally probabilistic, relational, and non-classical.
2. Plasma physics shows that charged matter can self-organize into coherent, persistent, and surprisingly complex structures.
3. Consciousness studies still lack a complete explanatory model for subjective experience, unity of awareness, and the emergence of mind from matter.

Temple’s wager is that these three domains are not separate mysteries but different faces of the same unfinished scientific story.

In that sense, A New Science of Heaven is best read not as a settled theory, but as a research prompt: a challenge to investigate whether the universe’s dominant state of matter—plasma—has been underestimated in our models of life, cognition, and spiritual experience.

6. A Balanced Scientific View

A responsible reading of this topic needs a clear distinction between established findings and speculative extrapolations.

What is well-supported

• Plasma is the dominant visible state of matter in the cosmos.
• Complex plasmas can self-organize into crystals, filaments, vortices, and helical structures.
• Quantum mechanics continues to challenge classical assumptions about observation, objectivity, and information.
• Consciousness remains an unsolved problem, and there is no universally accepted physical theory of subjective experience.

What remains speculative

• That plasma structures are genuinely “alive” in any biologically meaningful sense.
• That plasma is a direct substrate of consciousness.
• That mystical or spiritual experiences are best explained as interactions with external plasma intelligences or field entities.
• That quantum effects in the brain scale into a full explanation of consciousness.

Temple is strongest when he draws attention to overlooked plasma research and weakest when suggestive analogies are taken as near-proof. But even there, the book performs a useful service: it reminds us that science often advances by revisiting the categories it takes for granted.

Conclusion

Robert K.G. Temple’s A New Science of Heaven sits at an unusual crossroads: part plasma physics popularization, part philosophy of mind, part speculative metaphysics. Its boldest claim is not that it has solved consciousness, but that plasma physics may belong in the conversation alongside quantum mechanics and neuroscience.

That idea is worth taking seriously—carefully, critically, and without collapsing speculation into fact.

If quantum mechanics reveals a universe built from probability, entanglement, and information, and plasma physics reveals a universe capable of large-scale self-organization and emergent order, then consciousness may ultimately need to be understood not as an isolated anomaly inside biology, but as part of a broader continuum of organized, information-bearing physical processes.

Temple’s book does not close that case. But it does open it in a way few books do.

References

Primary reference

• Temple, Robert K.G. A New Science of Heaven: How the New Science of Plasma Physics Is Shedding Light on Spiritual Experience. Coronet / Hodder & Stoughton, 2022.

Related papers and white papers

Plasma, self-organization, and “inorganic life”

1. Tsytovich, V. N., Morfill, G. E., Fortov, V. E., et al. “From Plasma Crystals and Helical Structures Towards Inorganic Living Matter.” New Journal of Physics 9 (2007): 263. – Frequently cited in discussions of plasma self-organization and life-like dusty plasma structures.

2. Vladimirov, S. V., & Samarian, A. A. “Non-extensive Self-Organized Dusty Structures in a Plasma.” Plasma Physics and Controlled Fusion (2007). – Useful for the thermodynamics and self-organization angle in dusty plasma systems.

3. Zhang, C., Huang, C.-K., & Joshi, C. “Self-organization of Photoionized Plasmas via Kinetic Instabilities.” Reviews of Modern Plasma Physics (2023). – A modern review on self-organization in plasmas from a mainstream plasma-physics perspective.

4. Hariprasad, M. G., et al. “Self-sustained Non-equilibrium Co-existence of Fluid and Solid States in a Strongly Coupled Complex Plasma System.” Scientific Reports (2022). – Good contemporary evidence of emergent structure and active-state behavior in complex plasmas.

Quantum mechanics and consciousness

1. DeBrota, J. B., & List, C. “Consciousness, Quantum Mechanics, and the Limits of Scientific Objectivism.” arXiv (2026). – A recent philosophical treatment of the parallel conceptual problems in consciousness and quantum theory.

2. Mukhopadhyay, R. “Quantum Mechanics, Objective Reality, and the Problem of Consciousness.” arXiv (2018). – Explores whether the measurement problem and the hard problem of consciousness point toward a shared metaphysical gap.

3. Altaisky, M. V. “Consciousness and Quantum Mechanics of Macroscopic Systems.” arXiv (2016). – A speculative but relevant paper linking consciousness, causality structures, and quantum descriptions of complex systems.

Plasma and consciousness-specific models

1. Ma, John Z.G. “Plasma Brain Dynamics II: Quantum Effects on Consciousness.” Cosmos and History (2018). – A niche but directly relevant paper connecting plasma-style brain dynamics to conscious states.

Recent speculative synthesis paper

1. Teodorani, Massimo. “Anomalous Luminous Phenomena, Plasma Consciousness, and the Quantum Vacuum.” Preprint (2026). – A recent speculative synthesis of plasma phenomena, nonlocality, and consciousness; useful as a contemporary parallel to Temple’s broader thesis, though it should be treated as exploratory rather than settled science.