This essay asks a deliberately narrow question inside the coherent-existence framework: what is light to the jays? Modeling a legible trace as a conserved intensity and a turning phase, the piece observes that light already divides itself the same way, into a conserved magnitude and a freely turning phase, and that the absolute phase of a single field is unobservable while the relative phase between two fields is physical and does the work of interference. From this resemblance it develops two readings, held apart rather than resolved: light as the carrier of legible traces between perspectives, and light as an instance of the jays themselves. The first stays within established optics and information theory; the second inherits the commitments and unsolved problems of panpsychist and quantum theories of mind, including the decoherence objection. Throughout, the register seam is kept in view: the mathematics shared with optics is a modeling choice, not an empirical claim that photons carry or constitute consciousness. The work is a consideration, not a conclusion.
This essay asks a deliberately narrow question inside the coherent-existence framework: what is light to the jays? Modeling a legible trace as a conserved intensity and a turning phase, the piece observes that light already divides itself the same way, into a conserved magnitude and a freely turning phase, and that the absolute phase of a single field is unobservable while the relative phase between two fields is physical and does the work of interference. From this resemblance it develops two readings, held apart rather than resolved: light as the carrier of legible traces between perspectives, and light as an instance of the jays themselves. The first stays within established optics and information theory; the second inherits the commitments and unsolved problems of panpsychist and quantum theories of mind, including the decoherence objection. Throughout, the register seam is kept in view: the mathematics shared with optics is a modeling choice, not an empirical claim that photons carry or constitute consciousness. The work is a consideration, not a conclusion.
Matter is coherence held. Photon Light is coherence released. Gravity is coherence constrained. γ = ΔΦ_coh^(U(1), unbound) The photon is not merely a particle of light. It is coherence made light. This disclosure resets an ontological reinterpretation of the photon within the PSOC4(3) framework. It does not reject or replace standard photon physics. The photon remains, operationally, the quantum of the electromagnetic field: a massless boson carrying energy, momentum, polarization, and electromagnetic interaction. The contribution of this paper is interpretive and structural. It proposes that the photon is more deeply understood as the quantum of phase-unbound coherence: the minimal physical event by which coherence becomes light, source structure becomes transmissible, and spatial relation becomes communicable without condensation into mass closure. The paper develops this interpretation through seven figures and a coherent argument linking photon physics, phase, gauge structure, null propagation, information, measurement, visibility, gravity, and quantum-gravitational interpretation. This paper presents the photon as a primary disclosure object within PSOC4(3), the phase-spatial orientation closure framework. Standard physics identifies the photon as the quantum of the electromagnetic field: a massless boson carrying energy, momentum, polarization, and electromagnetic interaction. This paper retains that operational description while proposing a deeper ontological interpretation: the photon is the quantum of phase-unbound coherence. In PSOC4(3), matter is interpreted as coherence held in phase-bound closure, while light is coherence released as propagation. The photon has no rest frame because it is not closure-bound. It is null because its physical disclosure is propagative rather than rest-persistent. It is bosonic because unbound phase coherence is shareable. It carries information because frequency, phase, polarization, timing, direction, and intensity transmit lawful traces of source structure. It is gravitationally affected because gravity constrains coherence disclosure, not merely rest mass. The photon therefore becomes a bridge between quantum theory, relativity, field structure, measurement, visibility, and quantum gravity. It is not merely a particle of light, nor merely a field excitation. It is the minimal visible event by which coherence becomes transmissible appearance without condensation into mass closure. The photon is coherence made light. A photon is usually called a particle of light. More precisely, modern physics describes it as the quantum of the electromagnetic field. This paper accepts that description, but asks a deeper question: What does the photon reveal about reality? The answer proposed here is that the photon is a quantum of coherence. Matter is coherence held. Light is coherence released. Gravity is coherence constrained. A photon is not a tiny solid object flying through space. It has no rest frame. It has no rest mass. It is detected in discrete events, yet propagates as phase and field relation. It carries energy, information, polarization, and source structure across distance. It makes the world visible. In PSOC4(3), the photon is interpreted as phase-unbound coherence: coherence that has not condensed into matter, but remains transmissive as light. In standard relativity, light travels through space. In PSOC4(3), light travels as phase-disclosed space. The photon is therefore not only part of physics. It is part of the ontology of appearance. It is one of the clearest ways reality becomes visible to itself. Keywords Photon, light; coherence, PSOC4(3), phase-spatial closure, U(1), SO(3), electromagnetic field. gauge invariance, null coherence, relativity. quantum theory, measurement, visibility, quantum gravity, phase-unbound coherence
This book is a treat, a collection of essays about the relationship between consciousness and quantum mechanics that is guaranteed to move the needle: serious, original, and relatively accessible. The essays develop cutting-edge views by thought-leading authors on questions that matter for the philosophy of physics and the philosophy of mind, and while to follow along you need to know what supervenience is and what an eigenstate is, the majority of essays should be accessible to advanced undergraduates (i.e., those who have taken a rigorous introductory course in quantum mechanics as well as a course or two in the philosophy of mind).Why care about the relationship between consciousness and quantum mechanics? If you are coming from physics, your point of entry is probably the measurement problem. When you let quantum systems evolve according to the Schrödinger equation, they enter into superpositions of mutually incompatible states. How can this be reconciled with the testimony of our senses that such systems are always in one state or the other when we measure them (with a probability distribution given by the Born rule)? This is the measurement problem, and it concerns consciousness because it draws from the testimony of our senses.If you are coming from the philosophy of mind, your primary concern is probably the mind-body problem: the task of accounting for how consciousness arises out of or fits into physical reality. If consciousness is reducible, how might the details of quantum mechanics make it harder, or easier, to establish that reduction? If consciousness is irreducible, how might the details of quantum mechanics make it harder, or easier, to explain why consciousness exists, or to find some work for it to do in the world? You may also be concerned with the structure and function of consciousness: for example, you may hold that minds can do things that classical digital computers cannot, and take it that we must look to the quantum realm to discover how.If you are not already entrenched, you might just wonder what kind of world we live in. The mechanistic philosophy of centuries past seemed to disenchant the world, rendering it a place of barren corpuscles banging into one another, leaving no room for mind or meaning, except perhaps as patterns in the collisions, or useless epiphenomena. But quantum mechanics and its relativistic generalizations force a rethinking of the mechanistic picture from the ground up. Once the dust has settled—if it ever does—we may find reasons to relegate consciousness once again to the shadows. But we may also find reasons to give it pride of place. If you are after scientific reasons to reenchant the world, this is a good place to look.The entries in this volume address these questions and others besides. The volume is organized into three parts. The first part contains four essays about the idea that consciousness causes (or constrains) quantum collapse. The second part contains eight essays discussing other ways that consciousness might contribute to theories of quantum mechanics. The third part contains five essays about how quantum mechanics might contribute to an ultimate theory of consciousness. I’ll follow the book’s order.In chapter 1, David Chalmers and Kelvin McQueen develop a new consciousness-triggered collapse interpretation of quantum mechanics. On their approach, consciousness has a strict physical correlate (perhaps given by quantum integrated information theory), it is approximately superposition-resistant, and collapse dynamics are continuous (à la Philip Pearle). They respond to the standard objections that a consciousness-collapse link makes the collapse mechanism imprecise and requires dualism, as well as to worries about Quantum Zeno, among others. Crucially, their approach allows that superpositions of consciousness are possible: their motivation is to give the view a run for its money and to find work for consciousness to do in the universe, not to rid the world of all traces of superposed consciousness. One question: In taking consciousness itself to be superposition-resistant (rather than the environmental systems it asks questions about, as Henry Stapp suggests), we appear to favor internalism over externalism. What would an externalist variant look like? Another question: How exactly would experimental results—for example, that simple enough systems with maximal Φ remain in coherent superposition—constrain our theoretical options? If to accommodate this we have to impose an experimentally determined threshold for the minimal absolute Φ for consciousness, will that mean that on the physicalist version of the view, the property we privilege for superposition-resistance is just an arbitrary collection of atoms?In chapter 2, Elias Okon and Miguel Angel Sebastian defend a consciousness-collapse theory that they call the Subjective-Objective collapse model. Like Chalmers and McQueen, Okon and Sebastian invoke a Pearle-style continuous collapse dynamics and think of consciousness as only weakly superposition-resistant. A key contribution is the treatment of a worry about multiple realizability (i.e., the way that some property of biological neurons and some other property of artificial neurons might both realize the state of being in pain). The problem is that it is not straightforward to define Hermitian operators whose eigenstates are disjunctions of the eigenstates of other Hermitian operators: you must ensure orthogonality (“being red or being a circle” is not orthogonal to “being red or being square”). In answer, the authors point out that we don’t need each multiply realizable phenomenal state to be an eigenstate of our collapse operator; it suffices that each way of realizing each phenomenal state is an eigenstate. One question is whether this problematizes the dancing qualia argument. A second worry is that we still must find a suitable basis for Hilbert space. But theories of consciousness may constrain both position and momentum: for example, both distances between neurons and how energy is transferred. We can talk about wave packets, but these will not get us eigenstates of a Hermitian operator.In chapter 3, J. Acacio de Barros and Carlos Montemayor suggest that if a mentality-triggered collapse theory is what you want, you should opt for intentionality rather than phenomenality. This is because, first, we have evidence from psychophysics that there is unconscious perception. Second, the first-personal data that motivate collapse theory concern intentionality: we remember only recording definite values; our decisions about what to measure affect the outcomes we see. First question: Can the reasons we have for thinking that there is unconscious intentionality extend into a case for unconscious primitive intentionality? Another question is how the proposal here would differ from Stapp’s treatment of what questions a mind asks of the universe. A third is how we contend with Quantum Zeno, the effect that forces both Chalmers-McQueen and Okon-Angel Sebastian to say that consciousness is only weakly superposition-resistant. Those authors note the possibility that the relevant superposed states of consciousness might overflow access consciousness (in Ned Block’s sense). We may have an easier time ensuring that access conscious states only rarely enter into superposition, if we set them back from our front line of superposition-resistant states.In chapter 4, Adrian Kent explores objective collapse theories—mass-dependent continuous spontaneous localization models. Consciousness may not be in the spotlight on these theories, but they should at least ensure that collapse happens faster than the time it takes for a stimulus (e.g., a system of several photons) to make it from a retinal impact to consciousness. Angelo Bassi, Dirk-André Deckert, and Luca Ferialdi (2010) argue that for a range of theories this constraint is respected, with collapse for a system of several photos happening at around 100 ms. Kent problematizes their argument, showing that their estimation may be off by an order of magnitude or more. Kent’s point is compelling: more work is needed to refine the estimate and to conceptually clarify the import of the constraints from perception.Part 2 consists of eight essays on various ways that consciousness might figure in or constrain quantum theories. In chapter 5, Phillip Goff argues that 3N-dimensional wave function monism cannot accommodate ground truths about consciousness, pressing on worries that the view imposes too few structural constraints to allow for the unambiguous recovery of ordinary 3D reality. While I agree that wave function monistic accounts of ordinary reality (e.g., Albert’s functionalism or Ney’s priority monism) yield an explanatory gap (even given the 3D-ish structure of GRW jumps), I was puzzled here. All type-B physicalists confront an explanatory gap where consciousness is concerned. Isn’t this a point in support of wave function monism, since it amounts to a companions-in-guilt argument against opposition from other type-B materialists?In chapter 6, Peter Lewis raises some sensible worries about the use of phenomenal consciousness as an unanalyzed primitive or special case in quantum theory. He objects to the suggestion made by some Bohmians that we can be directly aware of the particles in our brains. Another target is John von Neumann, who appeals to intuitions about psychophysical connections to justify a collapse hypothesis. These are nice points: I would be curious to know whether Lewis thinks they apply to the justifications for mentalistic collapse theories from part 1.In chapter 7, Jenann Ismael first argues that the hard problem of consciousness is of no concern to physics per se: “If consciousness enters the problem space of physics, it does so by making a difference to the behavior of physical objects.” She then offers some clarifying remarks about how we might reconcile Van Gelder-style dynamicist conceptions of mentality with (virtual) machine functionalism. I find much to agree with here, though I do wonder how strictly to take Ismael’s claims about the irrelevance of the hard problem. If there is a tie between two theories of physics over predictive accuracy, elegance, and naturalness, but one yields a more satisfying analysis of consciousness than the other, are we not even allowed to treat that as a tie-breaker?In chapter 8, Shan Gao defends a mentalistic characterization of the measurement problem in reply to Andrea Oldofredi (2019). The question is whether the key premise of the measurement problem should be that measurements take on definite values or only that we (definitely) experience them as taking on definite values. Of course, our reasons for thinking that they do arise from our seeing or remembering that they do, but we can distinguish between the claim and our evidence for it. Gao argues that the underlying mentalistic claims are more inextricable from the dilemma than that. Many dilemmas involve premises for which the evidence is perceptual, though they make no mention of perception. Here, however, solutions to the problem require special attention to the nature of that evidence.In chapter 9, Paul Skokowski illustrates one reason that we must pay special attention to the nature of that evidence. Jeffrey A. Barrett’s (1999) bare theory is a minimalistic reading of Everett on which measurement outcomes are only definite if they obtain on all branches. One question is whether this means that observers have blatantly false disjunctive beliefs: let someone measure an electron’s spin and then ask, Do you believe that you got a definite measurement outcome, either “UP” or “DOWN”? The observer will say yes, because on each branch they saw one and not the other. However, by the lights of the theory, this disjunctive belief is false. Skokowski’s insight is that while the observer definitely says yes, it does not follow (by the lights of the bare theory) that the observer has a (definite) false belief, since the neural realizer for the disjunctive belief will be different on each branch and therefore not correspond to a common eigenstate (compare the worry from chapter 2 about multiple realizability). But isn’t this just to move from the frying pan to the fire, as it seems now that our observer has no (definite) beliefs at all?In chapter 10, Michael Silberstein and W. M. Stuckey advocate for a psi-epistemicist perspective that vindicates many phenomenological intuitions, including the one that experimental outcomes are definite (and intersubjectively consistent). The approach requires that we rethink naïve realism about the wave function and that we rethink mind-body duality, in favor of a neutral monist ontology governed by constraints. This is an exciting approach, though I’m not fully clear on how to differentiate neutral monism from its idealist, dual aspect, or panpsychist cousins.In chapter 11, Michael Bitbol suggests a phenomenology-first approach to interpreting quantum mechanics. Bitbol favors a QBist participatory realism, tempered by phenomenology, that could perhaps also be described as neutral monist. He notes that the phenomenology of embodiment (à la Merleau-Ponty) acquaints us with how something can be both active and passive, both minded and incarnate, and he traces the error of believing in a separate, physical world (an error participatory realism corrects) to the tendency of self-separation: the tendency to try to project ourselves beyond ourselves, discussed in Heidegger, Sartre, and Michel Henry. These phenomenological insights are enlightening, though I am still not quite clear on how the underlying (neutral?) ontology works. Who, precisely, are the observers? Do electrons have feelings, or are they just fictions we use to cope with ours?In chapter 12, Lucien Hardy describes an experiment in which humans might be used to determine the settings in a Bell experiment. Hardy suggests that the outcome may be a violation of quantum theory consistent with the Bell inequality. He argues that this result would support (superdeterministic) mind-body dualism and also could serve as a new more objective Turing test. This is a fascinating proposal: it remains only to do the experiment.This brings us to part 3: accounts that move from quantum mechanics to consciousness, rather than conversely. In chapters 13 and 14, Roger Penrose and Stuart Hameroff give a comprehensive account of the current state of their ORCH-OR theory of quantum collapse and consciousness. Among other things we find here a nice presentation of Goodstein’s theorem as an example of a theorem that is noncomputable but easy enough for humans to understand, and a nice discussion of how retroactivity might equip us with something to say to Benjamin Libet about the role of consciousness in action selection. I’ll note, though, that I asked ChatGPT to explain Goodstein to me and it did a fairly good job, suggesting something like understanding. On Libet, I’m not sure what exactly we need retrocausality for: Why not just content ourselves that awareness of the action plan leaves time for a veto, as Libet and others have suggested?In chapter 15, Basil J. Hiley and Paavo Pylkkänen explore another route to a comprehensive theory of consciousness, drawing from the materials of a theory of quantum reality. Here, that theory is the Bohmian implicate order picture, with special attention to the notion of active information that arises there. This is another approach with neutral monist overtones, but here the wave function of a system behaves something like a customized hylomorphic form for the system while at the same time imbuing it with intentionality. There are interesting claims here about the continuity between life and mind, the unity of consciousness, and protopanpsychism, as well as some speculation of how the theory might align with the various scientific theories of consciousness inspired by psychophysics, like higher-order or global workspace theories.In chapter 16, William Seager offers a helpful discussion of the kinds of intelligibility at issue in these debates, distinguishing between mundane, mathematical, and metaphysical intelligibility, weaving together insights from Leibniz and others to argue that a Bohmian approach offers the best bet for a metaphysically intelligible world view. I sympathize with the positive aspects of his argument, though I think that other papers in this volume showcase the metaphysical intelligibility of rival approaches.Finally, in chapter 17, Lee Smolin describes a completion of quantum mechanics, also echoing Leibniz, which could support a theory of quantum gravity and which offers a new conception of consciousness: the causal theory of views, alongside the principle of precedence. This yields a novel sort of protopanpsychism in which the world is a collection of (background-independent) causal views, where views are conscious when they have a few extra features, including being unprecedented and being maximal. This is an exciting approach. One question is how we reconcile the claim that experiential states are maximal with the (mental) problem of the many, the problem that there are ties between composites (that differ over a stray ion or two) over which has best claim to be me.In closing, this is a fantastic volume. I commend Shan Gao for his editorial work: he would make a wonderful DJ. There are subtle symmetries in the way that each entry segues to the next, and the collection has a remarkable coherence.
Holographic Informational Ontology Framework: Relativity and Quantum Field Theory (HIOF-PnQFT) Incompatibility as a Problem of Positioning* This is a short, non-technical companion to the 5-paper HIOF-PnQFT series (Prelude and Papers I to IV). It is written for readers in physics, philosophy of physics, or the foundations of quantum theory, not for readers already familiar with the author's wider framework. The core idea, stated plainly Relativity and quantum field theory are usually treated as two correct theories that still need a bridge. The series asks a prior question: what exactly are they being asked to make compatible? In the reading of this framework, a spacetime stage and randomness of outcomes are manifest features, not fundamental ones. The compatibility problem is therefore read as a problem of positioning. This is a repositioning, not a claim that any technical obstacle has been removed. Two layers The information layer has no coordinates, no spatiotemporal character, and no relative relations; it only exists. The manifest layer is what appears after information is read, expanded, and set in flow: past, present, space, fields, energy, carriers, relations, and determinate results. The order of manifestation is information, then energy, then matter. This order is an inference, not a verified conclusion. Past, present, future The past is information. The present is the reading of consciousness, where consciousness is the direction and path along which an "I" manifests. The future is not stored in advance. Spacetime is not a pre-existing stage. Five readings of the incompatibility Relative relations belong to the manifest layer. Spacetime is manifestation, not a stage. The quantum has no randomness, only uncertainty from a limited arc window. The spooky distance of entanglement is a category error: the spacetime in which distance is defined is imposed on information that has none. The speed of light is read as the upper limit of reading, with causal structure as its consequence. This is an inversion at the ontological level only: within the arc window, every observable result agrees with special relativity. The measurement chain The quantum itself is not read at any layer. A source of interference forces the quantum to hand out a posture (coercion, not transaction). The posture and the instrument transact; the instrument and the observer transact. The constitution of an instrument determines its arc window, including what it does not know that it does not know. A response is established when an instrument reads a posture and yields a stable record that can be read again. The single result and the Born rule are taken as axioms. Fermi theory as a case study A low-energy theory is read as the successful marking of wide-domain information through a narrow arc window. In Fermi theory the coupling constant carries the fingerprint of the W boson mass, and its dimension forecasts where the window gives way. The mathematics is that of effective field theory; the difference lies in ontological commitment only. What the series does not do It supplies no alternative dynamics, no new field equation, and no distinguishable observational prediction. It does not derive the Born rule, does not claim to meet microcausality, Lorentz invariance, or unitarity, and does not claim that consciousness influences the ontological information. Algebraic quantum field theory, the thermal time hypothesis, emergent spacetime, and relational quantum mechanics are compared with the series and never treated as support for it. Any test template involving symmetry groups, topology, or lattices would be an independent model at the manifest layer, not an inference of the framework. What the series covers Prelude: why this series, and why the two theories do not fitPaper I: spacetime, past, present, futurePaper II: the sources of incompatibilityPaper III: the interface and relationsPaper IV: arc windows and effective theories A note on method Each paper separates standard published results from the framework's own readings and states what it does not claim. Readers are encouraged to treat the readings as hypotheses to be compared with existing theory and experiment, not as settled fact. Keywords: relativity, quantum field theory, information ontology, arc window, measurement problem, effective field theory, entanglement, emergent spacetime, philosophy of physics AuthorWai-Hung Tam (Pan), Independent ResearcherORCID: 0009-0002-7789-8464Email: panxtam@protonmail.com
In quantum mechanics, light cannot be described in terms of waves and particles at the same time. However, the question about light "as it really is" implies a description that is independent from the constraints of measurement. It is rather preferable to incorporate both aspects in a causal ontological theory, especially if it simplifies explanation and improves predictions. Hence, the photon can be described as an extended longitudinal association of discrete indivisible constituents, which are held together by the effect of their own waves on each other. The same waves can then be used to interpret the force of interactions between different pulses of light, or between light and matter. The concept of wavemediated interaction between sub-photonic entities is entirely consistent with the observations of quantum mechanics. The key is to assume that elementary sources of waves never collide, and that they have constant parameters. Novel experimental implications follow from this approach. For example, the speed of propagation of changes within magnetic or electrostatic fields may not be equal to the speed of light. Also, interference fringes should be detectable beyond the volume of overlap of two non-entangled beams, but only in special experimental settings.
This paper reviews humanity's understanding of the photon, the evolution of quantum mechanics and quantum electrodynamics (QED), and analyzes their physical interpretations and philosophical implications. It seeks to elucidate the true nature of the photon by examining the possibility of hidden variables in the double-slit experiment. The wave-particle duality of the photon, as posited by quantum mechanics, appears to me to be less than entirely convincing. By designing a thought experiment involving a photon double-slit setup, I aim to refute the notion that photons generate Coherence, or so-called wave-function superposition, within the light field between the slits and the screen. This endeavour aims to demonstrate the pure particle nature of photons. Furthermore, by examining the wavelength of electromagnetic waves, this paper explores the intrinsic relationship between electromagnetic waves and photons, positing that electromagnetic waves are fundamentally pure particle-waves. Analysis of QED elucidates the potential influence of photon momentum on photon interactions, an effect that may profoundly impact quantum information transmission. To comprehensively describe the mathematical model of photon queues, this paper introduces the concept of a photon train. This metaphor likens photons travelling through space to a train in motion. The distance between carriages is denoted by (d), representing the wavelength of the photon。 Within the "particle train" model of the photon queue, the wavelength λ is defined as the distance d between adjacent photons. This yields a structural equivalence between wavelength and photon spacing: ; . The longer the wavelength (smaller f), the greater the distance d between photons (corresponding to radio waves, where photons are "sparsely" dispersed). The shorter the wavelength (larger f), the closer the distance d between photons (corresponding to X-rays or γ-rays, where photons are "focused"). f represents the frequency of light. In standard physics, frequency is typically defined as the number of oscillations of an electromagnetic field per unit time, expressed by the relationship: . This is directly linked to the energy of a photon. However, although mathematically and experimentally complete, this definition obscures the intuitive informational structure of frequency. In this paper, we introduce a longitudinally structured interpretation: viewing frequency as the manifestation of "front-to-back density" or "longitudinal spacing" of light quanta along their propagation direction. This understanding does not replace the standard physical definition but operates in parallel to reveal frequency's deeper significance in energy transmission and information organization. For simplicity, we denote this approach as the "photon queue/longitudinal serialization (PQ/LS) model". PQ/LS denotes the theoretical framework of the photon queue model. A thought experiment on the conversion rate of quantum information into biological information reveals that, under identical light intensity (equivalent total energy input), the response of living systems is not solely determined by the 𝐼, but strongly depends on the spatial arrangement of the photon queue (where λ approximates the inter-photon distance).Bacterial-level matching of visible-light queues achieves the highest information-transmission efficiency (maximum mutual information and signal-to-noise ratio), thereby enabling dual optimization of energy utilization and rhythmic synchronization. This constitutes the core prediction of the model (PQ/LS): frequency (queue spacing), rather than total power (𝐼) alone, determines the conversion efficiency of quantum information into biological information. The paper explores the non-wave-particle duality of photons through double-slit experiments and double-slit observer experiments. The essence of photons is purely particle-like. The thought experiment of the photon double-slit is pivotal in demonstrating that photons, like other particles such as electrons, atoms, and macromolecules, are purely particle-like. In space, photons can interfere with each other's paths based on their momentum. This can simultaneously alter the trajectory and even the velocity of photons. That is, a photon beam with higher momentum may carry a portion with lower momentum, allowing it to propagate over vast distances. The wavelength of a light wave is fundamentally the distance between consecutive photons as they propagate through space. The longer the wavelength of a light wave, the greater the distance between successive photons, causing them to diverge more widely in space, as observed with radio waves. Conversely, shorter wavelengths result in closer distances between photons, leading to denser emission and highly directional propagation, exemplified by gamma rays. Photons within the visible-light spectrum may occasionally transmit information that carries specific content. This information, conveyed through light quanta, can propagate over distances ranging from several metres to thousands of kilometres. The essence of light quanta: particle queues (PQ/LS) and the profound meaning of frequency: light is fundamentally a sequence of light quanta (photons) advancing in spatial order. Regardless of whether the propagation path is straight or curved, the propagation maintains this queued formation, akin to a continuous jet of water. Within this model (PQ/LS), the wavelength λ of light observed macroscopically fundamentally represents the average distance between successive light quanta. The frequency f (or ν) is inversely proportional to this distance: the closer two light quanta are, the higher the frequency f; the greater the distance, the lower the frequency f. It can be expressed through the classical wave velocity formula: c=fλ. Within the visible spectrum, λ≈0.5×10⁻⁶ metres (500 nanometres). Remarkably, this distance corresponds precisely to the typical dimensions of bacteria (approximately 0.5–5 micrometres). The evolutionary tree of life takes bacteria as its root, while the wavelength of visible light—the fundamental scale for human vision and quantum information interaction—aligns exactly with this root-level dimension. As the product of billions of years of bacterial evolution, our human perception, communication, and even consciousness may possess an intrinsic connection to this "bacterial-scale" queue distance of light quanta. Philosophically, this unification reveals a grander picture: the frequency-distance relationship of the light quantum queue (PQ/LS) not only determines the magnitude of physical energy but also bridges the quantum realm with the origins of life. The evolution of human vision, which aligns precisely with this "bacterial-scale" dimension, suggests that our perceptual systems are rooted in life's most primordial mode of information exchange. As an information carrier, light transforms energy (E = hf) into biological signals, genetic expression, and even the emergence of consciousness—from photons stimulating retinal cells to potential quantum biological processes (such as quantum coherence in photosynthesis or brain microtubules), light weaves an information network between the microscopic and macroscopic realms. Bacterial circadian rhythms, particularly the KaiABC system in cyanobacteria, function as living fossils: they document how visible light quantum queues (PQ/LS) were transformed into ordered biological information programmes during life's earliest stages. This experimental finding not only validates the functional significance of scale consistency but illuminates the earliest step in the evolutionary path from light to meaning—within the unicellular world, light ceased to be mere energy, becoming instead the language of time and the rhythm of information. The relatively poor correlation between archaea and most bacteria in circadian rhythms and responses to visible light, from another perspective, suggests that archaea and bacteria did not originate on Earth but rather within protoplanetary discs or planetesimals. These archaea and bacteria can survive in the harshest natural environments, unaffected by Earth's 24-hour circadian rhythms or visible light. It further substantiates my published theory that life did not originate on Earth. From the bacterial scale to the scale of consciousness: information density remains operative. Within the Photon Quantum Queue Model (PQ/LS), the wavelength of visible light (~0.5 μm interphoton spacing) aligns remarkably with the bacterial scale, suggesting that the informational "foundation" of life's origin is set by the interphoton spacing. As we ascend from single-celled bacteria (scale 0.5–5 μm) to multicellular organisms, nervous systems, and ultimately human consciousness (neuronal scale ~10–100 μm, brain as a whole ~0.1 m), a central question emerges: does this information density, originating from the photon quantum distance, continue to operate at higher scales, bridging microscopic origins with macroscopic awareness? From bacteria to conscious scales: Implications of information density for SETI and the search for extraterrestrial life. An intuitive interpretation of light's nature: Mainstream quantum electrodynamics (QED) views photons as quantum field excitations, where wavelength λ represents the phase oscillation scale associated with a single photon, not the physical distance between multiple photons. This theory deliberately adopts a semi-classical "particle queue" image, directly correlating λ with the average distance between adjacent photons. While not strictly valid in weak-light or single-photon experiments, the theory challenges the orthodoxy that "wavelength is solely a property of individual photons." The theory's stance can be summarized as one of maximizing continuity and wholeness within strict scientific boundaries. Our challenge lies in rejecting the compartmentalization of the quantum realm, the origins of life,
Holographic Informational Ontology Framework: Relativity and Quantum Field Theory (HIOF-PnQFT) Incompatibility as a Problem of Positioning* This is a short, non-technical companion to the 5-paper HIOF-PnQFT series (Prelude and Papers I to IV). It is written for readers in physics, philosophy of physics, or the foundations of quantum theory, not for readers already familiar with the author's wider framework. The core idea, stated plainly Relativity and quantum field theory are usually treated as two correct theories that still need a bridge. The series asks a prior question: what exactly are they being asked to make compatible? In the reading of this framework, a spacetime stage and randomness of outcomes are manifest features, not fundamental ones. The compatibility problem is therefore read as a problem of positioning. This is a repositioning, not a claim that any technical obstacle has been removed. Two layers The information layer has no coordinates, no spatiotemporal character, and no relative relations; it only exists. The manifest layer is what appears after information is read, expanded, and set in flow: past, present, space, fields, energy, carriers, relations, and determinate results. The order of manifestation is information, then energy, then matter. This order is an inference, not a verified conclusion. Past, present, future The past is information. The present is the reading of consciousness, where consciousness is the direction and path along which an "I" manifests. The future is not stored in advance. Spacetime is not a pre-existing stage. Five readings of the incompatibility Relative relations belong to the manifest layer. Spacetime is manifestation, not a stage. The quantum has no randomness, only uncertainty from a limited arc window. The spooky distance of entanglement is a category error: the spacetime in which distance is defined is imposed on information that has none. The speed of light is read as the upper limit of reading, with causal structure as its consequence. This is an inversion at the ontological level only: within the arc window, every observable result agrees with special relativity. The measurement chain The quantum itself is not read at any layer. A source of interference forces the quantum to hand out a posture (coercion, not transaction). The posture and the instrument transact; the instrument and the observer transact. The constitution of an instrument determines its arc window, including what it does not know that it does not know. A response is established when an instrument reads a posture and yields a stable record that can be read again. The single result and the Born rule are taken as axioms. Fermi theory as a case study A low-energy theory is read as the successful marking of wide-domain information through a narrow arc window. In Fermi theory the coupling constant carries the fingerprint of the W boson mass, and its dimension forecasts where the window gives way. The mathematics is that of effective field theory; the difference lies in ontological commitment only. What the series does not do It supplies no alternative dynamics, no new field equation, and no distinguishable observational prediction. It does not derive the Born rule, does not claim to meet microcausality, Lorentz invariance, or unitarity, and does not claim that consciousness influences the ontological information. Algebraic quantum field theory, the thermal time hypothesis, emergent spacetime, and relational quantum mechanics are compared with the series and never treated as support for it. Any test template involving symmetry groups, topology, or lattices would be an independent model at the manifest layer, not an inference of the framework. What the series covers Prelude: why this series, and why the two theories do not fitPaper I: spacetime, past, present, futurePaper II: the sources of incompatibilityPaper III: the interface and relationsPaper IV: arc windows and effective theories A note on method Each paper separates standard published results from the framework's own readings and states what it does not claim. Readers are encouraged to treat the readings as hypotheses to be compared with existing theory and experiment, not as settled fact. Keywords: relativity, quantum field theory, information ontology, arc window, measurement problem, effective field theory, entanglement, emergent spacetime, philosophy of physics AuthorWai-Hung Tam (Pan), Independent ResearcherORCID: 0009-0002-7789-8464Email: panxtam@protonmail.com