This paper reads the hundred years since the 1925 formulation of quantum mechanics as a single intellectual movement: the emergence, across physics, biology, the human sciences, and the contested study of mind, of a perspective in which organizational form and information — not matter and energy alone — appear as fundamental features of reality. It argues that this recurrence is best understood not as coincidence and not as teleology but as a Zeitgeist: one ripening perspective, intuited independently by investigators in many disciplines and pursued at professional cost. The paper revisits these pioneers of field and form — Bohm in physics; the morphogenetic-field theorists, Sheldrake, and the biophotonic line of Gurwitsch, Kaznacheev, and Popp in biology; Husserl and Meneghetti in the human sciences; Vasiliev, the Cold-War state programs, Mitchell, and Radin in the study of non-local mind — and reads their convergence through the information fields physical theory developed across this series. It situates their marginalization within a longer history: the fracture, opened by Galileo's mathematization of nature and codified by Descartes, that exiled the subject and the life-world from science, and whose prohibition now persists as an introjected structure in the formation of researchers. On this reading the hard problem of consciousness is hard less because experience is inexplicable than because the ontology in which it is posed was built by excluding what would explain it; restoring organizational form as a physical layer — on the rigorous precedent of Bohm's quantum potential — transforms the problem. The paper closes with the feature that distinguishes the present program from its predecessors: not greater experimental rigor, but generality — a shielded, distance-separated experiment requiring no special subjects, no emotional bond, no trained senders, and no altered states, using the dream as a universal identitary signal, and thereby proposing that field coupling is a general property of the living organism rather than an anomaly of special conditions. The theory is offered not as the culmination of the century but as the present turn of a widening spiral, testable and therefore surpassable.
This paper reads the hundred years since the 1925 formulation of quantum mechanics as a single intellectual movement: the emergence, across physics, biology, the human sciences, and the contested study of mind, of a perspective in which organizational form and information — not matter and energy alone — appear as fundamental features of reality. It argues that this recurrence is best understood not as coincidence and not as teleology but as a Zeitgeist: one ripening perspective, intuited independently by investigators in many disciplines and pursued at professional cost. The paper revisits these pioneers of field and form — Bohm in physics; the morphogenetic-field theorists, Sheldrake, and the biophotonic line of Gurwitsch, Kaznacheev, and Popp in biology; Husserl and Meneghetti in the human sciences; Vasiliev, the Cold-War state programs, Mitchell, and Radin in the study of non-local mind — and reads their convergence through the information fields physical theory developed across this series. It situates their marginalization within a longer history: the fracture, opened by Galileo's mathematization of nature and codified by Descartes, that exiled the subject and the life-world from science, and whose prohibition now persists as an introjected structure in the formation of researchers. On this reading the hard problem of consciousness is hard less because experience is inexplicable than because the ontology in which it is posed was built by excluding what would explain it; restoring organizational form as a physical layer — on the rigorous precedent of Bohm's quantum potential — transforms the problem. The paper closes with the feature that distinguishes the present program from its predecessors: not greater experimental rigor, but generality — a shielded, distance-separated experiment requiring no special subjects, no emotional bond, no trained senders, and no altered states, using the dream as a universal identitary signal, and thereby proposing that field coupling is a general property of the living organism rather than an anomaly of special conditions. The theory is offered not as the culmination of the century but as the present turn of a widening spiral, testable and therefore surpassable.
Quantum mechanics is usually defined in terms of some loosely connected axioms and rules. Such a foundation is far from the beauty of, e.g., the `principles' underlying classical mechanics. Motivated, in addition, by notorious interpretation problems, there have been numerous attempts to modify or `complete' quantum mechanics. A first attempt was based on so-called hidden variables; its proponents essentially tried to expel the non-classical nature of quantum mechanics. More recent proposals intend to complete quantum mechanics not within mechanics proper but on a `higher (synthetic) level'; by means of a combination with gravitation theory (R Penrose), with quantum information theory (C M Caves, C A Fuchs) or with psychology and brain science (H P Stapp). I think it is fair to say that in each case the combination is with a subject that, per se , suffers from a very limited understanding that is even more severe than that of quantum mechanics. This was acceptable, though, if it could convincingly be argued that scientific progress desperately needs to join forces. Quantum mechanics of a closed system was a beautiful and well understood theory with its respective state being presented as a point on a deterministic trajectory in Liouville space---not unlike the motion of a classical N -particle system in its 6N -dimensional phase-space. Unfortunately, we need an inside and an outside view, we need an external reference frame, we need an observer. This unavoidable partition is the origin of most of the troubles we have with quantum mechanics. A pragmatic solution is introduced in the form of so-called measurement postulates: one of the various incompatible properties of the system under consideration is supposed to be realized (i.e. to become a fact, to be defined without fundamental dispersion) based on `instantaneous' projections within some externally selected measurement basis. As a result, the theory becomes essentially statistical rather than deterministic; furthermore there is an asymmetry between the observed and the observing. This is the point where consciousness may come in. Complemented by an introduction and several appendices, Henry Stapp's book consists essentially of three parts: theory, implications, and new developments. The theory part gives a very readable account of the Copenhagen interpretation, some aspects of a psychophysical theory, and, eventually, hints towards a quantum foundation of the brain--mind connection. The next part, `implications', summarizes some previous attempts to bridge the gap between the working rules of quantum mechanics and their possible consequences for our understanding of this world (Pauli, Everett, Bohm, Heisenberg). The last section, `new developments', dwells on some ideas about the conscious brain and its possible foundation on quantum mechanics. The book is an interesting and, in part, fascinating contribution to a field that continues to be a companion to `practical' quantum mechanics since its very beginning. It is doubtful whether such types of `quantum ontologies' will ever become (empirically) testable; right now one can hardly expect more than to be offered some consistent `grand picture', which the reader may find more or less acceptable or even rewarding. Many practicing quantum physicists, though, will remain unimpressed. The shift from synthetic ontology to analytic ontology is the foundation of the present work. This means that fundamental wholes are being partitioned into their ontologically subordinate components by means of `events'. The actual event, in turn, is an abrupt change in the Heisenberg state describing the quantum universe. The new state then defines the tendencies associated with the next actual event. To avoid infinite regression in terms of going from one state of tendencies to the next, consciousness is there to give these events a special `feel', to provide a status of `intrinsic actuality'. The brain of an alert human observer is similar in an important way to a quantum detection device: it can amplify small signals to large macroscopic effects. On the other hand, actual events are not postulated to occur exclusively in brains. They are more generally associated with the formation of records. Records are necessarily part of the total state of the universe: it is obvious that the state of the universe cannot undergo a Schrödinger dynamics and at the same time record its own history. `The full universe consists therefore of an exceedingly thin veneer of relatively sluggish, directly observable properties resting on a vast ocean or rapidly fluctuating unobservable ones.' The present ideas also bear on how the world should be seen to develop. While conventional cosmology encounters problems as to how to define the intial conditions, which would enter the governing equations of motion, here `the boundary conditions are set not at some initial time, but gradually by a sequence of acts that imposes a sequence of constraints. After any sequence of acts there remains a collection of possible worlds, some of which will be eliminated by the next act.' Connected with those acts is `meaning': there has always been some speculation about the special significance of local properties in our understanding of the world. One could argue that correlations (even the quantum correlations found, e.g., in the EPR-experiments) were as real as anything else. But also Stapp stresses the special role of locality: the `local observable properties, or properties similar to them are the natural, and perhaps exclusive, carriers of meaning in the quantum universe. From this point of view the quantum universe tends to create meaning.' This sounds like an absolute concept: meaning not with respect to something else, but defined intrinsically---not easy to digest. The role of consciousness in the developing quantum universe requires more attention. `The causal irrelevance of our thoughts within classical physics constitutes a serious deficiency of that theory, construed as a description of reality.' This is taken to be entirely different within quantum mechanics. `The core idea of quantum mechanics is to describe our activities as knowledge-seeking and knowledge-using agents.' `21st century science does not reduce human beings to mechanical automata. Rather it elevates human beings to agents whose free choices can, according to the known laws, actually influence their behaviour.' An example with respect to perception is discussed: `Why, when we look at a triangle, do we experience three lines joined at three points and not some pattern of neuron firings?' The brain `does not convert an actual whole triangle into some jumbled set of particle motions; rather it converts a concatenation of separate external events into the actualization of some single integrated pattern of neural activity that is congruent to the perceived whole triangle.' How convincing is this proposal? It is hard to tell. I think Henry Stapp did a good job, but there are tight limitations to any such endeavour. Quantum mechanics is often strange indeed, but it also gives rise to our classical world around us. For the emergence of classicality jumps and measurement projections (the basic phenomena connected with those fundamental events of choice) are not needed. Therefore, I doubt whether the explanation of the evolution of our world really allows (or requires) that much free choice. On the other hand, most scientist will agree that empirical science was not possible without free will: we could not ask independent questions if this asking was part of a deterministic trajectory. The fact that the result of a quantum measurement is indeterminate (within given probabilities) does certainly not explain free will. How about the type of measurment? The experimentalist will have to assume that he can select the pertinent observable within some limits. But given a certain design the so-called pointer basis (producing stable measurement results) is no longer a matter of free choice. `The main theme of classical physics is that we live in a clocklike universe.' Today it is often assumed that the universe was a big (quantum-) computer or a cellular automaton. Many would be all too happy to leave that rather restrictive picture behind. But where to go? Stapp suggests giving consciousness a prominent role: `The most profound alteration of the fundamental principles was to bring consciousness of human beings into the basic structure of the physical theory.' How far we are able to go in this direction will depend on the amount of concrete research results becoming available to support this view.
This study offers a comprehensive analysis of David Bohm’s article “A New Theory of the Relationship of Mind and Matter” (Philosophical Psychology, 1990) — one of the most original attempts of the twentieth century to overcome Cartesian dualism on a physical foundation. The paper proceeds in sequence through the historical context of the mind–body problem, the physical basis of the causal interpretation of quantum mechanics, the central concept of active information, and the implicate order. Bohm’s framework is then compared with several major contemporary approaches: Orchestrated Objective Reduction (Hameroff & Penrose, 2014), the holographic brain model (Pribram, 1991), Integrated Information Theory (Tononi, 2004), and the Global Workspace model (Baars, 1988; Dehaene, 2014). A dedicated section examines the relationship between Bohm’s ideas and Rovelli’s Relational Quantum Mechanics (Rovelli, 1996), as well as Loop Quantum Gravity (Rovelli, 2004; Rovelli & Smolin, 1995), and Qbism, developed by Christopher Fuchs, Rüdiger Schack, and Carlton Caves (Fuchs, 2002; Fuchs et al., 2014). The concluding section evaluates the compatibility of Bohm’s ideas with quantum field theory and modern quantum information science. The principal conclusion is that Bohm’s 1990 article does not constitute a complete theory of consciousness, yet it anticipates with remarkable prescience the information-ontological tendencies of the twenty-first century and may best be understood as a philosophical-physical metatheory whose relevance has only grown since its publication.
Finally, the human mindHuman mind faces its own nature. By extending the information-theoretic paradigmParadigminformation-theoretic and participatory, the informational nature of consciousness is uncovered. This gives rise to the very first formal description of consciousness. In attempts to bridge the chasm between the objective and subjective, scientists and philosophers have opened up to the unspeakable. The nature of consciousness, as has been suggested by ancient Eastern and shamanic traditionsShamanic traditions, is necessarily universal and primal. The notion of spirituality is creeping back into science. Moving towards a more empirical analysis, the enigma of intelligence is discussed, arising in decentralized systems and even in inanimate structures. Then, the surprising therapeutic effects of psychedelicsPsychedelics is discovered, next to a myriad of transcendentalTranscendental planes of being, accessible to pure consciousness. Moreover, peer-reviewedPeer-review studies are appearing in the physics literature describing mind-matter interactions in double-slit quantum experiments—a long suspected connection by many pioneers of quantum mechanicsQuantum mechanics. As the cracks in the current edifice of science continually grow, the new information-theoreticInformation-theoretic paradigm is embraced. Beginning with an information ontology, a radicalParticipatory ontology participatory ontologyOntologyparticipatory is hinted at. In essence, the human mindHuman mind is witnessing the most radical paradigm shiftParadigm shift in its own history. The well-served and previously glorious materialistic and reductionistic scientific worldviewWorldviewmaterialistic and reductionistic scientific is yielding to a novel scientific conception of subjective consciousness and objective realityObjective reality—and their unexpected intimate kinship. Level of mathematical formality: low.
Research on the foundations of quantum mechanics ended the 20th century as a blossoming field including promises of applications related to the processing of information. The 2010 Wolf Prize in physics was awarded to John Clauser, Alain Aspect, and Anton Zeilinger, “for their fundamental conceptual and experimental contributions to the foundations of quantum physics, specifically an increasingly sophisticated series of tests of Bell's inequalities or extensions thereof using entangled quantum states.”1 Bell's inequalities and their related physical effect, namely quantum entanglement, encapsulate the historical changes undergone by research on the possibility of enlarging quantum mechanics through additional (thus hidden) variables. Indeed this subject once occupied a very marginal position, a philosophical issue beyond the pale of scientific research. In the 1950s, David Bohm's reinterpretation of quantum mechanics was considered either “analogous to the ‘angels’ which people introduced in the Middle Ages to explain things,” or an issue belonging “to the philosophy of science, rather than to the domain of physical science proper.”2 As late as the early 1970s some physicists still wondered whether such research was “real physics.”3 Considering foundational issues worthy of investigation is thus a kind of renaissance in the history of physics as they were present in the inception of quantum physics. This change in values requires a historical explanation and may shed light on the workings of recent science. I have presented elsewhere an account of the diverse factors which have played a role in this, calling their key actors the quantum dissidents.4 They were dissidents in the sense that they challenged the common wisdom at their time that foundational issues were already solved and not worth pursuing. As stated by John Bell and Michael Nauenberg in 1966, “the typical physicist feels that [foundational issues] have long been answered, and that he will fully understand just how if ever he can spare 20 minutes to think about it.”5 I present here a short summary of this story. Since its inception, quantum mechanics brought pressing conceptual issues requiring investigation. These issues had to include the possibility of completing quantum theory with additional variables in order to recover either realism or determinism. This possibility was exploited early on by Einstein through the EPR Gedankenexperiment and revisited by Bohm in the early 1950s. Bohm's causal interpretation was a sign that something was wrong in von Neumann's mathematical proof against additional variables, but it was not widely understood this way at the time. After 30 years without causing much ado, the proof was revised by John Bell. He showed that there was a factual conflict between predictions of quantum mechanics and the assumption of local realism. Since the early 1970s, a list of experiments—begun by Clauser, further developed by Aspect, and currently exploited by Zeilinger, among others—led to the confirmation of quantum mechanics predictions for the correlation in polarization of a pair of widely-separated photons. Empirical confirmation of entanglement as a physical property of quantum systems was thus found. However, even today, physicists struggle to understand entanglement as well as to harness it in subjects such as quantum cryptography and information. Another tough conceptual issue came to be known as the quantum measurement problem. Until World War II, two solutions had been available. For Niels Bohr, devices, if they are to be used as measurement devices, should be described using plain language enriched by concepts from classical physics. John von Neumann, on the other hand, identified two different evolutions of the quantum states, one represented by the Schrödinger equation and the other represented by the mathematical trick of an operator, a projection operator, to describe measurements. Bohr's solution was too philosophical and von Neumann's too mathematical. It thus comes as no surprise that from the 1950s physicists began to look for a physical solution to the problem. Hugh Everett's relative states were motivated by his abhorrence of two different evolutions for quantum states. Eugene Wigner considered a role for the mind during measurement and suggested formulating a nonlinear Schrödinger equation. In the 1960s, even committed Bohrians, such as Léon Rosenfeld, looked for a physical solution identifying irreversibility as the signature of measurements, and supporting the “thermodynamic amplification” approach formulated by Daneri, Loinger, and Prosperi.6 Currently, the measurement problem remains unresolved from the conceptual point of view, but we have learned a lot of physics on the way. The problem was related to the issue of the transition between the quantum and the classical description, and both issues were at the heart of what we call decoherence, the physical process through which quantum states lose their coherence, i.e., the process by which a pure state becomes a mixed one. Decoherence emerged along different and independent paths and involved the work of Heinz Dieter Zeh and Erich Joos, Anthony Leggett and Amir Caldeira, and Wojciech H. Zurek, among others. The connection between quantum and gravity is far from being solved even today. The quest for this connection has, however, stimulated research in the foundations of quantum mechanics. Bryce DeWitt's career was devoted to this search and through it he became a vocal advocate of an alternative interpretation of quantum mechanics, that is, Everett's relative states, dubbed by DeWitt as the many worlds interpretation. Philosophical issues have also motivated physicists to reconsider the foundations of quantum physics. Paramount among these issues has been the quest for determinism and attempts to accommodate realism into the quantum mathematical formalism. In hindsight, the mere listing of these issues, from which entanglement and decoherence emerged, would be enough to explain the change in the professional status of research on foundations, but this would be an anachronistic reading of events, as these issues were not always considered meaningful in physics. As important as they are considered now, these foundational issues could have lain dormant for a long time if not for the role played by the physicists who worked on them. An example of an inactive issue in the history of physics was the nature of inertia and the relationship between gravitational and inertial masses in Newton's times. Centuries later, it was revisited by Ernst Mach and later by Einstein. Likewise, research on quantum foundations flourished because a bunch of maverick physicists raised the stakes. They supported the view that there was good physics to be done concerning foundations of quantum mechanics. I think of Bohm, Everett, Bell, Wigner, Abner Shimony, Clauser, Bernard d’Espagnat, Aspect, Zeh, Franco Selleri, Leggett, and others. They took a professional and cultural stand against the prevailing wisdom of the times among physicists which was that foundational issues had already been solved by the founding fathers of the discipline. I call them quantum dissidents using a metaphor related to political dissidents in the 20th century. Eventually, all of them have gained recognition in their respective contexts as their causes became widely acknowledged. In the case of the quantum dissidents, they won insofar as foundations became a highly-valued research topic on the agenda of physics. The quantum dissidents also faced professional biases against their research. Bell, after publishing his seminal papers exhibiting flaws in von Neumann's proof and presenting the theorem now called after him, in 1966 received a letter from Rosenfeld stating: “I need not tell you that I regard your hunting hidden parameters as a waste of your talent.”7 Familiar with such bias, Bell's first question to the young Aspect, who looked for advice for his planned experiments, was “Do you have a permanent job?” Aspect did, and this made all the difference. For some of the dissidents prejudices were highly effective. Indeed they paid a high professional price for their dissidence. Two cases illustrate this. In the early 1970s, Clauser was a promising young physicist. He did his PhD at Columbia under Patrick Thaddeus working on microwave measurements of cosmic background radiation and then experimented with Bell's theorem. Together with Shimony, Horne, and Holt, he translated the theorem to real labs. He performed the first experiment and obtained a corroboration of quantum predictions, which was a landmark in physics considering the limited techniques available at the time. He further developed Bell's theorem, replicated experiments on it, and participated in the debates during the inception of quantum optics. Despite these achievements, Clauser never got a permanent position in American academia, as many department heads in a position to hire him doubted if Bell's theorem was real physics.8 About the same time, Zeh was working on nuclear physics and wrote a paper which may now be considered a forerunner of the decoherence approach. The paper suggested that the ensemble of a system plus a measurement device cannot be considered a closed system, thus approximations are required when using the Schrödinger equation to describe it. The paper was not accepted by Il Nuovo Cimento and Die Naturwissenschaften. At that juncture, Zeh's senior at Heidelberg, the Nobel Prize winner J. H. D. Jensen decided to ask Rosenfeld's advice on the paper. Rosenfeld's opinion was devastating. “I have all the reasons in the world to assume that such a concentrate of wildest nonsense is not being distributed around the world with your blessing, and I think to be of service to you by directing your attention to this misfortune.”9 Zeh did not read this letter at the time—only recently was it unearthed—but he realized that the professional ambiance at Heidelberg had changed towards him. Jensen frankly informed him that any further activities on this subject would end his academic career. The paper was rescued by Wigner and eventually published. However, Zeh considered that his career had been destroyed and therefore he could dedicate himself to the forbidden subject, foundations of quantum physics. The quantum dissidents did not defend their research in a vacuum. If the professional ambiance was against them, devaluing their research, other factors played a favorable role. In the 1950s, the Cold War brought unforeseen benefits for the dissidents. As part of the ideological battles of the time, Soviet philosophers and physicists criticized the usual interpretation of quantum mechanics, namely complementarity, for being subjectivist. Unlike other cultural criticisms, this one resonated with similar criticisms made in the West. As cogitated by the historian of physics Max Jammer, the decline in the influence of the complementarity interpretation may have been fomented and supported by social-cultural movements and political factors such as the growing interest in Marxist ideology in the West.10 This stands in spite of the fact that there were Marxist physicists on both sides of the controversy, some pro, others counter to Bohr's complementarity principle. In the late 1950s and early 1960s, the old guard of the founding fathers of quantum physics were retreating from the lines of philosophical battle. A new generation emerged which was more inclined to criticize the usual interpretation of quantum physics. In addition, some of the old guard clashed among themselves, Rosenfeld defending Bohr's views and Wigner sharing von Neumann's approach. Moreover, Wigner entered these disputes considering himself the defender of the orthodoxy and ended up considering himself heterodox. The monocracy of the Copenhagen school, to use a term from Jammer, broke from the inside. In the late 1960s and early 1970s, the cultural and social unrest surrounding the Vietnam War encouraged physicists to set their research agenda to heterodox subjects, such as foundations. In Italy the Italian Physical Society promoted foundations as a highly valid topic for physics research opening the doors of its traditional summer school, in Varenna, to the subject “foundations of quantum mechanics.” D'Espagnat chaired the school while Wigner gave the opening lecture presenting the diversity of solutions for the measurement problem. Bell's theorem and the first experiments attracted the attention of many, including Franco Selleri, who went on to devote much of his energy to the subject. The 1970 Varenna school was the Woodstock of all quantum dissidents (Fig. 2). According to the recollections of Anders Barany, then 28 years old, “what most impressed me was that many (maybe even most) of the highly qualified scientists lecturing at the school could not cooperate to try and help the students form a coherent picture of the different problems connected with the foundations of quantum physics.”11 On the other side of the Atlantic, similar trends were operating. Physics Today, the prestigious magazine of the American physics community, editorialized the debate on the interpretation of quantum physics, opening it with an article by DeWitt in which the diversity of possible interpretations was presented and Everett's views were supported. On the West coast, physicists who followed the bourgeoning hippie counterculture became fascinated by entanglement and by the apparent possibilities of superluminal communication. Ultimately this latter hope did not pan out, but in the process good physics was produced.12 In the early 1980s, particularly after Aspect's 1982 experiments on entanglement, foundations became good physics. From the mid 1980s onwards, technical advances in the manipulation of single quantum systems and even applied research facilitated new experiments in foundations such as the delayed-choice experiment advocated by John Wheeler.13 Later, the merging of foundations and computer science sealed the fate of research on foundations as it became one of the pillars for the blossoming field of quantum information. This fascinating story shows us the many and varied factors shaping the cultural enterprise we call physics. The story cannot be ended without a ruse of history. The quantum dissidents won the day insofar as foundations became good physics. However, they had higher expectations. John Bell, the iconic figure among the physicists who work on these issues, used to say that quantum mechanics is “rotten,” Hamlet's famous line, in an oblique reference to the father of the standard interpretation of this theory, the Danish physicist Niels Bohr. The ruse is that in trying to attack the foundations of quantum mechanics, they ended up consolidating and developing quantum mechanics itself and quantum theory entered the 21st century as vindicated as ever.
Probably no theory in the history of science has produced such a profound cultural and scientific revolution as is determined by quantum mechanics. Founded around 1920 by illustrious physicists, all Nobel Prize winners, it has completely subverted the conception of matter and the universe. The theory that all matter is made up of atoms has already been formulated by Greek philosophers, starting with Democritus. Quantum mechanics provided a description based on a new conception of the elementary structure of atoms, and formulated the fundamental laws to which atoms obey. Quantum theory has obtained the unanimous and shared consent of the scientific world, although some aspects have not been definitively confirmed. Strengthened by the universal acceptance of his theories, quantum mechanics claims its intellectual primacy over all the other sciences, and the scientific world seems to grant it, so much so as to archive all the knowledge and achievements gathered in its thousand-year history. From the epistemological point of view all established theories are worthy of consideration and must be shared and accepted until proven groundless. Dating, quantum mechanics still enjoys the consent of many scientists, but this does not mean that it can claim to be the repository of all truth, based on an unacceptable and anti-scientific syllogism for which: A) all organic and inorganic matter is formed by atoms and molecules; B) quantum mechanics has founded theories and formulas to which atoms and molecules obey; C) accordingly quantum mechanics can control all universal matter. But the presumption of its predominance goes further than willing to dominate living matter. In this article we are going to examine with a sharp criticism, the aberrant and anti-scientific claim of this discipline to dominate not only science but also universal matter. We propose a more moderate and considered vision of the observable natural phenomena and consider them events in continuous evolution, and to adapt our hypotheses and theories with an equal evolutionary approach.
A fully revised edition of this book has now been completed and published on Amazon, with the following major features, improvements, and additions: EQT Detection Theory: The Universe Has Never Been Silent: One Hundred Questions on Quantum Reality, the Cosmos, and Consciousness is a wide-ranging popular science book built around one hundred fundamental questions about nature. It begins with a simple but profound puzzle: is spacetime a pre-existing container, or does it emerge from deeper physical relations? From there, the book moves through quantum mechanics, the origin of forces, dark matter, dark energy, the arrow of time, life, consciousness, artificial intelligence, future technologies, and the limits of scientific explanation. At the center of the book is Energy Quantum Theory (EQT), a speculative but structured research program that attempts to reinterpret physical reality through the language of frequency, phase, resonance, and the energy quantum density field (\rho_f). Rather than presenting EQT as a completed theory, the book treats it as a lens: a way of asking old questions differently and connecting phenomena that are usually discussed separately. Gravity, electromagnetism, dark matter, dark energy, life, and consciousness are explored as different expressions of frequency structures operating across different scales. The book is written with a strong commitment to intellectual honesty. Each question follows a clear pattern: first, it explains the real phenomenon and the genuine puzzle; then it summarizes the current state of mainstream physics; then it introduces the possible EQT perspective; then it states the cost, boundary, and failure conditions of that perspective; finally, it reflects on why the question matters. This structure allows readers to distinguish established science from conjecture, mechanism from metaphor, and testable prediction from philosophical speculation. The book does not claim that EQT has solved physics. On the contrary, it repeatedly emphasizes what remains unfinished: the complete mathematical form of the master equation, the rigorous derivation of the Standard Model, quantitative predictions for cosmology, and experimental tests of the proposed frequency–consciousness relation. Its central value lies not in offering final answers, but in cultivating a disciplined way of thinking: classify the level of a claim, examine its cost, and ask what evidence would overturn it. In this sense, the book is both a journey through modern physics and a reflection on how science should proceed. It invites readers to see the universe not as a silent machine, but as a vast field of rhythms—some already detected through light, radio waves, gravitational waves, and neural oscillations, and many others still beyond our instruments. The part we can hear is science; the part we have not yet heard is the future.