Why is Natural Quantum Theory (NQT) So Hard to Accept?
The answer to this question has nothing to do with physics; it is entirely a human problem.
The Resistance to Scientific Revolution Is Never About Lack of Evidence
History has repeatedly proven that the reason a correct new theory faces resistance is never its lack of persuasiveness, but rather that it requires too many people to admit too many things. The resistance to paradigm shifts described by Thomas Kuhn in The Structure of Scientific Revolutions is almost exactly mirrored in the situation of NQT, often to an even more extreme degree.
The reason is clear: NQT does not challenge just one branch or model of physics; it challenges the entire epistemological foundation of quantum mechanics—the cornerstone upon which the physics community has built its entire edifice of knowledge over the past century.
Sources of Resistance
The Names in the Pantheon
The orthodox interpretation of quantum mechanics is inextricably bound to a series of great names: Bohr’s complementarity principle, Heisenberg’s uncertainty principle, Dirac’s formalization of quantum field theory, Pauli’s spin matrices, and the Yang-Mills gauge theory. These are not merely scientific achievements; they have become the creation narrative of modern physics. Every textbook retells this story in its first few chapters; every graduate course reinforces it.
The logical implication of NQT is explicit: These pioneers made fundamental errors in their core concepts. Not calculation errors, not insufficient precision, but conceptual errors—mistaking the Thomas precession factor for an intrinsic spin quantum number, treating the point-particle hypothesis as a harmless simplification, and equating mathematical abstraction with physical reality.
Asking the physics community to admit this is equivalent to asking a religious group to admit that its holy scriptures contain fundamental misinterpretations. This is not an intellectual issue; it is an issue of identity.
Of course, it is worth noting that not all pioneers would be "dethroned." Schrödinger insisted throughout his life on the physical reality of the wave function and was deeply uneasy with the abstraction of the Copenhagen interpretation. Einstein believed until the end of his days that quantum mechanics was incomplete and insisted on physical realism. Their intuitions were correct. In a sense, NQT is the completion of their unfinished work. Schrödinger would likely be delighted; Einstein would have a sudden realization: What felt wrong was indeed wrong, but the solution lay not in hidden variables, but in restoring the finite scale of particles.
The Predicament of Living Authorities
For contemporary leaders at the forefront of theoretical physics, the implications of NQT are even sharper.
These individuals have dedicated their lives to studying string theory, supersymmetry, quantum gravity, and topological quantum field theory. They have published thousands of papers, trained generations of students, and established vast academic networks. Many of them are not just researchers but active propagators of quantum mysticism—渲染 (highlighting) the "spooky action at a distance" of quantum entanglement in public lectures, depicting wave-particle duality as a deep mystery of nature in popular science books, and telling students in classrooms, "If you think you understand quantum mechanics, it means you don't understand it."
NQT tells them: Entanglement is simply long-range field correlation; wave-particle duality is an artifact of the point-particle hypothesis; the "quantum mystery" of spin stems from a historical misidentification. There is no mystery, only physics.
What does accepting this mean? It means admitting that the mysteries one has spent years promoting were merely manifestations of one's own misunderstanding. It means admitting that the textbooks one wrote are misleading in their core concepts. It means admitting that the "profound weirdness of quantum mechanics" taught in one's classes is merely the consequence of an unexamined premise.
This goes far beyond "embarrassment." It is an existential crisis of professional identity.
The Dilemma of Students
For young physicists currently learning or just completing their studies, the situation is equally difficult, though in a different direction.
They have spent years painstakingly mastering the orthodox formalism of quantum mechanics, passing rigorous exams, and finally acquiring the full technical arsenal of Dirac notation, path integrals, renormalization groups, and gauge field theory. This learning process itself constitutes a profound construction of intellectual identity—"I am someone who understands quantum mechanics" becomes the core of their professional self.
NQT tells them: The computational techniques you learned remain valid, but the physical imagery you were taught is wrong in key aspects. Spin is not what you thought; particles are not what you thought; entanglement is not what you thought.
Students face a cruel choice: follow their mentors and continue working within the orthodox framework (safe but potentially misguided), or take the new framework seriously (intellectually honest but professionally dangerous). In a system controlled by peer review, recommendation letters from advisors, and networks of academic reputation, the cost of the second choice is obvious.
The Problem with the Standard Model Particle Chart
The classic particle classification chart of the Standard Model—three generations of quarks, three generations of leptons, gauge bosons, and the Higgs particle—is treated as the "Periodic Table of Physics." It is printed on the covers of countless textbooks and hangs in the hallways of physics departments worldwide.
However, this chart conceals several conceptual confusions. It labels all fundamental particles as point particles with spin 1/2 or spin 1 , yet never explains the physical origin of these spin numbers. It assigns the exact same spin quantum number to particles whose masses differ by five orders of magnitude, as if this were self-evident. It lists the strong, weak, and electromagnetic forces as three distinct "fundamental interactions," obscuring the unified physical origin of gauge fields.
Pointing out these issues is equivalent to pointing out that the physics community's most prized summary of knowledge contains "naive errors." While this phrasing may sound harsh, from the perspective of NQT, it is not an exaggeration. Equating mathematical quantum numbers with physical angular momentum and treating the point-particle abstraction as physical reality are indeed primary-level conceptual errors, merely masked by a century of tradition and technical complexity.
The Deeper Cause: The Wall of Abstraction
All the specific resistances mentioned above—fame, authority, career interests—are rooted in a deeper structural reason: The orthodox interpretation of quantum mechanics has built a wall between abstraction and physical reality, and then declared that nothing exists on the other side.
The core dogma of the Copenhagen interpretation is: Do not ask about the physical mechanism behind observations. The wave function does not describe physical reality; it is merely a tool for calculating observation probabilities. Spin has no classical counterpart; do not try to imagine it. Particles do not possess definite properties before observation; do not ask what they "actually" are.
After a century of reinforcement, this dogma has been internalized into the thinking habits of physicists. It is not just a philosophical stance; it has become a cognitive prohibition. Asking questions about physical reality itself is deemed illegitimate, naive, and a pre-quantum mode of thinking.
NQT not only provides different answers; it does something more fundamental: It re-asks the forbidden questions.
What is the physical mechanism of spin?
What is the spatial structure of a particle?
What is the physical origin of gauge fields?
What is the physical carrier of entanglement?
In the orthodox framework, these questions not only have no answers; they are defined as questions that should not be asked. A theoretical framework that not only answers these questions but provides clear, physical, and comprehensible answers poses an existential threat to the orthodox framework. It does not merely raise objections within the orthodox framework; it fundamentally denies the orthodox framework's epistemological premises.
Historical Mirrors
This situation is not without precedent in the history of science.
Boltzmann’s statistical mechanics faced fierce opposition from contemporaries, not because its predictions were inaccurate, but because it required admitting the physical reality of atoms. To positivists like Mach, atoms were merely computational tools, and asking whether they "really exist" was a metaphysical overstep. Boltzmann’s isolation and eventual tragic end remain one of the most heartbreaking cases in the sociology of science.
Wegener’s hypothesis of continental drift was rejected by the geological community for decades, not due to lack of evidence, but because geophysicists of the time could not imagine a physical mechanism for moving continents. The evidence was there—matching coastlines, fossil distribution, stratigraphic correspondence—but the entire community chose to turn a blind eye until plate tectonics theory provided a mechanistic explanation.
However, there are significant differences. Boltzmann faced skepticism only about atomic reality; Wegener faced paradigm inertia within a single field. NQT faces the conceptual foundation of the most core theory in all of modern physics, involving stakeholders in every physics department globally. The scale is entirely different.
Outlook
History also teaches us that truth will eventually prevail—but the process may be long and circuitous.
Planck’s famous quote, though pessimistic, holds truth: "A new scientific truth does not triumph by convincing its opponents and making them see the light, but rather because its opponents eventually die, and a new generation grows up that is familiar with it." But this is not the only path.
NQT has already systematically revealed the conceptual difficulties long overlooked from standard quantum mechanics to the Standard Model and found physical interpretations consistent with numerous existing experiments. However, advances at the level of interpretation alone may still be insufficient to break the deep-seated wait-and-see attitude and skepticism within the academic community.
NQT can do far more than this. Within its framework, particles possess finite scales and real internal field structures. This means that the free parameters in the Standard Model—which must currently be input manually from experiments and cannot, in principle, be derived from first principles within the existing framework (such as particle masses, coupling constants, and mixing angles)—hold the promise of being derived from first principles through spectral calculations of field configurations and geometric constraints. This is a promise the Standard Model itself can never fulfill, yet it is precisely the direction where NQT should and most likely will achieve its first breakthroughs.
The starting point of this path is clear:
Start with the electron's charge and magnetic moment.
Use the self-consistency conditions of rotating field configurations to calculate the electron mass.
Derive the mass spectrum ratios of leptons.
Ultimately touch upon the geometric origin of the fine-structure constant.
Every step of success will elevate NQT from an interpretative framework to a physical theory with independent quantitative predictive power.
This work requires courage, and it requires new forces. I sincerely hope that more young physicists with an exploratory spirit will join this direction—not because it is easy, but because it touches the most fundamental question of physics: Where do the fundamental constants of nature truly come from?