7.2. The Great Tao Model Deepens the Understanding of Physical Fields
First, the Theory of Existence Field profoundly reveals the essence of physical fields. The theory posits that the existence of fundamental physical quantities produces a physical influence on the surrounding space; that is, fundamental physical quantities possess the inherent property of continuously and uniformly diffusing their physical information into the surrounding space. Thus, the essence of a physical field is the inherent property manifested by the existence of fundamental physical quantities, not an abstract mathematical concept independent of particles. Based on this understanding, we reveal the basic characteristics of the existence field: its propagation direction is from the elementary particle towards infinity, and its propagation speed is the inherent constant c of physical information diffusion. Elementary particles transmit physical information through their existence fields and produce corresponding physical responses (interactions) by receiving physical information emitted by other elementary particles. Crucially, only physical information emitted by the same type of fundamental physical quantity can be mutually received and produce physical effects. Therefore, only the same fundamental physical quantities can interact. This implies that there is no direct interaction between the gravitational field (mass field) and the electromagnetic field (charge field).
Second, the Theory of Existence Field clarifies the essence of the "constancy of the speed of light", correcting a core assumption deviation in relativity. Relativity defines the "constancy of the speed of light" as "constant relative to any inertial frame". This assumption violates the principle of velocity relativity—velocity is essentially a description of motion relative to a reference frame. If it is constant for all inertial frames, it breaks the spacetime logic of classical mechanics. According to the "motion law of massless objects" [
3] and the Theory of Existence Field, the root of light speed constancy is the "inherent invariance of physical information diffusion": the physical information propagated by the existence field belongs to massless objects, and its diffusion speed
c is an inherent motion property of massless objects, constant only relative to an absolutely stationary reference frame, not relative to any arbitrary inertial frame. This explanation conforms to the relative nature of velocity, allows for the logical derivation of propagation laws for electromagnetic waves, mass-momentum waves, and other massless field waves, avoids the conflict between relativity's assumption and classical physical logic, and simultaneously provides a traceable physical mechanism for the constancy of the speed of light, moving beyond a mere theoretical presupposition.
Third, the Theory of Existence Field redefines the physical essence of vacuum permittivity (ε0) and vacuum permeability (μ0), resolving a logical contradiction in traditional electromagnetism. Traditional theory treats these two physical quantities as inherent properties of the vacuum itself. However, the core characteristic of a vacuum is "emptiness, containing nothing". To ascribe physical properties (such as hindering or promoting field propagation) to it is essentially self-contradictory—a "vacuum" devoid of any material carrier cannot produce actual physical effects. Within the framework of the Theory of Existence Field, the essence of ε0 and μ0 is "the efficiency coefficients for converting the physical information of fundamental physical quantities into existence field intensity when propagating in a vacuum": vacuum permittivity corresponds to the efficiency coefficient of the charge field (ke=1/ε0), and vacuum permeability corresponds to the efficiency coefficient of the electro-momentum field (kP,e=μ0). Their values are related only to the inherent properties of the fundamental physical quantity (charge) and have nothing to do with the vacuum itself. This delineation avoids the logical contradiction of "vacuum possessing physical properties". Furthermore, through the unified relationship of existence field constants (kP=kQ/c²), it achieves theoretical self-consistency for the efficiency coefficients of electric and magnetic fields, transforming electromagnetic constants from isolated experimental data into quantities derived from the essence of fundamental physical quantities.
Concurrently, the Theory of Existence Field proposes and unifies a series of physical quantity concepts, correcting some erroneous understandings in existing theories. According to the Theory of Existence Field, the motion of fundamental physical quantities produces motion physical quantities (i.e., momentum), including translational momentum , rotational momentum r, and spin momentum s. People are familiar with mass-momentum (m=m) and orbital angular momentum((i.e., rotational mass-momentum r,m=mr), but they are almost entirely unaware of or hold misconceptions about electro-momentum (e=e), rotational electro-momentum ((r,e=er, i.e., orbital magnetic moment , spin mass-momentum (s,m, i.e., spin angular momentum s), and spin electro-momentum (s,e, i.e., spin magnetic moment s)).
In reality, electro-momentum eis the product of charge e and velocity e, and the electro-momentum field is the magnetic field. Therefore, mass motion produces mass-momentum, and its mass-momentum field is a physical field analogous to the magnetic field. The rotational momentum produced by the rotational motion of mass m is orbital angular momentum mr. Consequently, the rotational electro-momentum produced by the rotational motion of charge e, er, naturally is the orbital magnetic moment. This represents an important correction to the current concept of magnetic moment. The current magnetic moment concept originates from Ampère's molecular current hypothesis. For a planar current-carrying loop, its magnetic moment is defined as=i, where i is the current intensity and is the "directed area" vector of the loop. Area itself is a scalar; in the definition of magnetic moment, it is treated as a vector, artificially creating the concepts of "directed area" or "pseudovector", leading to confusion between scalar and vector concepts. Both current intensity i and area S are scalars, and forcibly adding a unit vector to determine the direction of the magnetic moment is also highly unnatural. This indicates that the current magnetic moment concept has logical flaws. Based on the current magnetic moment concept, the relationship obtained between the electron's orbital magnetic moment M and orbital angular momentum L is . However, experimental results show that a correction factor g (whose value is usually 2) needs to be added, i.e., . Based on the Theory of Existence Field's corrected orbital magnetic moment concept (rotational electro-momentum), we obtain the relationship , requiring no additional correction factor g.
In quantum mechanics, electron spin is considered an intrinsic property of the electron, not an actual rotational motion. Its spin state is not measured by rotation speed but is represented by the so-called spin quantum number ±1/2. This statement, which defies classical physics intuition and is difficult to comprehend, has been enshrined as a core concept of quantum mechanics. According to the Theory of Existence Field, electron spin is the rotational motion of the electron, producing spin momentum, i.e., spin angular momentum s and spin magnetic moment s. From this, we derive the relationship between spin angular momentum s and spin magnetic moment s as . Just like the relationship between the electron's orbital magnetic moment M and orbital angular momentum L, no correction factor g is required. This indicates that our corrected concepts of orbital magnetic moment and spin magnetic moment are correct, while the so-called correction factor g and spin quantum number ±1/2 in quantum mechanics are artificial results arising from the adoption of an erroneous magnetic moment concept based on "directed area".
Since the spin state of an elementary particle is related only to its fundamental physical quantity Q and spin angular velocity
we propose the concept of the elementary particle's spin quantity
=Q
. The charge spin quantity produces a charge spin quantity field, which is the magnetic field generated by charge spin motion (spin magnetic field). Mass spin motion will similarly produce a mass spin quantity field analogous to the spin magnetic field. The attractive force between two electrons with opposite spins is the interaction force between their charge spin fields, which we term the electron spin magnetic force. This physical mechanism of electron spin pairing provides a new theoretical basis for understanding electron pairing phenomena in atomic and molecular structures [
9].
The Theory of Existence Field also clarifies the essence of core concepts in classical electromagnetism. The expression in classical Maxwell's theory that "electric and magnetic fields mutually excite each other" lacks a complete logical causal chain. In reality, the electric field is the static source of the charge existence field, and the magnetic field is the distortion effect of the electric field in uniform motion (electro-momentum field). The core of electromagnetic wave propagation is the unidirectional causal chain: "charge acceleration → accelerated distortion of the electro-momentum field → vortical response of the electric field". The "displacement current" has no real charge carrier; its essence is the equivalent mathematical description of the "time rate of change of the charge existence field (electric field)". Its effect is equivalent to the magnetic field effect produced by conduction current and can be explained by the dynamic distortion effect of the existence field without additional hypotheses. Faraday's law of electromagnetic induction essentially describes how the time variation of the electro-momentum field (magnetic field) excites a vortical distortion of the charge existence field (electric field). The conduction current term in Ampère's circuital law corresponds to the collective superposition of the electron translational momentum field, and the displacement current term corresponds to the magnetic field vortical effect caused by changes in the electric field. Both describe the spatial distribution laws of the electro-momentum field.
Finally, the Theory of Existence Field clearly reveals the physical mechanism by which accelerated motion of elementary particles produces electromagnetic waves and mass-momentum waves. Since the existence field propagates massless physical information, its propagation conforms to the motion law of massless objects, i.e., moving in a straight line at constant speed
c relative to an absolutely stationary reference frame in a vacuum [
3]. This characteristic dictates that any motion of an elementary particle will cause distortion in the propagation morphology of its existence field. The uniform motion of elementary particles causes a stable, time-invariant distortion of the existence field. This distortion effect can be described by the momentum field (electro-momentum field and mass-momentum field). The propagation of the momentum field can be regarded as a type of existence field wave (charge field wave or mass field wave), but since it is a uniform distortion, it is not accompanied by net energy transfer. When elementary particles undergo accelerated motion under the action of a force, the degree of distortion of their existence field changes with acceleration over time, manifested as a non-zero time rate of change of the momentum field. This time-varying momentum field (i.e., momentum field wave, such as electro-momentum field wave—electromagnetic wave, and mass-momentum wave) propagates through space, thereby conveying the information of work done by the force, i.e., energy.
Electromagnetic waves and mass-momentum waves are unified as the "propagation of existence field changes from accelerated particles". Both satisfy the same unified wave equation form and propagate at speed c, achieving a unification of the mechanisms for electromagnetic radiation and gravitational radiation. Compared with classical theory, electromagnetic waves in the Theory of Existence Field are a propagation phenomenon resulting from the accelerated distortion of the electro-momentum field (magnetic field) caused by electron acceleration, with energy transferred through the accelerated distortion of the field, without the need for a material particle mediator. Only accelerating electrons can form electromagnetic waves; a uniformly distorted magnetic field from uniform motion has no time variation and does not transfer energy. The mass-momentum wave is the phenomenon of accelerated distortion of the mass-momentum field caused by accelerated mass motion, with the carrier being the mass existence field of subson. Its propagation speed c is an inherent property of massless objects, sharing the same origin as the speed of electromagnetic waves, requiring no additional assumption. The "gravitational wave" signals observed by LIGO are actually mass-momentum waves produced by the accelerated motion of subson.
Starting from the propagation laws of the existence field for elementary particles in stationary, uniform motion, and accelerated motion states, this theory not only explains the propagation speed of the existence field, the essence of the magnetic field, and the formation of electromagnetic waves but also predicts new physical fields such as the mass-momentum field and spin field, perfectly demonstrating the logical coherence and internal consistency of the theoretical framework.
7.3. The Establishment of the Great Tao Model Unravels Many Long-Perplexing Mysteries in Physics
First, the Great Tao Model reveals the essence of dark matter and black holes.
Extensive astronomical observations indicate that the universe contains a large amount of matter that does not emit light, does not absorb light, and does not interact with electromagnetic waves—dark matter [
10,
11,
12,
13,
14]. One of the most likely dark matter candidates speculated is the Weakly Interacting Massive Particle (WIMP) [
15]. In the Standard Model, there is no particle that simultaneously satisfies these properties, meaning the dark matter particle must be a new physics particle beyond the Standard Model. Due to the lack of corresponding theoretical guidance, the global physics community has searched for dark matter particles for over half a century without success. In the Great Tao Model, subston is an elementary particle with only mass and no charge. Since it has no charge, its accelerated motion does not produce electromagnetic radiation, and electromagnetic radiation cannot directly cause it to accelerate or be absorbed. Clearly, subson shares completely consistent physical characteristics with the descriptions of dark matter in cosmology. We believe that the so-called dark matter particle is subson. According to our theory, technological methods to detect dark matter particles (subston) can be designed. For example, using cosmic ray dark matter particles (subston) colliding with electron beams (or positron beams) produced by ground-based accelerators may generate antiprotons or protons. By detecting these secondary products, dark matter particles (subston) can be indirectly detected.
In the Great Tao Model, the mass of subson is approximately 1835 times that of the electron or positron, providing over 99.9% of the mass of ordinary matter composed of electrons, protons, and neutrons, and is the primary source of cosmic mass. In the process of cosmic formation and evolution, the products of the RC reaction between hydrogen molecules and anti-hydrogen molecules in primordial celestial bodies are mainly subson and neutrinos, with subson constituting the vast majority of the total cosmic mass. This theoretical picture is qualitatively consistent with the basic conclusion revealed by astronomical observations that "dark matter mass in the universe far exceeds that of ordinary (visible) matter".
Subston plays an important role in cosmic evolution, such as influencing the formation of large-scale cosmic structures. Subson is the source of the primary mass at the centers of superclusters, clusters, and galaxies. They exist in the form of dark matter within the core regions of stars or independently as celestial bodies called "dark stars". The so-called "black holes" observed in astronomy are actually "dark stars" condensed from subson. "Black holes" are predictions of Einstein's general relativity, referring to a "singularity" with infinite density and infinitesimal volume, where spacetime is extremely distorted near the singularity. The event horizon of a black hole is a key boundary marking the region from which light cannot escape. Clearly, the concept of a "black hole" violates many common-sense principles of physics and such celestial bodies may not actually exist. Although dark stars have immense gravity, since the gravitational field and electromagnetic field do not directly interact, the classical phenomenon of "light being unable to escape" fundamentally does not occur. Dark stars appear dark because the subson composing them carry no charge and therefore do not emit light themselves. However, if ordinary matter is attracted by the powerful gravity of a dark star, the charged particles within it will produce radiation as they accelerate and fall into the dark star. For example, astronomers have observed that the supermassive "black hole" at the center of the Milky Way, Sagittarius A*, produces intense X-ray flares when consuming surrounding matter [
16].
Second, the Great Tao Model unravels the mystery of neutrinos.
In the Standard Model, neutrinos are considered elementary particles, including three types: electron neutrino, muon (μ) neutrino, tau (τ) neutrino, and their antiparticles. These three neutrino types can convert into one another during propagation, a phenomenon called neutrino oscillations. The Standard Model initially considered neutrinos to be massless, later acknowledging they have mass, but the magnitude and nature of this mass remain a mystery. Clearly, neutrinos in the Standard Model do not meet the basic definition of elementary particles: their variety is excessive, violating the simplicity principle; the mutual transformation between different neutrino types violates the invariance requirement; and the initial assumption of masslessness contradicts the fundamental meaning of elementary particles as the minimal units constituting material entities. According to the Great Tao Model, neutrinos are not elementary particles but composite particles formed by the combination of electrons and positrons. Therefore, they are electrically neutral particles with a rest mass approximately equal to twice the electron mass, and they interact very weakly with other matter. They do not have independent antiparticles, or rather, their antiparticle is themselves (so-called "Majorana fermions").
In traditional physics, electrons and positrons can form a bound system called positronium [
17]. Positronium is divided into ortho-positronium (spin singlet, average lifetime ~125 picoseconds) and para-positronium (spin triplet, average lifetime ~142 nanoseconds) based on its spin state, ultimately annihilating to produce photons. Within the theoretical framework of this paper, we can propose a new understanding of the existence of positronium: it is not the endpoint of electron-positron combination. Instead, positronium (particularly its ground and low excited states) can be regarded as a quasi-stable intermediate or excited state in the process of forming a "neutrino system". This system possesses an energy spectrum based on its binding energy and orbital dynamics:
Excited/Loosely Bound States: Correspond to the various energy levels of positronium with shorter lifetimes as traditionally understood.
Ground Bound State: A stable electron-positron orbital system with tighter binding and potentially longer lifetime than the known positronium ground state.
Tightly Bound State (Neutrino): The electron and positron, through further orbital contraction and energy radiation, reach an extremely deep bound state. At this point, the system radius is extremely small, the binding energy is extremely high, and the overall performance is a stable neutral composite particle—the neutrino as we define it.
This picture naturally suggests that the so-called "neutrino oscillations" may not be conversions between three flavors of neutrinos but rather manifestations of transitions between different bound energy levels (such as the excited, ground bound, and tightly bound states mentioned above) of the same electron-positron composite system. Different "flavors" may correspond to different angular momentum, orbital, or spin configurations of the system. This offers a completely new possibility based on classical orbital dynamics for understanding neutrino physics.
Quantum field theory predicts that the meeting of matter and antimatter will result in the so-called "annihilation reaction", where matter completely disappears and converts entirely into energy. Simultaneously, particle-antiparticle pairs can also spontaneously arise from vacuum fluctuations. The observation of electron-positron meetings producing gamma rays in experiments has often been regarded as direct evidence of matter-antimatter annihilation reactions. Additionally, the observation that gamma rays can produce electron-positron pairs in a vacuum is also often considered direct evidence of vacuum fluctuations. For a long time, these experimental results and phenomena have been seen as strong validation of the predictions of the mass-energy equivalence equation and quantum field theory. In fact, according to our theory, the meeting of electrons and positrons results in an RC reaction, where the electron and positron accelerate under electrostatic attraction, producing electromagnetic radiation (gamma rays), and ultimately combine to form a neutrino. The universe contains vast numbers of neutrinos, which, when encountering high-energy gamma rays in a vacuum, can be excited and dissociate into electron-positron pairs. The view that matter-antimatter meetings result in matter annihilation converting to energy is primarily based on the relativistic mass-energy equation but does not provide any specific physical mechanism for
how matter and antimatter annihilate and convert to energy. Our previous research has posed a disruptive challenge to the theory of relativity [
3]. The generation and "annihilation" phenomenon of positive and negative electron pairs precisely confirms that neutrinos are composite particles composed of electrons and positrons, and also proves the fundamental shortcomings of the relativistic mass energy equation and quantum field theory in explaining such phenomena.
The neutrino was first proposed as a hypothetical particle by Pauli (W. Pauli) to address the apparent non-conservation of energy in β decay. He suggested that besides the electron, there was another electrically neutral particle (the neutrino) among the β decay products, which would explain the so-called non-conservation of energy in β decay derived from the mass-energy equation. This hypothesis was later developed by Fermi (E. Fermi) into the β decay theory [
18], which posited that β decay was driven by the so-called "weak interaction". In 1956, Reines and Cowan bombarded protons with the hypothesized anti-electron neutrino and observed the predicted positron:
p+ → n + e+ [
19]. This experiment was interpreted as direct verification of Pauli's neutrino hypothesis or Fermi's β decay theory, thereby confirming the existence of the weak interaction and indirectly corroborating the correctness of the relativistic mass-energy equation. However, the β decay theory has not actually been rigorously proven by experiments, as this experiment did not directly demonstrate that neutrinos are produced by β decay; it only proved that positrons can be produced by the bombardment of protons by possible neutrinos. According to our theory, when a neutrino bombards a proton, the electron within the neutrino combines with the proton to form a neutron, while the positron is released. Clearly, our theory perfectly explains the experimental results of Reines and Cowan, or rather, their experimental results fully confirm our theory. This also implies that the neutrino hypothesis proposed by Pauli and the β decay theory proposed by Fermi are incorrect, and the mass-energy equation and the existence of the weak interaction were not confirmed by this experiment. Nevertheless, despite the errors in Pauli's neutrino hypothesis and Fermi's β decay theory, the tiny neutral particle (neutrino) they predicted does exist—a fascinating coincidence, similar to the situation with Dirac's prediction of the positron.
Currently, it is believed that solar neutrinos primarily originate from the proton-proton chain reaction (PP chain) and the carbon-nitrogen-oxygen cycle [
20]. The core of the PP chain is the reaction of two protons to produce a deuteron, a positron, and a neutrino:
p+
p→
2H+
e++
νe. Its theoretical basis is the β⁺ decay theory (
p→
n+
e++
νe). According to our theory, protons are composed of subson and positrons; the collision of two protons absolutely cannot produce a neutron and a neutrino. Therefore, the traditional view that solar neutrinos originate from the PP chain and the carbon-nitrogen-oxygen cycle is invalid. According to our theory, a dynamic equilibrium exists within the Sun involving the isomerization reaction between neutrons and antineutrons, the dynamic equilibrium between bound neutrons/antineutrons and free neutrons/antineutrons, and the dynamic equilibrium between neutrons and electron-proton plasma. Free neutrons and antineutrons are unstable and can disintegrate into electrons, positrons, protons, and antiprotons. Matter and antimatter then combine in RC reactions, forming neutrinos and subson and releasing vast amounts of radiation energy. This is the true physical mechanism for solar neutrino production. Under the high temperature and pressure inside the Sun, protons and neutrons can directly combine to form atomic nuclei, which then combine with electrons to form elements—this is the physical mechanism of nuclear fusion for element formation. Clearly, the deuteron is formed by the direct combination of a proton and a neutron under the high temperature and pressure inside the Sun, not through the so-called PP chain.
Neutron stars are celestial bodies formed by the combination of neutrons and antineutrons. Due to powerful gravitational effects, their interiors exhibit extreme high temperature and high pressure conditions, producing free neutrons and antineutrons. Therefore, RC reactions continuously occur within neutron stars, steadily releasing neutrinos and powerful gamma rays. When neutron stars collide and merge, the immense impact energy and the increased mass lead to even higher internal pressure and temperature, causing more bound neutrons and antineutrons to transition to free states, thereby triggering more violent RC reactions, producing more neutrinos and subson, and releasing more energy. Consequently, we observe more neutrinos and stronger gamma rays. Similarly, our theory can also explain the massive amount of neutrinos emitted during supernova explosions.
Third, the Great Tao Model unravels the mysteries of nuclear forces, atomic nucleus structure, and nuclear radiation, fundamentally negating the necessity for the existence of strong and weak interactions.
For a long time, it has been difficult to understand why protons, despite mutual electrostatic repulsion, can bind tightly with neutrons to form stable atomic nuclei. To solve this puzzle, scientists proposed the concept of the nuclear force, suggesting a special interaction between protons and neutrons (collectively nucleons) with characteristics of short range, saturation, and charge independence [
21,
22,
23,
24]. To delve deeper into the nature of the nuclear force, scientists proposed meson theory and the quark model [
25,
26,
27], introducing concepts such as the strong interaction and weak interaction. However, both the phenomenological theory based on meson exchange and its deeper foundation, Quantum Chromodynamics (QCD), still face significant difficulties and challenges in quantitatively and uniformly explaining all properties of the nuclear force (such as short-range repulsive core, intermediate-range attraction, tensor force, etc.) and the saturation of atomic nuclei [
28,
29]. Even though QCD is considered the ultimate theory of the strong interaction, deriving the nuclear force from it non-perturbatively remains a fundamental challenge in nuclear physics [
30]. These unresolved issues indicate that there is still room for deepening and revolutionizing the understanding of the nature of nuclear forces.
We believe the core difficulty facing existing theories lies in the lack of correct understanding of which elementary particles constitute protons and neutrons. In the Great Tao Model, we have clarified that protons are composed of positrons and subson, and neutrons are composed of electrons, positrons, and subson. Based on the charge interaction (electrostatic force) and mass interaction (universal gravitation) between elementary particles, the interaction force between protons and neutrons can be directly calculated. Calculations show that when protons and neutrons are very close, the elementary particles within them can generate an enormously powerful net electrostatic attraction. When the distance exceeds the atomic nucleus scale, this force diminishes sharply. Thus, we completely do not need to introduce the concept of a "strong interaction" between nucleons; electromagnetic interaction alone explains the tight binding of protons and neutrons in atomic nuclei. Furthermore, based on the electrostatic interaction between protons and neutrons, the crystalline structure model of the atomic nucleus emerges naturally, systematically explaining all nuclear radiation phenomena (including α decay, β decay, and γ decay), entirely without the need to introduce the concept of a "weak interaction". Our elucidation of the neutrino mystery also proves that β decay theory is incorrect and the weak interaction does not exist. According to the Theory of Existence Field in the Great Tao Model, only the same fundamental physical quantities can interact. Since there are only two fundamental physical quantities, charge and mass, the basic interactions between elementary particles are essentially only two types: charge interaction and mass interaction. There is no such thing as strong or weak interactions.
Fourth, the Great Tao Model unravels the mysteries of Mercury's precession and "gravitational waves".
The issue of the precession of Mercury's perihelion has long been a significant subject in astronomy and gravitational theory. General relativity attributes Mercury's orbital precession to the curvature of spacetime caused by the Sun's mass. However, this geometric explanation deviates from conventional spacetime concepts and fails to provide an intuitive description of the physical mechanism. According to the Theory of Existence Field, the interaction between masses includes not only static universal gravitation but also dynamic mass-momentum forces (including translational, rotational, and spin mass-momentum forces). Since ordinary objects have relatively small masses, both the universal gravitation and mass-momentum forces between them are extremely weak and difficult to observe. The reason universal gravitation appears significant is primarily due to the substantial interaction between objects and the massive Earth. In fact, several gravitational anomalies have already been observed. For example, spacecraft flying past Earth exhibit slight deviations from theoretical predictions based solely on universal gravitation [
31]. This is actually a manifestation of the noticeable mass-momentum force between the high-speed spacecraft and the rapidly rotating, massive Earth. If only the universal gravitation between the spacecraft and Earth is considered while neglecting the mass-momentum force, a discrepancy arises between theoretical calculations and actual observations. Similarly, for a long time, people were only aware of the universal gravitation between the Sun and Mercury and remained unaware of the mass-momentum force arising from their motion. Consequently, they were unable to fully explain Mercury's precession. The Sun possesses an enormous mass, and its rotation generates a very strong rotational mass-momentum field (spin angular momentum field). Other planets in the solar system are farther from the Sun and have slower orbital speeds; thus, the mass-momentum force effect between them and the Sun is not significant. Mercury, being the closest planet to the Sun with the fastest orbital speed, experiences the most pronounced mass-momentum force effect with the Sun. This is the fundamental reason for Mercury's anomalous precession.
"Gravitational waves" are an important prediction of Einstein's general relativity, considered "ripples in spacetime" produced by accelerating masses. Although general relativity predicts the existence of gravitational waves, it does not deeply reveal their physical essence. According to the Theory of Existence Field, the waves produced by accelerating masses are mass-momentum waves. Their essence is the propagation phenomenon of accelerated distortion of the mass existence field in space, completely analogous in physical mechanism to electromagnetic waves produced by accelerating charges. Many violent astronomical phenomena, such as collisions or mergers of compact objects (neutron stars, dark stars) and supernova explosions, involve drastic acceleration of enormous masses and therefore can generate intense, detectable mass-momentum waves. LIGO's observation on September 14, 2015, of signals (GW150914) produced by the collision and merger of two black holes (dark stars in our theory), confirmed as gravitational wave signals [
32], actually constitutes the first direct evidence of the existence of mass-momentum waves. Although LIGO discovered evidence for mass-momentum waves, they lacked correct theoretical guidance, making their detection of such signals somewhat fortuitous. According to our theory, employing dynamic detectors optimized for the characteristics of the mass-momentum field in the future could potentially significantly enhance the efficiency and accuracy of detecting mass-momentum waves.
Fifth, the Great Tao Model unravels the mysteries of the origin of cosmic energy and the quantization of microscopic particles.
Current mainstream theories attribute the primary source of cosmic energy to the Big Bang, its energy possibly originating from the immense mass and energy of the singularity. Another viewpoint posits that the Big Bang might have been an extreme quantum fluctuation. However, attributing the origin of cosmic energy to a singularity does not truly solve the problem of energy origin but merely shifts it to the singularity, where all known physical laws completely break down, precluding any scientific explanation. Similarly, although vacuum fluctuations in quantum field theory offer a possible explanation, they also do not fully reveal the true origin of cosmic energy. Within the current scientific framework, we lack a complete and convincing answer to explain the origin of cosmic energy. However, our theory not only unravels the mystery of cosmic energy's origin but also that of microscopic particle quantization. According to our theory, the kinetic energy of moving objects and radiation energy in the universe fundamentally originate from the potential energy released during the combination process of Yin-Yang elementary particles. Precisely because charged particles can continuously release radiation energy during accelerated motion, their speed can decrease to the precise balance where the centripetal force equals the attraction between the Yin-Yang particles, thereby forming stable "Yin-Yang particle pair" systems (such as composite particles or atomic systems). We have revised the basic concept of the "energy quantum" based on the generation mechanism of electromagnetic waves [
7,
8]. Building upon this, we reveal the physical essence of electron transitions: an electron transition is a continuous dynamical process where the electron moves continuously from one stationary orbit to another, accelerating or decelerating, during which it radiates or absorbs electromagnetic waves (light quanta) of specific energies. This is not the instantaneous, discontinuous, indescribable "jump" depicted by quantum mechanics. The so-called stationary orbits are those where particles orbit in uniform circular motion (or elliptical motion with constant frequency). Between different stationary orbits, the radii, energies, and angular momenta exhibit certain integer multiple relationships—this is termed the quantization characteristic. This is a dynamical equilibrium feature common to all "Yin-Yang particle pair systems", not a mysterious "quantum phenomenon" inexplicable by classical physics.
Sixth, the Great Tao Model unravels the mysteries of the Big Bang, matter-antimatter asymmetry, and the accelerated expansion of the universe.
Astronomical evidence such as galaxy redshift and the cosmic microwave background radiation indicates our universe underwent a hot, dense state and that galaxies are currently receding at an accelerating rate [
2]. However, the standard Big Bang theory cannot explain the cause of the Big Bang, cannot explain why dark matter constitutes the vast majority of the total mass in the universe, cannot explain the mystery of matter-antimatter asymmetry, and cannot perfectly explain the physical mechanism of the universe's accelerated expansion. Our Great Tao Model considers elementary particles as the ultimate existence of the universe, thereby avoiding the concept of a universe originating from a "singularity" where physical laws fail. In the Great Tao Model, we assume a reasonable initial state of the universe: elementary particles are infinitely far apart and in an absolute stationary state; thus, density, temperature, and total energy all approach zero. Since the three elementary particles—electron, positron, and subston—cannot simultaneously achieve uniform distribution and force equilibrium in space, they ultimately must combine under gravitational and electrostatic interactions via spiral motion, eventually forming hydrogen and anti-hydrogen molecules. Over an immensely long time under gravity, these molecules gradually aggregate, forming numerous enormous primordial celestial bodies. RC reactions occur between the hydrogen and anti-hydrogen molecules within these primordial bodies, forming substons and neutrinos and releasing enormous energy. This is the true cause of the "Big Bang". Due to slight initial spatial distribution imbalance of the three elementary particles, after RC reactions ("Big Bangs") occur in the vast majority of regions, only small amounts of positive matter (hydrogen molecules) or antimatter (anti-hydrogen molecules) remain. Therefore, the vast majority of cosmic matter is dark matter composed of substons, and the remainder is either positive matter or antimatter—this is the origin of matter-antimatter asymmetry in the universe. Following the "Big Bang" of primordial celestial bodies, many Class I celestial bodies form. These Class I bodies then explode, forming many Class II bodies, which in turn explode to form many Class III bodies. This progressive explosion, hierarchical formation model naturally explains the formation and evolution of cosmic large-scale structures such as superclusters, galaxy clusters, and galaxies. Simultaneously, it explains why sub-level celestial bodies exhibit increased recession speeds relative to the center of their parent body, manifesting as cosmic accelerated expansion. Furthermore, since the universe contains multiple primordial celestial bodies, each evolving into multiple secondary universes, these secondary universes continuously expand. This causes the frontiers of adjacent universes to draw closer together, increasing the gravitational attraction between their frontier galaxies, which further accelerates the expansion of each secondary universe itself. Therefore, without introducing the concept of "dark energy", the phenomenon of cosmic accelerated expansion can be explained, thereby resolving the dark energy problem.