Method for exploring microscopic world and dark matter based on Larmor precession magnetic resonance model of e-p-n quantum entangled basic particle gyroscope

Abstract

The invention discloses a method for exploring a microscopic world and dark substances based on an e-p-n quantum entangled state fundamental particle gyroscope Larmor procession magnetic resonance model. The method comprises the following steps: step 1, constructing an e-p-n quantum entangled state fundamental particle model; step 2, constructing an N attention mechanism; and step 3, substituting substances of the microworld into the model, and carrying out calculation and exploration. By constructing a Larmor precession magnetic resonance model based on an e-p-n quantum entangled state basic particle gyroscope, the relation between a microscopic world and a macroscopic world is explored from the physical real process of microscopic particles; a simple and convenient exploration method is provided for essential composition, interaction mechanism and microscopic origin of gravitation of substances and existence of dark substances.

Description

Technical Field

[0001] The present invention relates to the intersection of quantum physics and astrophysics, and specifically to a method for exploring the microscopic world and dark matter based on the gyro-Larmor precession magnetic resonance model of elementary particles in an EPN quantum entangled state, providing an exploratory calculation and verification method for the composition of matter and the existence of dark matter. Background Art

[0002] Currently, the exploration of the origin of matter relies primarily on theories such as the Standard Model of particle physics and the Big Bang theory. While the Standard Model of particle physics has been successful in describing elementary particles and their interactions, it still has shortcomings when it comes to explaining the origins of certain properties of elementary particles and issues such as the asymmetry between matter and antimatter. For example, the question of why matter was slightly more abundant than antimatter in the early universe, leading to the matter-dominated universe we see today, remains unresolved. While the Big Bang theory provides a broad framework for the evolution of the universe, it still lacks a sufficiently detailed and comprehensive explanation for how the initial matter was created from energy, or how elementary particles formed and combined into complex material structures under extreme conditions.

[0003] In the development of physics, quantum mechanics and general relativity, two pillars of theory, have achieved tremendous success within their respective scopes. However, unifying the two, particularly in the study of quantum gravity, has faced numerous challenges. Quantum mechanics excels at explaining phenomena in the microscopic world, with concepts such as the uncertainty principle and superposition of quantum states profoundly transforming our understanding of the microscopic world. General relativity, on the other hand, precisely describes gravity and the structure of spacetime in the macroscopic world, including phenomena such as the curvature of spacetime caused by gravity. However, attempts to merge the two have encountered difficult-to-reconcile contradictions in their theoretical foundations and mathematical descriptions, leaving the nature of quantum gravity still elusive.

[0004] At the same time, space exploration is increasingly becoming a key area of global scientific research. The universe is home to a vast array of celestial bodies with diverse properties. This diversity and dynamic evolution make the search for universal laws governing celestial phenomena extremely complex. Celestial systems such as galaxies, stars, and black holes involve complex physical processes and interactions. Dark matter and dark energy, as crucial components of the universe, have yet to be fully understood, and their nature and mechanisms of action remain unclear. Existing theories struggle to fully describe the universe. This poses enormous challenges to our understanding of the universe as a whole and our search for laws governing it, prompting scientists to explore new theories and models from diverse perspectives to uncover the mysteries of the universe.

[0005] In this context, it is extremely important to find the physical mechanisms related to macroscopic celestial phenomena at the microscopic level, provide new ideas and methods for solving basic problems in physics and understanding the structure and evolution of the universe, especially to carry out in-depth research in the structure and interaction of matter, the nature of gravity, and dark matter. However, there is currently no relevant research and discovery. Summary of the Invention

[0006] Through meticulous research on elementary particles, this paper constructs a model based on the magnetic resonance of gyroscopic Larmor precession of elementary particles in an EPN quantum entangled state. This model aims to explore the connection between the microscopic and macroscopic worlds by considering the physical realities of microscopic particles, specifically seeking breakthroughs in the essential composition of matter, its interaction mechanisms, the microscopic origins of gravity, and the existence of dark matter. The specific technical solutions of this invention are as follows: A method for exploring the microscopic world and dark matter based on the gyro Larmor precession magnetic resonance model of EPN quantum entangled elementary particles comprises the following steps: Step 1, construct the epn quantum entangled state elementary particle model (electron proton quantum entangled state gyro Larmor precession magnetic resonance model), as follows: Step 1-1, redefine matter as being composed of epn, UeK p -K n , SeK p -K n 、TeK p -K n These four fundamental particles form an entity formed by the interconnected interactions of these particles at different energy levels through quantum entanglement. Their existence evolves from a high-energy condensed state in the early Big Bang to a later, stable, low-energy structure, forming a continuous system. At all scales, matter exhibits a rich variety of physical phenomena and structural forms through various mechanisms, including electromagnetic interactions between particles and quantum gravity. Essentially, matter is the manifestation of energy in various quantum states, and the interactions of quantum entanglement ensure the stability of its structure from the microscopic to the macroscopic, driving its dynamic evolution.

[0007] Step 1-2: Deducing that the composition of matter is dominated by displacement current and resonance curl in the interaction between charges. Step 1-2-1: Deducing that charge spin produces directional displacement current. The essence of matter is based on the quantum entanglement state formed by the Larmor precession magnetic resonance between charges (positive point charges and negative point charges), in which the gyroscopic spin of the positive point charge is an intrinsic characteristic with a specific directionality. In its spinning process, according to the definition of displacement current Point charges form a circular displacement current. A circular current distribution around the charge spin axis is constructed in space, and its dynamic changes cause the surrounding electric field to change, thereby stimulating the magnetic field B. p .

[0008] Because the generation of the magnetic field causes the electric charges to be affected by additional magnetic field forces during their movement, thereby changing their state of motion and prompting the interaction between different electric charges to develop in the direction of forming a stable material structure.

[0009] Step 1-2-2, deduce the formation of quantum entangled state dominated by resonant curl Let the charge at the positive point be q p , in spherical coordinates, the vector field B p The Larmor precession resonance curl formula is: This curl will generate a circumferential force, and the magnetic field B excited by the displacement current p The direction at the resonance point determines the direction of the magnetic field force on the negative point charge, thereby affecting the precession plane and precession direction of the negative point charge. When the positive and negative point charges precess in the Larmor spin, the negative charge precesses around the positive charge, generating a displacement current that excites the curl magnetic field, generating magnetic curl at the resonance point, and forming a resonant curl in one cycle. For the curl vector field, if any closed curve is taken, the expression for the resonant curl is: Where A is the curl vector, L is the closed curve of the curl normal, and n (m) is the normal direction of the resonance curl, ΔS is the area element enclosed by the resonance curl, l is one Larmor precession, and s is the Larmor precession area.

[0010] The magnetic field is passive and has rotation. The magnetic induction intensity B is represented by the rotation of the vector field, that is, but This expression shows that in the process of positive and negative charges forming a quantum entangled state, the magnetic resonance curl involved satisfies Ampere's circuit law.

[0011] At the resonance point, the curl of the magnetic field reaches its maximum value, and the magnetic field energy is highly concentrated at this point. The existence of the resonance curl makes the interaction between charges have certain frequency characteristics, coordinates the movement of charges, and thus drives the evolution of matter from simple charge combinations to more complex structures.

[0012] Assume that the positive point charge q p =1.6×10 -19 C, at some point Magnetic field B p (Assume B pr =10 -5T, B pθ =10 -6 T, ) to calculate the resonance rotation.

[0013] Negative point charge q n In magnetic field B p In the middle, the magnetic field force F n =q n v n ×B p , its motion trajectory approaches the Larmor motion trajectory, and the motion radius (m n is the negative point charge mass, assuming m n =9.11×10 -31 kg,v n =10 6 m / s, B p =1T, then ). Negative point charges generate magnetic field B when they move. n , under the action of resonance rotation, B n With B p The mutual influence causes the negative point charge to gradually undergo Larmor precession.

[0014] When the normals of the magnetic curl vectors of the positive and negative point charges coincide at the resonance point, and the normal of the negative point charge's magnetic field points in the direction of the positive point charge's magnetic field normal, the magnetic resonance condition is met, forming a stable quantum entangled state. At this point, the interaction between the charges reaches a state of equilibrium and coordination through the magnetic field, forming a relatively stable whole.

[0015] Calculate the magnetic field energy concentration at the resonance point, according to the magnetic field energy density formula At the resonance point, the magnetic field curl reaches its maximum value, and the magnetic field energy is highly concentrated, providing an energy convergence point for the formation of quantum entanglement. Assuming that the magnetic field B = 10T at the resonance point, the energy density

[0016] Quantum entanglement is a fixed connection before the formation of matter, which produces a field effect. The formation of matter originates from a singularity, where the radius of the precession of a point charge approaches infinity. According to the energy expression in Larmor precession magnetic resonance, (When n=1, the electron ground state energy E e1 =-2.18×10 -18 J, precession frequency v e1 =3.29×10 15 s -1 ), the charge energy approaches infinity. Multiple charges interact to form different elementary particles, which ultimately form matter and achieve circulation.

[0017] Step 1-2-3, redefine the four fundamental particles and deduce the properties of dark matter There are two types of quantum entangled elementary particles in the universe, namely epn and eK p -K n .

[0018] In the special extreme environment of a black hole, there exists a state of quantum entangled elementary particles with 100% N-up aggregation, whose level is defined as eK p -K n This aggregate state has the following basic properties: first, the lowest energy; second, the highest energy density; and third, the lowest entropy. p -K n The elementary particles are composed of the ultimate quark quantum entangled state elementary particles and the secondary quark quantum entangled state elementary particles. p -K n When the quantum entangled elementary particles reach their highest cohesive energy, they will trigger the Big Bang, ejecting the secondary quarks and causing them to be ejected into the universe in a circular orbit, eventually evolving into galaxies.

[0019] The elementary particles of epn quantum entangled state are composed of the outer shell of proton electron and secondary quark eK p -K n A unified entity composed of quantum entangled elementary particles.

[0020] Secondary quarks eK in stars p -K n Quantum entangled particles exhibit 100% N-pole-up and ultimate quark quantum entangled states in black holes, each capable of independently forming a quantum entangled state. Under the appropriate conditions, these two quark-level particles undergo the same gyroscopic Larmor precession magnetic resonance entanglement phenomenon as the EPN quantum entangled particles. Their mutual Larmor precession produces magnetic resonance, and their magnetic effects conform to Ampere's circuit law and its corresponding right-hand screw rule.

[0021] UeK p -K n Elementary particles are in a condensed state inside a black hole, with a compact combination of spin and charge (dV→0). The magnetic field generated by the displacement current affects the formation of matter on a galactic scale. p -K n The existence and characteristics of interactions are inferred through macroscopic phenomena such as the movement of galaxies. Although it is difficult to observe and measure directly, it does not mean that its interaction with ordinary matter cannot be observed and detected by any means within the existing theoretical framework.

[0022] Steps 1-3: Deducing Larmor precession and the change in the motion state of negative point charges Negative point charge q nIn magnetic field B p In the middle, the magnetic field force F n =q n v n ×B p (where v n is the initial velocity of the negative point charge). In this process, the trajectory of the negative point charge gradually approaches the Larmor motion trajectory, and its motion radius r n and the movement speed v n Satisfaction relationship (centripetal force is equal to magnetic field force), from this we can get And B p The characteristics at the resonance point affect v n and r n The negative point charge also stimulates the magnetic field B when it moves. n , under the action of the resonance rotation, B n With B p The mutual influence causes the negative point charge to gradually undergo Larmor precession.

[0023] Steps 1-4: Deducing the resonance point, normal coincidence, and quantum entanglement state When the normals of the two magnetic curl vectors coincide at the resonance point, and the magnetic field normal of the negative point charge points in the direction of the magnetic field normal of the positive point charge, the magnetic resonance condition is met, and the two form a stable quantum entangled state. At the resonance point, the magnetic field curl reaches its maximum value, and the magnetic field energy is highly concentrated, providing an energy convergence point for the formation of the quantum entangled state. At this point, the interaction between the charges reaches a state of equilibrium and coordination through the magnetic field, forming a relatively stable whole. This quantum entangled state is the fundamental unit of matter.

[0024] Reference Figure 1 The Larmor precession of positive point charge and negative point charge proceeds clockwise in the horizontal direction. The precession direction and the current direction conform to the right-hand rule of Ampere's circuit law, forming a magnetic resonance interaction between the negative point charge S pole and the negative point charge N pole.

[0025] Steps 1-5, inferring the harmonic frequency relationship of the resonance curl, coincides with the resonance curl angles of successive resonance points as the complexity of the material structure grows, and satisfies the harmonic frequency relationship. This harmonic frequency relationship implies that the movement and interaction of charges exhibit a certain periodicity and regularity, and as resonance points continue to appear, this periodicity and regularity repeat and overlap at different scales. This property enables matter to continuously adjust and optimize the interactions between charges through the harmonic frequency relationship of the resonance curl as it evolves from simple to complex structures, thereby gradually constructing more complex and ordered material structures, from combinations of elementary particles to atoms, molecules, and finally macroscopic matter.

[0026] Steps 1-6: Constructing the core framework for the formation of quantum entangled matter Quantum entangled state is a fixed connection before the formation of matter, which produces a specific field effect in the surrounding space and affects the state of other quantum entangled states.

[0027] The formation of matter originates from a singularity. The size of the point charge inside the singularity is infinitesimal (dV→0), its precession radius also approaches infinitesimal (dr→0), and the precession angle approaches 0. Figure 2 .

[0028] In Larmor precession magnetic resonance, the energy expressions of different energy levels are: (v is the precession frequency, v is the precession speed). As can be seen from the formula, the precession period will approach infinitesimal (dT→0) (T= l is the precession circumference, v is the precession velocity), which makes the energy of the charge approach infinity (dE→∞).

[0029] Multiple charges interact at the resonance point to form a larger charge structure, gradually forming UeK p -K n . A large number of UeK p -K n When the energy density reaches a critical threshold, the Big Bang is triggered, and part of the UeK p -K n Ejected and transformed into subquark quantum entangled state elementary particles (in SeK p -K n denoted), and the remaining UeK p -K n Still maintain the quantum entangled state magnetic resonance effect. p -K n The quantum entangled state is formed between them individually and combined to form a neutron. Subsequently, the neutron decays to produce protons and electrons, and then forms the epn quantum entangled state elementary particles. p -K n The 61 traditional elementary particles are intermediate "fragments" of quantum entangled states with different properties and charge combinations.

[0030] The interaction between elementary particles in the EPN quantum entangled state forms elements through different combinations. Different elements further combine to form molecules with different polarities, generating different polarization waves. The mutual attraction or repulsion between polarization waves gradually forms life.

[0031] Steps 1-7, combine Ampere's circuit law to deduce the formation process of the electron gyroscope spin Larmor precession. Figure 3According to Ampere's circuit law ∮ L B·dl=μ0I, the electron spin generates a circular current, which generates a magnetic field B around it e According to the Bissard equation, the general expression of the electron spin magnetic field intensity is given as When there is an external magnetic field B z (For example, the magnetic field generated by the proton is assumed to be uniform and its direction is known, and is set along the z-axis). In the initial state, the centripetal force F 向0 =kI s B z (k is the proportional constant, I s is the circular current generated by electron spin).

[0032] Due to the interaction between the electron spin magnetic moment and the magnetic field, the electron will be subjected to a torque τ = μ × B z , according to the angular momentum theorem (L is angular momentum), the torque will cause the angular momentum to change, thus generating angular acceleration

[0033] Without considering the motion around the nucleus, assuming that the electron initially has a certain spin angular velocity ω0 and spin radius r0, the electron has a tendency to move along the tangential direction due to inertia, which is manifested as centrifugal force. but In the initial state, F 离 =F 向 , in the opposite direction.

[0034] When the electrons and the magnetic field B z When the interaction occurs, the electron energy increases. Let the electron absorb energy ΔE. According to (I is the moment of inertia of the electron spin), the increase in energy leads to an increase in angular velocity, and the centrifugal force F 离 =m e ω 2 r0 increases, that is, F 离1 <F 离2 <... <F 离n .

[0035] As the centrifugal force increases, the centripetal force F 向 Basically remains unchanged, at this time the net force on the electron is not zero, F 合 =F 离0 -F 向 >0. Under the action of the combined force, the electron will produce an outward acceleration This acceleration will gradually reduce the electron's spin radius r0 and increase its spin speed, which is the result of increased energy.

[0036] When the electron spins once, the circular current generated by the electron spin forms a closed state. At this time, the centripetal force F 向 Increase to F 向1 , and the centrifugal force F after the spin radius increases 离n Reaching equilibrium, that is, F 向1 =F 离n At this point, the electrons form a stable gyroscopic spin motion.

[0037] Reference Figure 4 During electron rotation, due to a force imbalance, the electron orbits the nucleus (revolution) while simultaneously expanding outward due to centrifugal force, while also rotating (spinning). This is similar to a spinning top spinning on the ground, where the center of gravity and fulcrum do not completely coincide, causing the electron to wobble and adjust during rotation. The same is true for electrons within atoms. As energy is absorbed, centrifugal force increases, and the state of motion changes, the electron's rotation and revolution gradually form a specific coordinated motion pattern, known as Larmor precession.

[0038] After an electron undergoes an energy level transition after one rotation, the centripetal force equals the centrifugal force, and the electron's gyroscopic spin reaches a stable state. In this stable state, the electron precesses around the magnetic field at a constant frequency, forming a conical trajectory with the precession axis aligned with the magnetic field. During this precession, the electron maintains its spin while slowly rotating around the magnetic field.

[0039] When the electron begins to change its trajectory due to the centripetal force generated by Ampere's circuit law and tries to make circular motion, according to Newton's first law, its inertial motion will lead to the generation of a centrifugal force, the direction of which is away from the center of the circle. According to Newton's second law, F=ma (in circular motion, acceleration ), centrifugal force

[0040] In the early stage of electron movement, the centripetal force generated by Ampere's circuit law and the centrifugal force caused by Newton's inertial motion are not balanced. At this time, the net force on the electron is not zero F 合 =F 离 -F 向 ≠0, because the centripetal force tries to make the electrons move in a circular motion, while the centrifugal force tries to make the electrons keep moving in a straight line or away from the center of the circle, under the action of these two forces, the trajectory of the electrons will gradually distort and tend to rotate around a fixed axis.

[0041] The energy change of electrons is quantized. According to the energy formula E=nhv, in the process of tending to the gyroscope spin, electrons will jump from one energy state to another energy state to adjust their energy to adapt to the balance of forces. When the energy of electrons is adjusted to make the centrifugal force and the centripetal force reach a balance, that is, The motion state of the electron tends to be stable, and the electron enters the Larmor precession state.

[0042] In the Larmor precession state, electrons precess around the magnetic field at a certain frequency. Larmor precession frequency The electron's trajectory forms a cone, with its precession axis aligned with the direction of the magnetic field. During precession, the electron maintains its own gyroscopic spin while slowly rotating around the magnetic field.

[0043] Steps 1-8: Deducing the laws of the universe based on the three major theories based on the EPN model When matter is in a quantum entangled state, for example in the epn quantum entangled state model, the circular closed displacement current excites the magnetic field, magnetic resonance occurs between particles, and the constituent atoms as a whole exhibit N uniform magnetic field characteristics. According to the Bissau equation Calculate the magnetic field strength B generated by electron motion and its energy density Assume that in a small volume element dV, the magnetic field energy change generated by the quantum entangled state formed by the electron-proton system is dE B , the energy density changes This energy density change makes the energy-momentum tensor T μv changes, according to Einstein's field equations This in turn causes the spacetime curvature G μv The change causes space-time to bend, reflecting the influence of microscopic processes in the quantum entangled state on the curvature of macroscopic space-time.

[0044] Reference Figure 5 , the existence of the planet leads to the curvature of space-time, and the planet itself moves along the geodesic of this curved space-time. This is because Einstein's field equations show that the energy-momentum tensor T μv (determined by the mass and energy distribution of the planet) produces the space-time curvature G μv The planet is subject to an equivalent gravitational force F due to the geometric effect of space-time curvature. 引 , the equivalent gravity provides the centripetal force that makes the planet move in a similar circular motion. Here, there is a balance between the centrifugal force and the equivalent gravity, and the movement of the planet on the geodesic in curved spacetime has inertial motion in the tangential direction at every point.

[0045] In the figure on the right, in the EPN quantum entangled state model, the displacement current generated by the electron movement According to Maxwell's equations Displacement current affects the generation and change of magnetic field. According to Ampere's circuit law ∮ L B·dl=μ0I, the planet moves around the center to generate equivalent displacement current, and the central magnetic field B exerts a force on the planet, which provides the centripetal force F for the planet to move in a circular motion. 圆周, and at every point of circular motion, there is a balance between centrifugal force and circular force, that is, F 离 =F 圆周 , while also experiencing inertial motion tangential to the trajectory. Similarly, in galaxies, the magnetic field generated by a black hole exerts a circular force on matter within the galaxy, causing it to move in a circular motion around the black hole. The direction and magnitude of this magnetic force are correlated with the state of motion of the matter, and through the coordination of quantum entanglement, the matter can maintain its circular motion.

[0046] In both motion modes, the planets experience inertial motion in the tangential direction of their trajectory. According to Newton's first law, when the external force is zero, the object maintains uniform linear motion (i.e., inertial motion).

[0047] When matter is not in a quantum entangled state, according to Newton's first law, if the matter is not affected by external forces, it will remain stationary or in a state of uniform linear motion. The interactions between particles within the matter are relatively independent, and lack the driving force of the overall coordinated motion brought about by the quantum entangled state, so no specific circular motion will be formed on a macroscopic scale. In the electron-proton Larmor precession model, the energy expression E=hv (v is the precession frequency, h is Planck's constant) is applicable to the electron and proton system. However, when considering the SeK in the solar system or even the galaxy p -K n and UeK p -K n The situation is different when it comes to Larmor precession magnetic resonance.

[0048] It is known that in the electron-proton system, the electron precession frequency has a certain value at different energy levels (for example, when n=1, v e1 =3.29×10 15 s -1 ), calculate the energy of the corresponding energy level (such as the electron ground state energy E e1 =-2.18×10 -18 J).

[0049] For the quark system, due to its precession frequency v q This is much larger than the electron-proton system. If we still use the energy expression E = hv, the calculated energy will be too large and inconsistent with the energy scale of the quark system. Therefore, we introduce a new constant H, and the energy expression becomes E = Hv.

[0050] Step 2: Build N attention mechanism Based on the EPN quantum entangled state elementary particle model, electrons in atoms undergo Larmor precession around protons. During this process, the spin magnetic fields of electrons and protons are relative at the resonance point, resulting in resonant entanglement. That is, in standard EPN elementary particles, electrons and protons are one-to-one corresponding.

[0051] Based on the N attention mechanism of the epn quantum entangled state elementary particle model, the magnetic field generated by the electron and proton spins and the displacement current generated by the electron Larmor precession follow the right-hand rule. For epn quantum entangled state elementary particles that are not single protons, if the N magnetic field direction is taken as upward, there is a 100% N upward attention mechanism.

[0052] Reference Figure 6 (1) For any two proton-electron pairs (ep), to maintain system equilibrium in an atom, the spin magnetic moments of these particles must always be connected with their N and N poles. This means that if one electron has its N pole pointing outward, the symmetrical electron will always have its N pole pointing inward.

[0053] (2) Electrons are fermions. According to the Fermi-Dirac statistical principle and the Pauli exclusion principle, fermions cannot be in the same energy state. For electrons, they cannot be in the same energy level in the same atom. Even if they are in the same energy layer, they have different energy levels such as s, p, and d.

[0054] (3) For electrons with the N pole pointing outward, they tend to move outward, and their movement trend takes precedence over that of electrons with the N pole pointing inward, that is, their kinetic energy is greater than that of the latter.

[0055] Based on the above inference, according to the kinetic energy theorem: That is, v1>v2. n1≠n2, and E1>E2, according to the energy level theorem: E1=n1hv>E2=n2hv That is, n1>n2.

[0056] Importantly, E1-E2>0 means there's always kinetic energy and momentum in the N direction. In the absence of external forces, the system will always move in that direction. When all atoms align in the N direction, the N-attention mechanism is 100%, generating a strong magnetic field. When the Pauli pairs' N directions are opposite, the N-attention mechanism is 50%, resulting in a state of non-magnetism or magnetic neutrality.

[0057] Due to the directional spin of the positive point charge gyroscope, the magnetic field it evokes satisfies the N-consistent attention mechanism. The entangled displacement current exhibits a circular nature, derived from Ampere's circuit law in the N-attention mechanism and satisfying the right-hand spiral rule. The magnetic field is strong in some areas and relatively weak in others. This uneven distribution affects the motion of charges in the magnetic field to varying degrees, in turn influencing the motion of negative point charges, prompting them to interact specifically with positive point charges and guiding the orderly development of material structures.

[0058] The N attention mechanism influences the movement of charges through the magnetic field, prompting the charges to combine in specific relative positions and orientations, so that the total energy of the material system tends to the lowest state.

[0059] Step 3, redefine the four basic particles and deduce the formation and properties of their quantum entangled states. In the universe, there are four basic particles (epn, UeK p -K n , SeK p -K n 、TeK p -K n ) represent the existence of matter in different energy levels and energy states, and the displacement current determines the form of matter in the behavior of these elementary particles. In the EPN quantum entangled state, the Larmor precession of electrons has a fixed precession frequency. (where E e1 The precession of electrons in the proton magnetic field generates a displacement current that forms a magnetic field that affects the state of surrounding matter.

[0060] When other particles have the same precession frequency as electrons, a quantum entangled state is formed between them. The formation of this entangled state is based on the interaction of magnetic fields between particles, and the displacement current is the source of this magnetic field. For example, in a DNA molecule, the atoms in the molecule, which are composed of elementary particles in the quantum entangled state of EPN, have charged particles such as electrons and protons that rotate around their axes at equal angular velocities ω under the influence of the resonant curl magnetic field. According to the law of conservation of angular momentum L = Iω (where L is the angular momentum and I is the moment of inertia), when the resonant curl is equal, the motion states of the atoms in the molecule are interconnected through the magnetic field of the displacement current, forming a macroscopic quantum entangled state. This reflects the entanglement generated by the displacement current, that is, the magnetic field generated by the displacement current affects the surrounding matter, causing particles with the same frequency characteristics to form an entangled state, thereby constructing a complex material structure and interaction system.

[0061] Quantum entanglement is a fixed connection that exists before matter forms. It generates a specific field effect in the surrounding space, influencing other associated quantum entangled states. This fixed connection does not rely on a continuous supply of external energy and, once formed, is relatively stable.

[0062] Take two EPN quantum entangled elementary particles as an example. When they approach each other, due to the motion state of the particles inside them and the magnetic field they generate, they will interact and produce a magnetic resonance state. This resonance state is essentially a manifestation of the quantum entangled state. In the formation of a DNA chain, when two free nucleotide molecules approach each other, because the EPN elementary particles inside them are in a quantum entangled state, when the normals of the magnetic rotation vectors coincide at the resonance point and the magnetic fields are opposite, a magnetic resonance interaction will occur. According to the law of electromagnetic induction, (where E is the induced electromotive force, This interaction causes changes in the surrounding magnetic field, which in turn affects the state of other free nucleotide molecules, attracting more free nucleotides to pair up and form longer chains. This suggests that the quantum entanglement generated by the displacement current influences the structure and formation of matter at the molecular level through its field effects.

[0063] Step 4: Deducing the Larmor precession resonance curl of the displacement current. The resonance curl can only be generated at the Larmor precession resonance point. In the spherical coordinate system, the vector field A and the Larmor precession point are represented by Represented by, where r is the distance from the precession point to the origin of the coordinate system, θ is the angle between the line segment formed by the Larmor precession point and the origin of the coordinate system and the Oz axis, is the angle between the half plane passing through the precession point and bounded by the Oz axis and the plane xOz, the vector function The Larmor precession resonance curl formula is as follows: Taking the electron-proton system as an example, the resonance curl formed by the displacement current generated by the Larmor precession of the electron makes the magnetic field no longer uniformly distributed, but presents a special bending state at the resonance point. This magnetic field bending phenomenon is the result of the interaction between the displacement current and the particle spin, charge, etc. According to Maxwell's equations (where J is the conduction current density), the displacement current is given by Part of it participates in the change of the curl of the magnetic field, thus causing the magnetic field to bend.

[0064] Inside an atom, this magnetic field bending affects the energy level distribution and transition behavior of electrons. According to the Schrödinger equation (in is the reduced Planck constant, ψ is the wave function, and H is the Hamiltonian operator). The bending of the magnetic field will change the potential energy field of the electron, thereby affecting the electron's wave function and energy level. p -K n The motion trajectory of the galaxy is affected by the curvature of the magnetic field, and the change in its motion state will affect the distribution and evolution of matter in the galaxy. This shows that the resonant curl generated by the displacement current causes the curvature of the magnetic field, which determines the different forms of matter.

[0065] Step 5: Deducing the properties of the quantum gravitational field generated by the displacement current and calculating the magnitude of the quantum gravity. During the Larmor precession of elementary particles in the epn quantum entangled state, the circular closed displacement current excites the magnetic field, causing magnetic resonance between particles, causing the constituent atoms to exhibit a 100% N-consistent magnetic field characteristic. The interaction between the entangled state of atoms also presents a 100% N-consistent magnetic field, reflecting the additivity of the magnetic field. This 100% N-consistent characteristic model is the N-attention mechanism, which is generated by the displacement current.

[0066] On a galactic scale, SeK in galaxies p -K n In the 100% N attention mechanism magnetic field, Larmor precession magnetic resonance generates quantum gravity through quantum processes such as circular displacement current generation and resonant curl formation. p -K n In UeK p -K n When Larmor precession produces resonant curl in a magnetic field, a displacement current is generated. According to Ampere's circuit law, the displacement current interacts with the magnetic field to produce quantum gravity F. 量子引力 =qvB, (derived from Ampere's circuit law) Substituting into And because I=qnv(n is SeK per unit volume p -K n ), we can get

[0067] Under normal circumstances, although elementary particles have north and south poles, the magnetic field may not be significantly offset when the 100% N attention mechanism is not reached. Only when the 100% N attention mechanism is met, the magnetic field is the largest and the gravitational force is the largest. In the solar system, the sun and the interior of the planets are p -K n The interaction between displacement currents produces quantum gravity, which determines the movement of planets around the sun, indicating that the gravitational field properties generated by displacement currents affect the structure and motion laws of celestial systems at a macroscopic scale.

[0068] The four basic particles represent different energy levels and energy states, and the displacement current determines the material form. In the EPN quantum entangled state, the electron Larmor precession frequency The displacement current magnetic field it generates affects the surrounding matter. When other particles precess at the same frequency, they form a quantum entangled state. For example, in a DNA molecule, the atoms within the molecule are interconnected by the displacement current magnetic field, forming a macroscopic quantum entangled state.

[0069] The Larmor precession resonance curl formula shows that the displacement current bends the magnetic field. Taking the electron-proton system as an example, according to Maxwell's equations The displacement current participates in the change of magnetic field curl, causing the magnetic field to bend, affecting the distribution of electron energy levels inside the atom (according to the Schrödinger equation ) and SeK in the galaxy p -K n Movement trajectory.

[0070] In the Larmor precession of elementary particles in the EPN quantum entangled state, the circular closed displacement current excites the magnetic field to produce quantum gravity F 量子引力 =qvB, (derived from Ampere's circuit law) Substituting into And because I=qnv(n is SeK per unit volume p -K n ), we can get In the solar system, assuming that SeK p -K n Number n = 1 × 10 20 m -3 , the distance between the sun and a point on the planet is r = 1×10 10 m, particle velocity v = 1 × 10 5 m / s, electron charge q = -1.6×10 -19 C, then the quantum gravity F can be calculated 量子引力 =5.12×10 -22 N.

[0071] Step 6: Deducing the circular force on the galaxy and the linear force on the electron There are a lot of UeK inside the black hole p -K n , has spin characteristics, generates circular displacement current, and stimulates a strong magnetic field covering the entire galaxy. SeK in the galaxy p -K n It also has spin properties. When UeK p -K n The magnetic field generated is related to SeK p -K n When interacting, SeK p -K n Larmor precession will occur under the influence of this magnetic field. When the precession frequency and other parameters of the two meet the magnetic resonance conditions, a quantum entangled state is formed.

[0072] In the black hole-galaxy system, UeK p -K n The magnetic field generated satisfies Ampere's circuit law, and the magnetic field affects SeK in the galaxy. p -K n The applied force, due to SeKp -K n It is the basic component of galactic matter, and this force will be transmitted to the entire galactic matter. p -K n The direction of the force is circular, forming circles of magnetic field force.

[0073] In the EPN quantum entangled state system, the proton exerts a force due to its quantum entanglement with the electron. This force is in a linear direction, which appears to pull the electron directly. An electron is analogous to a surface charge. Under the action of a linear force, all point charges on the surface charge are subjected to uniform force. According to Newton's second law of circular motion, F = mω 2 r, when each point charge moves in a circle around the proton, the angular velocity is the same. The electron as a whole exhibits a stable rotational motion, refer to Figure 7 as well as Figure 8 .

[0074] Since the quantum entangled state is formed almost instantaneously (△t→0), although the magnetic field p -K n When the magnetic field changes, the SeK in the galaxy p -K n It instantly senses this change and adjusts its motion. This process is similar to the instantaneous response of a proton to the linear force of an electron in an EPN system. Therefore, the circular force is equivalent to a linear force under the influence of entanglement. Similarly, the surface charge of an electron rotates at the same angular velocity, and the stars in a galaxy rotate around the black hole at the same angular velocity under the influence of quantum entanglement.

[0075] In this system, since the angular velocity of each star is the same, the overall rotation of the galaxy generates displacement current, and the resonance curl generated is the same; and the galaxy is composed of SeK with the same charge. p -K n Composition, same charge in UeK p -K n The force direction and magnitude under the uniform magnetic field are the same, and the displacement current generated by Larmor precession is the same, which creates the SeK p -K n The resonant curl is the same, which ultimately causes all subquarks to maintain the same angular velocity.

[0076] Step 7: Substitute the microscopic world's matter into the above model for calculation and exploration Step 7-1: Substitute the black hole-galaxy system into the N-attention mechanism to calculate the quantum gravitational field During the Larmor precession of quantum entangled elementary particles in an EPN state, a circular, closed displacement current is generated. This current excites a magnetic field, which in turn causes magnetic resonance between the particles, causing the atoms composed of these elementary particles to exhibit a 100% N-upward magnetic field. When entangled atoms interact with each other, they inevitably exhibit a 100% N-upward magnetic field, demonstrating the additivity of magnetic fields. This model exhibiting a 100% N-upward magnetic field is known as the N-attention mechanism, which can be understood as being generated by the displacement current.

[0077] Similarly, eK p -K n The magnetic field generated by the interaction of quantum entangled elementary particles exhibits a 100% N-upward magnetic field. Within the universe, the quantum entangled interactions between the ultimate quark-entangled elementary particles in black holes and the secondary quark-entangled elementary particles in galaxies create a powerful 100% N-upward magnetic field. Based on the N-attention mechanism, black holes inevitably possess a powerful magnetic field.

[0078] On the galactic scale, the secondary quarks in the galaxy undergo Larmor precession magnetic resonance in the 100% N-attention mechanism magnetic field, generating quantum gravity through quantum processes such as circular displacement current generation and resonant curl formation. The range, intensity distribution and influence of the N-attention mechanism magnetic field on the motion of celestial bodies determine the characteristics of quantum gravity. Its spatial distribution and effect on matter conform to the basic characteristics of the gravitational field. It manifests gravitational effects on a macroscopic scale by affecting the motion of microscopic particles, so the N-attention mechanism is actually a quantum gravitational field.

[0079] Step 7-2, calculate the magnetic resonance curl and magnetic field in the black hole In a black hole, the magnetic resonance curl produced by the Lamor precession of the final quark and the secondary quark satisfies the Ampere loop law, that is, Among them I K It is the displacement current generated by their interaction. Since the magnetic field satisfies Ampere's circuit law, there must be a circular closed displacement current.

[0080] The strong magnetic field generated by the ultimate quark covers the entire galaxy. According to the Pissa equation, the magnetic field strength generated by the Lamor precession magnetic resonance between the ultimate quark and the secondary quark can be obtained, that is, The total magnetic field can be obtained from but The above formula shows that the superposition of magnetic fields makes the quantum entanglement state formed by black holes and galaxies produce a total magnetic field of 100% N upward, which is consistent with the N attention mechanism. Figure 9 .

[0081] To achieve this closed-loop displacement current, Ampere's law requires the coordinated movement of the galaxies surrounding the black hole. Only when all galaxies around the black hole rotate in the same direction and at the same displacement angle can a macroscopic circular current form. Therefore, it can be said that the displacement current generated by Ampere's law forces the galaxies to rotate around the black hole.

[0082] Step 7-3: Deducing the overall motion of the galaxy under the influence of the black hole's magnetic field The entire galaxy system is under the unified action of the ultimate quark magnetic field. According to the Ampere force formula In the same magnetic field Under this condition, the direction of the magnetic field's force on the secondary quarks is determined by both the direction of the current and the direction of the magnetic field (in accordance with the right-hand screw rule).

[0083] In the EPN quantum entangled state elementary particle model, the electron rotates around the nucleus at high speed and can be regarded as a circular current. Under the action of the proton magnetic field B, the electron magnetic moment P m Subject to moment M B =P m ×B's function, see Figure 10 , according to the law of angular momentum: dL=M B dt, the electron angular momentum L rotates around the direction of the proton magnetic field B, that is, Larmor precession occurs.

[0084] Electron spin is an intrinsic characteristic, and the angular momentum generated by its spin is: S 2 =h 2 s(s+1) (h is Planck's constant, s is the spin quantum number), spin magnetic moment: (m e is the mass of the electron, g e is the electron spin Lande factor, which has a value of 2).

[0085] For any two electrons A and B, m eA =m eB , and |e A |=|e B |, so their spin magnetic moments are the same, that is, P mA =P mB The spin magnetic moment of each electron in an atom is the same, so: P m1 =P m2 =......=P mi , which makes the torque M of the proton magnetic field on all electrons the same, and the electrons move as a whole in the proton spin magnetic field.

[0086] Electron precession angular frequency: (e is the electron charge, m is the electron mass), so for any electron in an atom: ω L1 =ω L2 =...=ω Li .

[0087] So in eK p -K n In the Larmor precession model of quantum entangled elementary particles, the secondary quark quantum entangled elementary particles in the galaxy move as a whole in the magnetic field of the ultimate quark quantum entangled elementary particles of the black hole with the same precession angular frequency.

[0088] Step 7-4: Verify that galaxies of different sizes have the same current when displaced According to the Ampere-Maxwell equations: (D=ε0E+P, ε0 is the vacuum dielectric constant, P is the polarization intensity), for any two tiny galaxies A and B, since P A =P B And under the electric field E formed by the same magnetic field of the final quark quantum entangled state particles, we can get D A =D B .

[0089] The displacement currents of A and B are: It can be seen that under the same time change, For each tiny galaxy, the displacement current is: dI1=dI2=...=dI i .

[0090] Throughout the entire galaxy's motion, galaxies in any region of the galaxy, as well as galaxies of different sizes, all have the same electric current.

[0091] Step 7-5: Verify that the galaxies orbiting the black hole have the same precession angle The circular displacement current constitutes the Larmor precession resonance curl, and the displacement current is formed by the offset generated by the Larmor precession of the electron. Therefore, the Larmor precession resonance curl can only be generated at the Larmor precession resonance point. In the spherical coordinate system, the vector field A and the Larmor precession point are represented by (r, θ, φ), where r is the distance from the precession point to the coordinate origin, θ is the angle between the line segment formed by the Larmor precession point and the coordinate origin and the Oz axis, and φ is the angle between the half-plane passing through the precession point and bounded by the Oz axis and the plane xOz. The Larmor precession resonance curl formula of the vector function A(r, θ, φ) is as follows:

[0092] In the rectangular coordinate system, the curl of the vector field A is differentiated: The differential magnetic rotation is generated at the resonance point, and the magnetic resonance rotation is the result of one cycle of the differential magnetic rotation, that is, Since the spherical coordinate values are periodic (the meridian can rotate 360° around the sphere), and the resonant rotation of electrons and protons can only be generated at the resonance point, the resonance point also shows periodicity.

[0093] The scale factor obtained by the relationship between rectangular coordinates and spherical coordinates, such as h r =1,h θ =r,h φ =rsinθ, and r is the radius, sinθ and h φ The resonant rotation of Larmor precession is proportional to the frequency of the resonant rotation and changes with the coordinates, which shows that the resonant rotation of Larmor precession satisfies the frequency doubling condition. Because the resonant rotation satisfies the frequency doubling condition, the angles of the resonant rotation of consecutive resonance points coincide with each other, and the resonance points satisfy the frequency doubling relationship.

[0094] There are countless point charges distributed continuously in the electron, and this distribution forms the so-called surface charge. Therefore, the magnetic interaction points generated by the surface charge in the electron correspond one to one with the magnetic interaction points generated by the surface charge of the proton. Figure 11 For any differential part of the surface charge: dQ = σdS, the angle of precession is the same.

[0095] So in eK p -K n In the Larmor precession model of quantum entangled elementary particles, for all subquark quantum entangled elementary particles in the galaxy, their motion pattern is equivalent to all point charges in a surface charge rotating at the same precession angle.

[0096] Step 7-6, verify that the galaxy motion has the same precession period In the Larmor precession magnetic resonance of electrons and protons, the energy expression of different energy levels is E=nhv, taking n=1, and the precession frequency v= The different precession velocities v of electron and proton Larmor precession will stimulate different precession frequencies, so: The electron precession velocity and proton precession velocity are: The precession time is the ratio of the precession circumference to the precession speed, that is, the electron precession time is: For any two electrons A and B in an atom, they are at the same energy level, so E eA =E eB, and m eA =m eB , so T eA =T eB The Larmor precession magnetic resonance period of electrons in the proton magnetic field is the same, that is, T e1 =T e2 =...=T ei .

[0097] So in eK p -K n In the Larmor precession model of quantum entangled elementary particles, under the action of the same magnetic field of the unified ultimate quark quantum entangled elementary particles, the Larmor precession periods of all secondary quark quantum entangled elementary particles are the same.

[0098] Step 7-7: Deduction and verification of the non-existence of dark matter In the process of galaxies in the universe revolving around black holes, the outer stars have a larger linear velocity due to their larger orbital radius. This makes it impossible to explain the actual observed galaxy motion speed and distribution using the traditional law of universal gravitation. However, based on the above eK p -K n The Larmor precession model mechanism of quantum entangled elementary particles, this identical precession direction and precession angle conforms to Ampere's circuit law and its corresponding right-hand screw rule, allowing the stars in the galaxy to rotate stably on larger orbits. Even when the gravity generated by visible matter alone seems insufficient, the stars will not fly away, which also proves that dark matter does not exist.

[0099] UeK p -K n Inside the black hole, it is in a condensed state, with a compact combination of spin and charge, which affects the formation of galactic matter through displacement current and magnetic field. Its existence can be inferred from macroscopic phenomena such as galactic motion.

[0100] The Lamor precession magnetic resonance curl of the ultimate quark and the secondary quark in the black hole satisfies Ampere's loop law According to the Pisa equation The magnetic field strength is obtained. The superposition of magnetic fields forms a 100% N-upward total magnetic field, which conforms to the N-attention mechanism. The state of the ultimate quark changes within the black hole. During the Big Bang, some of them were ejected to form secondary quarks, which then form quantum entanglement with them.

[0101] The galaxy moves as a whole under the influence of the black hole's magnetic field, according to the Ampere force formula The direction of the magnetic field's force on secondary quarks conforms to the right-hand screw rule. Analogously to the movement of electrons in the EPN system, secondary quarks in the galaxy move with the same precession angular frequency.

[0102] According to the Ampere-Maxwell equations (D=ε0E+P), analyzing the relevant parameters of tiny galaxies A and B, it is concluded that galaxies of different sizes have the same current.

[0103] The circular displacement current constitutes the Larmor precession resonance curl. Its formula in the spherical coordinate system and related characteristics (such as the frequency doubling condition, etc.) indicate that the motion mode of secondary quarks in the galaxy is equivalent to the rotation of all point charges in the surface charge with the same precession angle, and under the action of a uniform magnetic field, SeK p -K n The Larmor precession period is the same, which explains the speed and distribution of galaxy movement and proves that dark matter does not exist.

[0104] Step 8: Use the above model to calculate the relevant data of dark matter ① From Ampere's circuit theorem and the Pissa equation, we can get the galactic magnetic field but Assuming the magnetic field component vectors of each celestial body in the galaxy are B1, B2...Bn, the overall magnetic field vector matrix of the galaxy is obtained: B=[B1,B2,B3...B n ] ②Electron precession angular frequency: (e is the electron charge, m is the electron mass), so for any electron in an atom: ω L1 =ω L2 =...=ω Li .

[0105] Then the vector matrix of the second algorithm parameter can be set as w=[ω1,ω2...ω i ] ③According to the Ampere-Maxwell equation: (D=ε0E+P, ε0 is the vacuum dielectric constant, P is the polarization strength), for any two tiny galaxies A and B, since PA=PB and they are in the electric field E formed by the same magnetic field of the final quark quantum entangled state particles, D can be obtained. A =D B .

[0106] The displacement currents of A and B are: It can be seen that under the same time change, I DA =I DB , for each tiny galaxy, the displacement current is: dI1=dI2=...=dI i .

[0107] The vector matrix that can set the third algorithm parameter is: I=I1,I2...I i ④ In the Larmor precession magnetic resonance of electrons and protons, the energy expression of different energy levels is E=nhv, taking n=1, and the precession frequency The different precession velocities v of electron and proton Larmor precession will stimulate different precession frequencies, so: The electron precession velocity and proton precession velocity are: The precession time is the ratio of the precession circumference to the precession speed, that is, the electron precession time is: For any two electrons A and B in an atom, they are at the same energy level, so E eA =E eB , and m eA =m eB , so T eA =T eB The Larmor precession magnetic resonance period of electrons in the proton magnetic field is the same, that is, T e1 =T e2 =...=T ei .

[0108] It can be set as the fourth vector matrix of the algorithm parameters: T=[T1,T2...T i ] By inputting the above parameters into the quantum BP-transformer algorithm, we can obtain: Attention(B,w,I,T)=B·w·I·T Considering the gradient mutation of quantum dimension, a scaling dimension constant d can be added k , the above attention score algorithm is optimized and can be expressed as: The final result can show the overall operation of the galaxy, and then compared with the actual observation results, the specific situation of the galaxy's dark matter can be obtained through the differences or similarities in parameters such as energy and momentum.

[0109] Step 9: Compare string theory to verify the material structure of the EPN quantum entangled state model epn and eK p -K nThey have the same structure and both achieve quantum entanglement between charged particles through Larmor precession magnetic resonance. The particles themselves have spin characteristics and directionality, and the difference between them lies in the different precession radii.

[0110] In the process of forming quantum entangled state, the spin direction determines the direction of magnetic moment. On a macroscopic scale, a large amount of SeK p -K n and UeK p -K n The quantum entangled state formed has a spin direction that causes the generated magnetic field to satisfy 100% N-pole upward. Under the action of Ampere's circuit law, it can generate a sufficiently strong circular force to drive the entire galaxy to rotate around the black hole.

[0111] In DNA and protein molecules, the spin directionality of electrons and protons dominates the distribution of magnetic fields within the molecules and the direction of interatomic forces, causing the molecules to exhibit an overall left-handed shape.

[0112] String theory primarily describes the fundamental composition of matter from the perspective of energy. Matter is believed to be composed of various patterns generated by the vibrations of tiny strings. These strings are hypothesized to exist in an eleven-dimensional space-time, with their different vibration modes corresponding to different energy states. While string vibrations focus on parameters such as energy and frequency corresponding to physical states, they do not directly introduce entities with clear material properties as fundamental building blocks.

[0113] The quantum entangled state model clearly explains the origin of matter based on the interaction between material entities such as electric charges. The process occurs in the existing four-dimensional space-time, and different material forms are formed by different precession frequencies and energy levels.

[0114] String theory proposes hypotheses about the possible composition of dark matter through complex mathematical calculations. In this model, based on the physical process of Larmor precession magnetic resonance of four basic particles and combined with Ampere's law of circulation to explain the problem of galaxy rotation curve, SeK in galaxies is p -K n The motion pattern enables the stars within the galaxy to maintain stable rotational motion under the combined action of existing visible matter and quantum entangled state mechanisms, without the need to introduce additional dark matter concepts.

[0115] Step 10: Verify some physical properties of the EPN quantum entangled state model by combining general relativity Step 10-1 compares the circular force and continuity of the quantum entangled state model with those of general relativity. Based on the equivalence principle, the motion of a planet in the sun's gravitational field is equivalent to motion in an accelerating reference frame. As a planet orbits the sun, it experiences an inertial centrifugal force perpendicular to the tangent of its path, pointing from the sun toward the planet. In the actual general relativistic scenario of a planet orbiting the sun, this "outward tendency" is actually a manifestation of the planet's motion along geodesics within the sun's gravitational field (or the curved spacetime created by the sun).

[0116] In the EPN quantum entangled state model, the force that causes the planets to move around the sun comes from the quantum entangled state, which is the SeK in the sun. p -K n SeK in the planet p -K n There is a continuous Larmor precession magnetic resonance effect between the two. The electric and magnetic fields generated by this effect have a specific distribution and direction. The resultant force is a circular force, which is perpendicular to the tangent of the motion path and points to the sun. Figure 12 .

[0117] Due to the resonance of the magnetic field curl, the magnetic flux changes. According to Lenz's law, In the closed loop between the sun and the planet, an induced electromotive force will be generated. This induced electromotive force will drive the planet to move, forming an induced current, which manifests as a circular force. Figure 3 shown.

[0118] According to the equivalence principle, force manifests its effect by changing an object's inertial motion. However, when resonant curl generates a circular force, the circular force also changes the object's motion, shifting it from linear to circular motion. From an energy perspective, under the equivalence principle, force exerts work on an object, altering its kinetic energy. In the EPN quantum entangled state, the current generated by the induced electromotive force, acting under the influence of a circular force, produces a change in the energy form of the magnetic resonance wave.

[0119] General relativity through Einstein's field equations To describe the relationship between the geometric structure of spacetime (left) and the distribution of matter and energy (right). In this framework, matter and energy will cause spacetime to bend. For example, the mass M of the sun will cause the surrounding spacetime to bend, and the metric tensor g generated by it in the surrounding space μv Describes the curvature of space-time.

[0120] For planets to move around the sun, they move along geodesics in curved spacetime. According to the geodesic equation The motion of planets is determined by the geometry of spacetime. To us, they appear to be moving in circles due to the pull of gravity, but in reality, they are moving along the most natural paths in curved spacetime.

[0121] In the quantum entangled state model, the magnetic field curl equation generated by the displacement current is: It is continuous, which means that the distribution of the magnetic field in space is continuously changing, and thus the circular force exerted on the electric charge in the magnetic field is also continuous.

[0122] In general relativity, the metric tensor g μv The geometric structure of spacetime described is continuous. The curvature of spacetime is a continuous process. The energy-momentum tensor T on the right side of the Einstein field equation is μv The distribution of matter and energy described in general relativity also changes continuously in the actual physical world. Therefore, the space-time, matter and motion in general relativity are all continuous.

[0123] The consistency of the quantum entangled state model with general relativity in terms of continuity shows that the properties of space-time and quantum behavior follow the same physical mechanisms throughout the universe, ensuring that physical processes remain continuous and coordinated at different scales.

[0124] Step 10-2, combined with the space-time curvature phenomenon, verifies that the energy density of the elementary particles in the EPN quantum entangled state is the highest inside the black hole, and the charge shows △V→0. According to the definition of energy density The energy carried by the electric charge itself is concentrated in a very small volume, making the energy density reach an extremely high level. According to the general theory of relativity, matter and energy are the source of gravity. In a black hole, the extremely high energy density means a strong source of gravity. From Einstein's field equations When the energy density is extremely large, T μv The relevant components of the Einstein tensor G μv The curvature of spacetime described by the equation increases, resulting in a stronger gravitational effect. In other words, in a black hole, the charge △V→0 and the high energy density cause the curvature of spacetime to reach an extremely high level, and the gravitational force is so strong that even light cannot escape.

[0125] Despite the great distance between the sun and the planets, the quantum entangled state is formed almost instantaneously (△t→0), TeK p -K n The magnetic field interactions between them do not have time to manifest themselves in an obvious, discrete manner.

[0126] For energy level transitions, in traditional quantum mechanics, energy level transitions are accompanied by discrete changes in energy ΔE=E2-E1=hv. But in TeKp -K n In the quantum entangled system, since the precession frequency v is extremely high and the quantum entangled state is formed rapidly, the changes between energy levels are difficult to distinguish on the macroscopic observation scale and are approximately continuous changes.

[0127] When the TeK inside the sun and planets p -K n After the quantum entangled state is formed, the magnetic field is calculated according to the Bissac law. p -K n The magnetic field generated Consider a point R at the center of the Sun, a single TeK p -K n The magnetic field generated at this point is for: For all TeK p -K n The generated magnetic field is integrated to obtain the TeK inside the sun. p -K n The total magnetic field generated at the planet's location Similarly, calculate the planet's interior TeK p -K n The magnetic field generated at the sun's position

[0128] According to Ampere's circuit law The closed loop L with the sun as the center and radius R. but The quantum entangled state force exerted on the planet is obtained

[0129] In classical mechanics, the law of universal gravitation is (where G is the gravitational constant, M is the mass of the sun, and m is the mass of the planet) Due to the instantaneous formation of quantum entangled states between quarks and the approximate continuity of magnetic field interactions and energy level transitions, this quantum entangled interaction between the sun and planets manifests itself macroscopically as a continuous and stable force, namely, gravity.

[0130] Compare the relationship between quantum entangled state models and string theory and general relativity. epn and eK p -K n Quantum entanglement is achieved through the Larmor precession magnetic resonance of charged particles. String theory assumes that strings exist in eleven-dimensional space-time from an energy perspective, and vibration modes correspond to energy states. This model explains the origin of matter in four-dimensional space-time based on the interaction of charged entities, and there is no need to introduce the concept of dark matter to explain the problem of galaxy rotation curves.

[0131] When a planet orbits the sun, quantum entanglement generates a circular force. According to the equivalence principle, the planet moves in the sun's gravitational field, and its motion equation conforms to the geodesic equation. The magnetic field curl equation in the quantum entangled state model is continuous, which is consistent with the continuity of space-time, matter and motion in general relativity. Describe the relationship between the geometric structure of space-time and the distribution of matter and energy.

[0132] Inside a black hole, the charge volume approaches zero and the energy density is extremely high. According to the general theory of relativity, this causes the space-time to be extremely curved, producing a strong gravitational effect.

[0133] The quantum entanglement state between the sun and the planets is formed instantaneously, and the energy level transition is approximately continuous. Combined with the Pissa law to calculate the magnetic field (such as the magnetic field generated by the secondary quarks inside the sun ), calculate the quantum entangled state force on the planet based on Ampere's circuit law On a macro level, it manifests itself as gravity.

[0134] In summary, this application has the following advantages: 1. The essence of matter is clearly attributed to the Larmor precession magnetic resonance effect between electric charges, proving the physical reality and materiality of the composition of matter.

[0135] 2. In eK p -K n In the parallel universe, it is reasonable to explain that the movement of galaxies is caused by SeK p -K n and UeK p -K n The quantum entangled state formed is driven by Ampere's circuit law, and at the same time denies the existence of dark matter and gravitons.

[0136] 3. The circular displacement current constitutes the Larmor precession resonance curl. Its formula and related characteristics in the spherical coordinate system indicate that the motion pattern of secondary quarks in the galaxy is equivalent to the rotational motion of all point charges in the surface charge at the same precession angle, which makes it possible to explain the motion of galaxies without introducing dark matter.

[0137] 4. Based on the Larmor precession of electrons in the EPN quantum entangled state of elementary particles, a displacement current is generated to form a magnetic field resonance curl, which in turn generates a quantum gravitational field. This provides an algorithm based on a specific physical process for the origin of quantum gravity. It is generated from the right-hand spiral law of the Ampere circuit, and due to the continuity of the circular displacement current, quantum gravity also has continuity.

[0138] 5. The four fundamental particles all follow the same Larmor precession magnetic resonance motion pattern and are generated by displacement current, successfully explaining a variety of celestial laws and biological phenomena, demonstrating the wide applicability of this model in explaining the composition of matter and different physical phenomena.

[0139] 6. The process by which four fundamental particles interact and form matter through quantum entanglement at different energy levels and energy states, from the high-energy condensed state in the early stage of the Big Bang to the low-energy stable structure in the later evolution, reveals the evolution law of the form of matter.

[0140] 7. Through the consistency of the quantum entangled state model with general relativity in continuity and the common explanation of the motion of planets around the sun, in the microscopic field, the quantum entangled state model describes the interaction between elementary particles, the evolution of quantum states, and the formation of microscopic material structures. These microscopic processes are connected with macroscopic concepts such as space-time curvature and matter-energy distribution in gravitational theory through quantum entangled states, providing ideas for the unification of quantum theory and gravitational theory at both the microscopic and macroscopic levels.

[0141] 8. The intuitive presentation of quantum entanglement at the level of elementary physical particles provides a way to understand quantum computing based on the actual movement and interaction mechanisms of microscopic particles, which helps to develop new quantum computing algorithms and improve the performance and application scope of quantum computing.

[0142] 9. From microscopic elementary particles to macroscopic celestial structures, the quantum entangled state of matter affects the distribution and transfer of energy, thereby determining the magnitude and direction of gravity, reflecting the essential connection between gravity and the distribution of material energy. BRIEF DESCRIPTION OF THE DRAWINGS

[0143] Figure 1 Schematic diagram of quantum entanglement interaction - the Larmor precession direction of positive and negative point charges and the direction of the magnetic field.

[0144] Figure 2 Schematic diagram of Larmor's precession radius.

[0145] Figure 3 Schematic diagram of the electronic gyroscope's spin.

[0146] Figure 4 Schematic diagram of electron Larmor precession.

[0147] Figure 5 Schematic diagram of the impact of microscopic processes on macroscopic space-time curvature in a quantum entangled state.

[0148] Figure 6 Schematic diagram of any two proton-electron pairs maintaining system equilibrium in an atom.

[0149] Figure 7 for UeKp -K n Schematic diagram of the circular force generation.

[0150] Figure 8 Schematic diagram of the annular force generated by EPN.

[0151] Figure 9 Schematic diagram of the rotation of galaxies around black holes.

[0152] Figure 10 This is a schematic diagram of the high-speed rotation of electrons around the nucleus in the EPN quantum entangled state elementary particle model.

[0153] Figure 11 Schematic diagram of the magnetic interaction points generated by the surface charges of electrons and protons.

[0154] Figure 12 Schematic diagram comparing the circular force generated by quantum entanglement interaction with the equivalence principle.

[0155] Figure 13 Schematic diagram of the structure of the FCC lattice in Example 5. DETAILED DESCRIPTION

[0156] The present application is further described in detail below with reference to the embodiments.

[0157] Example 1 A method for exploring hydrogen atoms in the microscopic world based on the gyro-Larmor precession magnetic resonance model of EPN quantum entangled elementary particles is proposed. Hydrogen atoms are substituted into the above model for deduction, as follows: A hydrogen atom consists of a proton and an electron. In the cosmic environment, the electron and proton in each hydrogen atom undergo Larmor precession. Larmor precession generates a circular displacement current, which in turn stimulates a magnetic field. When two hydrogen atoms approach, the magnetic fields generated by their respective Larmor precessions influence each other.

[0158] Due to the interaction of the magnetic field, the two hydrogen atoms begin to form a quantum entanglement state. In this process, the motion states of the electron and proton become correlated at the quantum level, and their Larmor precession frequencies and directions gradually become synchronized, enhancing the interaction between them. The formation of this quantum entanglement further strengthens the magnetic field between the two hydrogen atoms.

[0159] As the magnetic field between the two hydrogen atoms strengthens, they exert a stronger attraction on the other hydrogen atoms around them. When a third hydrogen atom approaches, the Larmor precession of its electrons and protons is also affected by the magnetic field, and its own motion state is gradually adjusted to adapt to the existing quantum entanglement state.

[0160] During this process, the distance between the atomic nuclei (protons) gradually shortens. The combined effects of quantum entanglement and the magnetic field provide sufficient energy for the protons to approach. Ultimately, two protons from the three hydrogen atoms fuse together, while one proton and electron transform into neutrons, forming a helium nucleus. The electrons, recalibrated by the quantum entanglement, orbit the newly formed helium nucleus, forming a stable helium atomic structure.

[0161] The core reaction of hydrogen fusion into helium is four protons, that is, hydrogen nuclei, which aggregate into a helium nucleus. The basic reaction formula is: 4 1 H→ 4 He+2e + +2ν+γe + is a positron, ν is a neutrino, and γ is a photon.

[0162] The above reaction is not achieved overnight. The polymerization reaction based on the EPN quantum entangled state elementary particle model is entangled and resonated between two particles, and then polymerized. Therefore, the above reaction is divided into: Hydrogen nuclei fuse into deuterium nuclei: 1 H+ 1 H→ 2 H+e + +ν Deuterium nuclei combine with hydrogen nuclei to form helium-3: 1 H+ 2 H→ 3 He+γ Finally, helium-3 aggregates into helium-4: 3 He+ 3 He→ 4 He+2 1 H Hydrogen fusion reactions can release a large amount of energy, namely nuclear fusion energy. Based on the quantum entangled hydrogen nuclear fusion of the EPN quantum entangled state elementary particle model, its energy is calculated as follows: The mass of a single hydrogen nucleus is: m p =1.00728u (atomic mass unit); The mass of the helium nucleus is: m He =4.0015u The quality loss is: Δm=4m p -m He =0.02762u=4.586×10 -29 kg Energy loss is: E=Δmc 2 ≈4.31×10 -12 J Converted to macro energy: When each gram of hydrogen is converted into helium, the energy released is about 6.3×10 11 J, equivalent to the calorific value of burning 15 tons of standard coal.

[0163] Example 2 A method for exploring the deduction of planetary motion in the microscopic world based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The planetary motion is substituted into the above model for deduction, as follows: The theory of the origin of matter starts from the interaction of microscopic electric charges and can explain the formation mechanism of matter in the early stage of the Big Bang. General relativity is good at describing the evolution of macroscopic space and time. The two are complementary in their explanations of the early stage of the Big Bang.

[0164] The origin of matter generates macroscopic circular forces through the microscopic N-attention mechanism. General relativity explains galactic motion from the macroscopic perspective of spacetime geometry, attributing galaxies' motion to the curvature of spacetime. While both approaches originate from different physical perspectives, they both explain phenomena such as galaxy rotation.

[0165] In the quantum entangled state model, the current generated by the induced electromotive force moves under the action of the circumferential force, which will produce a change in the energy form of the magnetic resonance wave. Assume that the energy change rate of the magnetic resonance wave is It is related to factors such as electric field, magnetic field, and charge movement speed.

[0166] The energy level difference from T1 to T2 can be expressed as: ΔE=2μB0 Where μ is the magnetic moment of the proton. When the frequency ν of the external electromagnetic wave (radio frequency field) satisfies hν = ΔE, the system resonates and absorbs energy.

[0167] ν is equal to ΔE / h, and the rate of change of magnetic flux is calculated as follows: ε=Δφ / Δt=B·A·ω=B·A·2πν Combining the RF field power and relaxation time, the energy change rate is obtained: In the equivalence principle, the force does work on the object to change its kinetic energy. When the planet is in motion, the gravity does work to change its kinetic energy. Let the rate of change of kinetic energy be It is related to factors such as gravity and speed.

[0168] Quantum entangled states start from two different physical concepts: the interaction of microscopic charges and the equivalence principle from the equivalence of macroscopic space-time. There is a certain consistency in the description of motion states and energy changes, indicating that there is a unified physical mechanism in the universe to explain physical phenomena such as planetary motion.

[0169] Example 3 A method for exploring the existence of dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The galaxy motion is substituted into the above model for deduction, as follows: Assume that the mass of the black hole at the center of the Milky Way is M = 4×10 6 M S (M S is the mass of the sun), and the distance between the sun and the center of the Milky Way is about r = 2.6×10 20 m, the rotation speed of the sun around the center of the Milky Way, calculated according to the classical law of universal gravitation But the actual observed rotation speed of the sun is about v 观测 =2.2×10 5 m / s, the gravitational effect of quantum entanglement causes the rotation speed of the star to change. Let the equivalent gravitational acceleration produced by the quantum entanglement be a 量子 , according to the circular motion formula This additional acceleration reflects the role of quantum entanglement in galaxy rotation and explains why the stars in the galaxy can still maintain a stable rotation speed when only the gravitational force of visible matter is insufficient, thus showing that there is no need to introduce dark matter to explain the galaxy rotation curve.

[0170] Example 4 A method for exploring DNA molecules based on the gyro-Larmor precession magnetic resonance model of EPN quantum entangled elementary particles is proposed. DNA molecules are substituted into the above model for deduction, as follows: In DNA molecules, the atoms in the molecules, which are composed of elementary particles in the quantum entangled state of EPN, have their electrons, protons and other charged particles affected by the resonant curl magnetic field. When two free nucleotide molecules approach each other, since the elementary particles inside them are in the quantum entangled state, the magnetic field generated by the displacement current meets certain conditions (such as the normal lines of the magnetic curl vectors coincide at the resonance point and the magnetism is opposite), and a magnetic resonance interaction occurs. According to the law of electromagnetic induction, This interaction will cause changes in the surrounding magnetic field, thereby affecting the state of other free nucleotide molecules, attracting more free nucleotides to participate in pairing to form longer chains, and thus affecting the structural formation of DNA molecules.

[0171] Example 5 A method for exploring crystal structure based on the Larmor precession magnetic resonance model of elementary particles in an EPN quantum entangled state is proposed. The method applies the crystal structure to the model and performs deductions as follows: In a crystal structure, atoms are arranged in a specific pattern to form an orderly lattice. For example, in common metal crystal structures, such as face-centered cubic (FCC) and body-centered cubic (BCC), atoms exhibit a periodic arrangement in space. This arrangement determines the physical properties of the crystal, such as hardness and conductivity.

[0172] In the EPN model, atoms are composed of elementary particles in an EPN quantum entangled state. Electrons orbit protons in a circular motion, generating a circular displacement current and stimulating a magnetic field. When atoms approach each other to form a crystal structure, the magnetic fields between the atoms interact.

[0173] For adjacent atoms, the magnetic fields generated by their protons and electrons are oriented in opposite directions. Due to the N-attention mechanism, the magnetic fields between atoms tend to align in a specific way, minimizing the energy of the entire system. For example, in a metal crystal, the electron clouds between atoms overlap, and the magnetic fields generated by the Larmor precession of the electrons influence each other.

[0174] Taking the face-centered cubic structure as an example, each atom is surrounded by multiple neighboring atoms. Let's assume atoms A and B are neighbors. The magnetic field generated by the Larmor precession of atom A's electrons opposes the magnetic field generated by the Larmor precession of atom B's electrons. This relative magnetic field orientation allows the interaction between the atoms to achieve a relatively stable state.

[0175] The specific parameters of the FCC lattice are as follows: The primitive vectors of the FCC lattice can be expressed as: Where α is the lattice constant (interatomic distance).

[0176] Reference Figure 13 The formation of the FCC lattice follows the principle of maximum energy density, and its stacking sequence is ABCABC… The formation energy of the FCC lattice can be calculated from the potential energy of the mutual magnetic resonance interaction between atoms: σ and ∈ are potential energy parameters, r is the interatomic distance for the FCC lattice, and the total potential energy is the sum of the potential energies of all atomic pairs.

[0177] In a crystal structure, the relative alignment of the magnetic field between atoms optimizes the motion and energy distribution of electrons. When the direction of the magnetic field between atoms conforms to the N-attention mechanism, the energy level distribution of electrons becomes more stable, reducing energy fluctuations and conforming to the minimum energy theorem.

[0178] This specific embodiment is merely an explanation of the present application and is not a limitation of the present application. After reading this specification, those skilled in the art may make non-creative modifications to the present embodiment as needed, but as long as they are within the scope of the claims of the present application, they are protected by the patent law.

Claims

1. A method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model, characterized by: The following steps are involved: Step 1: Construct the EPN quantum entangled state elementary particle model (electron-proton quantum entangled state gyro Larmor precession magnetic resonance model: Step 2: Build N attention mechanism; Step 3: Redefine the four fundamental particles and deduce the formation and properties of their quantum entangled states; Step 4, deduce the Larmor precession resonance curl formed by the displacement current; Step 5, deduce the properties of the quantum gravitational field generated by the displacement current and calculate the magnitude of the quantum gravity; Step 6: Deducing the circular force on the galaxy and the linear force on the electron; Step 7: Substitute the matter of the microscopic world into the above model for calculation and exploration; Step 8: Calculate the relevant data of dark matter using the above model; Step 9: Verify the material structure of the EPN quantum entangled state model by comparing it with string theory; Step 10: Verify some physical properties of the EPN quantum entangled state model by combining general relativity.

2. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 1 is characterized by: The step 1 further specifically includes the following steps: Step 1-1, redefine the substance; Steps 1-2: deducing that the composition of matter is dominated by displacement current and resonance curl in charge-charge interactions; Step 1-2-1, deduce that charge spin generates directional displacement current; Step 1-2-2, deduce the formation of quantum entangled state dominated by resonant curl; Steps 1-2-3, redefine the four fundamental particles and deduce the properties of dark matter; Steps 1-3: deduce Larmor precession and the change of motion state of negative point charge; Steps 1-4, deduce the resonance point, normal coincidence and achievement of quantum entangled state; Steps 1-5: deduce the relationship between the harmonic frequency of the resonance curl and the complexity of the material structure growth; Steps 1-6: Constructing the core framework for the formation of quantum entangled matter; Steps 1-7, combining Ampere's circuit law to deduce the formation process of the electronic gyroscope spin Larmor precession; Steps 1-8, deduce the laws of the universe of the three major theories based on the EPN model.

3. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 2, characterized in that: The steps 1-7 are specifically as follows: According to Ampere's circuit law L B·dl=μ0I, the electron spin generates a circular current, which generates a magnetic field B around it e According to the Bissard equation, the general expression of the electron spin magnetic field intensity is given as When there is an external magnetic field B z (For example, the magnetic field generated by the proton is assumed to be uniform and its direction is known, and is set along the z-axis). In the initial state, the centripetal force F 向0 =kI s B z (k is the proportional constant, I s is the circular current generated by electron spin); Due to the interaction between the electron spin magnetic moment and the magnetic field, the electron will be subjected to a torque τ = μ × B z , according to the angular momentum theorem (L is angular momentum), the torque will cause the angular momentum to change, thus generating angular acceleration Without considering the motion around the nucleus, assuming that the electron initially has a certain spin angular velocity ω0 and spin radius r0, the electron has a tendency to move along the tangential direction due to inertia, which is manifested as centrifugal force. but In the initial state, F 离 =F 向 , in the opposite direction; When the electrons and the magnetic field B z When the interaction occurs, the electron energy increases. Let the electron absorb energy ΔE. According to (I is the moment of inertia of the electron spin), the increase in energy leads to an increase in angular velocity, and the centrifugal force F 离 =m e ω 2 r0 increases, that is, F 离1 <F 离2 <... <F 离n ; As the centrifugal force increases, the centripetal force F 向 Basically remains unchanged, at this time the net force on the electron is not zero, F 合 =F 离0 -F 向 >0. Under the action of the combined force, the electron will produce an outward acceleration This acceleration will gradually reduce the electron's spin radius r0 and increase its spin speed, which is the result of increased energy; When the electron spins once, the circular current generated by the electron spin forms a closed state. At this time, the centripetal force F 向 Increase to F 向1 , and the centrifugal force F after the spin radius increases 离n Reaching equilibrium, that is, F 向1 =F 离n , at this time, the electrons form a stable gyroscopic spin motion; During electron rotation, due to the imbalance of forces, the electrons move around the nucleus (revolution) while also tending to expand outward due to the centrifugal force. Simultaneously, they rotate (rotation), similar to a spinning top spinning on the ground. Because the center of gravity and the fulcrum do not completely coincide, the electrons wobble and adjust during rotation. The same is true for electrons inside atoms. As energy is absorbed, centrifugal force increases, and the state of motion changes, the electrons' rotation and revolution gradually form a specific coordinated motion pattern, known as Larmor precession. When the electron undergoes an energy level transition after one rotation, the centripetal force equals the centrifugal force, and the electron's gyroscopic spin reaches a stable state. In this stable state, the electron precesses around the direction of the magnetic field at a certain frequency, and its motion trajectory forms a conical surface. The precession axis is consistent with the direction of the magnetic field. During the precession process, the electron maintains its own spin while slowly rotating around the direction of the magnetic field. When the electron begins to change its trajectory due to the centripetal force generated by Ampere's circuit law and tries to make circular motion, according to Newton's first law, its inertial motion will lead to the generation of a centrifugal force, the direction of which is away from the center of the circle. According to Newton's second law, F=ma (in circular motion, acceleration ), centrifugal force In the early stage of electron movement, the centripetal force generated by Ampere's circuit law and the centrifugal force caused by Newton's inertial motion are not balanced. At this time, the net force on the electron is not zero. 合 =F 离 -F 向 ≠0, because the centripetal force tries to make the electron move in a circular motion, while the centrifugal force tries to keep the electron moving in a straight line or away from the center of the circle, under the action of these two forces, the trajectory of the electron will gradually distort and tend to rotate around a fixed axis; The energy change of electrons is quantized. According to the energy formula E=nhv, in the process of tending to gyro spin, electrons will jump from one energy state to another energy state to adjust their energy to adapt to the balance requirements of forces. When the energy of electrons is adjusted to make the centrifugal force and centripetal force reach balance, that is, The motion state of the electron tends to be stable, and the electron enters the Larmor precession state; In the Larmor precession state, electrons precess around the magnetic field at a certain frequency. Larmor precession frequency The trajectory of electron motion forms a conical surface, and its precession axis is consistent with the direction of the magnetic field. During the precession process, the electron maintains its own gyroscopic spin on the one hand, and rotates slowly around the direction of the magnetic field on the other hand.

4. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 2, characterized in that: The steps 1-8 are specifically as follows: When matter is in a quantum entangled state, for example in the epn quantum entangled state model, the circular closed displacement current excites the magnetic field, magnetic resonance occurs between particles, and the constituent atoms as a whole exhibit N uniform magnetic field characteristics. According to the Bissau equation Calculate the magnetic field strength B generated by electron motion and its energy density Assume that in a small volume element dV, the magnetic field energy change generated by the quantum entangled state formed by the electron-proton system is dE B , the energy density changes This energy density change makes the energy-momentum tensor T μv changes, according to Einstein's field equations This in turn causes the spacetime curvature G μv The change causes space-time to bend, reflecting the influence of microscopic processes under quantum entanglement on the curvature of macroscopic space-time; The existence of planets causes the curvature of space-time, and the planets themselves move along the geodesics of this curved space-time. This is because Einstein's field equations show that the energy-momentum tensor T μv (determined by the mass and energy distribution of the planet) produces the space-time curvature G μv ; Due to the geometric effect of space-time curvature, the planet is subject to an equivalent gravitational force F 引 , the equivalent gravity provides the centripetal force for the planet to make circular motion. Here, there is a balance between the centrifugal force and the equivalent gravity. The motion of the planet on the geodesic in curved spacetime has inertial motion in the tangential direction of each point. In the figure on the right, in the EPN quantum entangled state model, the displacement current generated by the electron movement According to Maxwell's equations Displacement current affects the generation and change of magnetic field; according to Ampere's circuit law ∮ L B·dl=μ0I, the planet moves around the center to generate equivalent displacement current, and the central magnetic field B exerts a force on the planet, which provides the centripetal force F for the planet to move in a circular motion. 圆周 , and at every point of circular motion, there is a balance between centrifugal force and circular force, that is, F 离 =F 圆周 At the same time, there is inertial motion in the tangential direction of the motion trajectory. Similarly, in galaxies, the magnetic field generated by the black hole exerts a circular force on the matter in the galaxy, causing the matter to move in a circular motion around the black hole. The direction and magnitude of this magnetic field force are interrelated with the motion state of the matter. Under the coordination of the quantum entanglement state, the matter can continue to maintain a circular motion state. In both motion modes, the planet has inertial motion in the tangential direction of its motion trajectory. According to Newton's first law, when the external force is zero, the object maintains uniform linear motion (i.e., inertial motion); When matter is not in a quantum entangled state, according to Newton's first law, if the matter is not affected by external forces, it will remain at rest or in a state of uniform linear motion; the interactions between particles within the matter are relatively independent, and lack the driving force of the overall coordinated motion brought about by the quantum entangled state, so no specific circular motion will be formed on a macroscopic scale; in the electron-proton Larmor precession model, the energy expression E = hv (v is the precession frequency, h is Planck's constant) is applicable to the electron and proton system; however, when considering the SeK in the solar system or even the galaxy, p -K n and UeK p -K n The situation is different when the Larmor precession magnetic resonance is between It is known that in the electron-proton system, the electron precession frequency has a certain value at different energy levels (for example, when n=1, v e1 =3.29×10 15 s -1 ), calculate the energy of the corresponding energy level (such as the electron ground state energy E e1 =-2.18×10 - 18 J); for the quark system, due to its precession frequency v q It is much larger than the electron-proton system. If the energy expression E=hv is still used, the calculated energy will be too large and inconsistent with the energy magnitude of the quark system. Therefore, a new constant H is introduced, and the energy expression becomes E=Hv.

5. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to any one of claims 1 to 4, characterized in that: The step 2 is specifically as follows: Based on the EPN quantum entangled state elementary particle model, electrons in atoms undergo Larmor precession around protons. During this process, the spin magnetic fields of electrons and protons are opposite at the resonance point, resulting in resonant entanglement. That is, in standard EPN elementary particles, electrons and protons are one-to-one corresponding. Based on the N-attention mechanism of the epn quantum entangled state elementary particle model, the magnetic field generated by the electron and proton spin and the displacement current generated by the electron Larmor precession follow the right-hand rule. For epn quantum entangled state elementary particles that are not single protons, if the N magnetic field direction is taken as upward, there is a 100% N-upward attention mechanism. (1) For any two proton-electron pairs (ep), to maintain system equilibrium in an atom, the spin magnetic moments of these particles must always be connected to the N and N poles. This means that if one electron has its N pole pointing outward, the symmetrical electron will always have its N pole pointing inward. (2) Electrons are fermions. According to the Fermi-Dirac statistical principle and the Pauli exclusion principle, fermions cannot be in the same energy state. For electrons, they cannot be in the same energy level in the same atom. Even if they are in the same energy layer, they have different energy levels such as s, p, and d. (3) For electrons with the N pole pointing outward, they tend to move outward, and their movement trend is superior to that of electrons with the N pole pointing inward, that is, their kinetic energy is greater than that of the latter; Based on the above inferences, according to the kinetic energy theorem: That is, v1>v2, n1≠n2, and E1>E2. According to the energy level theorem, we have: E1=n1hv>E2=n2hv That is, n1>n2; What is important is that E1-E2>0, which means that there is always corresponding kinetic energy and power in the N direction. In the absence of external forces, the system will always move in the N direction. When the N directions of all atoms are consistent, the N attention mechanism is 100%, generating a strong magnetic field. When the N directions of the Pauli entangled electrons are opposite, the N attention mechanism is 50%, showing no magnetism or magnetic neutrality. Due to the directional spin of the positive point charge gyroscope, the magnetic field it evokes satisfies the N-consistent attention mechanism. The entangled displacement current has a circular nature, derived from Ampere's circuit law of the N-attention mechanism, and satisfies the right-hand spiral rule. The magnetic field is strong in some areas and relatively weak in others. This uneven distribution affects the movement of charges in the magnetic field to varying degrees, which in turn affects the motion of negative point charges, prompting them to interact specifically with positive point charges, guiding the development of material structures in an orderly direction. The N attention mechanism influences the movement of charges through the magnetic field, prompting the charges to combine in specific relative positions and orientations, so that the total energy of the material system tends to the lowest state.

6. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to any one of claims 1 to 4, characterized in that: The step 7 specifically includes the following steps: Step 7-1, substitute the black hole-galaxy system into the N-attention mechanism to calculate the quantum gravitational field; Step 7-2, calculate the magnetic resonance curl and magnetic field in the black hole; Step 7-3: deduce the overall motion of the galaxy under the influence of the black hole's magnetic field; Step 7-4, verify that the displacements of galaxies of different sizes have the same current; Step 7-5: Verify that the galaxies orbiting the black hole have the same precession angle; Step 7-6, verify that the galaxy motions have the same precession period; Step 7-7, deduce and verify that dark matter does not exist.

7. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 6, characterized in that: The steps 7-7 are as follows: In the process of galaxies rotating around black holes in the universe, the outer stars have a larger linear velocity due to their larger orbital radius. This makes it impossible to explain the actual observed galaxy motion speed and distribution using the traditional law of universal gravitation. However, based on the above eK p -K n The Larmor precession model mechanism of quantum entangled elementary particles, where the identical precession direction and angle conform to Ampere's circuit law and its corresponding right-hand spiral rule, enables stars within the galaxy to rotate stably on larger orbits. Even when the gravitational force generated by visible matter alone seems insufficient, the stars will not fly apart, demonstrating the non-existence of dark matter. UeK p -K n Inside the black hole, it is in a condensed state, with a compact combination of spin and charge. It affects the formation of galactic matter through displacement current and magnetic field, and its existence can be inferred from macroscopic phenomena such as galactic motion. According to the Pisa equation The magnetic field strength can be obtained. The superposition of magnetic fields forms a 100% N-upward total magnetic field, which conforms to the N-attention mechanism. The state of the ultimate quark changes within the black hole. During the Big Bang, some of them are ejected to form secondary quarks and form quantum entangled states with them. The galaxy moves as a whole under the influence of the black hole's magnetic field, according to the Ampere force formula The direction of the magnetic field's force on the secondary quarks conforms to the right-hand screw rule. Analogously to the motion of electrons in the EPN system, the secondary quarks in the galaxy move with the same precession angular frequency. According to the Ampere-Maxwell equations By analyzing the parameters of tiny galaxies A and B, we concluded that galaxies of different sizes have the same current. The circular displacement current constitutes the Larmor precession resonance curl. Its formula in the spherical coordinate system and related characteristics (such as the frequency doubling condition, etc.) indicate that the motion mode of secondary quarks in the galaxy is equivalent to the rotation of all point charges in the surface charge with the same precession angle, and under the action of a uniform magnetic field, SeK p -K n The Larmor precession period is the same, which explains the speed and distribution of galaxy movement and proves that dark matter does not exist.

8. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to any one of claims 1 to 4, characterized in that: The step 8 is specifically as follows: The galactic magnetic field can be obtained from Ampere's circuit theorem and the Pissa equation. but Assuming the magnetic field component vectors of each celestial body in the galaxy are B1, B2...Bn, the overall magnetic field vector matrix of the galaxy is obtained: <h2 style=";text-align:left;direction:ltr">B=[B1,B2,B3...B<h2 style=";text-align:left;direction:ltr"> n <h2 style=";text-align:left;direction:ltr"> ] ②Electron precession angular frequency: (e is the electron charge, m is the electron mass), so for any electron in an atom: ω L1 =ω L2 =...=ω Li ; Then the vector matrix of the second algorithm parameter can be set as w=[ω1,ω2...ω i ] ③According to the Ampere-Maxwell equation: (D=ε0E+P, ε0 is the vacuum dielectric constant, P is the polarization strength), for any two tiny galaxies A and B, since PA=PB and they are in the electric field E formed by the same magnetic field of the final quark quantum entangled state particles, D can be obtained. A =D B ; The displacement currents of A and B are: It can be seen that under the same time change, For each tiny galaxy, the displacement current is: dI1=dI2=...=dI i ; The vector matrix that can set the third algorithm parameter is: I=I1,I2...I i ④ In the Larmor precession magnetic resonance of electrons and protons, the energy expression of different energy levels is E=nhv, taking n=1, and the precession frequency The different precession velocities v of electron and proton Larmor precession will stimulate different precession frequencies, so: The electron precession velocity and proton precession velocity are: The precession time is the ratio of the precession circumference to the precession speed, that is, the electron precession time is: For any two electrons A and B in an atom, they are at the same energy level, so E eA =E eB , and m eA =m eB , so T eA =T eB The Larmor precession magnetic resonance period of electrons in the proton magnetic field is the same, that is, T e1 =T e2 =...=T ei ; It can be set as the fourth vector matrix of the algorithm parameters: T=[T1,T2...T i ] By inputting the above parameters into the quantum BP-transformer algorithm, we can obtain: Attention(B,w,I,T)=B·w·I·T Considering the gradient mutation of quantum dimension, a scaling dimension constant d can be added k , the above attention score algorithm is optimized and can be expressed as: The final result can show the overall operation of the galaxy, and then compared with the actual observation results, the specific situation of the galaxy's dark matter can be obtained through the differences or similarities in parameters such as energy and momentum.

9. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to any one of claims 1 to 4, characterized in that: The step 9 is specifically as follows: epn and eK p -K n They have the same structure, and both achieve quantum entanglement between charged particles through Larmor precession magnetic resonance. The particles themselves have spin characteristics and are directional, but the difference between them lies in the different precession radii. In the process of forming quantum entangled state, the spin direction determines the direction of magnetic moment. On a macroscopic scale, a large amount of SeK p -K n and UeK p -K n The quantum entangled state formed has a spin direction that causes the generated magnetic field to satisfy 100% N-pole upward. Under the action of Ampere's circuit law, it can generate a strong enough circular force to drive the entire galaxy to rotate around the black hole. In DNA and protein molecules, the spin directionality of electrons and protons dominates the distribution of the intramolecular magnetic field and the direction of the interatomic forces, resulting in the overall left-handed shape of the molecule; String theory primarily describes the basic composition of matter from the perspective of energy. Matter is believed to be composed of various patterns generated by the vibrations of tiny strings. These strings are assumed to exist in an eleven-dimensional space-time, and their different vibration modes correspond to different energy states. String vibrations focus on the physical states corresponding to parameters such as energy and frequency, and do not directly introduce entities with clear materiality as basic building blocks. The quantum entangled state model explicitly explains the origin of matter based on the interaction between material entities such as electric charges. The process occurs in the existing four-dimensional space-time, and different material forms are formed by different precession frequencies and energy levels. String theory proposes hypotheses about the possible composition of dark matter through complex mathematical calculations. In this model, based on the physical process of Larmor precession magnetic resonance of four basic particles and combined with Ampere's law of circulation to explain the problem of galaxy rotation curve, SeK in galaxies is p -K n The motion pattern enables the stars within the galaxy to maintain stable rotational motion under the combined action of existing visible matter and quantum entangled state mechanisms, without the need to introduce additional dark matter concepts.

10. The method for exploring the microscopic world and dark matter based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to any one of claims 1 to 4, characterized in that: The step 10 specifically includes the following steps: Step 10-1: Compare the circular force and continuity under the quantum entangled state model and general relativity; Step 10-2, combine the space-time curvature phenomenon to verify the highest energy density property of elementary particles in the EPN quantum entangled state.

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