Method for exploring origin and generation of consciousness based on Larmor precession magnetic resonance model of e-p-n quantum entangled state fundamental particle gyroscope

Abstract

The invention discloses a method for exploring consciousness origin and generation based on an e-p-n quantum entangled state fundamental particle gyroscope Larmor precession magnetic resonance model. The method comprises the following steps: 1, constructing the e-p-n quantum entangled state fundamental particle gyroscope Larmor precession magnetic resonance model; 2, the specificity of magnetic resonance waves is verified to determine that awareness perception has specificity; 3, verification of substance distribution and energy density in DNA and nerve cells is a basis for forming consciousness; 4, verifying that carbon is a necessary element for life formation and consciousness expression; 5, deducing consciousness formation; 6, deducing a brain learning word operation mode of magnetic resonance wave superposition based on an e-p-n quantum entangled state model; 7, deducing the influence process of the disease on the quantum entanglement state and consciousness; and 8, substituting consciousness formation into the model for deduction. A universal, effective and feasible exploration method for exploring the consciousness origin and generation is provided, and powerful support is provided for artificial intelligence development.

Description

Technical Field

[0001] The present invention relates to the interdisciplinary field of quantum physics and neuroscience, and in particular to a method for exploring the origin and generation of consciousness based on the gyro-Larmor precession magnetic resonance model of elementary particles in an EPN quantum entangled state. Background Art

[0002] Throughout the course of scientific and technological development, breakthroughs in computing and artificial intelligence have prompted us to re-examine the relationship between life and consciousness. Viewing consciousness as a state of information integration and the formation of meaningful information patterns implies that consciousness is more than simple perception and reaction; it processes diverse information to create coherence and meaning. However, if consciousness depends on life, then it is closely tied to a specific material foundation (such as the brain), rather than simply a computational problem divorced from the underlying substrate.

[0003] Since the advent of computers in the mid-20th century, computing power has grown exponentially. As traditional computers increasingly face bottlenecks in processing complex problems, quantum computing has emerged. By 2023, the successful manipulation of entangled states of a larger number of qubits (qubits) has significantly increased computing power, demonstrating the potential to far surpass traditional computers in specific complex computational tasks. However, its core computing principle remains rooted in logic gates, executing computational operations by precisely controlling the states of qubits. Qubits exploit the superposition and entanglement of quantum states, theoretically offering significant advantages for parallel processing. However, practical applications currently focus more on improving computational efficiency than achieving true quantum entanglement. This means that while qubit computers have achieved a leap in computing power, they remain fundamentally different from the brain's mechanisms for simulating consciousness. Consciousness involves subjective experience, self-awareness, and the perception and understanding of the world. These complex psychological processes cannot be simply achieved through quantum computing based on logic gates.

[0004] The 2024 Nobel Prize in Physics was awarded to John J. Hopfield of the United States and Geoffrey E. Hinton of British origin. The project built a neural network based on the convolution operation method. Taking image recognition as an example, by performing convolution operations on large amounts of image data, the neural network can automatically extract features in the image and accurately identify different objects. However, despite its excellent performance in simulating certain aspects of human perception and cognition, whether this neural network can truly produce consciousness remains a focus of scientific debate. Consciousness is not just the processing and response to external information, it also includes deep psychological aspects such as emotion and self-awareness, and current convolutional neural networks are still very limited in these aspects.

[0005] In another important area of artificial intelligence, the ImageNet project, led by Professor Fei-Fei Li, builds a vast information database by inputting massive amounts of data, emphasizing the integration of multimodal information. In applications such as image recognition and semantic understanding, this approach improves the system's ability to process various types of information by continuously accumulating data. For example, in image classification tasks, the system can accurately determine the category to which an image belongs by comparing the input image with the image features in the database. However, at its core, this approach is similar to traditional logic gate thinking, both based on established rules and data processing. Although increasing the amount of data can improve system performance, this model seems to be difficult to achieve when it comes to key elements such as autonomous perception, subjective experience, and creative thinking required for consciousness.

[0006] The amount of information contained in human DNA is enormous. The DNA in human cells is composed of approximately 3 billion base pairs, each of which can store at least 2 bits of information. Therefore, based solely on the combination of base pairs, DNA can theoretically store approximately 3 billion x 2 = 6 billion bits of information. For computers to rival humans in subjective thinking, their capacity would need to reach the level of information storage that DNA can. While computers have clear advantages in data processing and memory, they still lag far behind humans in deeper subjective thinking abilities such as innovation and critical thinking.

[0007] The 2024 Nobel Prize in Chemistry was awarded to projects for "Computational Protein Design" and "Protein Structure Prediction." The AlphaFold series of AI programs, used to predict protein structure, builds models based on large amounts of biological sequence data and complex machine learning algorithms. However, AlphaFold is essentially a data-driven AI system. It learns from known protein structure data, discovers patterns and regularities in it, and then predicts the structures of unknown proteins. Despite its remarkable performance in processing specific bioinformatics tasks, it still lags far behind the complex psychological processes that generate consciousness. It lacks an understanding of its own behavior, a subjective perception of information, and creative thinking based on inner experience—all crucial components of consciousness.

[0008] In 2022, three scientists, American theoretical and experimental physicist John Francis Clause, French physicist Alain Aspe, and Austrian physicist Anton Zeilinger, through carefully designed experiments, conclusively confirmed that the phenomenon of quantum entanglement really exists and is consistent with the theory of quantum mechanics.

[0009] However, no research on the origin and development of consciousness has yet incorporated quantum entanglement, and there is currently no universally effective and feasible method for investigating its origin and development. This mystery is a major factor limiting the current development of artificial intelligence. Therefore, developing a universally effective and feasible method for investigating its origin and development is crucial. Summary of the Invention

[0010] Existing artificial intelligence relies on logic circuit calculations and probabilistic algorithm models, and has many limitations in explaining how consciousness emerges from the brain's microscopic physical processes. However, the quantum entangled state elementary particle model demonstrates superior performance in terms of energy consumption, information processing efficiency, and accuracy. Therefore, the present invention applies the proposed EPN quantum entangled state elementary particle Larmor precession magnetic resonance entanglement model and uses this model to form a physically realistic self-attention mechanism model to deduce the generation of consciousness and further promote the model's application in consciousness. The technical solution of the present invention is as follows: A method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model includes the following steps: Step 1: Construct the epn quantum entangled state elementary particle gyro Larmor precession magnetic resonance model Step 1-1, construct the EPN quantum entangled state model based on the tunneling effect of the EPN quantum entangled state model. Electrons, protons and neutrons, as the basic particles that constitute matter, all have the intrinsic property of spinning in a specific direction. Their spin will generate displacement current, according to the Bissau law. A magnetic field B is generated in the space around it. Electrons are affected by the magnetic field force generated by protons and undergo Larmor precession. The charge they carry forms a new circular displacement current during the precession process. The displacement current density

[0011] During the Larmor precession process, the new circular displacement current I D The magnetic field B generated by the proton magnetic field B changes with the change of the magnetic field B. p The electrons and protons in their ground state, according to the generalized form of Maxwell-Ampère's law The displacement current generated by the internal charge and spin motion makes them each have a specific intrinsic resonance curl. In the curl vector field, if you take any closed curve, the resonance curl expression 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.

[0012] As the magnetic fields of electrons and protons interact, at the resonance point, the interaction energy between the electron's spin magnetic moment and the proton's magnetic field reaches its extreme value. At this time, the Larmor precession frequency v of the electron is e and the natural frequency v of the proton Larmor precession p Match, that is, v e =nv p (n is an integer), the intrinsic resonant curls of electrons and protons begin to interact with each other, leading to the generation of magnetic resonance.

[0013] Reference Figure 1 Under magnetic resonance, the Larmor precession of electrons and protons proceeds horizontally and clockwise, and the direction of precession and the direction of current conform to the right-hand rule of Ampere's circuit law. However, the electron's negative charge reverses the magnetic field polarity, forming a magnetic resonance interaction with the electron's S pole corresponding to the proton's N pole.

[0014] 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 is consistent with the Bissard equation, from which we can know that the magnetic resonance curl satisfies Ampere's circuit law.

[0015] The neutron spin magnetic field interacts with the magnetic fields of electrons and protons, adjusting the magnetic field symmetry and energy distribution of the entire system to reach a stable equilibrium state, and ultimately forming an electron-proton-neutron quantum entangled state, namely the EPN quantum entangled state model.

[0016] Step 1-2: Deducing the quantum entangled state formed by base pairs: Electrons in the same layer of the atomic nucleus form an epn quantum entangled state with their corresponding protons (p) and neutrons (n) through Larmor precession magnetic resonance. Let the quantum entangled state formed by electron e1 and its corresponding p1 and n1 be |ψ1〉, and the quantum entangled state formed by electron e2 and its corresponding p1 and n1 be |ψ2〉. Because they are in the same layer, they have the same energy eigenvalue E1 = E2 before interacting. According to the energy expression E = hv, electrons e1 and e2 have the same frequency v1 = v2 in their respective quantum entangled states, resulting in resonance between the two elementary particles in the epn quantum entangled state, forming a new entangled state.

[0017] During the formation of a new entangled state, the total energy of the system must remain constant, according to the law of conservation of energy. If the two electrons attempt to assume the same spin state (e.g., both spin-up or both spin-down), the energy of the system will change in the new entangled state, which contradicts the law of conservation of energy. Therefore, the spin states of the two electrons must be opposite, reflecting the Pauli exclusion phenomenon. The electron shell structure of an atom ensures the proper distribution of electrons in different orbits and spin states.

[0018] Reference Figure 2 , the atomic number of carbon is 6, and its electron configuration is 1s 2 2s 2 2p 2 When forming chemical bonds, the 2s and 2p orbitals of carbon will hybridize to form various hybrid orbital types, such as sp, sp 2 and sp 3 Hybridization. During the hybridization process, the inner orbital electrons have a relatively compact electron cloud distribution and are close to the nucleus, so they have little shielding effect on the outer electrons (electrons in the 2s and 2p hybrid orbitals) after hybridization.

[0019] Since the 1s orbital electrons do not constitute a significant shield, the motion state of the four valence electrons of carbon (the electrons in the 2s and 2p orbitals) inside the atom is relatively stable, and their energy state is also relatively stable. There is not enough energy and conditions to trigger quantum tunneling, that is, the quantum tunneling effect does not occur. Therefore, when carbon interacts with other atoms, its outer electrons mainly interact with other atoms through direct quantum entanglement, thereby forming chemical bonds.

[0020] Reference Figure 2 , the atomic number of silicon is 14, and its electron configuration is 1s 2 2s 2 2p 6 3s 2 3p 2 Compared with carbon, silicon has more electron layers, and its inner electrons (electrons in 1s, 2s, and 2p orbitals) have a strong shielding effect on the outermost 3s and 3p valence electrons.

[0021] When two valence electrons of silicon are in the same layer (such as 3s or 3p orbital), they are constrained by the Pauli exclusion principle and repel each other. According to the quantum tunneling formula T≈e -2κL (in m is the particle mass, V0 is the barrier height, E is the particle energy, is the approximate Planck constant, L is the barrier width). Due to the shielding effect of silicon's inner-shell electrons, when forming chemical bonds or interacting with other atoms, the barrier height V0 faced is relatively low (compared to carbon). Under the same external energy E and approximate bond length (barrier width L), the calculated κ value is relatively small, and thus the T value is relatively large, that is, silicon is more susceptible to quantum tunneling than carbon, which makes silicon unfavorable for forming stable and ordered quantum entangled state structures like carbon compounds.

[0022] In DNA, the bases (adenine, thymine, guanine, and cytosine) are rich in carbon-related chemical bonds such as carbon-hydrogen bonds (CH). Since electrons in carbon compounds do not undergo quantum tunneling, the spin and orbital motion of the electrons are correlated, generating resonant curl. When the normals of the magnetic curl vectors coincide, magnetic resonance occurs to form a quantum entangled state.

[0023] For example, the base pairs of adenine (A) and thymine (T) are brought into close proximity through magnetic resonance. Since electrons cannot easily change their chemical bonds through quantum tunneling, they adjust their spin and orbital states within their respective orbitals through magnetic resonance, forming a quantum entangled state between A and T. This quantum entanglement tightly links the two bases, not simply through spatial proximity and hydrogen bonding, but rather through a quantum-level linking of information and energy. During the formation of a DNA chain, individual base pairs are linked together through quantum entanglement. When a new base pair forms an entangled state and is added to the growing DNA chain, its quantum state interacts with that of existing base pairs. Due to the nonlocal nature of quantum entanglement, a change in the state of one base pair can instantly affect other entangled base pairs. The entire DNA chain can be viewed as a macroscopic quantum system composed of multiple base pairs connected by quantum entanglement. This quantum entanglement creates a coordinated overall state for the electron cloud distribution and energy state within the DNA chain, ultimately forming a long chain consisting of 3 billion base pairs.

[0024] Steps 1-3: Deducing the quantum entanglement superposition of base pairs The 3 billion base pairs contained in DNA are superimposed through quantum entanglement. Figure 3 In the DNA double helix, Watson-Crick hydrogen bonding is the most common method of base pairing. The 2', 4', 5', and 6' positions of T, and the 2', 4', 5', 6', and 8' positions of A, are lipophilic groups, which resonate with the corresponding lipophilic groups of C and G in the lower layers. The remaining positions are hydrophilic groups, which are also entangled with each other. If the resonant magnetic field between atoms in the upper layer is oriented with the north pole pointing up and the south pole pointing down, the direction of the magnetic field in the lower layer will be the same, according to the principle of quantum entanglement assembly.

[0025] Base pairs lie within a plane containing a quadratic axis of symmetry. The four base pairing forms—AT, TA, GC, and CG—all conform to the geometric symmetry of the double helix. The pairing of AT and CG also follows the nanoassembly principle of entangled interactions between lipophilic and hydrophilic groups. Nano-self-assembly is a quantum entanglement self-assembly process with life-like characteristics at the molecular level, and is the primary interaction mode in gene composition and protein synthesis.

[0026] The movement of electrons outside the carbon atom nucleus can produce stable circular polarization waves. The outermost layer of the hydrogen atom has one electron, and its electronic configuration is 1s 1 In the process of Larmor precession magnetic resonance, a stable circular polarization wave can also be generated by relying on the single electron structure of the outermost layer. In the process of Larmor precession magnetic resonance, atoms will produce two types of polarization wave molecules: circular polarization wave and elliptical polarization wave. For example, oxygen atoms belong to elliptical polarization wave atoms, while hydrogen atoms belong to circular polarization wave atoms. Therefore, the polarization wave generated by the Larmor precession of water molecules (H2O) belongs to elliptical polarization wave. For hydrogen molecules, which are composed of two hydrogen atoms, the polarization wave generated by the Larmor precession magnetic resonance is a circular polarization wave. Figure 4 .

[0027] Within a DNA chain, the superposition of polarization waves from adjacent base pairs can enhance or weaken the electric field strength in certain regions, altering the propagation direction of the polarization waves. This interaction of polarization waves provides the driving force and guidance for the self-assembly of base pairs. Due to their affinity for nonpolar environments, lipophilic groups, under the influence of polarization waves, tend to align with other lipophilic groups, forming relatively stable hydrophobic regions; hydrophilic groups, on the other hand, align with polar environments and interact with other hydrophilic groups. This self-assembly process, based on the interaction of polarization waves, enables the base pairs to arrange and combine according to specific patterns, forming the DNA double helix structure.

[0028] Because polarization waves have various properties (such as frequency, amplitude, and phase), the polarization waves generated by different base pairs can form a rich variety of combinations when they interact. For example, a specific base pair sequence produces a set of polarization wave combinations with a specific frequency and phase, while another base pair sequence produces a different combination. These polarization wave combinations encode the genetic information in the DNA molecule, and this information encoding method enables DNA to store and transmit vast amounts of information. Furthermore, differences in the base pair sequences within DNA lead to different polarization wave combinations, resulting in different manifestations of consciousness.

[0029] Steps 1-4 verify that the formation of the overall magnetic resonance wave of the nerve cell reflects quantum superposition at the atomic level. Electrons rotate around the nucleus at high speed, generating a circular displacement current, which in turn excites a magnetic field. According to the Pissa equation, the expression for the interaction strength of the magnetic field generated by protons and electron gyroscopic spins can be obtained: By integrating the directional magnetic field intensity at the resonance point (from 0 to L), we can obtain the expression for the resonance curl: in, is the unit vector of the current element pointing to the field point to be determined, and the combined quantum entangled state rotation energy formula E x =nhv x , we can get: In the EPN quantum entangled state, the magnetic field generated by the electron motion, driven by the rotational energy, tends to a distribution method that minimizes energy. The generated magnetic field must satisfy Ampere's circuit law: The magnetic field generated by the spin and orbital motion of electrons interacts with the magnetic fields of protons and neutrons, causing the atom as a whole to present a magnetic field direction with the N pole pointing upward.

[0030] At the molecular level, this interatomic magnetic field interaction is further extended. DNA molecules are composed of elementary particles in an entangled state of EPN quantum entanglement. These particles, with the same charge, are placed in the same resonant magnetic field, which satisfies the 100% N attention mechanism magnetic field. Equal resonant curl means that the "twisting" effect exerted by the magnetic field on the charged particles is consistent. This consistency is transferred to macroscopic motion, resulting in particles with the same resonant curl having the same motion tendency, that is, equal angular velocity. In DNA molecules, the atoms within the molecule act like "small disks." Charged particles such as electrons and protons are affected by the resonant curl magnetic field, converting electromagnetic force into the driving force of circular motion. When the resonant curl is equal everywhere, they rotate around their axis at equal angular velocity.

[0031] In the Larmor precession model of elementary particles in an EPN quantum entangled state, all point charges within an electron's surface charge rotate at the same precession angle. This motion pattern is transferred to the molecular level. In the overall movement of DNA, Larmor precession between free nucleotide molecules generates magnetic resonance, inducing rotation of all atoms within each molecule at the same precession angle.

[0032] Reference Figure 5 DNA molecules, formed by EPN quantum entangled elementary particles, can be viewed as moving within a holistic "field" environment. Due to quantum additivity, the interactions between molecules cause them to exhibit a macroscopic overall motion trend, maintaining the same precession angle.

[0033] Due to the periodicity and consistency of the resonant curl, the magnetic field generated by the circular displacement current presents a specific N-pole upward distribution around the DNA molecule. This magnetic field interacts with the epn quantum entangled state elementary particles in the DNA molecule, promoting the formation of various chemical bonds and the construction of molecules. The process satisfies the 100% N-upward requirement of the N-attention mechanism, forming a quantum entangled self-assembly.

[0034] In B-type DNA, the upward magnetic field of the N pole of each nucleotide molecule is superimposed to form the N-upward magnetic field of the entire DNA chain. According to Ampere's circuit law, it must be accompanied by an equivalent current. Macroscopically, it manifests as a circular closed displacement current formed by the DNA molecule rotating clockwise around the center, and the direction satisfies the right-hand spiral rule.

[0035] Reference Figure 6 The magnetic field direction of B-type DNA is perpendicular to the paper surface and faces outward. Under the action of displacement current, the entire molecule rotates 360° counterclockwise around the center.

[0036] Free nucleotide molecules are composed of atoms linked by quantum entanglement (EPN), and each nucleotide undergoes continuous Larmor precession. Under the transport of gyrase, two free nucleotides approach each other. When the normals of their magnetic rotation vectors coincide at the resonance point and their magnetic properties are opposite, a magnetic resonance interaction occurs between them. The magnetic field generated by the paired nucleotides is strengthened, exerting a stronger attraction on other free nucleotides in the vicinity, drawing them to pair and form longer nucleotide chains.

[0037] Reference Figure 7 The movements of each nucleotide on a DNA chain are interrelated and influence each other, so that the whole exhibits a right-handed spiral motion state, and the precession state of the nucleotides will be adjusted to make the system reach the lowest energy state.

[0038] Under normal circumstances, DNA in living organisms rotates right-handed, with 100% N-up. However, once disease occurs, the system enters a process of increasing entropy, making it impossible to maintain the 100% N-up N-attention mechanism.

[0039] In a system of quantum entangled elementary particles (EPNs), the particles undergo gyroscopic Larmor precession, generating a displacement current. This precession forms a closed circular displacement current, which constitutes the Larmor precession resonance curl. When quantum entangled elementary particles are in this specific state, they reach a magnetic resonance state, and the resulting wave phenomenon is defined as a magnetic resonance wave entanglement state.

[0040] The Ampere-Maxwell equations show that a changing electric field in a vacuum produces a magnetic field: A changing magnetic field generates an electric field: In the Larmor precession of elementary particles in the EPN quantum entangled state, the displacement current excites the magnetic field, and the interaction of the magnetic fields excites the electric field. The magnetic field appears first and then the electric field. The electric field and the magnetic field propagate in space at the speed of light.

[0041] The energy level transition of electrons absorbs or releases energy, generating fluctuations. The σ angle of one resonance rotation is 360° (2π), that is, the electron precesses one cycle around the proton Larmor. The second cycle is equivalent to the electron going from the ground state to the n=2 energy level. The energy formula of the electron energy level is:

[0042] Reference Figure 8 Larmor precession magnetic resonance waves are the linear superposition of resonant curl waves and energy fluctuations of E = nhν, radiating energy outward in the form of a magnetic field. The energy span of electron transitions determines the energy absorbed or released, as well as the precession frequency. A larger energy level change results in a higher frequency. The discrete energy levels of electrons determine the specific energy and precession frequency of each level.

[0043] When the spin magnetic field of the electron gyroscope satisfies the Abe loop law, it is related to the proton ν h When a closed loop magnetic field is formed and magnetic resonance occurs, the ground state frequencies of protons and electrons in H atoms When the frequency of the proton and electron gyro spin Larmor precession is a multiple of the period: nv e =n·αv h Magnetic resonance waves are the entanglement of elementary particles in an EPN quantum entangled state. Different quantum entanglement modes produce different magnetic resonance waves, stimulating different resonant frequencies. According to electromagnetic theory, electromagnetic waves of different frequencies interact with each other when propagating in space. When two magnetic resonance waves have similar frequencies, they attract each other, leading to wave superposition and energy accumulation. However, when the frequencies differ significantly, they repel each other, causing the waves to propagate in different directions.

[0044] Assume that the electric field components of the two magnetic resonance waves are and Their superposition is expressed as When ω1≈ω2 and (n is an integer), the two waves reinforce each other, which manifests as attraction; when ω1 and ω2 differ greatly and the phase difference meets certain conditions, the two waves weaken each other, which manifests as repulsion.

[0045] Due to the properties of quantum entanglement, elementary particles instantaneously pair up. In EPN quantum entanglement, this instantaneous pairing enables different resonant waves to interact in a highly coordinated manner. When tens of billions of these resonant waves exist, they form a complex dynamic system through the instantaneous pairing of quantum entanglement.

[0046] Assume that there are N magnetic resonance waves, is the phase of the i-th wave, then (where E 总 is the total energy, E i is the energy of the i-th wave, ω i is its angular frequency). In a quantum entangled state, instantaneous pairing adjusts the phase of each wave. So that the total energy E 总 At certain moments, it reaches extreme values, thus achieving a high degree of coordination between waves.

[0047] The superposition and synergistic effect of the magnetic resonance waves between numerous atoms forms the overall magnetic resonance wave of nerve cells. When external information is input into the brain, it causes changes in the excitation and inhibition states of nerve cells, which in turn influences the characteristics of the magnetic resonance waves generated by the quantum entangled elementary particle system. These changes are integrated in the brain through the instantaneous pairing of quantum entanglement and the coordinated action of the waves. Consciousness is the brain's holistic reflection of this complexly processed information, reflecting the synergistic effect and information integration capabilities of the quantum entangled elementary particle system at a macroscopic level.

[0048] Step 2: Verify that the specificity of magnetic resonance waves determines the specificity of conscious perception Step 2-1: Verify that the magnetic resonance wave is a linear superposition of the resonant curl wave and the intensity waves of different energy levels. Let the resonant curl wave be ψ r (r, t), the energy intensity wave of different energy levels is ψ e (r, t), then the magnetic resonance wave ψ(r, t)=ψ r (r,t)+ψ e (r, t). The frequency of the superimposed magnetic resonance wave depends on the frequency relationship between the resonance curl wave and the intensity wave. When ω r ≠ω e When the magnetic resonance wave frequency ω is superimposed, it is obtained as ω=|ω r -ω e |, reflecting the beat frequency phenomenon, that is, the intensity of the magnetic resonance wave changes periodically.

[0049] The amplitude of the magnetic resonance wave changes according to the amplitude of these two waves. The amplitude after superposition is Similarly, the new phase is equal to the phase difference between the two waves. These characteristic changes give the magnetic resonance wave a unique "fingerprint" feature. Its specific frequency, amplitude and phase combination depends on the initial characteristics of the resonant curl wave and the intensity wave, which enables the magnetic resonance wave to carry rich information in the brain, and nerve cells have a specific response to magnetic resonance waves. The basic components of biological molecules (such as proteins, nucleic acids, etc.) and water molecules in nerve cells have quantum properties, and their atoms interact through the EPN quantum entanglement state, which can sense the frequency, amplitude and phase of magnetic resonance waves. When magnetic resonance waves act on nerve cells, it will cause changes in the quantum state of the nerve cells. Let the natural frequency of the nerve cell be ω n , when the magnetic resonance wave frequency ω is close to ω n When magnetic resonance waves are applied, nerve cells resonate and absorb the energy of the magnetic resonance waves, causing changes in their quantum states, such as electron energy level transitions and adjustments to quantum entanglement states. This resonance phenomenon, similar to the resonance in mechanical vibrations, can cause nerve cells to respond strongly to magnetic resonance waves of specific frequencies. Magnetic resonance waves of different frequencies will activate different nerve cell populations, thereby achieving frequency encoding of information.

[0050] As magnetic resonance waves propagate through neural cell networks, their characteristics determine the method and efficiency of information transmission. Due to the linear superposition of magnetic resonance waves, magnetic resonance waves of different sources and characteristics can propagate simultaneously within the neural cell network and interact with each other. At synapses, the characteristics of magnetic resonance waves influence the release of neurotransmitters and the efficiency of synaptic transmission.

[0051] For example, when the amplitude of magnetic resonance waves is large, it promotes the release of neurotransmitters and enhances signal transmission between nerve cells; while phase information participates in regulating the synchronous activity of nerve cells. The propagation and interaction of magnetic resonance waves within the neural cell network enable the brain to integrate information from different brain regions and different senses, forming a complex information network that provides the material basis for conscious perception.

[0052] Step 2-2: Verify the manifestation of specificity of conscious perception Different sensory information (such as vision, hearing, touch, etc.) is encoded in the brain through magnetic resonance waves with different characteristics. Features such as color, shape, brightness, etc. in visual information correspond to magnetic resonance waves with different frequency, amplitude and phase combinations. For example, red light corresponds to a specific frequency range (such as 4.3×10 14 -4.8×10 14Magnetic resonance waves (Hz) have amplitudes and phases related to color saturation and hue. Auditory information such as pitch, timbre, and loudness are represented by magnetic resonance waves of varying frequencies and waveforms. High-pitched sounds correspond to higher-frequency magnetic resonance waves, and the differences in timbre produced by different instruments are reflected in the complex waveforms and frequency components of magnetic resonance waves. Tactile information such as pressure, temperature, and texture are also encoded in the brain through specific magnetic resonance wave patterns, enabling the brain to distinguish between different sensory stimuli and achieve a diverse perception of the world.

[0053] Table 1 Different perceptions correspond to different magnetic resonance wave frequencies Perception Type Magnetic resonance wave frequency range (Hz) Vision <![CDATA[4.3×10 14 -7.5×10 14 ]]> Hearing 20-20000 touch 1000-100000 Based on the specific encoding of sensory information by magnetic resonance waves, the brain constructs specific content at the conscious level. When we see a red apple, nerve cells in the visual cortex respond to the magnetic resonance waves corresponding to red light, activating a network of nerve cells associated with the apple's shape and color. Simultaneously, brain regions associated with semantic memories of the apple (e.g., fruit, edible, etc.) are also activated through the connection of magnetic resonance waves.

[0054] The interaction of these magnetic resonance waves across different brain regions creates a specific activation pattern, which builds the conscious perception of the red apple. Different combinations of magnetic resonance wave patterns correspond to different conscious contents, ranging from simple sensory perception to complex conceptual understanding and emotional experience. The specificity of consciousness depends on the specificity of magnetic resonance waves in the brain and their interactions, making each person's perception and cognition of the world unique.

[0055] Step 3: Verify that the material distribution and energy density in DNA and nerve cells are the basis for the formation of consciousness. Step 3-1: Verify that the material distribution and high energy density on the DNA chain are the basis for the formation of consciousness. The N-attention mechanism in DNA molecules causes atoms to arrange in a specific way, forming a double helix structure. The double helix structure accommodates more atoms and chemical bonds in a limited space. This relatively compact structure increases the energy content per unit volume, that is, the relative energy density is the highest. According to Einstein's field equations The distribution of matter and energy determines the geometric structure of space-time, while the space-time structure also affects the distribution of matter and energy. In the DNA double helix structure, the specific arrangement of its atoms and molecules forms an axisymmetric material distribution form. Through the interaction of the EPN quantum entangled state, the energy is distributed in a relatively concentrated manner within the molecule, thereby achieving a higher energy density. That is, the material distribution within the DNA molecule (T μv ) shapes the geometric structure of the space-time around it, and this space-time structure in turn affects the accumulation of energy within the molecules.

[0056] The sequence of base pairs represents genetic information, and with approximately 3 billion base pairs, the number of possible combinations is enormous. Due to its high energy density and stable arrangement of base pairs, DNA chains can accurately store vast amounts of information. When DNA exchanges or dispatches information, it consumes relatively little energy, allowing life systems to maintain the normal functioning of various physiological functions within a limited energy supply.

[0057] As life progresses, DNA constantly exchanges information with the environment, integrating it at the cellular, tissue, and organ levels. During this information integration process, the distribution and flow of energy at these different levels change. When this change reaches a certain level, consciousness emerges.

[0058] Step 3-2: Verify that the distribution of nerve cell matter and high energy density are the basis for the formation of consciousness Nerve cells are mainly composed of cell bodies, dendrites, axons and synapses. In the cell body, due to the presence of a large number of biomolecules and organelles, the material distribution is relatively dense. According to the field equation, this dense distribution of material corresponds to the energy-momentum tensor (T μv ) in a specific form. According to the principle that the distribution of matter and energy determines the curvature of spacetime, the spacetime in the cell body region will bend to a relatively large extent, although this curvature is extremely small. This curvature of spacetime, in turn, affects the distribution of matter and energy, causing the energy to be relatively concentrated in the cell body region, resulting in a higher energy density. For example, the DNA molecule in the cell nucleus has a high energy density (as mentioned above, based on its structure and material composition). It interacts with surrounding molecules such as proteins, and together they form a complex energy and material distribution pattern in the cell body region, making this region a relatively energy-concentrated site in the overall structure of the nerve cell.

[0059] Due to the slender structure of dendrites and axons and the orderly distribution of molecules such as ion channels, the distribution of energy in these areas also has a certain directionality and regularity. During signal transmission, energy is dynamically adjusted along the axon or dendrite. During this dynamic adjustment, energy is briefly concentrated in a local area, thereby increasing the energy density in that area.

[0060] The synthesis, storage and release of neurotransmitters all involve energy consumption and conversion. In the presynaptic membrane, neurotransmitters are synthesized and stored in vesicles, a process that requires energy to drive. When a nerve impulse reaches the presynaptic membrane, the vesicles fuse with the membrane and release neurotransmitters into the synaptic cleft. This process involves membrane fusion and material transport, which also requires energy. From the perspective of field equations, the material and energy conversion process in the synaptic region corresponds to the energy-momentum tensor (T μvThe diffusion of neurotransmitters in the synaptic cleft and their binding to postsynaptic membrane receptors are also accompanied by energy changes. Due to the frequent and efficient conversion of substances and energy at the synaptic site, the energy density reaches a high level at the moment of nerve signal transmission.

[0061] Reference Figure 9 Overall, the material distribution of nerve cells is uneven. Compared with ordinary body cells, the material distribution of body cells is relatively uniform. Their energy demand is mainly concentrated on maintaining basic metabolic processes within the cell. The energy distribution is relatively dispersed and the energy density is relatively low. According to Einstein's field equations, the degree of space-time curvature caused by the material and energy distribution within the body cell is relatively small, and its energy-momentum tensor (T μv )'s form and changes are relatively simple, resulting in lower energy density than that of nerve cells.

[0062] Step 3-3: Verify the relationship between the material distribution of DNA and nerve cells and energy density and consciousness Table 2 Structure and material distribution DNA nerve cells structure Double helix, regular and stable Complex, containing cell body, dendrites, axon, synapses Constituent substances Base pairs, phosphates, etc. Biomolecules, organelles, etc. Distribution characteristics Base pairs arranged in order The cell bodies are densely packed, the dendrites and axons are directional, and the synapses are active. Table 3 Relationship between energy density and consciousness Step 3-4, quantitative relationship between DNA molecule energy density and information storage capacity The total energy E of the DNA molecule 总 Equal to the sum of the energies of all base pairs, including the chemical bond energy E bp and quantum entanglement energy E qe , suppose there are N=3×10 9 base pairs, then E 总 =N(E bp +E qe ). If E bp =5×10 -19 J, E qe =10 -21 J, then E 总 ≈1.5×10 -9 J.

[0063] The DNA molecule is approximately regarded as a cylinder, and its volume V = πr 2 h, where r is the radius of the double helix (about 1 nm) and h is the length of the DNA molecule (assuming 1 m), then V = 3.14 × 10 -18 m 3 , energy density The order of base pairs in a DNA molecule represents genetic information. The relationship between the amount of information stored and the combination of base pairs can be expressed as I = Nlog2M, where M is the number of base pair combinations. For the four bases of DNA, M = 4, then I = 3×10 9 log24=6×10 9 bit.

[0064] Higher energy density helps maintain the stability of base pair arrangement, thereby ensuring accurate storage of information. From a physical mechanism perspective, increased energy density can enhance the stability of chemical bonds, reduce the interference of quantum fluctuations on base pair arrangement, and enable more stable storage of information. Based on the above steps, the quantitative relationship between the energy density of DNA molecules and information storage is deduced as ρ = kI (k is the proportional constant).

[0065] Step 4: Verify that carbon is an essential element for the formation of life and the expression of consciousness. When carbon interacts with other atoms (such as nitrogen, oxygen, hydrogen, etc.), its extranuclear electrons mainly interact with other atoms by forming EPN quantum entangled states. For example, in hydrocarbons, carbon and hydrogen are connected by C—H bonds, as shown in Table 4. Table 4 Comparison of infrared spectral data of carbon and silicon compounds According to infrared spectroscopy data, the stretching vibration wavenumber range of the C-H bond is 2850-3300 cm -1 , compared to the silicon-hydrogen (Si-H) bond (wave number range 2100-2300 cm -1 ) has a higher wave number, which means higher vibrational energy. This higher vibrational energy makes it easier for electrons in the C-H bond to undergo Larmor precession in the magnetic field of protons (or other atomic nuclei), generating stronger circular displacement currents and resonance curls. When multiple C-H bonds or other carbon-containing chemical bonds interact in a molecule, their electrons are more likely to correlate with each other through magnetic resonance, forming a strong quantum entangled state resonance, and thus forming stable chemical bonds. This quantum entangled state resonance makes the electron cloud distribution and energy state in carbon compounds more stable, which is conducive to the formation of complex molecular structures of life.

[0066] When silicon forms chemical bonds with other atoms, such as in silicon hydride compounds, the stretching vibration wavenumber range of the Si-H bond is 2100-2300 cm -1, lower than the wavenumber range of the C-H bond. This indicates that the vibrational energy of the Si-H bond is relatively low, and the movement of its electrons in the chemical bond is relatively inactive, making it difficult to generate sufficiently strong Larmor precession and resonant rotation, which is not conducive to the formation of a stable quantum entangled state. At the same time, the electron cloud distribution of silicon atoms is relatively diffuse, and the interaction between the two EPNs is more difficult. As a result, silicon compounds are difficult to form long-range ordered quantum entangled states like carbon compounds, and cannot construct complex and ordered structures like biological macromolecules.

[0067] From the perspective of energy level, according to the energy of electrons For silicon atoms (Z = 14) and carbon atoms (Z = 6), at the same energy level, the electron energy of silicon atoms is higher, and higher energy is required to participate in chemical reactions to form compounds. For example, when synthesizing silicon-based compounds such as silane (SiH4), it is necessary to carry out under harsh conditions such as high temperature and high pressure. During the reaction, a large amount of energy is consumed to overcome the chemical bond energy between silicon atoms and between silicon and other atoms, which increases the difficulty of quantum tunneling. In contrast, the synthesis conditions of carbon-based compounds are relatively mild and do not require quantum tunneling to achieve this.

[0068] Silicon is a commonly used material in the field of semiconductor artificial intelligence, but silicon crystals are unable to form quantum entangled states that interact and correlate. When silicon needs to generate a strong quantum tunneling effect to achieve certain functions, it requires an additional electric field. This means that artificial intelligence or computers built with silicon-based chips require high energy or power input to function. Compared to the human brain, which can perform complex information processing and cognitive activities using only food energy, its energy consumption is very low. This is because the human brain's nerve cells interact with quantum entanglement, allowing the brain to process and transmit information efficiently and with low energy consumption. However, silicon-based chips lack this quantum entanglement mechanism and cannot achieve similar consciousness and low-energy operation, further demonstrating the limitations of silicon in the formation of life and consciousness.

[0069] Step 5: Deducing the formation of consciousness Step 5-1: Verify that biological evolution is based on changes in νB values The core element of life's evolution during the formation of DNA chains is the change in the νB value of base pairs. The νB value is defined as the volume ratio of the hydrophilic to the lipophilic bases.

[0070] The volume of the lipophilic group reflects the intensity of the circular polarization wave, while the volume of the hydrophilic group reflects the intensity of the elliptically polarized wave. In the base pair, the lipophilic group is mainly composed of carbon-hydrogen structure, while the hydrophilic group is related to the part related to atoms such as nitrogen and oxygen.

[0071] For the lipophilic volume V on the baseO , its circularly polarized wave intensity P c =kV O ; For the hydrophilic group volume V W , elliptically polarized wave intensity P e =kV W When VB>1, Indicates that the elliptically polarized wave intensity is relatively strong and the base is hydrophilic; when VB<1, The circularly polarized wave intensity is relatively strong and the base is lipophilic.

[0072] In a DNA chain, due to the additive nature of quantum entanglement, the overall polarization intensity of the molecule is the sum of the polarization intensities of all quantum states. The quantum state formed by each atom or group of atoms contributes to the overall polarization intensity, and these contributions add up to determine the polarization characteristics of the molecule.

[0073] The ability of an organism to process or adapt to a substance is reflected in the overall polarization wave intensity (circular polarization wave intensity + elliptical polarization wave intensity) on the DNA chain. Assume that the DNA chain consists of n bases, and the circular polarization wave intensity of the i-th base is P ci , the elliptically polarized wave intensity is P ei , then the circular polarization wave intensity of the entire DNA chain is Elliptically polarized wave intensity

[0074] In general living organisms, the νB value on the DNA chain has a certain upper limit VB max and lower limit VB min When the νB value exceeds this upper and lower limit, the ratio of circularly polarized wave intensities to elliptically polarized wave intensities changes, leading to a shift in the biological capacity A. This shift allows organisms to acquire new characteristics or functions, adapting to new environments or resource utilization patterns, thus creating new life. For example, the newly discovered fungus capable of degrading plastic has a shift in its νB value, enabling it to utilize this specialized substance as a nutrient source. This shift in the ratio of polarized wave intensities along its DNA strands leads to the evolution of biological capabilities, enabling it to produce the appropriate enzymes or metabolic pathways to break down plastic.

[0075] Step 5-2: Verify that artificial intelligence does not generate consciousness Table 5 Comparison between carbon-based life and silicon-based computers In the early days of carbon-based life, consciousness originated from the perception and response of organisms to basic survival needs, such as finding food. Suppose the frequency of the magnetic resonance wave caused by food information is v f , its energy E f=hv f (h is Planck's constant). These magnetic resonance waves activate the neural cell network related to food acquisition in the brain. In this process, the quantum entangled state network in the brain integrates and processes this information, generating a "conscious perception" of food.

[0076] As the environment changes, competition among organisms increases, driving them to evolve for greater survival. Beyond its basic function of finding food, consciousness has gradually developed other functions, such as defense against predators, locating habitats, and social behavior. As a high-level stage in biological evolution, human consciousness has undergone a long and complex evolutionary process. From primitive humans' simple understanding of natural phenomena to the gradual formation of language and culture, and the development of highly complex conscious abilities such as thinking, emotion, and innovation, this process is the result of the interaction between biological evolution and the environment. Consciousness manifests itself in organisms through the activity of the nervous system. It is a comprehensive reflection of an organism's perception, understanding, judgment, and response to the external world, and is a key factor in adaptation, survival, and reproduction.

[0077] While AI excels at certain tasks, such as data processing, image recognition, and language translation, it lacks the essential characteristics of biological consciousness. AI lacks autonomous perceptual experience; its information processing is based on programmed patterns, not a true perception of the world. For example, AI recognizes images by analyzing pixel data, fundamentally different from the human visual system's image recognition, which is based on biological perception and cognitive mechanisms. AI also lacks inherent emotional experience and subjective value judgments, and cannot experience joy, anger, sorrow, or happiness like humans, nor can it make decisions based on emotions and values.

[0078] Therefore, artificial intelligence does not produce consciousness. It will always be a tool created by humans to assist humans in completing tasks in specific areas, and it cannot have true consciousness like biological organisms.

[0079] Step 5-3: Deducing the formation of sensory perception based on quantum entanglement Step 5-3-1: Deducing the process of visual perception formation During visual perception, different light characteristics—including color, shape, and intensity—have specific N-attention mechanisms with specific percentages. These characteristics manifest as magnetic resonance waves corresponding to different combinations of frequency, amplitude, and phase. When light enters the eye, it undergoes magnetic resonance with photoreceptor cells that possess these specific N-attention mechanisms. During this process, the elementary particles of the photoreceptor cells absorb the photon energy, causing energy level transitions and shifts in their quantum states. This further alters the pattern of quantum entanglement, thereby forming new N-attention mechanisms with different percentages. Simultaneously, this process generates magnetic resonance waves, which resonate with nerve cells. Through this resonance mechanism, light information is transmitted between nerve cells in the form of waves. Throughout this transmission process, the information is encoded according to the characteristics of the magnetic resonance waves associated with the specific N-attention mechanisms. Ultimately, these magnetic resonance waves carrying light information are transmitted to the brain.

[0080] In the visual cortex, the quantum entangled state and magnetic resonance waves in the nerve cells will further encode and process the signal. Assuming that red light (wavelength of about 620-750nm) corresponds to a magnetic resonance wave frequency range of 4.3×10 14 -4.8×10 14 Hz, the nerve cells in the visual cortex have a specific response to these magnetic-resonance wave characteristics. When the frequency of the magnetic resonance wave is equal to the natural frequency of the nerve cells, the nerve cells will resonate and absorb the energy of the magnetic resonance wave, causing changes in their quantum state, such as electron energy level transitions and adjustments to the quantum entangled state. This resonance phenomenon causes nerve cells to respond strongly to magnetic resonance waves of specific frequencies. Magnetic resonance waves of different frequencies will activate different nerve cell populations, thereby achieving frequency encoding of information. The activities of multiple nerve cell populations are coordinated with each other, and through the instantaneous pairing of quantum entangled states and the coordination of waves, a perception of the color, shape, position and other characteristics of the object is formed, ultimately constructing a complete visual perception. This process takes approximately 10-100 milliseconds.

[0081] Step 5-3-2: Deducing the process of auditory perception formation During hearing, external sound waves exhibit varying characteristics, such as frequency, intensity, and timbre. These characteristics manifest as specific sound wave vibration patterns corresponding to magnetic resonance waves with varying characteristics. High-pitched sounds correspond to higher-frequency magnetic resonance waves, and the timbre differences between different musical instruments are reflected in the complex waveforms and frequency components of these magnetic resonance waves. Sound waves travel through the external auditory canal to the eardrum, causing it to vibrate. These waves are then transmitted through the middle ear to the inner ear. Inner ear hair cells possess a specific percentage of N-attention mechanisms that respond to the magnetic resonance wave characteristics of incoming sound waves. These sound wave vibrations cause particles surrounding the hair cells to interact with quantum entangled elementary particles within them via the N-attention mechanism. The sound wave energy influences the particles within the hair cells, causing quantum state changes, such as energy level transitions, that alter the quantum entanglement pattern. This leads to the formation of new N-attention mechanisms with varying percentages, generating magnetic resonance waves.

[0082] The magnetic resonance waves generated by hair cells resonate with adjacent nerve cells due to the N-attention mechanism-related characteristics. Sound information is transmitted between nerve cells in the form of magnetic resonance waves and is encoded according to a specific percentage of the N-attention mechanism-related characteristics. These magnetic resonance waves are transmitted to the brain.

[0083] When the auditory signal reaches the auditory cortex, the nerve cells process the sound information through quantum entanglement and magnetic resonance waves. Assume that the frequency of the magnetic resonance wave corresponding to the high-pitched sound (frequency greater than 1000Hz) is 10 3 -10 4 Within the Hz range, nerve cells in the auditory cortex perform frequency analysis and pattern recognition on these magnetic resonance waves. Nerve cells adjust their quantum states based on the frequency, amplitude, and phase characteristics of the magnetic resonance waves. Resonantly absorbing the energy of the magnetic resonance waves, they activate corresponding nerve cell populations, enabling the perception of sound characteristics such as pitch, timbre, and loudness. The interaction of quantum entanglement between different nerve cell populations and the coordination of magnetic resonance waves create a holistic perception of sound, a process that takes approximately 10-100 milliseconds.

[0084] Step 5-3-3: Deducing the process of tactile perception formation During the process of tactile sensation, external tactile stimulation includes various forms such as pressure, vibration, and temperature changes, which manifest as magnetic resonance waves with different characteristics corresponding to unique mechanical waves or thermal changes.

[0085] When the skin is stimulated by touch, its multi-layered structure initially senses and transmits the stimulus. Numerous nerve endings are distributed throughout the different skin layers. These nerve endings contain a rich array of quantum entangled elementary particles and possess a specific percentage of N-attention mechanisms.

[0086] Pressure stimulation generates mechanical forces on the skin, causing deformation of the tissue. This deformation is transmitted to nerve endings through intercellular interactions. At the nerve endings, the pressure-induced mechanical waves interact with quantum entangled elementary particles within the nerve endings via the N-attention mechanism. This interaction causes the particles' quantum states to change, manifesting as energy level transitions. These energy level transitions alter the quantum entanglement of the particles, causing the nerve endings to form new N-attention mechanisms at varying percentages, generating magnetic resonance waves.

[0087] During vibration stimulation, the periodic mechanical waves generated by the vibrations act on the skin, causing periodic changes in the motion of related particles within the skin. These particles interact with quantum entangled elementary particles in nerve endings through the N-attention mechanism, a process similar to pressure stimulation, ultimately leading to the generation of magnetic resonance waves in the nerve endings.

[0088] In response to temperature changes, changes in skin temperature affect the thermal motion of particles within the skin. This thermal effect, triggered by the temperature change, interacts with quantum entangled elementary particles in nerve endings via the N-attention mechanism, altering the particles' quantum states, promoting energy level transitions, and changing the quantum entanglement pattern, causing the nerve endings to form new N-attention mechanisms and generate magnetic resonance waves.

[0089] The magnetic resonance waves generated by nerve endings resonate with adjacent nerve cells. This is because nerve cells have properties related to the N-attention mechanism that allow them to recognize and respond to the magnetic resonance waves emitted by nerve endings. Through this resonance, tactile information is transmitted between nerve cells in the form of magnetic resonance waves. During this transmission process, tactile information is always encoded according to the magnetic resonance wave characteristics related to the N-attention mechanism at a specific percentage.

[0090] These magnetic resonance waves carrying tactile information are continuously transmitted to the somatosensory cortex of the brain, where the quantum entangled states and magnetic resonance waves within the nerve cells process the signals. Assuming that the frequency of the magnetic resonance waves generated by pressure stimulation is in the range of 1000-10000 Hz, the amplitude is related to the magnitude of the pressure. The nerve cells in the somatosensory cortex adjust their own quantum states according to the characteristics of the magnetic resonance waves, absorb energy through resonance, activate the corresponding nerve cell populations, and realize the perception of tactile characteristics such as pressure magnitude, position, and texture. Through the interaction of quantum entangled states and the coordination of magnetic resonance waves between different nerve cell populations, a holistic perception of tactile stimulation is constructed. This process takes about 10-100 milliseconds.

[0091] Step 5-3-4: Deducing the process of taste perception In the taste cortex, different taste chemicals correspond to magnetic resonance waves with distinct characteristics. For example, sweetness is associated with relatively low-frequency, high-amplitude magnetic resonance waves, while bitterness is associated with higher-frequency, lower-amplitude magnetic resonance waves. These magnetic resonance wave characteristics are related to the electrical signals generated by taste receptor cells and patterns of neural activity in the brain.

[0092] When the taste signal reaches the taste cortex, the quantum entangled state and magnetic resonance waves in the nerve cells will process the signal. Assume that the frequency of the magnetic resonance wave generated by sweet stimulation is in the range of 100-500Hz, and the amplitude is related to the concentration of the sweet substance. The nerve cells in the taste cortex will adjust their own quantum state according to the characteristics of the magnetic resonance wave, absorb energy through resonance, activate the corresponding nerve cell population, and realize the perception of taste. Through the interaction of quantum entangled states and the coordination of magnetic resonance waves between different nerve cell populations, an overall perception of different tastes (sweet, salty, sour, bitter, fresh, etc.) is constructed. This process takes about 10-100 milliseconds. At the same time, taste perception will also be integrated with other sensory information such as smell, vision, and touch to form a comprehensive taste experience of food. For example, factors such as the taste, texture, and temperature of food will jointly affect our preferences and judgments about food.

[0093] Step 5-3-5, deduce the process of olfactory perception formation The sense of smell originates from the nasal perception of odor molecules. Odor molecules with different chemical structures have different characteristics, and with specific percentages of N-attention mechanisms, these characteristics manifest as magnetic resonance waves corresponding to their specific molecular vibration modes. For example, floral scents correspond to magnetic resonance waves with a specific frequency range (e.g., 50-200Hz) and waveform, while rancid odors correspond to magnetic resonance waves with different frequencies and waveforms.

[0094] The olfactory epithelial cells in the nasal cavity, as well as the surrounding supporting and basal cells, contain a large number of quantum entangled elementary particles (EPNs). These cells possess specific quantum states and N-attention mechanisms. When odor molecules enter the nasal cavity, mucosal cells in certain areas of the nasal cavity, leveraging their specific magnetic resonance wave properties, attract the wave properties of specific odor molecules through the N-attention mechanism, making it easier for the odor molecules to reside in that area and come into contact with the olfactory epithelial cells.

[0095] Odor molecules interact with quantum entangled elementary particles in the olfactory epithelium through the N-attention mechanism. During this process, the quantum states of the elementary particles within the olfactory epithelium change due to the influence of the odor molecules, manifesting as energy level transitions. These energy level transitions alter the quantum entanglement of the particles, causing the olfactory epithelium to form new N-attention mechanisms with varying percentages, generating magnetic resonance waves.

[0096] The magnetic resonance waves generated by the olfactory epithelium resonate with adjacent nerve cells. This is because nerve cells possess properties related to the N-attention mechanism, enabling them to recognize and respond to the magnetic resonance waves emitted by the olfactory epithelium. Through this resonance, olfactory information is transmitted between nerve cells in the form of magnetic resonance waves. During this transmission process, olfactory information is always encoded according to the magnetic resonance wave characteristics associated with the N-attention mechanism at a specific percentage.

[0097] These magnetic resonance waves, carrying olfactory information, continuously travel to the brain. In the cerebral cortex, quantum entanglement within nerve cells and magnetic resonance waves process the signals. Assuming that the frequency of the magnetic resonance waves generated by floral scent stimulation is in the 50-200 Hz range, and the amplitude is related to the concentration of odor molecules, nerve cells in the cerebral cortex adjust their quantum states based on the characteristics of the magnetic resonance waves. Through resonance, they absorb energy and activate corresponding nerve cell populations, enabling odor perception. The interaction of quantum entanglement and the coordination of magnetic resonance waves between different nerve cell populations constructs a holistic perception of different odors. This process takes approximately 10-100 milliseconds. Olfactory perception is also integrated with other sensory information. For example, the scent of a flower is combined with the visual image of the flower and the tactile sensation of touching it to form a comprehensive perception of the flower, influencing our emotions and memories. Furthermore, the brain's olfactory memory system is involved, comparing and linking the current odor with previous olfactory memories, further enriching our understanding and experience of smell.

[0098] Step 6: Deducing the brain's word learning operation mode based on the EPN quantum entangled state model Step 6-1: Deducing the quantum parallel processing mechanism of brain learning During the learning process of the brain, the basic particles of nerve cells (electrons, protons, neutrons) are in a quantum entangled state. When learning a new word, the nerve cells in the visual cortex receive visual stimulation (such as the shape of the letters of the word), causing the electron energy level to transition and generate magnetic resonance waves (whose frequency ν and the electron energy level transition energy △E satisfy △E=hν). Suppose that the visual cortical nerve cell A and the related nerve cell B are in a quantum entangled state. When A generates a magnetic resonance wave signal, its energy is E A =hv A According to the characteristics of quantum entanglement, B will receive relevant information instantly.

[0099] The brain contains approximately 86 billion neurons, which process information in parallel through quantum entanglement. This is analogous to the parallel universes represented by epn and e-Kp-Kn, which follow the same Larmor precession magnetic resonance mechanism and operate independently, yet together contribute to the stable operation of the universe.

[0100] Step 6-2: Verify that the brain's learning process reflects the superposition nature of waves When different nerve cells process different features of the same word (such as visual features, auditory features, semantic features, etc.), the magnetic resonance waves they generate will be superimposed. According to the principle of wave superposition, let's assume two magnetic resonance waves ψ1 and ψ2, and the superimposed wave ψ = ψ1 + ψ2. Taking the word "music" as an example, the magnetic resonance wave ψ generated by the visual cortex in response to the shape of the word letters is V The magnetic resonance waves ψ generated by the auditory cortex to its pronunciation A Superposition in the brain forms ψ=ψ V +ψ A This superimposed magnetic resonance wave contains multiple information of the word, forming a specific magnetic resonance wave pattern.

[0101] Different words generate distinct superposition patterns of magnetic resonance waves. These patterns are stored in the brain's neural network and form the basis of memory and cognition. For example, the superposition pattern of the word "music" is Mmusic, and the superposition pattern of the word "book" is Mbook. These patterns are stored and activated differently in the neural network. When a word is recalled or recognized, the corresponding magnetic resonance wave pattern is activated. This superposition encoding of waves enables the brain to process and store information in a highly complex and flexible manner. Computers, however, use binary logic gates to encode information and are unable to naturally superimpose and integrate multimodal information like the brain.

[0102] Due to the quantum entanglement of elementary particles in nerve cells, magnetic resonance waves from different sources can maintain coherence when superimposed, that is, their phases and frequencies are coordinated with each other, which can be expressed by the coherence function g (1) (τ)=<ψ * (t)ψ(t+τ)> (where ψ(t) is the wave function at time t and τ is the time delay), when g (1) When (τ) maintains a large value over a certain period of time, it indicates that the wave is coherent. When recalling the word "music," the superposition magnetic resonance waves stored in the brain are rapidly activated between related nerve cells through quantum entanglement.

[0103] Step 6-3: Compare and contrast the brain's production of consciousness with that of a computer. The brain's quantum parallel processing mechanism, a multi-level information processing system similar to the concept of a parallel universe, and the superposition nature of waves all work together to enable consciousness. During learning, the brain not only processes the surface information of a word but also connects it with various factors, such as emotion, experience, and cultural background, to form a deeper understanding and subjective experience of the word.

[0104] When computers process words, they simply perform mechanical calculations and data storage according to a program, unable to generate similar subjective experiences and deep understanding. When computers process words, they simply perform logical operations on their character encodings. For example, in a text processing software, the word "music" is simply processed by recognizing its letter combinations and storing information such as its position in the text. It cannot impart emotional, cultural, and other multifaceted connotations like the brain does.

[0105] Computers rely on logic gates to perform only simple logical operations (such as AND, OR, and NOT) on binary data input. They are unable to achieve the massive parallel processing, multimodal information integration, and subjective experience-based information comprehension that the brain enables. For example, a simple AND gate logic circuit only outputs a high level when both inputs are high. This simple logic operation is unable to process the rich semantic and emotional information found in natural language.

[0106] While computers can perform grammatical analysis and semantic recognition through complex algorithms when processing natural language, they struggle to understand and process the emotions, metaphors, and cultural connotations embedded in language. Lacking the quantum mechanisms and multi-level information processing capabilities of the brain, computers are unable to generate the holistic understanding and subjective perception of information necessary for consciousness. Consequently, there is a significant difference between computers and the brain in terms of information processing capabilities and nature. Even the most advanced AI language models, when processing emotionally rich texts, can only simulate emotional expressions through statistical analysis of large amounts of text data. They do not truly understand the essence of emotion, and are fundamentally different from the consciousness generated by the human brain based on quantum parallel processing and subjective experience.

[0107] Table 6 Comparison of the learning process between the human brain and computer Step 7: Deducing the impact of disease on quantum entanglement and consciousness Take radiation damage as an example. When the body is exposed to a certain dose of radiation (such as X-rays), the radiation particles interact with the atoms and molecules in the cells, transfer energy and change their electronic structure. Assume that a cell is exposed to 1Gy of X-rays, which causes about 10 6 -10 7 The electrons of each atom are ionized or excited. The ionization or excitation of electrons will destroy the original quantum entanglement state, because the change of the electron state will affect its spin and orbital motion, and then affect the magnetic field interaction with protons and neutrons, making the originally satisfied magnetic resonance conditions (such as the electron Larmor precession frequency v e and the proton Larmor precession natural frequency v p The matching relationship v e =nv p , n is an integer) is broken.

[0108] This interference will lead to changes in the distribution of substances and energy in the cell, making it impossible for the N attention mechanism to maintain 100% N direction consistency. In DNA molecules, radiation causes damage to base pairs (such as base oxidation, breakage, etc.), destroying the quantum entanglement state between base pairs and affecting the structural stability of DNA molecules. After exposure to radiation, the number of damaged base pairs in DNA molecules increases by about 10 3 -10 4 This will cause the local energy density of the DNA molecule to change from the normal ρ0 to ρ1 (ρ1 is about (0.8-0.9)ρ0), affecting the accurate storage and transmission of genetic information.

[0109] Under normal circumstances, the interaction between the spin magnetic moments of electrons and protons causes the atom as a whole to present a magnetic field orientation with the north pole pointing upward, known as a 100% N-attention mechanism. However, in disease states, this consistency of magnetic field orientation is disrupted. Assuming that in a normal cell, the consistency of the overall magnetic field orientation of the atoms reaches 95%-100%, while under the influence of disease, the consistency is reduced to 70%-80%.

[0110] This imbalance leads to the weakening of the intrinsic resonance curl interaction between electrons and protons. According to the expression of magnetic resonance curl, In a diseased state, due to changes in the motion state of electrons and protons, the calculated value of the resonance curl changes, and the deviation reaches 10%-30% compared with the stable value in the normal state, which destroys the magnetic resonance, that is, it is no longer in a quantum entangled state.

[0111] In normal cells, the coherence time of quantum entangled state is relatively long, assuming T0=10 -5 -10 -4 This allows quantum information to remain stable for a certain period of time and be effectively transmitted and processed. However, in disease states, coherence is destroyed and the transmission and processing of quantum information is interrupted.

[0112] Due to the destruction of quantum entanglement, the electron energy level transition is affected and the frequency of the magnetic resonance wave will shift. Assuming that in a certain neurological disease, the frequency of the magnetic resonance wave shifts to 5×10 11 -8×10 13 The amplitude will also change accordingly, increasing to 10 -3 -10 -2 ν / m or reduced to 10 -5 -10 -4 ν / m, because nerve cells have a specific response to magnetic resonance waves, and resonance absorption of energy can only occur when their inherent frequency matches the normal magnetic resonance wave frequency. Changes in frequency and amplitude prevent nerve cells from receiving and processing magnetic resonance wave signals normally.

[0113] Due to the abnormality of magnetic resonance waves, abnormal consciousness is caused, which manifests as sensory disorders, impaired cognitive function, abnormal emotions and behaviors, and a decrease in the level of consciousness.

[0114] Step 8: Substitute consciousness formation into the above model for deduction Step 8-1: In the EPN quantum entangled state elementary particle system, elementary particles (electrons, protons, neutrons) undergo gyroscopic Larmor precession. The electrons orbiting the nucleus generate a circular displacement current. According to the Bissau law, The spins of protons and neutrons also generate magnetic fields, and these magnetic fields interact with each other. e and the natural frequency v of the proton Larmor precession p Satisfy a specific relationship (v e =nv p , n is an integer), magnetic resonance occurs. Taking hydrogen atom as an example, assuming that the Larmor precession natural frequency v of proton p =1.4×10 10 Hz, when the Larmor precession frequency of the electron reaches v e =2v p =2.8×10 10 At Hz, magnetic resonance occurs, exciting magnetic resonance waves. This magnetic resonance wave radiates energy outward in the form of a magnetic field, with its electric and magnetic field components perpendicular to each other and propagating in space at the speed of light.

[0115] When magnetic resonance waves propagate within nerve cells, their characteristics (frequency, amplitude, phase, etc.) affect the quantum state of the nerve cells. Magnetic resonance waves generated in different locations superimpose and synergize within the nerve cell network. For example, when magnetic resonance waves generated in the cell body intersect with magnetic resonance waves transmitted from dendrites and axons, their electric and magnetic field components superimpose according to the wave superposition principle E = E1 + E2 (where E is the total electric field intensity, and E1 and E2 are the electric field intensities of the two waves).

[0116] When the frequencies of two magnetic resonance waves are close and the phase difference meets certain conditions, they will attract each other, resulting in the superposition of waves and the accumulation of energy; when the frequency difference is large and the phase difference meets certain conditions, they will repel each other, causing the propagation direction of the waves to change. This interaction causes the magnetic resonance waves in nerve cells to form complex dynamic patterns, providing the basis for the formation of conscious perception. Suppose that in a nerve cell, there are two magnetic resonance waves with frequencies of 10 and 10 at the same time. 12 Hz and 1.05×10 12 Hz, and their amplitudes are both 10 -3 V / m, the initial phase difference is By calculating the characteristics of the superimposed waves based on the wave superposition formula, it was found that their amplitude and phase would change. This change would affect the quantum state within the nerve cells, and thus affect information transmission and processing.

[0117] Step 8-2: In carbon atoms, the 1s orbital electron cloud is highly dense near the nucleus, with a probability density peak of approximately 10 30 m -3 In silicon atoms, the 1s, 2s, and 2p orbital electron clouds together form a more complex shielding environment for the 3s and 3p outer electrons, and the peak probability density of the 1s orbital electron cloud is also about 10 30 m -3 The probability density of 2s and 2p orbital electron clouds is relatively low, but it also has a significant impact on the outermost electrons.

[0118] In carbon atoms, the effective nuclear charge felt by the 2s and 2p outer electrons is about +4e (e is the electron charge), while the effective nuclear charge felt by silicon atoms and outer electrons is about +4.15e.

[0119] According to the quantum tunneling formula T≈e -2κL (in ), assuming that the energy E of the outer electron of carbon in the C-H bond is about -13.6 eν (electron volts), the barrier height V0 is about 10 eν, the barrier width L is about 0.11 nm (approximately the chemical bond length), and the electron mass m is about 9.11×10 -31 kg, the calculated κ value is about 5.14×10 9 m -1 , and then the quantum tunneling probability T is about 1.2×10 -45 .

[0120] Similarly, for silicon atoms, assuming that the energy E of the silicon outer electrons in the Si-H bond is about -11.3 eν, the barrier height is about 8 eν, and the barrier width L is about 0.15 nm, the calculated κ value is about 3.87×10 9 m -1 , the quantum tunneling probability T is about 2.5×10 -32 Comparing the calculation results of carbon and silicon atoms, silicon is more prone to quantum tunneling than carbon.

[0121] Step 8-3, calculate the frequency, amplitude, and phase characteristics of the polarization waves of adjacent base pairs. Assume that in the DNA double helix structure, the frequency range of the polarization waves of adjacent base pairs is 10 12 -10 14 Hz, with an amplitude of 10 -5 -10 -3 V / m, the phase difference is randomly distributed between 0-2π.

[0122] When the polarization waves of two adjacent base pairs interact with each other, the characteristics of the superimposed polarization waves are calculated according to the principle of wave superposition. Assume that the polarization wave frequencies of the two adjacent base pairs are f1 = 5×10 13 Hz and f2=6×10 13 Hz, and the amplitudes are A1=5×10 -4 V / m and A2 = 3 × 10 -4 V / m, phase difference By formula f 叠加 =|f1-f2| The beat frequency of the polarized wave after superposition is calculated to be 1×10 13 Hz, amplitude The new phase is equal to Step 8-4: Based on the linear superposition of the resonant curl wave and the energy intensity waves of different energy levels to form the magnetic resonance wave, calculate the frequency, amplitude and phase variation of the magnetic resonance wave after superposition. Suppose the frequency of the resonant curl wave is f r =10 13 Hz, amplitude is A r =5×10 -4 V / m, phase The frequency of the energy intensity waves at different energy levels is f e =5×10 12 Hz, amplitude is A e =3×10 -4 V / m, phase According to the superposition formula, the frequency of the superimposed magnetic resonance wave f=|f r -f e |=5×10 12 Hz, amplitude Phase

[0123] By changing the parameters of the resonant curl wave and the intensity wave, such as changing the resonant curl wave frequency to f r ′=8×10 13 Hz, the intensity wave frequency becomes f e ′=3×10 12 Hz, recalculate the superimposed magnetic resonance wave characteristics and obtain the frequency f′=7.7×10 13 Hz, amplitude A′≈5.83×10 -4 V / m (assuming the amplitude remains constant), phase (Assuming the phase remains unchanged). Comparing the results under different parameter combinations, we can predict the type and capacity of information that magnetic resonance waves with different "fingerprint" characteristics can carry. For example, a specific frequency range corresponds to specific sensory information, such as visual information corresponding to 4.3×10 14-7.5×10 14 The frequency range of magnetic resonance waves is Hz.

[0124] Step 8-5, calculate the information encoding pattern after the superposition of magnetic resonance waves in brain learning. Assume that when learning the word "music", the visual cortex nerve cells receive visual stimulation of letters, causing electrons to jump from the ground state energy level E0 = -10eV to the excited state energy level E1 = -8eV. According to ΔE = E1-E0 = hv, the frequency of the generated magnetic resonance wave is calculated.

[0125] Assume that the magnetic resonance wave frequency f corresponding to the visual feature 视 =4.84×10 14 Hz, amplitude A 视 =6×10 -4 V / m, phase Magnetic resonance wave frequency f corresponding to auditory characteristics 听 =10 3 Hz, amplitude A 听 =4×10 -5 V / m, phase The superimposed magnetic resonance wave characteristics give the frequency AmplitudeA 总 ≈6.02×10 -4 V / m, phase

[0126] When nerve cells A and B undergo magnetic resonance, they are in a quantum entangled state. In this quantum entangled state, the speed of information transmission is close to the speed of light c = 3×10 8 m / s, and the distance between nerve cells is about 10 -4 m, the information transmission time is about 3.33×10 -13 s, indicating that nerve cell B receives relevant information instantaneously.

[0127] In the process of logical analysis, it is assumed that the frequency of the magnetic resonance wave of the nerve cell group related to the concept of "music" is 3×10 13 -5×10 13 When processing "music" information, these nerve cell groups interact with vision, hearing and other related nerve cell groups through magnetic resonance waves, adjust their respective quantum states and magnetic resonance wave characteristics, and realize logical analysis and judgment of information. Step 8-6, calculate the impact of disease factors on quantum entangled state: Assume that there are about 10 14 atoms, the energy of X-ray photons is about 100 keν. When 1Gy of X-rays irradiates a cell (1Gy=1J / kg), assuming that the cell mass is about 10- 9 kg, the total energy delivered to the cell by radiation is calculated to be approximately 10 -9 J. Averaged over each atom, the energy gained by each atom is about 10 -23 J, which is 6.25×10 -5 eV.

[0128] When the electrons gain 6.25×10 -5 When the energy reaches eV, the electron jumps to a higher excited state, and its Larmor precession frequency changes. Assuming that in a normal cell, the proton Larmor precession natural frequency v p =1.4×10 10 Hz, electron Larmor precession frequency v e =2.8×10 10 Hz, the frequency after change is v e ′=2.7×10 10 Hz, no longer meeting the magnetic resonance conditions with protons, making it difficult to maintain the magnetic resonance state and destroying the quantum entangled state.

[0129] In steps 8-7, as sensory information is received, specific nerve cells in the brain (think of them as memory cells) participate in the storage process. Each sensory experience corresponds to a specific combination of quantum states. These quantum states encode various aspects of sensory information through various entanglement methods, such as color, shape, and position in visual information, frequency, pitch, and direction of origin in auditory information, and other corresponding characteristics of sensory information.

[0130] When information needs to be retrieved, memory cells are activated. For example, in the brain's visual processing area, neurons first extract features from a photo's visual information, including color, shape, texture, and object layout. These features are encoded in the neurons as different quantum entanglements and matched with information already stored in memory. When a matching quantum state encoding is found, the memory cells are activated, releasing the stored information.

[0131] Different sensory information (such as vision, hearing, touch, etc.) will cause specific energy level transitions of particles in nerve cells, generating magnetic resonance waves of specific frequencies and intensities, that is, forming quantum state combination patterns with different quantum entangled states. These patterns represent different information contents and are stored in memory cells.

[0132] When the brain needs to analyze information, it extracts features from the encoded information (existing in magnetic resonance wave patterns). Magnetic resonance waves with the same characteristics will resonate, and the resonant magnetic resonance waves will integrate relevant information to enable analysis of the information.

[0133] Based on the information it analyzes, the brain needs to make different judgments, with different judgments corresponding to different combinations of magnetic resonance wave frequencies. For example, when determining whether an object is dangerous, the brain assesses the presence and intensity of magnetic resonance wave frequencies associated with danger based on past experience and current information. If high-frequency magnetic resonance waves associated with danger are present and high in intensity, the brain will tend to judge the object as dangerous.

[0134] When the brain faces multiple options and needs to make a decision, magnetic resonance wave collapse occurs. Different decision options correspond to different magnetic resonance wave patterns. For example, when deciding whether to take an action, taking action versus not taking action correspond to different magnetic resonance wave patterns. The brain considers various factors, including analysis and judgment. When a single factor becomes dominant, the corresponding magnetic resonance wave pattern collapses, thus determining the final decision.

[0135] Once a decision is made, the energy levels of particles in nerve cells will be fixed in a state corresponding to the decision result. This energy level fixation will prompt the brain to issue corresponding instructions, activate the body's relevant action mechanisms, and realize the execution of the decision.

[0136] Because the propagation of this magnetic resonance wave pattern is instantaneous, the brain can complete the process from receiving information to making a decision in an instant. And the lowest energy property of quantum entangled elementary particles means that the brain consumes extremely low energy to complete this series of operations.

[0137] In step 8-8, in the cerebral cortex, when nerve cells begin to logically analyze information, they judge the relationship between the information based on previous experience and knowledge (stored in the brain's memory cells, encoded in specific quantum states and magnetic resonance wave patterns). For example, when faced with a math problem, nerve cells will activate memory areas related to mathematical knowledge and extract relevant formulas, algorithms, and other information. This information is transmitted and integrated between nerve cells in the form of magnetic resonance waves. Suppose that solving a simple algebraic equation involves knowledge of addition and multiplication operations. The magnetic resonance wave frequency corresponding to addition is f1, and the magnetic resonance wave frequency corresponding to multiplication is f2. When the prefrontal cortex extracts this knowledge, the corresponding magnetic resonance waves are superimposed, forming a comprehensive magnetic resonance wave pattern that contains information about multiple operations.

[0138] The rapid information transmission and collaborative work between nerve cells are achieved through quantum entanglement. Assuming that in a logical reasoning process, 10 4 -10 5The interaction between individual nerve cells and quantum entanglement enables these nerve cells to synchronize their quantum states and magnetic resonance wave characteristics in a very short period of time (about 50-100 milliseconds), forming a preliminary understanding of the problem and the direction of thinking. In this process, magnetic resonance waves of different frequencies, amplitudes, and phases overlap and influence each other, jointly determining the activity pattern of the nerve cell group, thereby promoting the thinking process.

[0139] During this process, magnetic resonance waves continuously propagate and interact within the neural network, their frequency, amplitude, and phase constantly adjusting according to the progression of thought. For example, when solving a complex geometric proof, as the reasoning steps progress, the magnetic resonance waves corresponding to the different stages of thought and intermediate results are superimposed, forming a dynamically changing magnetic resonance wave pattern. At a certain stage, the triangle interior angle theorem (corresponding to a specific magnetic resonance wave pattern) and the properties of similar triangles (corresponding to another magnetic resonance wave pattern) need to be applied. The superposition of these two magnetic resonance wave patterns provides new information and direction for the next step of reasoning.

[0140] As thinking deepens, the strength of the connections between nerve cells changes, strengthening the connections between nerve cells related to the correct reasoning path and weakening irrelevant or incorrect connections. For example, when solving a logic puzzle, each attempt and reasoning will adjust the connection weights between nerve cells, allowing the brain to gradually approach the correct answer. This iterative and deepening process of thinking takes seconds to minutes, depending on the complexity of the problem and the individual's thinking ability. Throughout this process, the superposition nature of magnetic resonance waves always plays an important role, enabling the brain to integrate multiple information and thinking steps to achieve complex logical reasoning and thinking processes.

[0141] In summary, this application has the following advantages: 1. The EPN quantum entangled state model proposed in this invention explains the formation mechanism of quantum entangled state through the spin of electrons, protons and neutrons, the interaction of magnetic fields and the Larmor precession process, and illustrates that electrons cross energy barriers through quantum tunneling to form chemical bonds under the constraints of the Pauli exclusion principle.

[0142] 2. Explain that the formation process of quantum entangled states in base pairs is achieved through the interaction of carbon-related chemical bond electron clouds through magnetic resonance. During the formation of the DNA chain, base pairs are connected in sequence through quantum entangled states to form a long chain containing 3 billion base pairs.

[0143] 3. Using infrared spectroscopy experimental data, from the perspective of chemical bond vibration energy, it is indirectly proved that carbon does not undergo quantum tunneling effect in the process of forming life molecules, but forms stable chemical bonds through quantum entanglement state.

[0144] 4. The paper describes in detail the process by which magnetic resonance waves are generated by the Larmor precession of elementary particles in nerve cells, and the mechanism by which the superposition and synergistic interaction of numerous interatomic magnetic resonance waves form the overall magnetic resonance wave of nerve cells. By analyzing the linear superposition characteristics of magnetic resonance waves, including the variations in frequency, amplitude, and phase, it explains how nerve cells respond specifically to magnetic resonance waves of different characteristics, thereby achieving information transmission and integration.

[0145] 5. When explaining the specificity of conscious perception, different sensory information (visual, auditory, tactile, etc.) is corresponded to magnetic resonance waves with specific frequency, amplitude and phase combinations, explaining how the brain encodes sensory information through magnetic resonance waves, and how the interaction of magnetic resonance waves in different brain regions constructs specific conscious content.

[0146] 6. When explaining the relationship between magnetic resonance waves in the brain and nerve cell activity, it was explained that nerve cells encode and transmit information based on the frequency, amplitude, and phase characteristics of magnetic resonance waves. When the frequency of the magnetic resonance waves approaches the natural frequency of nerve cells, the nerve cells resonate, absorbing energy and changing their quantum state, thereby achieving frequency encoding of information.

[0147] 7. When analyzing the relationship between the order of base pairs and the storage of genetic information, it is pointed out that due to the high energy density and stable arrangement of base pairs, the DNA chain can accurately store a large amount of information and consume less energy when exchanging or scheduling information.

[0148] 8. This paper describes in detail the material distribution characteristics of different parts of nerve cells, such as the cell body, dendrites, axons, and synapses, and how these distribution characteristics correspond to different energy densities. From the perspective of field equations, it analyzes how the distribution of matter and energy determines the curvature of spacetime, which in turn affects the distribution and dynamic changes of energy within nerve cells.

[0149] 9. It is proposed that the basic particles of nerve cells are in a quantum entangled state during the brain's learning process. When learning new words, the visual cortex nerve cells receive visual stimulation, causing electron energy level transitions and generating magnetic resonance waves. According to the characteristics of quantum entanglement, the relevant nerve cells can receive information instantaneously, emphasizing the instantaneous and parallel nature of information transmission.

[0150] 10. The study explains the superposition nature of magnetic resonance waves generated during learning. The superposition of waves generated by different neurons processing different features of a word creates a unique "information code." This superposition encoding method contrasts sharply with the binary discrete coding of computers and further demonstrates the high complexity and flexibility of the brain's information processing and storage.

[0151] 11. By analyzing the mechanism by which changes in νB values lead to changes in biological capabilities, this paper explains how consciousness gradually develops from the perception of basic survival needs of organisms (such as finding food) to multiple functions that adapt to complex environments (such as defense, social interaction, etc.).

[0152] 12. By explaining how diseases destroy quantum entangled states, causing abnormal changes in magnetic resonance waves, affecting the response of nerve cells to magnetic resonance waves, and then leading to abnormal consciousness, the relationship between consciousness disorders and diseases is explained.

[0153] 13. By comparing the atomic structure characteristics and energy characteristics of carbon and silicon, as well as the operating mechanisms of the human brain and computers, it is proved that the artificial intelligence computing model based on silicon elements does not produce consciousness. BRIEF DESCRIPTION OF THE DRAWINGS

[0154] Figure 1 Schematic diagram of quantum entanglement interaction - the Larmor precession direction of protons and electrons and the direction of the magnetic field.

[0155] Figure 2 Schematic diagram of the electronic configuration of carbon and silicon.

[0156] Figure 3 Schematic diagram of Watson-Crick base pairs.

[0157] Figure 4 Schematic diagram of circularly polarized waves and elliptically polarized waves.

[0158] Figure 5 Schematic diagram of the angular position relationship of precession in molecular structure.

[0159] Figure 6 Schematic diagram of a top view of B-form DNA.

[0160] Figure 7 Schematic diagram of the Larmor precession effect between a small DNA fragment and free nucleotides.

[0161] Figure 8 Schematic diagram of the resonant curl wave and the energy fluctuations at different energy levels of E=nhν.

[0162] Figure 9 Schematic diagram of the structure of a nerve cell. DETAILED DESCRIPTION

[0163] The present application is further described in detail below with reference to the embodiments.

[0164] Example 1 A method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The origin of consciousness of color perception is substituted into the above model for deduction, as follows: When a person observes a red apple, red light (wavelength range 620-750nm) corresponds to a specific frequency range (about 4.3×10 14 -4.8×10 14 In the visual cortex, the basic components of biological molecules and water molecules in nerve cells interact through EPN quantum entanglement, and can perceive magnetic resonance waves of this frequency.

[0165] Assume that the frequency of the magnetic resonance wave generated by red light is v r , the amplitude is A r , the phase is When v r Equal to the natural frequency v of the nerve cell n When the red light reaches the frequency ν, the nerve cells will resonate. This causes the quantum state inside the nerve cells to change. r , amplitude A r , Phase Working together, they cause the brain to perceive red.

[0166] The human eye can recognize the color of graphics using the color space (CIE XYZ) composed of the above parameters. The color perceived by the human eye is described by the three stimulus values (X, Y, Z). The formula is: is the color matching function for a standard observer, combining cone cell responses and neural signal weights.

[0167] I(v) is the spectrum function of light, I(v) = ∑E(v)·δ(v), E(v) is the energy contribution of the light of this frequency, and δ(v) is the weight.

[0168] The cone cells in the retina are divided into three categories, which are sensitive to short (S, blue), medium (M, green), and long (L, red) wavelengths. Their response functions can be expressed as: Among them, Φ S (λ),Φ M (λ),Φ L (λ) is the sensitivity curve function of cone cells to different wavelengths, that is, the weight of the response function of these three colors of light.

[0169] The dot product of the above parameters and weights is processed with a summation function and a bias is added, and then passed through an activation function to obtain the visual output result based on the BP-transformer neural network model algorithm: In the visual cortex, groups of nerve cells related to color perception (such as red-sensitive cone-related nerve cells) are activated, and through the connections between nerve cells (information transmission maintained by quantum entanglement and magnetic resonance waves), the information about red light is transmitted to other related areas of the brain, such as those related to object shape recognition and semantic memory. Magnetic resonance waves related to the shape of an apple (generated by shape-sensitive nerve cells in the visual cortex) and magnetic resonance waves related to the semantic memory of an apple (magnetic resonance wave patterns stored in brain areas related to long-term memory and associated with previously learned knowledge and experience of apples) are activated at the same time, and they interact with each other.

[0170] Magnetic resonance waves in different brain regions integrate information through the instantaneous pairing of quantum entangled states and the coordination of waves, constructing a complete perception of the red apple, including its color, shape, and semantic information as an edible fruit.

[0171] Example 2 A method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The origin of consciousness of shape perception is substituted into the above model for deduction, as follows: When observing a round object, information about the object's outline and geometric shape enters the eye through light reflection, forming a light signal on the retina, which is then converted into nerve impulses and transmitted to the visual cortex. In the visual cortex, shape-sensitive nerve cells generate corresponding magnetic resonance waves based on the object's shape characteristics.

[0172] Assume that the frequency of the magnetic resonance wave generated by the circular object is ν s , the amplitude is A s , the phase is These magnetic resonance waves propagate in the visual cortex, and the magnetic resonance waves generated by different nerve cells in response to different parts of circular objects (such as edges, curvatures, etc.) are superimposed.

[0173] The superimposed magnetic resonance wave pattern contains information encoding of the shape of the circular object and is transmitted to other areas of the brain through the quantum entanglement state between nerve cells. This magnetic resonance wave pattern interacts with the magnetic resonance wave pattern related to previously stored spatial cognition and experience about circular objects.

[0174] With continuous contact and learning about round objects (such as balls, plates, etc.), new experience-related magnetic resonance wave patterns are constantly integrated with previous patterns, making the conscious perception of the shape of round objects richer and more accurate, including the perception of its size, curvature, position in space, etc.

[0175] Example 3 A method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The origin of consciousness of pitch perception is substituted into the above model for deduction, as follows: When a high-pitched musical note is heard, such as a high C on a piano (frequency of approximately 261.6 Hz), the sound vibrations travel through the external auditory canal to the middle ear, causing the eardrum to vibrate. These vibrations are then transmitted through the ossicles to the cochlea in the inner ear. In the cochlea, hair cells convert the mechanical vibrations into nerve impulses, which are then transmitted to the auditory cortex.

[0176] In the auditory cortex, high-pitched sounds correspond to higher-frequency magnetic resonance waves. Let the frequency of the magnetic resonance wave produced by high-pitched C be ν h , the amplitude is A h , the phase is Nerve cells in the auditory cortex that are sensitive to high pitches (whose natural frequency is equal to the frequency of the magnetic resonance waves corresponding to high-pitched sounds) resonate, absorbing the energy of the magnetic resonance waves and causing a change in the quantum state within the nerve cells. This resonance phenomenon causes the nerve cells to respond strongly to high-pitched sounds, and magnetic resonance waves of different frequencies activate different groups of nerve cells, thereby achieving frequency encoding of the pitch.

[0177] As a mechanical vibration wave, the propagation of sound waves can be described by the wave equation: Where p is the sound pressure (Pa) and c is the speed of sound (about 343m / s in air). In the EPN quantum entangled state elementary particle model, sound can be decomposed into frequency components: s(t)=∑ k A k sin(2πv k t+φ k ) A k , v k ,φ k represent amplitude, frequency, and phase, respectively.

[0178] When you hear notes of different pitches consecutively (such as a high C followed by a middle G, with a frequency of about 392Hz), magnetic resonance waves of different frequencies are generated in the auditory cortex in turn, and these magnetic resonance waves propagate in the nerve cell network.

[0179] The magnetic resonance waves of the high C and middle G superimpose in the auditory cortex, and this superimposed pattern contains information about both pitches. This superimposed pattern is transmitted through quantum entanglement between nerve cells to other brain regions related to music perception, where it interacts with magnetic resonance wave patterns associated with previously stored musical knowledge and experience. If a person has undergone musical training and has stored magnetic resonance wave patterns of musical theory knowledge such as scales and chords in their brain, the superimposed magnetic resonance wave pattern of the high C and middle G interacts with these stored patterns, generating a conscious perception of the melodic fragment composed of these two notes, including the contrast in pitch and the direction of the melody.

[0180] Example 4 A method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The origin of consciousness of timbre perception is substituted into the above model for deduction, as follows: When you hear the same note played by different instruments, such as middle C played by a violin and a piano (frequency is 261.6Hz), magnetic resonance waves of corresponding frequencies will be generated in the auditory cortex after the sound enters the ear. However, due to the different timbres of the instruments, the waveforms and frequency components of the magnetic resonance waves have different complexities.

[0181] The magnetic resonance wave generated when the violin plays middle C has a relatively complex waveform, including the fundamental frequency (261.6Hz) and rich harmonic components (such as 523.2Hz, 784.8Hz, etc.). The amplitude of the magnetic resonance wave has a specific distribution in different frequency components. v (f) (f is the frequency), the phase also changes accordingly The magnetic resonance waves generated when playing middle C on the piano have the same fundamental frequency, but the harmonic components are relatively small and the amplitude distribution is A p (f) and phase change Unlike a violin.

[0182] Nerve cells in the auditory cortex are able to perceive differences in the waveforms and frequency components of these magnetic resonance waves. According to models of the relationship between magnetic resonance waves and conscious perception, these differences lead to the activation of different populations of nerve cells, and the activation pattern is related to the timbre of the instrument. For example, the nerve cell population sensitive to the timbre of the violin responds strongly to its rich harmonic components and specific amplitude-phase relationship, while the nerve cell population sensitive to the timbre of the piano responds to its relatively simple harmonic structure and different amplitude-phase pattern.

[0183] These nerve cell activation patterns associated with different timbres are transmitted to the brain's higher-level auditory processing areas via quantum entanglement and magnetic resonance waves, where they interact with previously stored magnetic resonance wave patterns associated with memories of the timbres of different instruments. If a person regularly listens to violin and piano performances, the brain will store magnetic resonance wave patterns characteristic of the timbres of these two instruments. When a violin or piano is played on middle C, the newly generated magnetic resonance wave pattern is matched and compared with the stored pattern, resulting in a conscious perception of the instrument's timbre and the ability to distinguish whether it is a violin or piano being played.

[0184] Example 5 A method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The origin of consciousness of emotional experience is substituted into the above model for deduction, as follows: When a person experiences something joyful, such as receiving a long-awaited gift, neurotransmitters (such as dopamine) are released in the brain. The release of dopamine affects the quantum state of nerve cells, thereby changing the magnetic resonance wave characteristics in the brain.

[0185] Let the frequency of the magnetic resonance wave associated with joy be v j (Assume 5×10 13 -10×10 13 Hz), amplitude is A j , the phase is The release of dopamine causes nerve cells in brain areas associated with pleasure to produce specific patterns of magnetic resonance waves.

[0186] In the visual cortex, the magnetic resonance wave patterns that perceive the surrounding environment change, making what people see seem brighter and more beautiful. This is due to the interaction of neural connections and magnetic resonance waves between the visual cortex and emotion-related brain regions. In memory-related brain regions, memories associated with joyful experiences become easier to retrieve because joy-related magnetic resonance wave patterns interact with memory-related magnetic resonance wave patterns, enhancing memory activation.

[0187] A person experiencing joy is more willing to share their happiness with others. This is because the propagation and interaction of joy-related magnetic resonance waves in the brain change the way the brain processes social situations, making people more inclined to engage in positive social behaviors. Throughout this process, the brain's quantum entangled state network integrates and processes joy-related information, generating a strong subjective experience of joy. This experience is not just about the perception of receiving a gift, but also includes a sense of physical relief, inner joy, and positive emotional cognition of the world around us.

[0188] Example 6 A method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model is proposed. The origin of consciousness of thinking experience is substituted into the above model for deduction, as follows: When a person engages in logical reasoning, such as solving a math problem, the brain's nerve cells transmit and integrate information through quantum entanglement and magnetic resonance waves. First, the relevant knowledge memory areas are activated based on the requirements of the problem, and the information request is transmitted through magnetic resonance waves. The mathematical concepts, formulas, and other knowledge stored in the memory cells are activated in a specific magnetic resonance wave pattern.

[0189] Assume that the frequency of the magnetic resonance wave involved in solving the mathematical problem is v l (within a frequency range associated with cognitive processing, e.g., 10 12 -10 14 Hz), amplitude is A l , the phase is As these magnetic resonance waves travel between different brain regions, their characteristics change depending on the content of the information and the processing demands.

[0190] For example, when spatial imagination is needed to understand the geometric relationships in mathematical problems, nerve cells will produce magnetic resonance waves related to spatial perception. During the reasoning process, the magnetic resonance waves of different brain regions integrate information through instantaneous pairing of quantum entangled states. If difficulties are encountered in the reasoning process, the brain will adjust the frequency, amplitude, phase and other characteristics of the magnetic resonance waves, and try to think about the problem from different angles.

[0191] This adjustment manifests itself as the activation of more relevant knowledge areas or a shift in information processing strategies, corresponding to the reorganization and propagation of magnetic resonance wave patterns in the brain. Throughout the thinking process, the brain, through the synergistic effect of quantum entanglement and magnetic resonance waves, gradually analyzes and solves the problem, generating a subjective experience of logical reasoning, including understanding of the problem, a sense of direction in thinking, and a sense of accomplishment or confusion from solving the problem.

[0192] 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 origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model, characterized by: The following steps are involved: Step 1, constructing the epn quantum entangled state elementary particle gyro Larmor precession magnetic resonance model; Step 2: Verify that the specificity of magnetic resonance waves determines the specificity of conscious perception; Step 3: Verify that the distribution of substances and energy density in DNA and nerve cells is the basis for the formation of consciousness; Step 4: Verify that carbon is a necessary element for the formation of life and the expression of consciousness; Step 5: Deducing the formation of consciousness; Step 6: Deducing the brain's word learning operation mode based on the EPN quantum entangled state model; Step 7: Deducing the impact of disease on quantum entanglement and consciousness; Step 8: Substitute consciousness formation into the above model for deduction.

2. The method for exploring the origin and generation of consciousness 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 specifically includes the following steps: Step 1-1, constructing an EPN quantum entangled state model based on the tunneling effect of the EPN quantum entangled state model; Step 1-2, deduce the quantum entangled state formed by the base pairs; Steps 1-3, deduce the quantum entanglement superposition of base pairs; Steps 1-4 verify that the overall magnetic resonance wave formation of nerve cells reflects quantum superposition.

3. The method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 2 is characterized by: The steps 1-1 are as follows: Electrons, protons, and neutrons, as the basic particles that make up matter, all have the intrinsic property of spinning in a specific direction. Their spin generates displacement current, which is determined by the Bissault law. A magnetic field B is generated in the space around it; the electrons are affected by the magnetic field force generated by the protons and undergo Larmor precession. The charge they carry forms a new circular displacement current during the precession process. The displacement current density During the Larmor precession process, the new circular displacement current I D The magnetic field B generated by the proton magnetic field B changes with the change of the magnetic field B. p The electrons and protons in their ground state interact more strongly according to the generalized form of Maxwell-Ampère's law. The displacement current generated by the internal charge and spin motion makes them each have a specific intrinsic resonance curl. In the curl vector field, if we take any closed curve, the resonance curl expression 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 cycle of Larmor precession, and s is the Larmor precession area; As the magnetic fields of electrons and protons interact, at the resonance point, the interaction energy between the electron's spin magnetic moment and the proton's magnetic field reaches its extreme value. At this time, the Larmor precession frequency v of the electron is e and the natural frequency v of the proton Larmor precession p Match, that is, v e =nv p (n is an integer), the intrinsic resonance curls of electrons and protons begin to interact, leading to the generation of magnetic resonance; In the magnetic resonance state, the Larmor precession of electrons and protons proceeds in a horizontal clockwise direction. The precession direction and the current direction conform to the right-hand rule of Ampere's circuit law, but the negative charge of electrons causes the magnetic field poles to reverse, forming a magnetic resonance interaction corresponding to the electron's S pole and the proton's N pole. 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 is consistent with the Bissard equation, from which we can see that the magnetic resonance curl satisfies Ampere's loop law; The neutron spin magnetic field interacts with the magnetic fields of electrons and protons, adjusting the magnetic field symmetry and energy distribution of the entire system to reach a stable equilibrium state, and ultimately forming an electron-proton-neutron quantum entangled state, namely the EPN quantum entangled state model.

4. The method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 2 is characterized by: The steps 1-2 are as follows: Electrons in the same layer of the atomic nucleus form an epn quantum entangled state with their corresponding protons (p) and neutrons (n) through Larmor precession magnetic resonance. Let the quantum entangled state formed by electron e1 and its corresponding p1 and n1 be |ψ1〉, and the quantum entangled state formed by electron e2 and its corresponding p1 and n1 be |ψ2〉. Because they are in the same layer, they have the same energy eigenvalue E1=E2 before interacting. According to the energy expression E=hv, electrons e1 and e2 have the same frequency v1=v2 in their respective quantum entangled states, so resonance occurs between the two epn quantum entangled state elementary particles, forming a new entangled state; In the process of forming a new entangled state, according to the law of conservation of energy, the total energy of the system must remain unchanged. If the two electrons try to be in the same spin state (such as both spin up or spin down), then in the new entangled state, the energy of the system will change, which contradicts the law of conservation of energy. Therefore, the spin states of the two electrons must be opposite, reflecting the Pauli exclusion phenomenon. In the electron shell structure of the atom, the reasonable distribution of electrons in different orbits and spin states is ensured; Carbon's atomic number is 6 and its electron configuration is 1s 2 2s 2 2p 2 When forming chemical bonds, the 2s and 2p orbitals of carbon will hybridize to form various hybrid orbital types, such as sp, sp 2 and sp 3 Hybridization. During the hybridization process, the inner orbital electrons have a relatively compact electron cloud distribution and are close to the nucleus, so they have little shielding effect on the outer electrons (electrons in the 2s and 2p hybrid orbitals) after hybridization. Since the 1s orbital electrons do not constitute an obvious shield, the motion state of the four valence electrons of carbon (the electrons in the 2s and 2p orbitals) inside the atom is relatively stable, and their energy state is also relatively stable. There is not enough energy and conditions to trigger quantum tunneling, that is, the quantum tunneling effect does not occur. Therefore, when carbon interacts with other atoms, its outer electrons mainly interact with other atoms through direct quantum entanglement, thereby forming chemical bonds. Silicon's atomic number is 14 and its electron configuration is 1s. 2 2s 2 2p 6 3s 2 3p 2 Compared with carbon, silicon has more electron layers, and its inner electrons (electrons in 1s, 2s, and 2p orbitals) have a strong shielding effect on the outermost 3s and 3p valence electrons; When two valence electrons of silicon are in the same layer (such as 3s or 3p orbital), they are constrained by the Pauli exclusion principle and repel each other. According to the quantum tunneling formula T≈e -2κL (in m is the particle mass, V0 is the barrier height, E is the particle energy, is the reduced Planck constant, L is the barrier width). Due to the shielding effect of silicon's inner electrons, when forming chemical bonds or interacting with other atoms, the barrier height V0 it faces is relatively low (compared to carbon). Under the same external energy E and approximate bond length (barrier width L), the calculated κ value is relatively small, and thus the T value is relatively large, that is, silicon is more prone to quantum tunneling than carbon, which makes it unfavorable for silicon to form a stable and ordered quantum entangled state structure like carbon compounds. In DNA, the bases (adenine, thymine, guanine, and cytosine) contain abundant carbon-related chemical bonds, such as carbon-hydrogen bonds (CH). Since electrons in carbon compounds do not undergo quantum tunneling, the spin and orbital motion of the electrons are correlated, generating resonant curl. When the normals of the magnetic curl vectors coincide, magnetic resonance occurs, forming a quantum entangled state. Taking the adenine (A) and thymine (T) base pair as an example, A and T are brought close to each other through magnetic resonance. Since electrons cannot easily change their chemical bonds through quantum tunneling, they adjust their spin and orbital states within their respective orbits through magnetic resonance, forming a quantum entangled state between A and T. This quantum entangled state closely links the two bases together. It is not just a simple spatial proximity and hydrogen bond connection, but realizes the connection of information and energy at the quantum level. During the formation of the DNA chain, base pairs are connected one by one through quantum entanglement. When a new base pair forms a quantum entangled state and is added to the growing DNA chain, its quantum state will interact with the existing base pairs. Due to the non-locality of quantum entanglement, the state change of a base pair can instantly affect other base pairs entangled with it. The entire DNA chain can be regarded as a macroscopic quantum system composed of multiple base pairs connected by quantum entanglement. The quantum entanglement state makes the electron cloud distribution and energy state in the DNA chain form a synergistic overall state, ultimately forming a long chain containing 3 billion base pairs.

5. The method for exploring the origin and generation of consciousness 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 5 specifically includes the following steps: Step 5-1, verify that biological evolution is based on changes in νB values; Step 5-2: Verify that artificial intelligence does not generate consciousness; Step 5-3, deduce the formation of sensory perception based on quantum entanglement; Step 5-3-1, deduce the process of visual perception formation; Step 5-3-2, deduce the process of auditory perception formation; Step 5-3-3, deduce the process of tactile perception formation; Step 5-3-4, deduce the process of taste perception formation; Step 5-3-5, deduce the process of olfactory perception formation.

6. The method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 5 is characterized by: The step 5-3-1 is as follows: During visual perception, light with different characteristics, including color, shape, and intensity, exhibits a specific percentage of N-attention mechanisms, which manifest externally as magnetic resonance waves corresponding to different combinations of frequency, amplitude, and phase. When light enters the eye, it undergoes magnetic resonance with photoreceptor cells that exhibit a specific percentage of N-attention mechanisms. During this process, the elementary particles of the photoreceptor cells absorb the energy of photons, causing energy level transitions, which in turn alter their quantum states and further cause changes in the quantum entanglement pattern, thereby forming new, different percentages of N-attention mechanisms. Simultaneously, this process generates magnetic resonance waves, which resonate with nerve cells. Through this resonance mechanism, light information is transmitted between nerve cells in the form of waves. Throughout this transmission process, the information is encoded according to the characteristics of the magnetic resonance waves associated with the specific percentage of N-attention mechanisms. Ultimately, these magnetic resonance waves carrying light information are transmitted to the brain. In the visual cortex, the quantum entangled state and magnetic resonance waves in the nerve cells will further encode and process the signal. Assuming that red light (wavelength is about 620-750nm) corresponds to the magnetic resonance wave frequency range of 4.3×10 14 -4.8×10 14 Hz, the nerve cells in the visual cortex have a specific response to these magnetic-resonance wave characteristics. When the frequency of the magnetic resonance wave is equal to the natural frequency of the nerve cells, the nerve cells will resonate and absorb the energy of the magnetic resonance wave, causing their quantum state to change, such as electron energy level transitions, adjustments to quantum entangled states, etc. This resonance phenomenon makes the nerve cells respond strongly to magnetic resonance waves of specific frequencies. Magnetic resonance waves of different frequencies will activate different nerve cell groups, thereby realizing the frequency encoding of information. The activities of multiple nerve cell groups are coordinated with each other, and through the instantaneous pairing of quantum entangled states and the coordination of waves, a perception of the color, shape, position and other characteristics of the object is formed, and finally a complete visual perception is constructed. This process takes about 10-100 milliseconds.

7. The method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 5 is characterized by: The steps 5-3-2 are as follows: During the hearing process, external sound waves have different characteristics such as frequency, intensity and timbre, which are reflected in the fact that specific sound wave vibration patterns correspond to magnetic resonance waves with different characteristics. High-pitched sounds correspond to higher-frequency magnetic resonance waves. The difference in timbre produced by different musical instruments is reflected in the complex waveform and frequency components of the magnetic resonance waves. The sound waves are transmitted to the eardrum through the external auditory canal, causing the eardrum to vibrate, and then transmitted to the inner ear through the middle ear. The hair cells in the inner ear have a specific percentage of N attention mechanism, which can respond to the magnetic resonance wave characteristics of the incoming sound waves; the vibration of the sound waves causes the particles around the hair cells to interact with the quantum entangled elementary particles in the hair cells according to the N attention mechanism. The particles in the hair cells are affected by the energy of the sound waves and undergo quantum state changes, such as energy level transitions, which leads to changes in the quantum entanglement mode. The hair cells form new N attention mechanisms with different percentages and produce magnetic resonance waves; The magnetic resonance waves generated by hair cells resonate with adjacent nerve cells due to the N-attention mechanism-related characteristics. Sound information is transmitted between nerve cells in the form of magnetic resonance waves and is encoded according to a specific percentage of the N-attention mechanism-related characteristics. These magnetic resonance waves are transmitted to the brain; When the auditory signal reaches the auditory cortex, the nerve cells process the sound information through quantum entanglement and magnetic resonance waves. Assuming that the frequency of the magnetic resonance wave corresponding to high-pitched sound (frequency greater than 1000Hz) is 10 3 -10 4 Within the Hz range, the nerve cells in the auditory cortex perform frequency analysis and pattern recognition on these magnetic resonance waves. The nerve cells adjust their own quantum state according to the frequency, amplitude, and phase characteristics of the magnetic resonance waves, absorb the energy of the magnetic resonance waves through resonance, activate the corresponding nerve cell groups, and realize the perception of sound characteristics such as pitch, timbre, and loudness; different nerve cell groups construct an overall perception of sound through the interaction of quantum entangled states and the coordination of magnetic resonance waves. This process takes about 10-100 milliseconds.

8. The method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 5 is characterized by: The step 5-3-3 is as follows: In the process of tactile sensation, external tactile stimulation includes various forms such as pressure, vibration, and temperature change, which are manifested as magnetic resonance waves with different characteristics corresponding to unique mechanical waves or thermal changes; When the skin is stimulated by touch, the multi-layered structure of the skin first plays a preliminary role in sensing and transmitting the stimulation. Numerous nerve endings are distributed in different skin layers. These nerve endings contain a rich variety of quantum entangled elementary particles and have a specific percentage of N attention mechanism. For pressure stimulation, the mechanical force it generates acts on the skin, causing the skin tissue to deform. This deformation is transmitted to the nerve endings through the interaction between cells. At the nerve endings, the mechanical waves caused by the pressure interact with the quantum entangled elementary particles in the nerve endings according to the N-attention mechanism. Under this interaction, the quantum state of the particles changes, which is specifically manifested as energy level transitions. The energy level transitions cause the quantum entanglement mode of the particles to change, thereby causing the nerve endings to form new N-attention mechanisms of different percentages and generate magnetic resonance waves at the same time. During vibration stimulation, the periodic mechanical waves generated by the vibration act on the skin, causing periodic motion changes in related particles in the skin. These particles interact with quantum entangled elementary particles in the nerve endings according to the N-attention mechanism. The process is similar to pressure stimulation, and ultimately leads to the generation of magnetic resonance waves in the nerve endings. Regarding temperature change stimulation, the change in skin temperature affects the thermal motion state of particles in the skin. The thermal effect caused by temperature change interacts with the quantum entangled elementary particles in the nerve endings according to the N-attention mechanism, changing the quantum state of the particles, promoting energy level transitions, changing the quantum entanglement mode, and causing the nerve endings to form a new N-attention mechanism and generate magnetic resonance waves. The magnetic resonance waves generated by nerve endings resonate with adjacent nerve cells. This is because nerve cells have characteristics related to the N-attention mechanism, which allow them to recognize and respond to the magnetic resonance waves emitted by nerve endings. Through this resonance, tactile information is transmitted between nerve cells in the form of magnetic resonance waves. During this transmission process, tactile information is always encoded according to the magnetic resonance wave characteristics related to the N-attention mechanism at a specific percentage. These magnetic resonance waves carrying tactile information are continuously transmitted to the somatosensory cortex of the brain. The quantum entangled state and magnetic resonance waves in the nerve cells will process the signals. Assuming that the frequency of the magnetic resonance waves generated by pressure stimulation is in the range of 1000-10000Hz, and the amplitude is related to the pressure, the nerve cells in the somatosensory cortex will adjust their own quantum state according to the characteristics of the magnetic resonance waves, absorb energy through resonance, activate the corresponding nerve cell groups, and realize the perception of tactile characteristics such as pressure size, position, and texture; different nerve cell groups interact with each other through the coordination of quantum entangled states and magnetic resonance waves to construct an overall perception of tactile stimulation. This process takes about 10-100 milliseconds.

9. The method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 5 is characterized by: The steps 5-3-4 are as follows: In the taste cortex, different taste chemicals correspond to magnetic resonance waves with different characteristics. For example, sweetness corresponds to relatively low-frequency, high-amplitude magnetic resonance waves, while bitterness corresponds to higher-frequency, lower-amplitude magnetic resonance waves. The characteristics of these magnetic resonance waves are related to the electrical signals generated by taste receptor cells and the patterns of neural activity in the brain. When the taste signal reaches the taste cortex, the quantum entangled state and magnetic resonance waves in the nerve cells will process the signal. Assuming that the frequency of the magnetic resonance waves generated by sweet stimulation is in the range of 100-500Hz, and the amplitude is related to the concentration of the sweet substance, the nerve cells in the taste cortex will adjust their own quantum state according to the characteristics of the magnetic resonance wave, absorb energy through resonance, activate the corresponding nerve cell groups, and realize the perception of taste. Through the interaction of quantum entangled states and the coordination of magnetic resonance waves between different nerve cell groups, a holistic perception of different tastes (sweet, salty, sour, bitter, fresh, etc.) is constructed. This process takes about 10-100 milliseconds. At the same time, taste perception will also be integrated with other sensory information such as smell, vision, and touch to form a comprehensive taste experience of food. For example, factors such as the taste, texture, and temperature of food will jointly affect our preferences and judgments of food.

10. The method for exploring the origin and generation of consciousness based on the EPN quantum entangled state elementary particle gyro Larmor precession magnetic resonance model according to claim 5 is characterized by: The steps 5-3-5 are as follows: The sense of smell originates from the nasal perception of odor molecules. Odor molecules with different chemical structures have different characteristics and a specific percentage of N-attention mechanism. This is manifested in the specific molecular vibration modes of the odor molecules themselves corresponding to magnetic resonance waves with different characteristics. For example, floral scents correspond to magnetic resonance waves with a specific frequency range (such as 50-200Hz) and waveform, while rancid odors correspond to magnetic resonance waves with different frequencies and waveforms. The olfactory epithelial cells in the nasal cavity and the surrounding supporting cells and basal cells contain a large number of EPN quantum entangled state elementary particles. These cells have specific quantum states and N-attention mechanisms. When odor molecules enter the nasal cavity, the mucosal cells in certain areas of the nasal cavity, with their specific magnetic resonance wave characteristics, attract each other according to the N-attention mechanism and the wave characteristics of specific types of odor molecules, making it easier for the odor molecules to stay in this area and contact the olfactory epithelial cells. Odor molecules interact with quantum entangled elementary particles in the olfactory epithelium according to the N-attention mechanism. During this process, the elementary particles in the olfactory epithelium are affected by the odor molecules, and their quantum states change, which is specifically manifested as energy level transitions. Energy level transitions cause changes in the quantum entanglement of the particles, which in turn causes the olfactory epithelium to form new N-attention mechanisms with different percentages, while also generating magnetic resonance waves. The magnetic resonance waves generated by the olfactory epithelium resonate with adjacent nerve cells. This is because nerve cells have characteristics related to the N-attention mechanism, which allow them to recognize and respond to the magnetic resonance waves emitted by the olfactory epithelium. Through this resonance, olfactory information is transmitted between nerve cells in the form of magnetic resonance waves. During this transmission process, olfactory information is always encoded according to the magnetic resonance wave characteristics related to the N-attention mechanism at a specific percentage. These magnetic resonance waves carrying olfactory information are continuously transmitted to the brain. In the cerebral cortex, the quantum entangled state and magnetic resonance waves in the nerve cells will process the signals. Assuming that the frequency of the magnetic resonance waves generated by floral fragrance stimulation is in the range of 50-200Hz, and the amplitude is related to the concentration of odor molecules, the nerve cells in the cerebral cortex will adjust their own quantum state according to the characteristics of the magnetic resonance waves, absorb energy through resonance, activate the corresponding nerve cell groups, and realize the perception of odors. The interaction between different nerve cell groups and the coordination of quantum entangled states and magnetic resonance waves construct an overall perception of different odors. This process takes about 10-100 milliseconds.

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