A method and apparatus for cosmic antineutrino-catalyzed nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance

Abstract

This invention discloses a method and apparatus for cosmic antineutrino-catalyzed nuclear reactions based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance, relating to the field of nuclear reactions. It utilizes palladium to repeatedly absorb and desorb hydrogen to form dynamic micro-regions. Applying a 0.5-5 THz magnetic perturbation excites optical phonons through magnetic moment-angular momentum coupling. The coherent phonons dynamically modulate the potential well to achieve collective quantum tunneling, causing the p-e pair to transition from a quasi-state (p-e deep-bound state) to a true state (nuclear scale). This captures cosmic antineutrinos, leading to quantum state recombination and generating standard neutrons, thus triggering a nuclear reaction chain. This invention elucidates the scientific basis for the selection of the magnetic perturbation frequency, explains the necessity of cyclic loading, and provides a verifiable physical mechanism.

Description

Technical Field

[0001] This invention relates to the field of nuclear reactions, specifically a method and apparatus for cosmic antineutrino-catalyzed nuclear reactions based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance. Background Technology

[0002] Current low-energy nuclear reaction technologies face the following core challenges: The triggering mechanism is unclear: existing technologies generally mention "electrical stimulation" or "magnetic stimulation," but do not explain how electromagnetic energy is specifically converted into the power required for nuclear reactions; Severe energy dissipation: Low-frequency electromagnetic fields (<0.1 THz) mainly excite lattice acoustic phonons, leading to lattice thermal vibrations (heat dissipation) rather than effective nuclear reaction triggering; The dependence of materials on recycling remains unclear: Experiments have shown that repeated hydrogen absorption and desorption can improve reaction efficiency, but the mechanism is unknown. In the last century, Fleschmann and Pons (1989) reported abnormal superheating during the electrolysis of heavy water using palladium electrodes, but the reproducibility of this experiment was extremely poor, and the physical mechanism was unclear, leading to a long-term stagnation in this field. Subsequent research showed that the superheating effect actually increased when a small amount of ordinary water was mixed into the electrolyte, contradicting the traditional deuterium-deuterium fusion hypothesis and further exacerbating the scientific community's confusion. In summary, existing technologies suffer from two core problems: first, the lack of a self-consistent physical theory to explain the contradictions in the Fleschmann-Pons experiment and the HYL1NR phenomenon; and second, the lack of an engineering implementation scheme based on this theory that is sustainable in raw materials and cost-effective. Summary of the Invention

[0003] The purpose of this invention is to provide a method and apparatus for cosmic antineutrino catalytic nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance, so as to solve the problems mentioned in the background art.

[0004] To achieve the above objectives, the present invention provides the following technical solution: A method and apparatus for cosmic antineutrino-catalyzed nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance, comprising the following steps: Dynamic microregions are formed during repeated hydrogen absorption and desorption cycles in a palladium / nickel system. These microregions include lattice defects, α / β phase transition boundaries, nanocracks, and cavities. Within these microregions, quasi-peer-to-peer (PE) spacings of 100-300 fm are formed. The process involves applying an alternating electromagnetic field with a frequency of 0.5-5 THz to excite optical phonons in a palladium-hydrogen lattice via magnetic moment-angular momentum coupling, causing hydrogen atoms to vibrate coherently relative to the palladium lattice. These coherent optical phonons generate periodic localized distortions within the lattice microregions, dynamically lowering the Coulomb barrier between protons and electrons. Through collective quantum tunneling mediated by phonons, the proton-electron pair... True transition to a characteristic radius ~1 fm State; the true The state captures the antineutrino flux of the cosmic background, generating standard neutrinos, which trigger a nuclear fusion reaction that releases energy. The reaction process is as follows: .

[0005] Based on this, the inventors noticed that during the nuclear reaction, the high-energy gamma light generated is confined by the crystal lattice and cannot escape the reaction core. Instead, it is reabsorbed by the deuterium nuclei within the crystal lattice, triggering photocatalytic decay (except for...). ,Right now This secondary reaction helps convert the energy of high-energy gamma radiation into lattice thermal energy (while low-energy gamma radiation is directly converted), ultimately eliminating the radiation's impact on the external environment. This is why HYLENR, an Indian company, claims there is no harmful radiation. Furthermore, due to the presence of the lattice, Captured neutrons may primarily generate Simultaneously, the direct de-excitation releases extremely high heat energy of approximately 20.58 MeV, with only a small amount of T+p generated to enter the next cycle. Furthermore, the newly generated protons and neutrons can be reintroduced into the chain reaction cycle, further enhancing the overall energy gain and raw material utilization of the system. These are precisely the reasons why this reaction series can generate extremely high heat without harmful radiation (γ). The final product is only... , A small amount of palladium also absorbs neutrons and decays into silver. These are the phenomena described by HYLENR.

[0006] As a further aspect of the present invention, the magnetic moment-angular momentum coupling will... The PE system is injected to compensate for the angular momentum mismatch during tunneling, enabling the transition from a spin singlet to a spin doublet.

[0007] As a further aspect of the present invention, the periodic local distortion generated by the coherent optical phonons is equivalent to The transient pressure causes the tunneling probability to change from a single-particle probability. Enhanced to the collective .

[0008] As a further aspect of the present invention, the repeated hydrogen absorption and desorption cycle includes hydrogen absorption to form a β phase and hydrogen desorption to form an α phase, and the cycle is repeated 10-50 times to increase the dislocation density and the proportion of dynamic micro-regions.

[0009] As a further aspect of the present invention, a verification step is also included: by observing the peak thermal output in the range of 0.5-5 THz through a frequency scan of 0.1-10 THz, the magneto-acoustic-tunneling resonance mechanism is verified.

[0010] As a further aspect of the present invention, the present invention also provides a cosmic antineutrino catalytic nuclear reaction device based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance, comprising: The palladium-hydrogen reaction chamber is used to contain a palladium or palladium-nickel alloy target material that absorbs hydrogen naturally. A magneto-acoustic-tunneling triggering system for generating 0.5-5 THz alternating electromagnetic fields, including a THz source, waveguide, and coupling coil; A coherent phonon monitoring module is used for ultrafast laser pump-probe verification of phonon coherence; A thermal measurement system used for calorimetric monitoring of steady-state heat output; An isotope analysis system is used to detect changes in the isotopic composition of target materials.

[0011] Compared with existing technologies, the beneficial effects of this invention are as follows: This invention clarifies the specific path of energy conversion, precisely exciting palladium-hydrogen lattice optical phonons through magnetic moment-angular momentum coupling, avoiding ineffective heat dissipation caused by low-frequency stimulation, and solving the core problem of unclear triggering mechanisms in existing technologies; This invention elucidates the principle of improving reaction efficiency through repeated hydrogen absorption and desorption, namely, generating high-density dynamic micro-regions through cyclic phase transitions, providing a formation environment for pe quasi-bound states, explaining the reason for the poor reproducibility of past low-energy nuclear reaction experiments; Simultaneously, this invention uses cosmic background antineutrinos as a catalyst, eliminating the need for additional neutron beam injection, requiring only palladium-nickel alloy and ordinary hydrogen as raw materials, resulting in low-cost and sustainable raw materials, and can self-consistently explain the contradictory phenomenon in the Fleischmann-Pons experiment where the addition of ordinary water enhances the hyperthermic effect, providing both a clear and self-consistent physical mechanism and an engineering-feasible technical solution. This invention proposes quasi-particles. The model, and the optimization parameters based on it, provide for the first time a self-consistent theoretical explanation and an engineeringable solution to this historical puzzle. Detailed Implementation

[0012] The technical solutions in the embodiments of the present invention will be clearly and completely described below. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0013] In this embodiment of the invention, a method for cosmic antineutrino-catalyzed nuclear reactions based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance is presented. Includes the following steps: (1) Steps for the formation of dynamic micro-regions: In the repeated hydrogen absorption and desorption cycles of palladium / nickel, three types of self-organized local high-pressure reactors are formed: - Lattice defects and dislocation regions (equivalent to thousands of atmospheres, PE spacing <300 fm); - α / β phase transition boundary (6% volume mismatch, interfacial stress, PE spacing 100-200 fm); - Nanocracks and cavities ( (Dissociation of instantaneous high voltage, PE spacing <100 fm); (2) Magnetoacoustic coupling steps: An alternating electromagnetic field with a frequency of 0.5-5 THz is applied to excite optical phonons (rather than acoustic phonons) in the palladium-hydrogen lattice through magnetic moment-angular momentum coupling, causing hydrogen atoms to vibrate coherently relative to the palladium lattice (phase locking, collective enhancement). (3) Phonon-potential well modulation steps: The coherent optical phonons generate periodic local distortions within the lattice microregions, dynamically reducing the height and width of the Coulomb barrier between protons and electrons, thus forming transient quantum tunneling channels. (4) Collective coherent tunneling steps: When the phonon frequency is similar to the pe pair (which can be considered as a quasi-particle, temporarily referred to as...), When the tunneling frequency resonates (satisfying the WKB phase-matching condition), collective quantum tunneling through the phonon medium causes the pe pair to move from the quasi- The transition from state (100-300 fm) to true state State (approximately 1 fm, i.e., nuclear scale, the same below); (5) Steps for capturing antineutrinos in the universe: The truth State capture of cosmic background antineutrino flux (density) A magnetic perturbation-quantum tunneling reaction occurs, ultimately leading to quantum state recombination and the generation of a standard neutron. The reaction equation is as follows: , equivalent to The process by which positrons invert into electrons during a reaction: ; (6) Dynamic regeneration steps: After the reaction, the stress in the micro-region is released, and new hydrogen atoms replenish the micro-region from the bulk lattice, restoring the quasi-stress. This state forms a self-sustaining cycle.

[0014] [Physical details of the magneto-acoustic-tunneling resonance mechanism] 1. Magnetoacoustic coupling mechanism (selection criteria for 0.5-5 THz): Lower limit 0.5 THz: higher than the acoustic phonon cutoff frequency of palladium-hydrogen lattice (~0.1 THz), to avoid energy being converted into overall lattice thermal vibration (heat dissipation); Upper limit 5 THz: Below the upper limit of the palladium-hydrogen optical phonon bandgap (~6 THz), ensuring resonance with the reverse vibrational modes of hydrogen atoms relative to the palladium lattice; Optimal frequency 2.3 THz: Matches the longitudinal optical (LO) mode of the palladium-hydrogen optical phonon, in which the vibration of hydrogen atoms produces the maximum local electric field distortion.

[0015] Magnetic moment-angular momentum coupling: A THz magnetic field acts on the electron magnetic moment (~1 μB) and proton magnetic moment (~2.79 μN), injecting angular momentum ℏ into the PE system to compensate for the angular momentum mismatch during tunneling, thus realizing the transition from a spin singlet (S=0, PE pair) to a spin doublet (S=1 / 2, ... The transformation of ).

[0016] 2. Phonon-potential well modulation mechanism: The periodic potential well generated by coherent optical phonons (phase-locked) can be expressed as: in Phonon amplitude (equivalent pressure > 10) 4 atm), The phonon frequency is 0.5-5 THz. As the wave vector, this dynamic potential well creates a "momentary gap" in the originally smooth Coulomb barrier, significantly reducing the tunneling exponent.

[0017] 3. Collective coherent tunneling mechanism: Tunneling probability when When matched with the tunneling resonant frequency, the exponential term decreases significantly, and a large number of pe pairs tunnel synchronously, forming a macroscopically observable nuclear reaction flow (similar to Josephson junction arrays in superconductors).

[0018] [Relationship with the standard model] The standard neutron (n, PDG number 211) involved in this invention is an electrically neutral baryon composed of udd quarks.

[0019] The invention discovered Quasiparticles are metastable quasiparticles (pe-bound pairs, radius ~1 fm) that exist only in metal hydride lattices, and are distinct from standard neutrons.

[0020] Relationship with the standard neutron: It can trigger quantum state recombination through reaction with cosmic antineutrinos, ultimately generating standard neutrons. This process does not change the fundamental properties of the standard neutron (spin, magnetic moment, decay mode), but only utilizes... It serves as a catalytic intermediate, opening up new channels for neutron generation.

[0021] The theoretical description used in this invention is the application of the low-energy efficient theory (EFT) in the field of nuclear reactions, which complements the quark-gluon description of the Standard Model in the high-energy region (>1 GeV) within their respective applicable ranges.

[0022] Reflections on the Fleschman-Pons Experiment The Fleschmann-Pons experiment accurately utilized the extremely high selectivity and permeability of palladium for hydrogen and its isotopes, and electrolysis is a highly efficient "electrochemical pump." Unfortunately, they chose the wrong protagonist, believing that the deuterium nucleus was the core of cold fusion. In fact, it is precisely the pe bound state of hydrogen within a special metal lattice that absorbs cosmic antineutrinos and tunnels into neutrons, triggering a series of cold fusion reactions. In addition, without a precise "resonance window" for the gain of the electrostimulation system, even adding a small amount of ordinary water (although the effect is better) does not result in a high overall heat production effect, leading many researchers to eventually abandon the research.

[0023] Example 1: Magnetic-Acoustic-Tunneling Resonance Optimized Reactor Material: Palladium-nickel alloy (Pd:Ni=3:1), 0.5mm thick, subjected to 20 cycles of hydrogen absorption and desorption to increase dislocation density.

[0024] Key process parameters: Magnetic perturbation frequency: 2.3 THz (matching Pd-H optical phonon LO mode) Magnetic disturbance intensity: B ~ 0.1-1 T (to ensure magnetic moment-angular momentum coupling) Angular momentum transfer: ΔL = ℏ / 2 (electron) + ℏ / 2 (proton) = ℏ (total angular momentum is conserved) Observations: Steady-state thermal output 150W (COP=1.5), no free neutron radiation, annual modulation amplitude ~0.08%.

[0025] Mechanism: 2.3 THz magnetic perturbation → Excitation of LO phonons → Coherent potential well modulation → Collective tunneling → Formation → Capture → Neutron generation → Nuclear reaction.

[0026] Example 2: Frequency Scan Verification Experiment Method: With other parameters fixed, the magnetic disturbance frequency was scanned from 0.1 to 10 THz, and the heat output was monitored by calorimetry.

[0027] Expected results: 0.1-0.5THz: Low heat output (excitation of acoustic phonons, heat dissipation); 0.5-5THz: Peak thermal output (magnetic-acoustic-tunneling resonance region, COP>1); 5-10THz: Thermal output decreases (detuning, unable to effectively excite optical phonons).

[0028] This experiment can verify the necessity of the magneto-acoustic-tunneling mechanism.

[0029] Example 3: Phonon Coherence Verification Method: Ultrafast laser pump-probe was used to directly observe the optical phonon coherence time of a Pd-H lattice under magnetic perturbation at 2.3 THz.

[0030] Expected: Coherence time > 1ps (corresponding to quality factor Q > 100), sufficient to support collective tunneling.

[0031] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from the spirit or essential characteristics of the invention. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, it is intended that all variations falling within the meaning and scope of equivalents of the claims be included within the present invention.

[0032] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A method and apparatus for cosmic antineutrino-catalyzed nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance, characterized in that, Includes the following steps: Dynamic microregions are formed during repeated hydrogen absorption and desorption cycles in a palladium / nickel system. These microregions include lattice defects, α / β phase transition boundaries, nanocracks, and cavities. Within these microregions, quasi-peer-to-peer (PE) spacings of 100-300 fm are formed. The process involves applying an alternating electromagnetic field with a frequency of 0.5-5 THz to excite optical phonons in a palladium-hydrogen lattice via magnetic moment-angular momentum coupling, causing hydrogen atoms to vibrate coherently relative to the palladium lattice. These coherent optical phonons generate periodic localized distortions within the lattice microregions, dynamically lowering the Coulomb barrier between protons and electrons. Through collective quantum tunneling mediated by phonons, the proton-electron pair... True transition to a characteristic radius ~1 fm State; the true The state captures the antineutrino flux of the cosmic background, generating standard neutrinos, which trigger a nuclear fusion reaction that releases energy. The reaction process is as follows: 。 2. The method for cosmic antineutrino-catalyzed nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance according to claim 1, characterized in that, The magnetic moment-angular momentum coupling will... The PE system is injected to compensate for the angular momentum mismatch during tunneling, enabling the transition from a spin singlet to a spin doublet.

3. The method for cosmic antineutrino-catalyzed nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance according to claim 1, characterized in that, The periodic local distortion generated by the coherent optical phonons is equivalent to The transient pressure causes the tunneling probability to change from a single-particle probability. Enhanced to the collective .

4. The method for cosmic antineutrino-catalyzed nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance according to claim 1, characterized in that, The repeated hydrogen absorption and desorption cycle includes hydrogen absorption to form the β phase and hydrogen release to form the α phase, and the cycle is repeated 10-50 times to increase the dislocation density and the proportion of dynamic micro-regions.

5. The method for cosmic antineutrino-catalyzed nuclear reaction based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance according to claim 1, characterized in that, It also includes a verification step: by scanning the frequency from 0.1 to 10 THz, the peak thermal output is observed in the range of 0.5 to 5 THz to verify the magneto-acoustic-tunneling resonance mechanism.

6. An apparatus for implementing the cosmic antineutrino-catalyzed nuclear reaction method based on palladium-hydrogen dynamic micro-region magneto-acoustic-tunneling resonance as described in any one of claims 1-5, characterized in that, include: The palladium-hydrogen reaction chamber is used to contain a palladium or palladium-nickel alloy target material that absorbs hydrogen naturally. A magneto-acoustic-tunneling triggering system for generating 0.5-5 THz alternating electromagnetic fields, including a THz source, waveguide, and coupling coil; A coherent phonon monitoring module is used for ultrafast laser pump-probe verification of phonon coherence; A thermal measurement system used for calorimetric monitoring of steady-state heat output; An isotope analysis system is used to detect changes in the isotopic composition of target materials.

Images