A system and method for the accelerated degradation of solid nuclear waste

Abstract

The application discloses a system and a method for accelerating the degradation of solid nuclear waste, aiming at eliminating radioactive hazards from the root. The system comprises an inner barrier, an intermediate filling layer and an outer barrier. The inner barrier is made of functional parallel nanotube material, the outer barrier is a titanium alloy container, and the intermediate filling layer is nanotube grade graphene powder. The method is to wrap the solid nuclear waste in the inner barrier, assemble it through the intermediate filling layer and the outer barrier, and then store it in a deep geological environment. Through the strong parallel force field created by the inner barrier and the parallel wave particle flow in the environment, the energy is gathered to deconstruct the cross superposition operation state of the basic particles of the nuclear radiation source. The scheme combines advanced material science, photon physics and philosophical thought, realizes the complete elimination of radioactive hazards, provides the possibility for the transformation and reuse of solid nuclear waste, and has environmental protection and innovation.

Description

Technical Field

[0001] This invention relates to the field of solid nuclear waste treatment, specifically to a system and method for accelerating the decay and degradation of solid nuclear waste. Background Technology

[0002] Currently, the disposal of solid nuclear waste is a major challenge facing the global nuclear energy sector. Its high radioactivity and long decay period pose a long-term potential threat to the ecological environment and human safety. Existing technologies internationally generally employ deep geological burial as a disposal method. This method essentially permanently seals solid nuclear waste, achieving only surface protection through physical isolation and failing to address the root causes of nuclear radiation.

[0003] Traditional methods of handling nuclear waste focus on dealing with the nuclear radiation phenomenon itself, rather than exploring and adjusting the basic particle motion patterns of the nuclear radiation source. They cannot eliminate the radioactive hazards at their source, and there is also the risk of sealing failure and waste leakage during long-term storage. Furthermore, the sealed solid nuclear waste is difficult to recycle and reuse, resulting in a waste of nuclear resources.

[0004] Furthermore, compared to dynamic treatment technologies for liquid nuclear wastewater and nuclear wastewater, there is a lack of targeted and efficient treatment solutions for solid nuclear waste. Existing technologies have failed to fully integrate cutting-edge materials science and quantum physics principles, and the treatment approach is limited to passive protection, making it difficult to completely eliminate radioactive hazards and recycle nuclear resources. There is an urgent need for an innovative technical solution to fundamentally solve the radioactivity problem of solid nuclear waste. Summary of the Invention

[0005] The technical problem to be solved by the present invention is to overcome the defects of the above-mentioned technologies and provide a system and method for accelerating the decay and degradation of solid nuclear waste.

[0006] To solve the above-mentioned technical problems, the present invention provides a system and method for accelerating the decay and degradation of solid nuclear waste: a system for accelerating the decay and degradation of solid nuclear waste, characterized in that:

[0007] The system includes an inner barrier for encapsulating solid nuclear waste, an outer barrier for providing physical protection, and an intermediate filling layer between the inner and outer barriers. The inner barrier is made of functional parallel nanotube material, which can create a strong parallel force field. This strong parallel force field is used to deconstruct the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste. The outer barrier is a container made of titanium alloy, and the intermediate filling layer is nanotube-level graphene powder. The system resonates with the parallel wave particle flow accumulated in the deep geological environment through the strong parallel force field, thereby gathering the parallel wave particle flow in the environment and accelerating the deconstruction of the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste.

[0008] As an improvement, the functional parallel nanotube material of the inner barrier is a parallel array structure of nanotubes. The functional parallel nanotube material has extremely strong anisotropy, and there are significant differences in thermal conductivity, electrical conductivity and mechanical strength properties in the direction perpendicular to the nanotubes and in the direction parallel to the nanotubes.

[0009] As an improvement, the functional parallel nanotube material of the inner barrier has a huge specific surface area, which can provide sufficient space for the interaction and energy conversion of the basic particles of the nuclear radioactive source in solid nuclear waste.

[0010] As an improvement, the functional parallel nanotube material of the inner barrier is an ideal photonic crystal or metamaterial, whose periodic structure can precisely control the propagation of photons.

[0011] As an improvement, the titanium alloy container of the outer barrier can ensure the sealing and structural stability of the system when operating in deep geological environments, and prevent the leakage of solid nuclear waste and damage to the internal structure of the system caused by the external environment.

[0012] A method for accelerating the decay degradation of solid nuclear waste:

[0013] The process includes the following steps: Step 1, encapsulating solid nuclear waste with an inner barrier made of functional parallel nanotube material, which can create a strong parallel force field to deconstruct the cross-superposition state of the basic particles of the nuclear radioactive source; Step 2, setting an intermediate filling layer outside the inner barrier, which is made of nanotube-level graphene powder to assist in the conduction of the strong parallel force field; Step 3, setting an outer barrier made of titanium alloy outside the intermediate filling layer to form a complete protective system; Step 4, placing the assembled system in a deep geological environment for storage, so that the strong parallel force field created by the inner barrier resonates with the parallel wave particle flow accumulated in the deep geological environment, gathering the parallel wave particle flow in the environment and accelerating the deconstruction of the cross-superposition state of the basic particles of the nuclear radioactive source in the solid nuclear waste.

[0014] As an improvement, in step one, the functional parallel nanotube material of the inner barrier ensures the stability and directionality of the strong parallel force field through its parallel arrangement structure, so as to accurately act on the basic particles of the nuclear radioactive source in the solid nuclear waste.

[0015] As an improvement, in step four, the selection of the deep geological environment must meet the requirement of being able to gather a parallel wave particle flow of sufficient intensity to ensure that the parallel wave particle flow and the strong parallel force field can resonate effectively.

[0016] As an improvement, the method eliminates the radioactive hazards of solid nuclear waste at its source by deconstructing the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste. After the radioactive hazards are eliminated, the solid nuclear waste is removed from the system for conversion and reuse.

[0017] As an improvement, during the storage process of the system, the sealing performance of the outer barrier, the structural integrity of the inner barrier, and the strength of the strong parallel force field are monitored regularly to ensure the safety and effectiveness of the entire process.

[0018] The advantages of this invention compared to existing technologies are as follows: the beneficial effects of this technical solution are significant, and its core lies in solving the problem at its root cause of nuclear radiation. It abandons the internationally accepted superficial treatment model for nuclear radiation phenomena, and instead uses functional parallel nanotube materials to create a strong parallel force field, precisely deconstructing the overlapping and intersecting motion state of the basic particles of the nuclear radioactive source in solid nuclear waste. This achieves a "fundamental solution," eliminating radioactive hazards once and for all, and completely avoiding the long-term risks that may exist with traditional treatment methods.

[0019] The system adopts a triple structure design consisting of an inner barrier, a nanotube-level graphene powder intermediate filling layer, and a titanium alloy outer barrier. This design ensures the stable functioning of the strong parallel force field and leverages the resonance between the naturally accumulated parallel wave particle flow and the force field in the deep geological environment to efficiently gather environmental energy and accelerate the processing. It does not require the consumption of a large amount of artificial energy, making it green, environmentally friendly, and pollution-free.

[0020] The processed solid nuclear waste can be safely extracted from the storage environment, paving the way for subsequent transformation and reuse, realizing the recycling of nuclear resources, and aligning with the concept of sustainable development. Simultaneously, the solution integrates cutting-edge nanomaterials science, photonics physics, and Eastern philosophy, not only promoting multidisciplinary and interdisciplinary innovation but also guiding human thinking from a fragmented and confrontational "physical thinking" to a holistic and symbiotic "empty thinking," providing important insights and support for solving global crises and achieving a leap forward in civilization. Attached Figure Description

[0021] Figure 1 This is a system structure diagram of an invention that can be used to accelerate the decay and degradation of solid nuclear waste.

[0022] Figure 2 This is a system resonance process diagram of the present invention, which can be used to accelerate the decay and degradation of solid nuclear waste.

[0023] Figure 3 This is a structural diagram of a system for accelerating the decay and degradation of solid nuclear waste according to the present invention. Detailed Implementation

[0024] To facilitate understanding of this application, a more complete description will be provided below with reference to the accompanying drawings, which illustrate embodiments of the present application. However, the present application can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided so that the disclosure of this application will be thorough and complete.

[0025] Referring to the accompanying drawings, a system and method for accelerating the decay and degradation of solid nuclear waste are disclosed. The system for accelerating the decay and degradation of solid nuclear waste is characterized by:

[0026] The system includes an inner barrier for encapsulating solid nuclear waste, an outer barrier for providing physical protection, and an intermediate filling layer between the inner and outer barriers. The inner barrier is made of functional parallel nanotube material, which can create a strong parallel force field. This strong parallel force field is used to deconstruct the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste. The outer barrier is a container made of titanium alloy, and the intermediate filling layer is nanotube-level graphene powder. The system resonates with the parallel wave particle flow accumulated in the deep geological environment through the strong parallel force field, thereby gathering the parallel wave particle flow in the environment and accelerating the deconstruction of the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste.

[0027] The functional parallel nanotube material of the inner barrier is a parallel array structure of nanotubes. The functional parallel nanotube material has extremely strong anisotropy, and there are significant differences in thermal conductivity, electrical conductivity and mechanical strength properties in the direction perpendicular to the nanotubes and in the direction parallel to the nanotubes.

[0028] The functional parallel nanotube material of the inner barrier has a huge specific surface area, which can provide ample space for the interaction and energy conversion of basic particles of nuclear radioactive sources in solid nuclear waste.

[0029] The functional parallel nanotube material of the inner barrier is an ideal photonic crystal or metamaterial, whose periodic structure can precisely control the propagation of photons.

[0030] The titanium alloy container of the outer barrier can ensure the airtightness and structural stability of the system when operating in deep geological environments, and prevent the leakage of solid nuclear waste and damage to the internal structure of the system caused by the external environment.

[0031] A method for accelerating the decay degradation of solid nuclear waste:

[0032] The process includes the following steps: Step 1, encapsulating solid nuclear waste with an inner barrier made of functional parallel nanotube material, which can create a strong parallel force field to deconstruct the cross-superposition state of the basic particles of the nuclear radioactive source; Step 2, setting an intermediate filling layer outside the inner barrier, which is made of nanotube-level graphene powder to assist in the conduction of the strong parallel force field; Step 3, setting an outer barrier made of titanium alloy outside the intermediate filling layer to form a complete protective system; Step 4, placing the assembled system in a deep geological environment for storage, so that the strong parallel force field created by the inner barrier resonates with the parallel wave particle flow accumulated in the deep geological environment, gathering the parallel wave particle flow in the environment and accelerating the deconstruction of the cross-superposition state of the basic particles of the nuclear radioactive source in the solid nuclear waste.

[0033] In step one, the functional parallel nanotube material of the inner barrier ensures the stability and directionality of the strong parallel force field through its parallel arrangement structure, so as to accurately act on the basic particles of the nuclear radioactive source in the solid nuclear waste.

[0034] In step four, the selection of the deep geological environment must be able to gather a parallel wave particle flow of sufficient intensity to ensure that the parallel wave particle flow and the strong parallel force field can resonate effectively.

[0035] The method eliminates the radioactive hazards of solid nuclear waste at its source by deconstructing the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste. After the radioactive hazards are eliminated, the solid nuclear waste is removed from the system for conversion and reuse.

[0036] During the storage process of the system, the airtightness of the outer barrier, the structural integrity of the inner barrier, and the strength of the strong parallel force field are monitored regularly to ensure the safety and effectiveness of the entire process.

[0037] The following detailed description, in conjunction with specific embodiments, provides a system and method for accelerating the decay and degradation of solid nuclear waste according to the present invention. This is intended to make the technical solution, working principle, and beneficial effects of the present invention clearer and easier to understand, and is not intended to limit the scope of protection of the present invention.

[0038] The specific implementation and construction of the system architecture:

[0039] The system for accelerating the decay and degradation of solid nuclear waste described in this invention is based on the core principle of using a triple-structure synergistic effect to deconstruct the cross-superposition state of the basic particles of the nuclear radioactive source in the solid nuclear waste. The specific construction process is as follows:

[0040] Fabrication and Forming of the Inner Barrier: The inner barrier utilizes a self-developed functional parallel nanotube material, which is an array structure of parallel nanotubes. During the fabrication process, a precise material synthesis process ensures the parallelism and structural integrity of the nanotube array, enabling this functional parallel nanotube material to stably create a strong parallel force field. The core function of this strong parallel force field is to directly act on the fundamental particles of the radioactive source in solid nuclear waste, breaking their original cross-superposition state and weakening or even eliminating radioactivity at its source.

[0041] The filling process of the intermediate filling layer: Nanotube-grade graphene powder is used for the intermediate filling layer. After the inner barrier encapsulates the solid nuclear waste, the nanotube-grade graphene powder is uniformly filled into the gap between the inner and outer barriers. The filling process must ensure the density of the powder filling to avoid voids. This is to assist in the conduction of strong parallel force fields, enhance the structural stability of the entire system, and reduce the impact of external factors in the deep geological environment on the internal structure.

[0042] Fabrication and Assembly of the Outer Barrier: The outer barrier is fabricated into a container-like structure using titanium alloy. Titanium alloy possesses high strength, corrosion resistance, and excellent sealing properties, providing reliable physical protection for the entire system. After filling the intermediate filler layer, the inner barrier, containing the solid nuclear waste and the intermediate filler layer, is integrally placed into the titanium alloy container. A precise sealing process ensures the outer barrier is sealed, preventing leakage of solid nuclear waste during storage in deep geological environments and preventing impurities from the external environment from entering the system and affecting the treatment effect.

[0043] The operating principle and key mechanisms of the system:

[0044] The working principle of a strong parallel force field: Functional parallel nanotube materials with an inner barrier create a strong parallel force field (also known as a black hole force field) through their unique parallel arrangement structure. This strong parallel force field can exert a directional effect on the elementary particles of radioactive sources in solid nuclear waste. According to the relevant characteristics of elementary particle motion in quantum mechanics, when elementary particles are in a state of cross-superposition, their radioactivity will continue to be released. The role of the strong parallel force field is to break this cross-superposition balance and promote the transformation of elementary particles into an ordered motion state.

[0045] Generation and Enhancement of Resonance Effect: The assembled system is transported to a pre-selected deep geological environment for storage. This environment naturally accumulates a large number of parallel wave particle streams. When the system is placed in this environment, the strong parallel force field created by the inner barrier resonates with the parallel wave particle streams in the deep geological environment. According to the principle of resonance, a resonance energy gain is generated at this time, the mathematical expression of which is:

[0046]

[0047] in, This represents the total energy after resonance. This represents the initial energy of a strongly parallel force field. This represents the energy of parallel wave particle streams in deep geological environments. This represents the phase difference between a strongly parallel force field and a parallel wave particle stream. This formula shows that when the phase difference between a strongly parallel force field and a parallel wave particle stream... At that time, the total energy after resonance reaches its maximum value, which can maximize the concentration of parallel wave particle flow in the environment and provide sufficient energy support for deconstructing the cross-superposition operation state of basic particles.

[0048] The deconstruction process of the superposition state of elementary particles: Under the enhanced energy generated by resonance, the gathered parallel wave particle stream and the strong parallel force field act together on the elementary particles of the nuclear radioactive source in solid nuclear waste. Based on the quantum information processing principle of "emptiness and existence being inseparable," the superposition state of elementary particles is a manifestation of the imbalance between "existence" and "emptiness." Through the synergistic effect of the strong parallel force field and the parallel wave particle stream, a rebalancing of the "emptiness" and "existence" states of elementary particles can be achieved. The equilibrium condition can be expressed as:

[0049]

[0050] in, This represents the probability of a stable motion state of an elementary particle. This represents the probability of the "empty" state of a fundamental particle. This represents the probability of the "existence" state of a fundamental particle. and The weight coefficients for the "empty" state and the "existent" state are respectively, and satisfy the following conditions: When this equation holds true, the elementary particles break free from their original overlapping and dynamic state and enter a stable state of motion, thus completely eliminating their radioactive hazards.

[0051] Specific implementation steps for solid nuclear waste disposal:

[0052] Pretreatment stage: The solid nuclear waste to be processed is pretreated to remove surface impurities and contaminants, ensuring the purity of the solid nuclear waste and preventing impurities from affecting the deconstruction effect of elementary particles in subsequent processing. At the same time, the appropriate size and amount of inner barrier, outer barrier and intermediate filling layer are customized according to the volume and shape of the solid nuclear waste.

[0053] System assembly stage: First, the pretreated solid nuclear waste is placed into an inner barrier made of functional parallel nanotube material, ensuring that the inner barrier completely encapsulates the solid nuclear waste with no exposed parts; second, nanotube-level graphene powder is uniformly filled to the outside of the inner barrier, with the filling thickness determined according to actual processing requirements to ensure dense filling; finally, the inner barrier containing the solid nuclear waste and the intermediate filling layer is assembled into an outer barrier made of titanium alloy, and the outer barrier is sealed using sealing processes such as laser welding to complete the assembly of the entire system.

[0054] Deep geological storage stage: Select a deep geological environment capable of accumulating sufficiently strong parallel wave particle flows as the storage location. This location must be far away from densely populated areas and ecologically sensitive areas. Transport the assembled system to the storage location using specialized transportation equipment. Place the system into the pre-designated storage pit using methods such as drilling. Then, backfill the storage pit to ensure that the system is in a stable deep geological environment.

[0055] Resonance Processing and Monitoring Phase: After the system is stored in a deep geological environment, the strong parallel force field naturally resonates with the parallel wave particle flow in the deep geological environment, accelerating the deconstruction of the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste. During this process, the system is monitored regularly using specialized monitoring equipment. Monitoring indicators include the airtightness of the outer barrier, the structural integrity of the inner barrier, and the strength of the strong parallel force field. Monitoring data is transmitted wirelessly to the ground control center, where staff analyze the data in real time to ensure the safety and effectiveness of the entire processing.

[0056] Nuclear waste recycling and reuse stage: Through continuous monitoring, once it is confirmed that the cross-superposition and operational state of the basic particles of the radioactive source in the solid nuclear waste has been completely disintegrated and the radioactive hazard has been eliminated, the system is extracted from the deep geological environment using specialized mining equipment. The outer and inner barriers are opened, and the processed solid nuclear waste is removed. Based on its physical and chemical properties, it undergoes subsequent transformation and reuse, achieving the recycling of nuclear resources.

[0057] Verification of the beneficial effects of the embodiments:

[0058] This embodiment processes a batch of solid nuclear waste using the aforementioned system structure and processing method. Compared to traditional deep geological burial methods, the method of this invention can fundamentally deconstruct the overlapping and superimposed operational state of the basic particles of the nuclear radioactive source, completely eliminating the radioactive hazards of the solid nuclear waste. The processed solid nuclear waste can be safely recycled and reused, avoiding the leakage risks that may arise from traditional burial methods. Simultaneously, through the resonance effect of a strong parallel force field and parallel wave particle flow in the deep geological environment, the processing efficiency is significantly improved, the processing cycle is shortened, and the entire processing is green and environmentally friendly, causing no additional pollution to the environment. This fully demonstrates the core advantage of this invention's "fundamental solution" approach to nuclear waste processing.

[0059] Beneficial effects: Starting from the essence of nuclear radioactive sources, a strong parallel force field is created by functional parallel nanotube materials to deconstruct the cross-superposition operation state of the basic particles of nuclear radioactive sources in solid nuclear waste. This eliminates the radioactive hazards of solid nuclear waste from the root, achieving a "bottom-up" treatment that completely avoids the long-term leakage risks that may exist in traditional treatment methods, and achieves the effect of solving radioactive hazards once and for all.

[0060] Breaking away from the limitations of current international practices that only address the surface-level effects of nuclear radiation, this approach eliminates radioactivity by adjusting the motion patterns of fundamental particles in the nuclear radiation source, paving a clear path for the subsequent transformation and reuse of solid nuclear waste, achieving the recycling of nuclear resources, and aligning with the concept of sustainable development.

[0061] The system adopts a triple structure design consisting of an inner barrier, an intermediate filling layer, and an outer barrier. The functional parallel nanotube material of the inner barrier, the nanotube-level graphene powder in the middle, and the titanium alloy container of the outer barrier work together to ensure the stable creation and conduction of a strong parallel force field, and provide reliable physical protection, thus ensuring the structural stability and airtightness of the system during storage in deep geological environments.

[0062] By utilizing the naturally accumulated parallel wave particle flow in the deep geological environment, environmental energy is gathered through the resonance effect of the strong parallel force field and the parallel wave particle flow. This eliminates the need for a large amount of additional artificial energy consumption, achieving efficient energy utilization and making the entire process green and environmentally friendly, without generating additional environmental pollution.

[0063] Functional parallel nanotube materials possess strong anisotropy, huge specific surface area, and ideal photonic crystal or metamaterial properties. They not only meet the core needs of solid nuclear waste treatment, but their research and application can also drive breakthroughs in cutting-edge nanomaterial preparation technologies, providing a practical platform for basic research and interdisciplinary integration in fields such as materials science and photonics.

[0064] The static storage method adopted by the system is more suitable for the characteristics of solid nuclear waste compared to the dynamic treatment of liquid nuclear wastewater and nuclear sewage. Moreover, the treated solid nuclear waste can be safely retrieved in the later stages of storage, avoiding the resource waste and irreversibility of traditional deep geological burial, and improving the flexibility and economy of nuclear waste treatment.

[0065] By using technological means to guide human thinking patterns from analytical, fragmented, and confrontational "sexual thinking" to holistic, interconnected, and symbiotic "empty thinking," we can help alleviate the conflicts and crises caused by current societal limitations in thinking and provide technological inspiration and support for human civilization to leap towards a more harmonious and sustainable direction.

[0066] The system's monitoring mechanism can monitor the sealing of the outer barrier, the structural integrity of the inner barrier, and the strength of the strong parallel force field in real time, ensuring the safety and effectiveness of the treatment process, avoiding unexpected risks during the treatment process, and improving the controllability of nuclear waste treatment.

[0067] Compared to traditional deep geological burial and other treatment methods, this technology accelerates the deconstruction of the superposition state of basic particles through resonance effect, significantly shortens the treatment cycle of solid nuclear waste, improves treatment efficiency, and reduces the management costs and environmental pressure caused by long-term storage of nuclear waste.

[0068] The present invention and its embodiments have been described above. This description is not restrictive, and the accompanying drawings are only one embodiment of the present invention; the actual structure is not limited thereto. In conclusion, if those skilled in the art are inspired by this description and design similar structures and embodiments without departing from the spirit of the invention, such designs should fall within the protection scope of the present invention.

Claims

1. A system for accelerating the decay and degradation of solid nuclear waste, characterized in that: The system includes an inner barrier for encapsulating solid nuclear waste, an outer barrier for providing physical protection, and an intermediate filling layer between the inner and outer barriers. The inner barrier is made of functional parallel nanotube material, which can create a strong parallel force field. This strong parallel force field is used to deconstruct the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste. The outer barrier is a container made of titanium alloy, and the intermediate filling layer is nanotube-level graphene powder. The system resonates with the parallel wave particle flow accumulated in the deep geological environment through the strong parallel force field, thereby gathering the parallel wave particle flow in the environment and accelerating the deconstruction of the cross-superposition operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste.

2. The system for accelerating the decay and degradation of solid nuclear waste according to claim 1, characterized in that: The functional parallel nanotube material of the inner barrier is a parallel array structure of nanotubes. The functional parallel nanotube material has extremely strong anisotropy, and there are significant differences in thermal conductivity, electrical conductivity and mechanical strength properties in the direction perpendicular to the nanotubes and in the direction parallel to the nanotubes.

3. A system for accelerating the decay and degradation of solid nuclear waste according to claim 1, characterized in that: The functional parallel nanotube material of the inner barrier has a huge specific surface area, which can provide ample space for the interaction and energy conversion of basic particles of nuclear radioactive sources in solid nuclear waste.

4. A system for accelerating the decay and degradation of solid nuclear waste according to claim 1, characterized in that: The functional parallel nanotube material of the inner barrier is an ideal photonic crystal or metamaterial, whose periodic structure can precisely control the propagation of photons.

5. A system for accelerating the decay and degradation of solid nuclear waste according to claim 1, characterized in that: The titanium alloy container of the outer barrier can ensure the airtightness and structural stability of the system when operating in deep geological environments, and prevent the leakage of solid nuclear waste and damage to the internal structure of the system caused by the external environment.

6. A method for a system that can be used to accelerate the decay and degradation of solid nuclear waste, characterized in that: Includes the following steps: Step 1: An inner barrier made of functional parallel nanotube material is used to encapsulate the solid nuclear waste. This functional parallel nanotube material can create a strong parallel force field to deconstruct the cross-superposition state of the basic particles of the nuclear radioactive source. Step 2: An intermediate filling layer is set outside the inner barrier. The intermediate filling layer is made of nanotube-grade graphene powder to assist in the conduction of the strong parallel force field. Step 3: An outer barrier made of titanium alloy is set outside the intermediate filling layer to form a complete protective system. Step 4: The assembled system is placed in a deep geological environment for storage, so that the strong parallel force field created by the inner barrier resonates with the parallel wave particle flow accumulated in the deep geological environment, gathering the parallel wave particle flow in the environment and accelerating the deconstruction of the cross-superposition state of the basic particles of the nuclear radioactive source in the solid nuclear waste.

7. The method for a system for accelerating the decay and degradation of solid nuclear waste according to claim 6, characterized in that: In step one, the functional parallel nanotube material of the inner barrier ensures the stability and directionality of the strong parallel force field through its parallel arrangement structure, so as to accurately act on the basic particles of the nuclear radioactive source in the solid nuclear waste.

8. A method for a system for accelerating the decay and degradation of solid nuclear waste according to claim 6, characterized in that: In step four, the selection of the deep geological environment must be able to gather a parallel wave particle flow of sufficient intensity to ensure that the parallel wave particle flow and the strong parallel force field can resonate effectively.

9. A method for a system for accelerating the decay and degradation of solid nuclear waste according to claim 6, characterized in that: The method eliminates the radioactive hazards of solid nuclear waste at its source by deconstructing the cross-superposition and operation state of the basic particles of the nuclear radioactive source in the solid nuclear waste. After the radioactive hazards are eliminated, the solid nuclear waste is removed from the system for conversion and reuse.

10. A method for a system for accelerating the decay and degradation of solid nuclear waste according to claim 6, characterized in that: During the storage process of the system, the airtightness of the outer barrier, the structural integrity of the inner barrier, and the strength of the strong parallel force field are monitored regularly to ensure the safety and effectiveness of the entire process.

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