Device capable of accelerating decay and degradation of nuclear radioactive elements and use method of device
By using the microscopic force field formed by nano-honeycomb tubes and filter sheets and the waste heat-driven cooling cycle, the problems of low purification efficiency and poor stability in nuclear wastewater treatment are solved, achieving efficient and stable nuclear wastewater purification and self-cleaning effects.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-12-02
- Publication Date
- 2026-03-13
AI Technical Summary
Existing nuclear wastewater treatment methods, which use chemical precipitation to separate and enrich radionuclides, suffer from low purification efficiency, high long-term operating costs, and poor stability.
A honeycomb structure composed of nano-honeycomb tubes and filter sheets is used to form a strong force field at the microscopic level, which regulates the cross movement of proton electron clusters in the nucleus, making them run in parallel, and uses the residual heat of nuclear wastewater to drive the cooling cycle, thereby achieving purification and self-cleaning.
It achieves efficient purification of nuclear wastewater, degrades radioactive substances, ensures long-term stable operation of the water purification components at high temperatures, prevents clogging, and improves treatment efficiency and stability.
Smart Images
Figure CN121662471A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of nuclear wastewater treatment technology, specifically to a device and its method of use that can accelerate the decay and degradation of radioactive elements. Background Technology
[0002] Nuclear wastewater treatment refers to wastewater containing radioactive nuclides such as tritium, cesium, and strontium generated during normal operation of nuclear power plants, nuclear fuel reprocessing, nuclear accidents, and uranium mining. Its core objectives are to reduce radioactive hazards and meet environmental and safety standards. It is a comprehensive treatment process that uses single or combined physical, chemical, and biological technologies to separate, remove, or solidify radioactive nuclides. It is widely used in the nuclear industry, nuclear facility decommissioning, and nuclear pollution control. Among its core technologies, evaporation concentration is suitable for reducing the volume of high-level radioactive wastewater; ion exchange and membrane separation technologies are commonly used for purifying low- and intermediate-level radioactive wastewater; chemical precipitation is economical and simple but requires secondary wastewater treatment; and biological methods are suitable for the environmental treatment of low-concentration wastewater. After treatment, the wastewater must be disposed of through solidification, storage, and discharge to meet standards. Challenges include the difficulty in completely removing tritium and other nuclides, high treatment costs, and the prevention of secondary pollution. The treatment and discharge of nuclear wastewater from nuclear accidents involves complex ecological risks and requires strict international monitoring and regulation. It is a crucial link in ensuring the safe use of nuclear energy and protecting the ecological environment and human health.
[0003] Related nuclear wastewater treatment can separate and enrich radionuclides through chemical precipitation, but it is difficult to completely remove easily diffused nuclides such as tritium. It also has limitations such as high energy consumption, easy generation of secondary wastewater, and dependence on external energy to maintain system operation, resulting in low purification efficiency, high long-term operating costs, and poor stability. Summary of the Invention
[0004] To address the shortcomings of existing technologies, this invention provides a device and method for accelerating the decay and degradation of radioactive elements, solving the problems of low purification efficiency, high long-term operating costs, and poor stability caused by the separation and enrichment of radionuclides through chemical precipitation in the treatment of related nuclear wastewater.
[0005] To achieve the above objectives, the present invention is implemented through the following technical solution: a device for accelerating the decay and degradation of radioactive elements, comprising a shell, an inlet fixedly connected to the upper side of the shell, an outlet fixedly connected to the lower side of the shell, a cooling pipe fixedly connected to the inside of the shell, a heat dissipation pipe fixedly connected to the side wall of the shell, the side wall of the cooling pipe fixedly connected to the side wall of the heat dissipation pipe, and a water purification component disposed inside the shell.
[0006] By adopting the above technical solution, the nuclear wastewater pipeline is connected to the inlet, and the nuclear wastewater then flows into the interior of the outer shell through the inlet. Subsequently, the nuclear wastewater flows through a honeycomb structure composed of nano-honeycomb tubes and filter sheets. During this process, the parallel nanotube materials of the nano-honeycomb tubes and filter sheets generate a powerful force field at the microscopic level. This force field can regulate the cross-movement of proton-electron clusters within the nucleus, causing them to move in parallel. Furthermore, the force field strengthens with increasing pressure inside the tank, and the radioactivity of decaying nuclear elements also increases exponentially. Thus, the force field forces the elementary particles in the nuclear wastewater to move in parallel, achieving purification of the nuclear wastewater. Simultaneously, due to the radiation of internal radioactive elements... During the process, the nuclear wastewater continuously generates high temperatures. The heat is transferred through the inner wall of the outer shell to the cooling pipes and heats the coolant. At this time, the temperature difference between the cooling pipes and the heat dissipation pipes creates an internal and external pressure difference, which causes the coolant to circulate in the cooling pipes and heat dissipation pipes, thereby dissipating the heat from the inside of the outer shell and preventing the water purification components from failing due to high temperatures. Finally, the purified nuclear wastewater flows out from the outlet and, through the microscopic force field constructed by nanomaterials, efficiently degrades radioactive materials under specific pressure, completing the purification process. The residual heat of the nuclear wastewater itself drives the cooling cycle, ensuring that the water purification components operate stably for a long time under continuous high temperatures, achieving a safe, efficient, and continuous treatment effect by utilizing the kinetic energy and heat of the nuclear wastewater itself.
[0007] Preferably, the water purification component includes a nano-honeycomb tube, the outside of which is fixedly connected to the inside of the outer shell, and a filter sheet is fixedly disposed inside the nano-honeycomb tube.
[0008] Preferably, an air bladder is provided inside the outer casing, and the outer side of the air bladder is provided on the side wall of the cooling pipe.
[0009] Preferably, a ring is provided inside the outer shell, the upper side of the ring is located on the lower side of the airbag, and a return spring is provided on the lower side of the ring, with one end of the return spring located inside the outer shell.
[0010] Preferably, a connecting block is fixedly connected to the lower side of the ring, and a limiting block is fixedly connected to the side wall of the connecting block. The interior of the limiting block is slidably connected to the exterior of the nano-cellular tube.
[0011] Preferably, a flow guide block is fixedly connected to the upper side of the nano-honeycomb tube, and the upper side of the flow guide block is fixedly connected to the lower side of the water inlet.
[0012] Preferably, a rotating column is rotatably connected inside the nano-cellular tube, a rotating block is fixedly connected to the outside of the rotating column, and a water turbine blade is fixedly connected to the side wall of the rotating column.
[0013] Preferably, a tension spring is provided inside the rotating block, and a transfer block is provided at one end of the tension spring. The transfer block is slidably connected to the outside of the rotating block, and a scraping block two is fixedly connected to the outside of the transfer block. The scraping block two is rotatably connected to the outside of the guide block.
[0014] Preferably, a scraping block is fixedly connected to the lower side of the rotating column, and the scraping block is disposed on the bottom end of the nano-cellular tube.
[0015] Preferably, a method of using a device for accelerating the decay and degradation of radioactive elements includes the following steps:
[0016] First, the nuclear wastewater pipeline is connected to the inlet. The nuclear wastewater then flows into the interior of the outer shell through the inlet. Subsequently, the nuclear wastewater passes through a honeycomb structure composed of nano-honeycomb tubes and filter sheets. During this process, the parallel nanotube materials that make up the nano-honeycomb tubes and filter sheets form a strong microscopic force field that can regulate the cross-movement between proton electron clusters in the nucleus into parallel movement. As the pressure inside the tank increases, the radioactivity of decaying nuclear elements in this force field also increases exponentially. The force field then forces the basic particles in the nuclear wastewater to move in parallel, thereby purifying the nuclear wastewater. Finally, the purified nuclear wastewater flows out through the outlet.
[0017] Working principle: Based on the microscopic force field constructed by nanomaterials, the cooling cycle driven by waste heat, and the passive self-cleaning mechanism, the system achieves efficient purification of nuclear wastewater. First, the nuclear wastewater enters the device through the inlet and flows through the water purification component composed of nano-honeycomb tubes made of parallel nanotubes and filter sheets. These nanomaterials form a strong force field at the microscopic level. When the pressure inside the device increases, this force field can regulate the trajectory of proton-electron clusters in the nuclear wastewater, making them parallel, thereby accelerating the decay process of radioactive elements, effectively degrading nuclides, and completing the purification.
[0018] Meanwhile, the device utilizes the residual heat of the nuclear wastewater itself for cooling, ensuring long-term stable operation. During the purification process, the nuclear wastewater generates high temperatures due to radioactive decay. The heat is transferred through the outer shell to the cooling pipes, heating the internal coolant. The cooling pipes and the heat dissipation pipes on the side walls create a temperature and pressure difference, driving the coolant to circulate automatically and expel the heat from the outside of the device. This process prevents the water purification components from failing due to the high-temperature environment, realizes energy recovery and utilization, and maintains processing efficiency.
[0019] In addition, the heat from the cooling pipe causes the airbag to expand, which in turn drives the ring and connecting block to vibrate, causing the limiting block to remove the dust accumulated on the surface of the nano-honeycomb tube. At the same time, the water flow at the inlet impacts the water wheel blades, driving the rotating column and scraping block to rotate, scraping off impurities from the inner wall of the guide block and promoting wastewater mixing. These designs prevent clogging, ensure smooth water flow, and enhance the stability of the water purification components in high-speed water flow, ultimately achieving continuous and safe treatment results.
[0020] This invention provides a device for accelerating the decay and degradation of radioactive elements. It has the following beneficial effects:
[0021] 1. This invention utilizes parallel nanotube materials that compose the nano-honeycomb tubes and filter sheets to form a strong microscopic force field that can regulate the parallel movement of proton electron clusters within the nucleus. This force field forces the basic particles in the nuclear wastewater to move in parallel, thereby purifying the nuclear wastewater. The nuclear wastewater transfers heat to the cooling pipes through contact with the inner wall of the outer shell, heating the coolant. At this time, a temperature difference is formed between the cooling pipes and the heat dissipation pipes, resulting in an internal and external pressure difference. This causes the coolant in the cooling pipes and heat dissipation pipes to flow, thereby dissipating heat from the inside of the outer shell, thus achieving highly efficient purification of the nuclear wastewater. Simultaneously, the residual heat of the nuclear wastewater itself is used to drive the cooling cycle, ensuring the long-term stable operation of the water purification component under continuous high-temperature conditions.
[0022] 2. In this invention, the gas inside the airbag expands when heated, which in turn compresses the ring, causing the ring to slide. The connecting block moves downward under the influence of the ring, while the limiting block vibrates synchronously under the influence of the connecting block. At this time, the dust on the surface of the nano-honeycomb tube is pushed away by the vibration of the limiting block. At the same time, the setting of multiple limiting blocks can help stabilize the water purification component during nuclear wastewater treatment, preventing the water purification component from shaking. This can prevent dust from clogging the surface of the nano-honeycomb tube, ensure the long-term stability of purification efficiency, achieve self-cleaning circulation, and enhance the vibration resistance of the device.
[0023] 3. In this invention, the rotating column rotates under the drive of the water turbine blades, and then the rotating block rotates under the drive of the rotating column. The rotating block then drives the scraping block two to rotate through the intermediate block. At this time, the scraping block two and the rotating block act synchronously on the nuclear wastewater flowing through the guide block, causing the nuclear wastewater in this section to generate a vortex. This causes the nuclear wastewater impurities accumulated inside the guide block to be scraped off. Meanwhile, the scraping block one rotates synchronously under the drive of the rotating column to accelerate the discharge of wastewater from the inside of the outlet. This achieves automatic scraping and cleaning of the inner wall of the guide block, prevents impurities from accumulating and clogging, ensures the long-term smooth flow of water, and enhances the mixing degree of nuclear wastewater, thus accelerating the drainage effect. Attached Figure Description
[0024] Figure 1 This is a perspective view of a device proposed in this invention that can accelerate the decay and degradation of radioactive elements.
[0025] Figure 2 This is a cross-sectional schematic diagram of the internal structure of the outer shell of a device for accelerating the decay and degradation of radioactive elements proposed in this invention.
[0026] Figure 3This is a schematic diagram of a partial structure of a nano-cellular tube, which is proposed in this invention to accelerate the decay and degradation of radioactive elements.
[0027] Figure 4 This is a partial structural diagram of the airbag of a device for accelerating the decay and degradation of radioactive elements proposed in this invention.
[0028] Figure 5 This is a partial structural diagram of the limiting block of a device for accelerating the decay and degradation of radioactive elements proposed in this invention.
[0029] Figure 6 This is a partial structural diagram of the flow guide block of a device for accelerating the decay and degradation of radioactive elements proposed in this invention.
[0030] Figure 7 This is a partial structural diagram of the scraping block 2 of the device for accelerating the decay and degradation of radioactive elements proposed in this invention;
[0031] Figure 8 This is a cross-sectional schematic diagram of the internal structure of the rotating block of a device for accelerating the decay and degradation of radioactive elements proposed in this invention.
[0032] The components are as follows: 1. Outer shell; 2. Inlet; 3. Outlet; 4. Cooling pipe; 5. Heat dissipation pipe; 6. Water purification assembly; 61. Nano honeycomb tube; 62. Filter plate; 7. Airbag; 8. Ring; 9. Return spring; 10. Connecting block; 11. Limiting block; 12. Rotating column; 13. Flow guide block; 14. Rotating block; 15. Water wheel blade; 16. Transfer block; 17. Scraping block one; 18. Scraping block two; 19. Tension spring. Detailed Implementation
[0033] The technical solution of the present invention will now be clearly and completely described with reference to the accompanying drawings. 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.
[0034] Please see the appendix Figure 1 - Appendix Figure 3 This invention provides a device for accelerating the decay and degradation of radioactive elements, comprising a shell 1, an inlet 2 fixedly connected to the upper side of the shell 1, an outlet 3 fixedly connected to the lower side of the shell 1, a cooling pipe 4 fixedly connected inside the shell 1, a heat dissipation pipe 5 fixedly connected to the side wall of the shell 1, the side wall of the cooling pipe 4 fixedly connected to the side wall of the heat dissipation pipe 5, and a water purification component 6 disposed inside the shell 1.
[0035] By adopting the above technical solution, the nuclear wastewater pipeline is first connected to the inlet 2. At this time, the nuclear wastewater enters the interior of the outer shell 1 through the inlet 2. Subsequently, the nuclear wastewater passes through the honeycomb structure composed of nano-honeycomb tubes 61 and filter sheets 62. During this process, the parallel nanotube materials that make up the nano-honeycomb tubes 61 and filter sheets 62 form a strong microscopic force field that can regulate the cross-movement between proton electron clusters in the nucleus into parallel movement. As the pressure inside the tank increases, the radioactivity of decaying nuclear elements in this force field also increases exponentially. Subsequently, the force field forces the basic particles in the nuclear wastewater to... The device operates in parallel, with its inlet 2 connected to the outlet of an adjustable-pressure ultra-high-pressure pump located at the bottom of the nuclear wastewater storage tank. The outlet is then connected back to the top of the nuclear wastewater storage tank, forming a closed-loop degradation system. The multiplier effect is determined by the impact force of the water pressure at the pump and the action and reaction forces of the parallel force field formed by the array of parallel nanotubes. The impact force of the radioactive liquid is directly proportional to the reaction force of the parallel force field formed by the parallel nanotube array; that is, the pump pressure and its degradation rate are directly proportional. There is a positive correlation between the capabilities. Through repeated high-pressure closed-loop circulation of the radioactive liquid in this device, the cross-stacking of elementary particles is transformed into parallel deconstruction of elementary particles, thereby achieving safe discharge and purifying nuclear wastewater. Simultaneously, due to the radiation of radioactive elements within the wastewater, it continuously generates a high temperature, resulting in a high temperature of the wastewater. The wastewater transfers heat to the cooling pipe 4 through contact with the inner wall of the outer shell 1, heating the coolant. At this time, a temperature difference is formed between the cooling pipe 4 and the heat dissipation pipe 5, creating an internal and external pressure difference, causing the cooling pipe 4 to... The coolant in the heat dissipation pipe 5 begins to flow, thereby dissipating heat from the inside of the outer shell 1 to prevent the water purification component 6 from failing due to the high temperature environment. Finally, the purified nuclear wastewater flows out through the outlet 3. This achieves the goal of efficiently degrading radioactive substances in the nuclear wastewater under specific pressure through a microscopic force field constructed by nanomaterials, thus completing the purification. At the same time, the residual heat of the nuclear wastewater itself is used to drive the cooling cycle, ensuring the long-term stable operation of the water purification component 6 under continuous high temperature conditions. Ultimately, the goal is to achieve the effect of safe, efficient and continuous treatment of nuclear wastewater by utilizing the kinetic energy and heat of the nuclear wastewater itself.
[0036] See appendix Figure 3 The water purification component 6 includes a nano-honeycomb tube 61, which is externally fixedly connected to the inside of the outer shell 1, and a filter sheet 62 is fixedly installed inside the nano-honeycomb tube 61.
[0037] Specifically, both the nano-honeycomb tube 61 and the filter 62 are made of parallel nanotube material, which provides a continuous purification force field and provides a purification basis for the operation of the device.
[0038] See appendix Figure 2 Appendix Figure 4 and attached Figure 5 An airbag 7 is provided inside the outer shell 1, and the outer side of the airbag 7 is provided on the side wall of the cooling pipe 4. An annulus 8 is provided inside the outer shell 1, with the upper side of the annulus 8 provided on the lower side of the airbag 7. A return spring 9 is provided on the lower side of the annulus 8, with one end of the return spring 9 provided inside the outer shell 1. A connecting block 10 is fixedly connected to the lower side of the annulus 8, and a limiting block 11 is fixedly connected to the side wall of the connecting block 10. The limiting block 11 is slidably connected to the outside of the nano-honeycomb tube 61.
[0039] Specifically, when the internal temperature of the cooling pipe 4 rises, the airbag 7 increases its internal temperature through contact with the cooling pipe 4. At this time, the gas inside the airbag 7 expands due to heat, which in turn compresses the ring 8, causing the ring 8 to slide inside the outer shell 1. Simultaneously, the return spring 9 undergoes elastic deformation under the action of the ring 8. Then, since the connecting block 10 is fixedly connected to the ring 8, the connecting block 10 moves downward under the action of the ring 8, while the limiting block 11 vibrates synchronously under the action of the connecting block 10. At this time, the dust accumulated on the surface of the nano-honeycomb tube 61 is pushed away by the vibration of the limiting block 11 and moves along the nano-honeycomb tube 61 and The dust falls into the bottom of the outer shell 1 through the gap between the outer shells 1. Then, the dust is flushed out from the outlet 3 by the purified nuclear wastewater. At the same time, the multiple limiting blocks 11 can provide a precise installation position for the water purification component 6 inside the outer shell 1 and help stabilize the water purification component 6 during nuclear wastewater treatment, preventing the water purification component 6 from shaking. This can further utilize the heat lost during the cooling process of nuclear wastewater, prevent dust from accumulating and clogging the surface of the nano-honeycomb tube 61, ensure the long-term stability of purification efficiency, realize passive self-cleaning circulation, and enhance the vibration stability of the water purification component 6 under the impact of high-speed water flow.
[0040] See appendix Figure 6-8 A flow guide block 13 is fixedly connected to the upper side of the nano-honeycomb tube 61, and the upper side of the flow guide block 13 is fixedly connected to the lower side of the water inlet 2. A rotating column 12 is rotatably connected inside the nano-honeycomb tube 61, and a rotating block 14 is fixedly connected to the outside of the rotating column 12. A water turbine blade 15 is fixedly connected to the side wall of the rotating column 12. A tension spring 19 is provided inside the rotating block 14, and a transfer block 16 is provided at one end of the tension spring 19. The transfer block 16 is slidably connected to the inside of the rotating block 14. A scraper block 18 is fixedly connected to the outside of the transfer block 16, and the scraper block 18 is rotatably connected to the inside of the flow guide block 13. A scraper block 17 is fixedly connected to the lower side of the rotating column 12, and the scraper block 17 is located at the bottom end of the nano-honeycomb tube 61.
[0041] Specifically, when the nuclear wastewater enters the interior of the guide block 13 from the inlet 2, the wastewater impacts the turbine blades 15, causing them to rotate. Since the rotating column 12 is fixedly connected to the turbine blades 15, it rotates inside the nano-honeycomb tube 61 under the influence of the turbine blades 15. Because the rotating column 12 is fixedly connected to the rotating block 14, the rotating block 14 then rotates under the influence of the rotating column 12. The tension spring 19 assists in the reset of the scraper block 18. The rotating block 14 then drives the scraper block 18 to rotate via the intermediate transfer block 16. At this time, the scraper block 18 and the rotating block 14 rotate synchronously. The nuclear wastewater flowing through the guide block 13 is induced to generate a vortex in this section. At the same time, the scraper block 18 is in close contact with the guide block 13 under the action of centrifugal force. The outer side of the scraper block 18 has a convex structure, which allows the nuclear wastewater impurities accumulated inside the guide block 13 to be scraped off and washed into the water purification component 6 for purification. The scraper block 17 rotates synchronously under the drive of the rotating column 12 to accelerate the discharge of wastewater from the inside of the outlet 3. This achieves automatic scraping and cleaning of the inner wall of the guide block 13, prevents impurities from accumulating and clogging, ensures the long-term smooth flow of water, and enhances the mixing degree of nuclear wastewater, thus accelerating the drainage effect.
[0042] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.
Claims
1. A device for accelerating the decay and degradation of radioactive elements, characterized in that, The device includes an outer shell (1), an inlet (2) fixedly connected to the upper side of the outer shell (1), an outlet (3) fixedly connected to the lower side of the outer shell (1), a cooling pipe (4) fixedly connected inside the outer shell (1), a heat dissipation pipe (5) fixedly connected to the side wall of the outer shell (1), the side wall of the cooling pipe (4) fixedly connected to the side wall of the heat dissipation pipe (5), and a water purification component (6) provided inside the outer shell (1).
2. The device for accelerating the decay and degradation of radioactive elements according to claim 1, characterized in that, The water purification component (6) includes a nano-honeycomb tube (61), the outside of which is fixedly connected to the inside of the outer shell (1), and a filter sheet (62) is fixedly disposed inside the nano-honeycomb tube (61).
3. The device for accelerating the decay and degradation of radioactive elements according to claim 1, characterized in that, An airbag (7) is provided inside the outer shell (1), and the airbag (7) is provided on the side wall of the cooling pipe (4).
4. The device for accelerating the decay and degradation of radioactive elements according to claim 1, characterized in that, The outer shell (1) is provided with a ring (8) inside, the upper side of the ring (8) is provided on the lower side of the airbag (7), and a return spring (9) is provided on the lower side of the ring (8), with one end of the return spring (9) provided inside the outer shell (1).
5. The device for accelerating the decay and degradation of radioactive elements according to claim 4, characterized in that, A connecting block (10) is fixedly connected to the lower side of the ring (8), and a limiting block (11) is fixedly connected to the side wall of the connecting block (10). The inside of the limiting block (11) is slidably connected to the outside of the nano-honeycomb tube (61).
6. The device for accelerating the decay and degradation of radioactive elements according to claim 2, characterized in that, A flow guide block (13) is fixedly connected to the upper side of the nano-honeycomb tube (61), and the upper side of the flow guide block (13) is fixedly connected to the lower side of the water inlet (2).
7. The device for accelerating the decay and degradation of radioactive elements according to claim 2, characterized in that, The nano-cellular tube (61) is rotatably connected to a rotating column (12), and a rotating block (14) is fixedly connected to the outside of the rotating column (12). A water turbine blade (15) is fixedly connected to the side wall of the rotating column (12).
8. The device for accelerating the decay and degradation of radioactive elements according to claim 7, characterized in that, The rotating block (14) is provided with a tension spring (19) inside. One end of the tension spring (19) is provided with a transfer block (16). The transfer block (16) is slidably connected to the inside of the rotating block (14). The transfer block (16) is fixedly connected to the outside of the transfer block (16). The scraping block (18) is rotatably connected to the inside of the guide block (13).
9. The device for accelerating the decay and degradation of radioactive elements according to claim 7, characterized in that, A scraping block (17) is fixedly connected to the lower side of the rotating column (12), and the scraping block (17) is located at the bottom of the nano-honeycomb tube (61).
10. A method of using a device for accelerating the decay and degradation of radioactive elements, characterized in that, An apparatus for accelerating the decay and degradation of radioactive elements as described in any one of claims 1-9, comprising the following steps: First, the nuclear wastewater pipe is connected to the inlet (2). At this time, the nuclear wastewater enters the interior of the shell (1) through the inlet (2). Then, the nuclear wastewater passes through the honeycomb structure composed of nano-honeycomb tubes (61) and filter sheets (62). During this process, the parallel nanotube materials that make up the nano-honeycomb tubes (61) and filter sheets (62) form a microscopic hierarchical strong force field that can regulate the cross-operation between proton electron clusters in the nucleus into parallel operation. As the pressure inside the tank increases, the radioactivity of decaying nuclear elements in the force field also increases by a factor of magnitude. Then, the force field forces the basic particles in the nuclear wastewater to operate in parallel, thereby purifying the nuclear wastewater. Finally, the purified nuclear wastewater flows out through the outlet (3).