Split type inertia kinetic energy oscillation system

Abstract

The invention discloses a split type inertia kinetic energy oscillation system which comprises a shell, the shell is provided with an upper cavity and a lower cavity, the diameter of the upper cavity is larger than that of the lower cavity, the upper cavity is used for installing a mechanical transmission system, and the lower cavity is used for installing an inertia kinetic energy body. The transmission system and the inertia kinetic energy body are arranged in the upper cavity and the lower cavity through the supporting structure and the suspension system correspondingly, the gravity center of the wave energy power generation equipment can be lowered, the overall movement gravity center of the equipment is kept at the lowest point all the time, and the stability of the equipment floating on the sea is greatly improved through the low-gravity-center characteristic; and meanwhile, the split structure simplifies the layout of a transmission system and increases the installation space of other equipment. In the violent fluctuation of waves, especially in the extreme weather conditions such as typhoons and huge waves, the split type equipment can effectively reduce the inclination or overturning risk caused by wave impact, and therefore it is guaranteed that the equipment can stably work for a long time and efficiently capture wave energy.

Description

Technical Field

[0001] The invention belongs to the field of kinetic energy oscillation systems, and in particular, relates to a split inertial kinetic energy oscillation system. Background Art

[0002] With the growing global energy demand, ocean wave energy has attracted widespread attention as a renewable energy source. The capture and conversion of wave energy has become an important direction for sustainable energy development. However, offshore wave energy power generation systems face many technical challenges in practical applications, especially how to cope with extreme weather in harsh offshore environments (such as typhoons and huge waves, and how to maintain the stability of the equipment and high energy conversion efficiency.

[0003] Most traditional offshore wave energy capture systems have problems such as high center of gravity and unstable floating. Especially when facing violent ups and downs of waves and external impacts, the equipment is prone to tilt or capsize, thus affecting the normal operation of the equipment and the efficiency of wave energy capture. In addition, the transmission mechanism and energy capture method of the existing system are often complicated and difficult to maintain, and cannot effectively adapt to the dynamic changes under different sea conditions.

[0004] In view of this, the present invention is proposed. Summary of the invention

[0005] The technical problem to be solved by the present invention is to overcome the deficiencies of the prior art and provide a split inertial kinetic energy oscillation system to solve the problems raised in the above-mentioned background technology.

[0006] In order to solve the above technical problems, the basic concept of the technical solution adopted by the present invention is:

[0007] A split inertial kinetic energy oscillation system, comprising:

[0008] A shell having an upper chamber and a lower chamber, wherein the diameter of the lower chamber is smaller than the diameter of the upper chamber;

[0009] An inertial kinetic energy body, which slides vertically in the lower cavity of the shell and can oscillate up and down to generate inertial kinetic energy under the impetus of the ups and downs of the ocean waves; and a suspension support system is provided below the inertial kinetic energy body, which is arranged in the lower cavity, and the suspension support system is used to support the oscillating inertial kinetic energy body;

[0010] The mounting structure is located in the upper and lower chambers, a transmission mechanism is arranged above the mounting structure, a transmission part of the transmission mechanism passes through the mounting structure into the lower chamber and is connected with the inertial kinetic energy body, and the transmission mechanism can convert the bidirectional reciprocating oscillation kinetic energy of the inertial kinetic energy body into a continuous torque output in one direction.

[0011] Optionally, the suspension support system has an elastic structure, and the elastic structure is in an elastic energy storage state, and the elastic force provided by the elastic structure is used to directly or indirectly serve as a supporting force for supporting the oscillating suspension body.

[0012] Optionally, the transmission mechanism includes a mounting plate located above the transmission structure, an energy storage balancing flywheel, a double-sided rack and a torque conversion gear set, the torque conversion gear set is installed on one side of the mounting plate, the energy storage balancing flywheel rotates inside the upper chamber, one end of the rack is fixed to the inertial kinetic energy body, the double-sided rack is respectively meshed with two sets of torque conversion gear sets, and the output end of the torque conversion gear set cooperates with the energy storage balancing flywheel.

[0013] Optionally, the torque conversion gear set includes a first transmission shaft, a second transmission shaft, a third transmission shaft, and a fourth transmission shaft which are rotatably connected to the four corners of the mounting plate respectively; the first transmission shaft and the second transmission shaft are fixedly connected to two first gears on their circumferential sides; the first transmission shaft and the second transmission shaft are also fixedly connected to a second gear located between the two first gears on their circumferential sides; the rack is located between the two second gears and meshes with the two second gears, and meshes with two adjacent first gears; the third transmission shaft and the fourth transmission shaft are rotatably connected to two third gears on their circumferential sides, and the third gears mesh with the first gears.

[0014] Optionally, a rotating shaft is connected to one side of the energy storage balancing flywheel, one end of the rotating shaft is fixedly connected to two fourth gears, the other end of the rotating shaft is rotatably connected to the inner wall of the upper chamber, and the ends of the third transmission shaft and the fourth transmission shaft of the rotating shaft away from the third gear are fixedly connected to the fifth gear, and the two fifth gears are respectively meshed with the two fourth gears.

[0015] Optionally, the third transmission shaft and the fourth transmission shaft are both rotatably connected to one side of the mounting plate using a one-way bearing. The one-way bearing can convert bidirectional reciprocating kinetic energy into a continuous torque with a one-way output and drive an energy storage balance flywheel.

[0016] Optionally, the mounting structure includes two transverse partitions located on the inner wall of the shell from top to bottom, and opposite sides of the two transverse partitions are penetrated by through grooves for the rack to slide, wherein the upper surface of the upper transverse partition is fixedly connected to the bearing seat, and the rotating shaft is rotatably connected to the inside of the bearing seat, and a vertical partition is arranged between the two transverse partitions.

[0017] Optionally, the rack in the transmission mechanism is replaced by a chain, and a lower sprocket is provided at the bottom below the lower chamber. The first end point of the chain bypasses the connection fixed on the cross partition and is fixedly connected to the upper part of the inertial kinetic energy body downward, and the second end point bypasses the bottom lower sprocket and is fixedly connected to the lower part of the inertial kinetic energy body, thereby forming a chain closed loop. The circumferential side of the second transmission shaft is also fixedly connected to an upper sprocket located between the two first gears, and the chain is connected to the lower end of the inertial kinetic energy body. The other end of the chain bypasses the sprocket on the upper end transmission shaft and is fixed to the upper part of the inertial kinetic energy body to make the chain closed, and the chain cooperates with the upper sprocket and the lower sprocket.

[0018] After adopting the above technical solution, the present invention has the following beneficial effects compared with the prior art. Of course, any product implementing the present invention does not necessarily need to achieve all the advantages described below at the same time:

[0019] The present invention arranges the transmission system and the inertial kinetic energy body in the upper cavity and the lower cavity respectively through the support structure and the suspension system, which can lower the center of gravity of the wave energy power generation equipment, so that the overall movement center of gravity of the equipment is always kept at the lowest point. This low center of gravity characteristic greatly enhances the stability of the equipment when floating on the sea. At the same time, this split structure simplifies the layout of the transmission system and increases the installation space for other equipment. In the violent ups and downs of waves, especially in extreme weather conditions such as typhoons and huge waves, the split equipment can effectively reduce the risk of tilting or capsizing caused by wave impact, thereby ensuring that the equipment can work stably for a long time and efficiently capture wave energy.

[0020] The specific implementation modes of the present invention are further described in detail below in conjunction with the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] The drawings described below are only some embodiments. For those skilled in the art, other drawings can be obtained based on these drawings without creative work. In the drawings:

[0022] Figure 1 It is a schematic diagram of the overall rack cross-section structure of the split inertial kinetic energy oscillation system;

[0023] Figure 2 It is one of the schematic diagrams of the side view structure of the rack transmission mechanism;

[0024] Figure 3 This is the second schematic diagram of the side view structure of the rack transmission mechanism;

[0025] Figure 4 It is a schematic diagram of the overall chain cross-section structure of the split inertial kinetic energy oscillation system;

[0026] Figure 5 It is one of the schematic diagrams of the side view structure of the chain transmission mechanism;

[0027] Figure 6 This is the second schematic diagram of the side view structure of the chain transmission mechanism.

[0028] In the accompanying drawings, the components represented by the reference numerals are listed as follows:

[0029] 1. Shell; 2. Inertial kinetic energy body; 3. Suspension support system; 4. Transmission mechanism; 5. Elastic structure; 6. Mounting plate; 7. Energy storage balance flywheel; 8. Rack; 9. First transmission shaft; 10. Second transmission shaft; 11. Third transmission shaft; 12. Fourth transmission shaft; 13. First gear; 14. Second gear; 15. Third gear; 16. Rotating shaft; 17. Fourth gear; 18. Fifth gear; 19. One-way bearing; 20. Lower chamber; 21. Through groove; 22. Upper chamber; 23. Mounting structure; 24. Transverse partition; 25. Bearing seat; 26. Vertical partition; 27. Chain; 28. Lower sprocket; 29. ​​Upper sprocket.

[0030] It should be noted that these drawings and textual descriptions are not intended to limit the conceptual scope of the present invention in any way, but are intended to illustrate the concept of the present invention for those skilled in the art by referring to specific embodiments. DETAILED DESCRIPTION

[0031] The present invention will now be described in further detail with reference to the accompanying drawings.

[0032] Example 1: Please refer to Figure 1-3 As shown, in this embodiment, a split inertial kinetic energy oscillation system is provided, including a housing 1, wherein the housing 1 has an upper chamber 22 and a lower chamber 20, and the diameter of the lower chamber 20 is smaller than the diameter of the upper chamber 22;

[0033] An inertial kinetic energy body 2, wherein the inertial kinetic energy body 2 slides vertically in the lower cavity of the shell 1, and can oscillate up and down to generate inertial kinetic energy under the impetus of the ups and downs of the ocean waves; and a suspension support system 3 is provided below the inertial kinetic energy body 2, and is arranged in the lower cavity 20, and the suspension support system 3 is used to support the oscillating inertial kinetic energy body 2;

[0034] The mounting structure 23 is located in the upper chamber 22. A transmission mechanism 4 is arranged above the mounting structure 23. The transmission part of the transmission mechanism 4 passes through the mounting structure 23 and enters the lower chamber 20 to connect with the inertial kinetic energy body 2. The transmission mechanism 4 can convert the bidirectional reciprocating oscillation kinetic energy of the inertial kinetic energy body 2 into a continuous torque with a unidirectional output.

[0035] In this embodiment, the suspension support system 3 has an elastic structure 5, and the elastic structure 5 is in an elastic energy storage state. The elastic force provided by the elastic structure 5 is used to directly or indirectly serve as a supporting force for supporting the oscillating suspension body.

[0036] In this embodiment, the transmission mechanism 4 includes a mounting plate 6, an energy storage balance flywheel 7, a double-sided rack 8 and a torque conversion gear set located above the transmission structure. The torque conversion gear set is mounted on one side of the mounting plate 6. The energy storage balance flywheel 7 rotates inside the upper chamber 22. One end of the rack 8 is fixed to the inertial kinetic energy body 2. The double-sided rack 8 is meshed with two sets of torque conversion gear sets respectively, and the output end of the torque conversion gear set cooperates with the energy storage balance flywheel 7. The double-sided rack 8 has gear teeth on both sides and meshes with the second gear 15.

[0037] In this embodiment, the torque conversion gear set includes a first transmission shaft 9, a second transmission shaft 10, a third transmission shaft 11, and a fourth transmission shaft 12 which are rotatably connected to the four corners of the mounting plate 6 respectively. The first transmission shaft 9 and the second transmission shaft 10 are fixedly connected to two first gears 13 on their circumferential sides. The first transmission shaft 9 and the second transmission shaft 10 are also fixedly connected to a second gear 14 located between the two first gears 13 on their circumferential sides. The rack 8 is located between the two second gears 14 and meshes with the two second gears 14, and meshes with two adjacent first gears 13. The third transmission shaft 11 and the fourth transmission shaft 12 are rotatably connected to two third gears 15 on their circumferential sides, and the third gears 15 are meshed with the first gear 13.

[0038] In this embodiment, a rotating shaft 16 is connected to one side of the energy storage balance flywheel 7, one end of the rotating shaft 16 is fixedly connected to two fourth gears 17, the other end of the rotating shaft 16 is rotatably connected to the inner wall of the upper chamber 22, and the ends of the third transmission shaft 11 and the fourth transmission shaft 12 of the rotating shaft 16 away from the third gear 15 are fixedly connected to the fifth gear 18, and the two fifth gears 18 are respectively meshed with the two fourth gears 17. The two second gears 18 at the third transmission shaft 11 and the fourth transmission shaft 12 are staggered.

[0039] In this embodiment, the third transmission shaft 11 and the fourth transmission shaft 12 are both rotatably connected to one side of the mounting plate 6 using a one-way bearing 19. The one-way bearing 19 can convert bidirectional reciprocating kinetic energy into a continuous torque output in one direction and drive the energy storage balance flywheel 7.

[0040] In this embodiment, the mounting structure 23 includes two transverse partitions 24 located on the inner wall of the shell 1 from top to bottom, and the opposite sides of the two transverse partitions 24 are penetrated by through grooves 21 for the rack 8 to slide, wherein the upper surface of the upper transverse partition 24 is fixedly connected to the bearing seat 25, and the rotating shaft 16 is rotatably connected to the inside of the bearing seat 25, and a vertical partition 26 is arranged between the two transverse partitions 24.

[0041] By arranging the inertial kinetic energy body 2, the transmission system and the supporting structure in the upper cavity and the lower cavity respectively, the center of gravity of the wave energy power generation device can be lowered, so that the overall movement center of gravity of the device is always kept at the lowest point. This low center of gravity characteristic greatly enhances the stability of the device when floating on the sea. In the violent ups and downs of waves, especially in extreme weather conditions such as typhoons and huge waves, the device can reduce the risk of tilting or capsizing caused by wave impact, thereby ensuring that the device can work stably for a long time and efficiently capture wave energy.

[0042] In similar offshore wave energy capture devices, due to the high center of gravity, the device is easily impacted by waves, especially under extreme sea conditions such as typhoons or huge waves, the device may capsize or seriously tilt, affecting its normal operation. The split design lowers the overall center of gravity of the device by separating the inertial kinetic energy body 2 from other components, allowing the device to float more stably on the water. In this way, even in an environment with strong winds and huge waves, the device can maintain a low tilt angle, reduce the risk of uneven force, and avoid capsizing or damage due to the violent ups and downs of waves.

[0043] In addition, the low center of gravity design not only improves the stability of the device, but also significantly optimizes the kinetic energy capture efficiency of the device. The kinetic energy of the waves is converted into oscillating kinetic energy within the system, and is converted into continuous power output through the repeated oscillation of the inertial kinetic energy body 2 and the mechanical system. Due to the lower center of gravity, the floating amplitude of the device under the impact of waves is reduced, and the kinetic energy in the waves can be captured more accurately, which reduces the mismatch between the device and the waves and improves the kinetic energy conversion efficiency.

[0044] The split design is also more adaptable when dealing with extreme weather or sea conditions. Extreme sea conditions such as typhoons and huge waves usually cause damage or malfunction of traditional equipment because the equipment cannot withstand the huge water pressure and impact force from different directions. The split design system, due to its low center of gravity, can effectively disperse external pressure, allowing the equipment to maintain a stable working state when facing strong waves. Especially in high wave conditions, the split structure allows each component to move independently without interfering with each other. This flexibility effectively reduces the risk of damage to the equipment due to excessive overall force.

[0045] In addition, due to the good independence and modularity of the split design, even in extreme weather conditions, if a part of the equipment fails, the entire system can continue to operate and maintain high energy output. This high reliability and maintainability is unmatched by traditional equipment, providing a more stable and long-term operation guarantee for offshore wave energy generation.

[0046] Working principle: When the inertial kinetic energy body 2 oscillates, the vibration of the inertial kinetic energy body 2 is converted into a reciprocating force through the mechanical system. This oscillating motion is connected to the inertial kinetic energy body 2 through the connection of the rack 8. One end of the rack 8 is fixed on the inertial oscillating body, so the rack 8 oscillates up and down when the inertial kinetic energy body 2 moves up and down. The up and down vibration of the rack 8 will drive the two groups of gears A and B meshed thereon to rotate. When the rack rises, the gear group A generates a positive torque and transmits the positive torque to the flywheel. At this time, the one-way bearing of the gear group B rotates idly, and the other gears of the gear group B do not rotate; when the rack descends, the gear group B generates a positive torque and transmits the torque to the flywheel. At this time, the one-way bearing of the gear group A rotates idly, and the other gears of the gear group A do not rotate, so that when the rack moves up and down with the inertial kinetic energy body, the kinetic energy of the up and down movement of the inertial kinetic energy body is transmitted to the flywheel.

[0047] It should be noted that: Group A gears are all gears at the second transmission shaft 10 and the fourth transmission shaft 12, Group B gears are all gears at the first transmission shaft 9 and the third transmission shaft 11, and Group A gears are Figure 3 There are two transmission shafts on the right side, and the gears in group B are Figure 3 The upper and lower transmission shafts on the left side;

[0048] That is, when the double-sided rack 8 moves upward, the rack 8 will mesh with the second gear 14 on the side of the second transmission shaft 10, and then the second gear 14 will rotate with the second transmission shaft 10. During the rotation of the second transmission shaft 10, the first gear 13 on the side of the second transmission shaft 10 will rotate. Subsequently, the first gear 13 will drive the third gear 15 on the side of the fourth transmission shaft 12 to rotate. At the same time, since the third gear 15 transmits force, the fourth transmission shaft 12 will rotate, and the fifth gear 18 on the side of the fourth transmission shaft 12 will rotate at the same time, and drive the rotating shaft 7 to rotate by meshing with the fourth gear 17. In the process of realizing this transmission, the one-way bearing of group B gears rotates idly, and other gears of group B do not rotate. The same is true when the double-sided rack 8 descends.

[0049] For further explanation: the rotation direction of the one-way bearings at the third transmission shaft and the fourth transmission shaft is both clockwise.

[0050] The two gear sets are a torque conversion system composed of a one-way bearing 19. Each gear set controls the direction of the transmitted torque through the one-way selective function of the one-way bearing 19. Specifically, the function of the one-way bearing 19 is to allow the force in one direction to be transmitted smoothly, while filtering the force in the other direction. In this way, the bidirectional torque generated when the rack 8 moves up and down will be output selectively in one direction after conversion by the two gear sets, ensuring that the final power output direction is consistent.

[0051] Example 2, please refer to Figure 4-6As shown, a chain 27 is used to drive the inertial kinetic energy body 2 to slide up and down in the lower chamber 20, and its structural layout is as follows: the rack in the transmission mechanism is replaced by a chain 27, and a lower sprocket 28 is provided at the bottom below the lower chamber. The first end of the chain 27 bypasses the connection fixed on the transverse partition 24 and is fixedly connected to the upper part of the inertial kinetic energy body 2 downward, and the second end bypasses the bottom lower sprocket 28 and is fixedly connected to the lower part of the inertial kinetic energy body 2, thereby forming a chain closed loop, and the circumferential side of the second transmission shaft 10 is also fixedly connected to an upper sprocket located between the two first gears 13 29, the chain 27 is connected to the lower end of the inertial kinetic energy body, and the other end of the chain 27 passes through the sprocket on the upper end transmission shaft and is fixed to the upper part of the inertial kinetic energy body to form a closed chain 27, and the chain 27 cooperates with the upper sprocket 29 and the lower sprocket 28. During the implementation of Example 2, the second gear 14 needs to be replaced with the upper sprocket 29 and the first transmission shaft 9 is removed. In addition, the first gear 13 at the second transmission shaft and the two third gears 15 are meshed. In addition, a straight groove is provided between the upper and lower parts of the inertial kinetic energy body 2 for the chain 27 to pass through. The other content and structural design are the same as those of Example 1.

[0052] When the inertial kinetic energy body oscillates up and down, the chain 27 rotates under the drive of the inertial kinetic energy body, driving the upper sprocket to rotate the transmission shaft in both directions, which is the same as embodiment 1, and finally realizes full-time continuous torque output. The sprocket stroke is closed and fixed to transmit the vertical oscillation kinetic energy of the inertial kinetic energy body to the transmission mechanism through the rack or chain 27, and the transmission mechanism converts the bidirectional reciprocating vertical kinetic energy into a unidirectional torque output, driving the generator to rotate.

[0053] The present invention is not limited to the above-mentioned embodiments. Anyone should be aware that any structural changes made under the enlightenment of the present invention, and any technical solutions that are the same or similar to the present invention, fall within the protection scope of the present invention. The technology, shape, and structural parts not described in detail in the present invention are all well-known technologies.

Claims

1. A split inertial kinetic energy oscillation system, characterized in that: include: A housing (1), the housing (1) having an upper chamber (22) and a lower chamber (20), wherein the diameter of the lower chamber (20) is smaller than the diameter of the upper chamber (22); An inertial kinetic energy body (2), wherein the inertial kinetic energy body (2) slides in a vertical direction in the lower cavity of the shell (1) and can oscillate up and down to generate inertial kinetic energy under the impetus of the ups and downs of ocean waves; and a suspension support system (3) is provided below the inertial kinetic energy body (2) and is arranged in the lower cavity (20), wherein the suspension support system (3) is used to support the oscillating inertial kinetic energy body (2); The mounting structure (23) is located in the upper chamber (22); a transmission mechanism (4) is arranged above the mounting structure (23); a transmission part of the transmission mechanism (4) passes through the mounting structure (23) and enters the lower chamber (20) to connect with the inertial kinetic energy body (2); the transmission mechanism (4) is capable of converting the bidirectional reciprocating oscillation kinetic energy of the inertial kinetic energy body (2) into a continuous torque output in one direction.

2. A split inertial kinetic energy oscillation system according to claim 1, characterized in that: The suspension support system (3) has an elastic structure (5), and the elastic structure (5) is in an elastic energy storage state. The elastic force provided by the elastic structure (5) is used directly or indirectly as a supporting force for supporting the oscillating suspension body.

3. A split inertial kinetic energy oscillation system according to claim 1, characterized in that: The transmission mechanism (4) comprises a mounting plate (6) located above the transmission structure, an energy storage balancing flywheel (7), a double-sided rack (8) and a torque conversion gear set, wherein the torque conversion gear set is mounted on one side of the mounting plate (6), the energy storage balancing flywheel (7) rotates inside the upper chamber (22), one end of the rack (8) is fixed to the inertial kinetic energy body (2), the double-sided rack (8) is respectively meshed with two sets of torque conversion gear sets, and the output end of the torque conversion gear set cooperates with the energy storage balancing flywheel (7).

4. A split inertial kinetic energy oscillation system according to claim 1, characterized in that: The torque conversion gear set comprises a first transmission shaft (9), a second transmission shaft (10), a third transmission shaft (11), and a fourth transmission shaft (12) which are rotatably connected to the four corners of the mounting plate (6), respectively; two first gears (13) are fixedly connected to the circumferential sides of the first transmission shaft (9) and the second transmission shaft (10); a second gear (14) located between the two first gears (13) is also fixedly connected to the circumferential sides of the first transmission shaft (9) and the second transmission shaft (10); a rack (8) is located between the two second gears (14) and meshes with the two second gears (14), and meshes with two adjacent first gears (13); two third gears (15) are rotatably connected to the circumferential sides of the third transmission shaft (11) and the fourth transmission shaft (12), and the third gears (15) and the first gears (13) are meshed.

5. The split inertial kinetic energy oscillation system according to claim 1, characterized in that: A rotating shaft (16) is connected to one side of the energy storage balance flywheel (7), one end of the rotating shaft (16) is fixedly connected to two fourth gears (17), the other end of the rotating shaft (16) is rotatably connected to the inner wall of the upper chamber (22), and the ends of the third transmission shaft (11) and the fourth transmission shaft (12) of the rotating shaft (16) away from the third gear (15) are fixedly connected to the fifth gear (18), and the two fifth gears (18) are respectively meshed with the two fourth gears (17).

6. A split inertial kinetic energy oscillation system according to claim 1, characterized in that: The third transmission shaft (11) and the fourth transmission shaft (12) are both rotatably connected to one side of the mounting plate (6) by means of a one-way bearing (19); the one-way bearing (19) can convert bidirectional reciprocating kinetic energy into a continuous torque output in one direction, and drive the energy storage balance flywheel (7).

7. A split inertial kinetic energy oscillation system according to claim 1, characterized in that: The mounting structure (23) comprises two transverse partitions (24) which are sequentially located on the inner wall of the shell (1) from top to bottom, and through grooves (21) for the rack (8) to slide are provided through the opposite sides of the two transverse partitions (24), wherein the upper surface of the upper transverse partition (24) is fixedly connected to a bearing seat (25), and the rotating shaft (16) is rotatably connected to the inside of the bearing seat (25), and a vertical partition (26) is arranged between the two transverse partitions (24).

8. The split inertial kinetic energy oscillation system according to claim 1, characterized in that: The rack in the transmission mechanism is replaced by a chain (27), a lower sprocket (28) is arranged at the bottom below the lower chamber, a first end of the chain (27) bypasses a connection fixed on a transverse partition (24) and is fixedly connected to the upper part of the inertial kinetic energy body (2) downward, a second end bypasses the bottom lower sprocket (28) and is fixedly connected to the lower part of the inertial kinetic energy body (2), thereby forming a chain closed loop, an upper sprocket (29) located between two first gears (13) is also fixedly connected to the circumferential side of the second transmission shaft (10), the chain (27) is connected to the lower end of the inertial kinetic energy body, the other end of the chain (27) bypasses the sprocket on the upper end transmission shaft and is fixed to the upper part of the inertial kinetic energy body so that the chain (27) forms a closed loop, and the chain (27) cooperates with the upper sprocket (29) and the lower sprocket (28).

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