High-efficiency technical device for obtaining gravitational energy

Abstract

The invention discloses a technical device for efficiently obtaining gravitational energy. The mechanical device is composed of two fixedly-installed racks, a metal shaft assembly with gears for rolling, two gravity balls, a pulley, a rope and the like. Force is applied to the gear at one end, so that the gear of the shaft assembly rolls downwards to drive the gravity ball on the other side to lift upwards to store gravitational potential energy, and the effect of increasing the gravitational potential energy of the gravity ball on the right side is achieved by controlling the force bearing point of the gravity ball on the left side. The method is simple in principle and can be applied to the fields of engines and power generation.

Description

TECHNICAL FIELD

[0001] The present application belongs to the field of new energy development and utilization of gravity energy, and particularly relates to a technology for efficient acquisition of gravity energy. BACKGROUND

[0002] At present, the state mainly develops photovoltaic and wind power projects in the field of new energy, and the development and utilization of gravity energy is still in its infancy. At present, the widely used gravity energy storage is the only one, but the technical scheme of the current gravity energy storage consumes corresponding energy to obtain equal gravity energy. The efficiency of the current technology for acquiring gravity energy is obviously insufficient, and the technical bottleneck needs to be opened. Only by improving the acquisition efficiency of gravity energy can gravity energy be widely developed and utilized like wind and solar energy.

[0003] Special note: The previous patent application of the present application has found a serious technical error, and the application number: 2025109628813 has been withdrawn, and this reapplication is corrected. SUMMARY

[0004] In view of the technical deficiencies of the above-mentioned gravity energy acquisition efficiency, the present application provides a high-efficiency gravity energy acquisition technology. The present application adopts the following way to realize: a high-efficiency gravity energy acquisition technology device comprises: a rack, a shaft assembly with a toothed gear and a pulley, a rope, a gravity ball and a load-bearing base.

[0005] The device of the present application is a simple pulley system composed of two pulleys and a rope. Pulley (10) and pulley (11) are fixed in the installed state. The two pulleys are separated by a certain distance. A rope passes through the two pulleys, one end of the rope extends vertically downward from the pulley (10), and then bifurcates into two ends, which are anchored to the two ends of the metal shaft (12) of the shaft assembly. The other end of the rope extends vertically downward from the pulley (11) and is connected to the gravity ball (6). A pulley power system is formed by the unequal weight on both sides of the rope to produce upward and downward movement.

[0006] The shaft assembly comprises a metal shaft (12) on which two bearing gears (3) and (4) and a bearing pulley (5) are assembled.

[0007] The two bearing gears (3) and (4) and the bearing pulley (5) are all the same diameter and are all welded and fixed as a whole to keep strict synchronous rolling displacement in the upward and downward directions.

[0008] The two racks (1) (2) are parallel and fixedly installed, the gears (3) (4) are kept in engagement with the racks, and the gears (3) (4) are rolled up and down on the racks to make translational movement under the action of external force.

[0009] The pulley (5) is characterized in that a rope is wound in the U-shaped groove of the outer edge of the pulley, the rope is wound in a circle along the groove of the pulley and then led out from the groove (the rack end) and extended vertically downward, and the extended end (7) of the rope is connected with the gravity ball (8) to form a vertical load system driven by the gravity ball.

[0010] The gears and the pulley on the shaft assembly are all welded and fixed together to keep synchronous rolling up and down, during the downward rolling, the pulley (5) will wind up the rope, and during the upward rolling, the pulley (5) will release the rope,

[0011] The gravity ball (8) is connected and hung on the rope (7), and is characterized in that: when the pulley (5) connected with the gravity ball (8) rolls downward, the rope will be wound up at the same time, and when the pulley rolls upward, the rope will be released at the same time, although the length of the rope between the pulley 5 and the gravity ball 8 changes, the gravity ball (8) can keep the spatial position stationary.

[0012] Secondly, the mass of the gravity ball (8) is set to be half of the mass of the gravity ball (6).

[0013] Thirdly, if external force is applied on the gears (3) and (4) to drive the gears to roll downward to lift the gravity ball (6) to move upward, the weight of the gravity ball (8) offsets half of the weight of the gravity ball (6) on the right side, achieving the effect of saving labor.

[0014] The main technical principles of the application mainly include two parts. The first part: external force is applied on the gears (3) and (4) to drive the gears to roll downward to lift the gravity ball (6) to move upward, so as to lift it to a higher position to store gravitational potential energy.

[0015] Further analysis is needed on how much external force needs to be applied on the gears (3) and (4) to drive the gears (3) (4) to roll downward. The weight of the gravity ball (8) offsets half of the weight of the gravity ball (6) as mentioned above. The effect of saving labor is achieved, and in addition to the weight of the shaft assembly, the external force applied on the gears (3) and (4) is converted into mass, which is only half of the mass of the gravity ball (6),

[0016] Assuming the mass of the gravity ball (6) is 100 pounds, then the left gravity ball (8) is 50 pounds, the shaft assembly mass is assumed to be 6 pounds, and the external force exerted on the gear (3) and gear (4) is only 50 pounds when converted to mass. The total gravity on the left side reaches 106 pounds, which is heavier than the right gravity ball of 100 pounds. This achieves the condition of driving the gear to roll down.

[0017] The first technical feature of the invention: only with the pulling force equivalent to half the weight of the gravity ball (6), the gravity ball (6) can be lifted upward to store gravitational potential energy. This technical feature achieves the effect of the most labor-saving.

[0018] The second part of the technical principle of the invention: the operation of the previous part, exerting pulling force on the gear, the shaft assembly gear rolls down, the pulley (5) rolls down synchronously, and the gravity ball (6) is lifted to the corresponding height to store gravitational potential energy. When rolling to the predetermined target position, further operation: stop exerting pulling force on the gear (3) and gear (4). And lift the bearing base (9) 5mm upward to the gravity ball (8). The weight of the gravity ball (8) is all on the bearing base (9). The purpose of this operation is to transfer the weight of the gravity ball (8) to the bearing base (9), eliminating the weight of the gravity ball (8) on the gravity ball (6), increasing the gravitational potential energy released by the gravity ball (6) falling. So the left side only has the weight of the shaft assembly, and the gravitational potential energy released by the gravity ball (6) falling is doubled.

[0019] The technical principle: the above-mentioned pulley (5) rolls up and down during displacement, releasing and winding the rope, and the gravity ball (8) is in a static state. The bearing base (9) lifts the gravity ball (8) 5mm upward, causing the rope between the pulley 5 and the gravity ball (8) to be too long, the rope becomes soft, the rope is no longer under stress, and the pulley 5 rolls up, releasing the rope. Therefore, the entire upward rolling process is in an overlong state, the rope (7) loses connection with the weight of the gravity ball (8), and the weight of the gravity ball (8) is on the bearing base (9) during the upward rolling process. The gravitational potential energy released by the gravity ball (6) falling is doubled.

[0020] Further, the gravity ball (6) releases gravitational potential energy from a high place, and the left gear rolls up during the falling process. The gravity ball (6) and the shaft assembly return to their original positions. When reaching the original position, further operation: move the bearing base (9) 5mm downward and lose contact with the gravity ball (8). The weight of the gravity ball (8) is back on the rope (7). Thus, one round of operation is completed. Further, the same operation is performed for the second time.

[0021] As shown in the drawings: the device of the application is a simple pulley system composed of two fixed pulleys and a rope. The two fixed pulleys suspend heavy objects at the ends of the downward leading rope. Due to the inequality of the weight or force of the two heavy objects, a displacement motion is generated in which one side is lifted upward and the other side falls downward. The application utilizes the pulley (5) to roll down to store the rope, and to roll up to release the rope. The gravity ball (8) is in a static state, and the load-bearing base is used to control the mass of the gravity ball (8). First, the gravity ball (6) is pulled upward to store gravitational energy, and the weight of the gravity ball (8) offsets half of its weight, reducing the work done and achieving the most labor-saving effect. Second, when the gravity ball (6) falls downward to release gravitational potential energy, the load-bearing base (9) lifts the gravity ball (8) upward by 5mm, and the weight of the gravity ball (8) is disconnected from the rope 7. This operation reduces the weight of the gravity ball (8) on the right side of the gravity ball (6), and increases the gravitational potential energy of the gravity ball (6) by one time, achieving the purpose of the application.

[0022] Compared with the prior art, the application has at least the following beneficial effects:

[0023] The technical device of the application has low cost and simple production, and is not limited by position and operation time. The efficiency of obtaining gravitational energy is doubled compared with existing gravitational energy storage technology. The application opens up a technical breakthrough for the development and utilization of gravitational energy, and can easily obtain energy from the gravitational field around us. If widely promoted, it will contribute to carbon reduction, emission reduction and the development of green energy. BRIEF DESCRIPTION OF DRAWINGS

[0024] Figure 1 The figure shows the structure of the mechanical device of the application.

[0025] The figure shows the structure of the mechanical device of the application. DETAILED DESCRIPTION

[0026] The application will be further described in detail below in combination with the drawings and specific embodiments.

[0027] Due to the specific implementation, it is necessary to assume the mass parameters of the two gravity balls, so that the meaning of the application can be more clearly understood. Here, it is assumed that the gravity ball (8) is 20 tons, and the gravity ball (6) is 40 tons.

[0028] Further, it is determined that the distance of the up and down rolling of the shaft assembly gear is 10 meters, and the right side gravity ball (6) moves up and down by 10 meters. Because the two sides are connected by the rope and affect each other, one side moves downward, and the other side is pulled upward. The movement distance of the two sides is equal.

[0029] Further, the total weight of the shaft assembly is 0.7 tons. Thus, the weight on the left side of the drawing is the sum of the shaft assembly and the gravity ball (8), which is 20.7 tons. The gravity ball (6) on the right side is 40 tons,

[0030] Further, a pulling force equivalent to 20.3 tons of mass is applied to the gear (3) and the gear (4), so that the total pulling force on the left side of the drawing reaches 41 tons, which is greater than 40 tons on the right side, and the gear can be driven to roll down.

[0031] Further, the driving gear rolls down 10 meters to reach the predetermined position.

[0032] Further, the driving gear rolls down, and the gravity ball (6) on the right side is lifted 10 meters to reach the predetermined position.

[0033] This operation achieves the first purpose of the present embodiment: applying a pulling force equivalent to 20.3 tons of mass to the gear (3) and the gear (4) to lift the 40-ton gravity ball 6 upward to store gravitational potential energy. The technical principle is that the 20-ton weight of the gravity ball (8) offsets half the weight of the gravity ball (6). The most labor-saving effect is achieved.

[0034] Further, the pulling force applied to the gear (3) and the gear (4) is stopped, and the bearing base (9) is used to lift the bottom of the gravity ball (8) upward by 5 mm, so that the weight of the gravity ball (8) is all on the bearing base 9, and the left side now only has the weight of the shaft assembly,

[0035] This operation achieves the second purpose of the present embodiment: transferring the weight of the gravity ball (8) to the bearing base (9) to make the left side lighter and the right side gravity ball (6) lighter, thereby increasing the gravitational potential energy by a factor of two.

[0036] The bearing base (9) lifts the bottom of the gravity ball (8) upward by 5 mm, so that the middle rope of the gravity ball (8) and the pulley (5) is too long, and the rope 7 is no longer under stress from the gravity ball (8).

[0037] Further, the gravity ball (6) is allowed to fall to release gravitational potential energy, which in turn drives the left side shaft assembly gear to roll upward, and the pulley 5 releases the rope during the upward rolling process, resulting in the upward rolling process being in a soft state, so the weight of the gravity ball (8) is all on the bearing base (9). The bearing base (9) falls 10 meters back to the original position point, and the shaft assembly also rolls upward 10 meters back to the original position point.

[0038] Further, the bearing base (9) is moved downward to disengage the gravity ball (8), so that the weight of the gravity ball (8) is again on the rope (7).

[0039] Thus, the operation of the present application is completed in one cycle. The second operation is performed, and the cycle is repeated.

[0040] The result data of the present embodiment is as follows: the driving mode is to pull 10 meters under the force equivalent to 20.3 tons of mass on the gear. The gravity potential energy obtained is the weight of the gravity ball 6 of 40 tons minus the weight of the shaft assembly of 0.7 tons. It is equivalent to the work of a 39.3-ton weight falling 10 meters. The output energy is nearly twice the input energy.

[0041] The energy consumption of the load-bearing base (9) to lift the gravity ball (8) by 5 mm is very small and can be ignored. DETAILED DESCRIPTION 2

[0042] Embodiment 2 is derived from embodiment 1. The specific operation is as follows: two devices of the present application form a pair, which are referred to as device A and device B. First, the load-bearing base (9) of device A is lifted upward to lift the gravity ball (8) of device A, and the gravity ball (6) of device A is released to fall to connect the gears (3) and (4) of device B,

[0043] The gravity ball (6) of device A falls to release the gravity potential energy to drive the gears (3) and (4) of device B, and the gravity ball (6) of device B is lifted to the corresponding height,

[0044] Further operation, the load-bearing base (9) of device A is lowered to separate the gravity ball (8), and the load-bearing base (9) of device B is lifted upward to lift the gravity ball (8) of device B, and the gravity ball (6) of device B is released to fall to drive the gears (3) and (4) of device A, and the gears lift the gravity ball (6) of device A to the corresponding height,

[0045] Thus, the embodiment only needs to control the two load-bearing bases (9) of the two devices A and B, and no additional power is needed to drive the gears to work, so that the two devices can continuously cycle.

[0046] The gravity potential energy released by the falling of the gravity ball (6) should be more than twice the force required to drive the gears to roll down, so the gravity potential energy released by the falling of the gravity ball (6) can simultaneously drive the generator to work.

Claims

1. A highly efficient device for harvesting gravitational energy includes: The system consists of a rack, a shaft assembly with gears and pulleys, a rope, a gravity ball, a load-bearing base, and pulleys. Pulleys (10) and (11) are fixedly installed, with a certain distance between them. A rope passes through the two pulleys, with one end of the rope extending vertically downward from pulley (10) and then branching into two ends, which are respectively anchored to the two ends of the metal shaft (12) of the shaft assembly. The other end of the rope extends vertically downward from pulley (11) and connects to the gravity ball (6), forming a pulley power system that rises and falls due to the unequal weight on both sides of the rope.

2. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that: The shaft assembly includes a metal shaft (12) on which two bearing gears (3) and gears (4) are mounted, and two bearing pulleys (5) are mounted between the two gears.

3. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that: The two bearing gears (3) and (4) and the bearing pulley (5) are all the same diameter and are all welded together to form a whole component, so that they can maintain strict synchronous rolling displacement in the vertical direction.

4. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that: The two racks (1) and (2) are fixedly installed in parallel. The gears (3) and (4) are meshed with the racks. The gears (3) and (4) roll up and down and make translational motions under the action of force.

5. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that: The gear and pulley on the shaft assembly are all welded together and rolled up and down synchronously. When rolling down, the pulley (5) will pull up the rope while rolling up. When rolling up, the pulley (5) will release the rope while rolling up.

6. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that: The gravity ball (8) is connected and suspended on the rope (7). When the pulley (5) connected to the gravity ball (8) rolls downward, it will simultaneously pull up the rope, and when it rolls upward, it will simultaneously release the rope. Although the length of the rope between the pulley (5) and the gravity ball (8) changes, the gravity ball (8) can remain stationary in space.

7. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that: The mass of gravity ball (8) is set to be half the mass of gravity ball (6).

8. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that: The weight of gravity ball (8) puts a load on gravity ball (6) on the right side. The weight of gravity ball (8) offsets half of the weight of gravity ball (6) on the right side, thus achieving the effect of saving effort.

9. The high-efficiency device for obtaining gravitational energy according to claim 1, characterized in that... The supporting base (9) lifts the gravity ball (8) upward by 5 mm, causing the rope between the pulley 5 and the gravity ball (8) to become too long. The rope becomes slack and is no longer under force. The rope will be released during the upward rolling process of the pulley 5. Therefore, the rope is in an excessively long state throughout the entire upward rolling process. The rope (7) loses its connection to the weight of the gravity ball (8). During the upward rolling process, the weight of the gravity ball (8) is on the supporting base (9). The gravitational potential energy released during the falling process of the gravity ball (6) is doubled.

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