Reciprocating sliding gear rack puller
By designing a reciprocating sliding rack-and-pinion puller that uses mechanical vibration to drive the pull-and-turn of the gear, it solves the problems in the existing technology of energy being consumed or generating vibration that pollutes the public, and achieves efficient use of mechanical vibration for continuous rotation. Power output.
Patent Information
- Application Number
- CN202310929774.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2023-07-22
- Publication Date
- 2025-01-24
AI Technical Summary
The existing technology fails to effectively utilize new energy forms such as mechanical vibration, resulting in energy consumption or vibration pollution pollution, and it is difficult to achieve continuous rotational power output.
Design a reciprocating sliding gear and rack puller. Through the combination of screws, brackets, gears, racks, vibration sources and springs, mechanical vibration is used to drive the interaction between the small gear and the large gear to realize the pulling and turning of the gear. This creates continuous rotational power.
The efficient utilization of mechanical vibration can be achieved. With the influence of the vibration amplitude, it can drive the amplitude of the vibration by extending the rack or the use of leverage principle to drive the generator to rotate or generate power, and improve the energy utilization rate.
Smart Images
Figure CN119353384A_ABST
Abstract
Description
1. Technical field
[0001] The present invention relates to a reciprocating rotary device in the mechanical field, in particular to a device that utilizes mechanical vibration to perform rotation. 2. Background technology
[0002] As most of the energy is non-renewable, oil depletion and energy crisis, looking for new energy has become the current and future development trend. The demand for energy is increasing, so it is necessary to find new energy. In the mechanical vibration, motor vehicle, airplane, train operation and ship use of sea wave vibration is a new energy that has not been fully developed. Vibration is a wave, it is the vibration form of movement that is spreading. There is a periodic driving force between the medium, the driving force will do work, and the result of work is energy spreading. Vibration is of course a kind of energy, vibration has huge energy! People regard vibration as a kind of pollution. Like noise, it belongs to physical pollution and is temporary. Vibration is a very common form of movement. Almost any object is vibrating, and almost any object cannot do without vibration, but vibration energy is not fully applied. Some mechanical movement energy is consumed by vibration or vibration pollution is generated.
[0003] The present invention relates to a reciprocating rotating device in the field of machinery, that is, a device that fully utilizes vibration to rotate, and utilizes mechanical reciprocating motion in the form of vibration to drive a generator to move or generate power. 3. Summary of the invention
[0004] like Figure 1 As shown, the reciprocating sliding gear rack puller includes a screw 1, a bracket 2, a central axis 3, a large gear 4, a small gear 5, a slot 6, a rack 7, a vibration source 8, and a spring 9. The two brackets 2 are fixed at the upper end at a 45-degree angle by the screw 1, the central axis 3 is installed in the middle of the bracket 2, and the large gear 4 is installed on the central axis 3, and the small gear 5 is installed at the lower end of the bracket 2, so that the small gear 5 can drive the large gear 4 to rotate, and the central axis 3 of the small gear 5 can move in the slot 6. The vibration source 8 is connected with the rack 7 and the spring 9 is installed to drive the small gear 5. When reciprocating downward movement, the rack 7 pulls the small gear 5 to slide down in the slot 6 and separate from the large gear 4. When reciprocating upward movement, the rack 7 pushes the small gear 5 to slide in the slot 6 to close to the large gear 4 and pull the large gear 4 to rotate.
[0005] like Figure 2As shown, the reciprocating sliding gear rack puller includes a screw 1, a bracket 2, a central axis 3, a large gear 4, a small gear 5, a slot 6, a rack 7, a vibration source 8, and a spring 9. The two brackets 2 are fixed at the lower end at a 45-degree angle by the screw 1. The central axis 3 is installed in the middle of the bracket 2, and the large gear 4 is installed on the central axis 3. The small gear 5 is installed on the upper end of the bracket 2, so that the small gear 5 can drive the large gear 4 to rotate. The central axis 3 of the small gear 5 can move in the slot 6. The vibration source 8 is connected with the rack 7 and the spring 9 is installed to drive the small gear 5. When reciprocating upward movement, the rack 7 pushes the small gear 5 to slide in the slot 6 and separate from the large gear 4. When reciprocating downward movement, the rack 7 pulls the small gear 5 to slide in the slot 6 to close to the large gear 4 and pull the large gear 4 to rotate.
[0006] The above two technologies can be used separately or in combination. Two large gears are installed on the same shaft, and the bracket, small gear, rack and spring are installed separately. When reciprocating motion occurs, one group of gears rotates idly and the other group of pull-shafts rotates. There is always one group of pull-shafts rotating during the reciprocating motion. Energy can be used for the reciprocating motion to make the shaft rotate continuously in one direction.
[0007] The combined use is that the two sides of the large gear on the same shaft are fixed with screws in opposite directions on the generator or the equipment that needs to rotate to install the bracket, pinion, rack and spring. When the reciprocating motion is upward, one group of racks and pinions are separated from the large gear and rotate idly, and the other group of racks and pinions are close to the large gear to pull the large gear to drive the shaft to rotate. When the reciprocating motion is downward, one group of racks and pinions are close to the large gear to pull the large gear to drive the shaft to rotate, and the other group of racks and pinions are separated from the large gear and rotate idly. The reciprocating motions are in opposite directions and do not affect each other. There is always one group of pulling the large gear to drive the shaft to rotate during the reciprocating motion. Energy can be used continuously for the reciprocating motion to make the shaft rotate continuously in one direction. 4. Description of the drawings
[0008] Figure 1 It is the front and top view of the reciprocating sliding gear rack puller.
[0009] Figure 2 It is the front and top view of the reciprocating sliding gear rack puller. 5. Specific implementation methods
[0010] The reciprocating motion of the mechanical vibration, motor vehicle, airplane, train operation and ship using the wave vibration of seawater is rotated without being affected by the vibration amplitude, and the length of the rack can be lengthened, and the vibration amplitude can be adjusted using the lever principle to drive the generator to rotate or generate power. The present invention relates to a reciprocating motion rotating device in the mechanical field, which is simple and easy to operate, and combines the energy of reciprocating motion, so the energy utilization rate is high and it is easy to promote and use.
[0011] The utilization of mechanical vibration, motor vehicles, airplanes, trains and ships utilizing the reciprocating motion of the wave vibration of sea water for rotation is not affected by the vibration amplitude. The length of the rack can be lengthened and the vibration amplitude can be adjusted using the lever principle. The length of the rack can be determined according to the actual situation of the above-mentioned reciprocating vibration amplitude to ensure that it operates within the range of its reciprocating amplitude. The length of the rack can also be lengthened so that the reciprocating vibration amplitude does not exceed the operating range of the rack. The vibration amplitude is adjusted using the lever principle based on the actual situation of the above-mentioned reciprocating vibration amplitude. For example, the suspension system installed in a motor vehicle is actually a lever system. The farther the distance from the fulcrum is when connected to the vibration source, the greater the vibration amplitude, and vice versa. For special reciprocating vibration amplitudes, a lever group can be fixedly installed, and the vibration amplitude can be amplified or reduced by the lever principle, so as to solve the problem that the special reciprocating vibration amplitude can also be fully utilized to drive the generator to rotate or generate power.
[0012] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any person familiar with the present technology can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope explicitly stated in the present invention, and all of them should be covered by the protection scope of the present invention.
Claims
1. The technical name of the present invention is a reciprocating sliding gear rack puller, wherein two brackets are fixed at an angle of 45 degrees with screws, a central axis is installed in the middle of the bracket, and a large gear is installed on the central axis, and a small gear is installed at the lower end of the bracket, so that the small gear can drive the large gear to rotate, and the central axis of the small gear can move in the slot hole. A rack is connected to the vibration source and a spring is installed to drive the small gear. When reciprocating downward movement, the rack pulls the small gear to slide down in the slot hole and separate from the large gear. When reciprocating upward movement, the rack pushes the small gear to slide in the slot hole to close to the large gear and pull the large gear to rotate; Similarly, two brackets are fixed from the lower end at a 45-degree angle with screws, a central axis is installed in the middle of the bracket, and a large gear is installed on the central axis, and a small gear is installed on the upper end of the bracket, so that the small gear can drive the large gear to rotate, and the central axis of the small gear can move in the slot hole, and a rack is connected to the vibration source and a spring is installed to drive the small gear tightly. When reciprocating upward movement, the rack pushes the small gear to slide in the slot hole and separate from the large gear. When reciprocating downward movement, the rack pulls the small gear to slide in the slot hole to close to the large gear and pull the large gear to rotate; The above two technologies can be used separately or in combination. Two large gears are installed on the same shaft, and the bracket, small gear, rack and spring are installed separately. When reciprocating motion occurs, one group of gears rotates idly and the other group of pull-shafts rotates. There is always one group of pull-shafts rotating during the reciprocating motion. Energy can be used for the reciprocating motion to make the shaft rotate continuously in one direction.