Autorotation type conversion device

Abstract

The invention discloses a self-rotation type conversion device which comprises a base, a rotating wheel shaft supported by a rotating wheel shaft support is fixedly provided with a rotating wheel, a buoyancy body or a gravity body connected with a wheel rim of the rotating wheel through a bearing is arranged between spokes of the wheel rim of the rotating wheel, the buoyancy body or the gravity body is provided with a roller rod, and a roller is arranged at the end of the roller rod. The left side radian of the closed-loop slideway supported by the slideway support is smaller than the diameter of the rotating wheel, the closed-loop slideway is arranged in front of the rotating wheel, and the right side radian of the closed-loop slideway is larger than the diameter of the rotating wheel. According to the conversion device, the buoyancy body or the gravity body rotates at the specific stage of revolution along with the rotating wheel, so that the rotating wheel continuously rotates due to stress unbalance, and power is output.

Description

Technical Field

[0001] This invention relates to a conversion device, and more particularly to a self-rotating conversion device. Background Technology

[0002] Existing power conversion devices typically operate by inflating and deflating air. For example, Chinese invention patent CN201110056486.7 discloses "a buoyancy engine" that converts power through a hollow main shaft, a compressor, and an open float. However, this method of re-inputting power via a compressor requires further power conversion and input, affecting power output. Summary of the Invention

[0003] To overcome the shortcomings of existing technology devices that require further conversion and power input, this invention provides a self-rotating conversion device. By having a buoyant or gravity body rotate during the operation of the structural device, the working section is moved away from the wheel shaft and points radially; the power-consuming section that is forced to move downward or upward is moved close to the wheel shaft and points centripetally. This device causes the wheel to rotate due to force imbalance and output power, eliminating the need for further conversion and power input.

[0004] The technical solution adopted by this invention to solve its technical problem is two specific implementations of the same idea: a self-rotating conversion device, including a rotating wheel shaft support fixed to the base and a fixed slide rail support, a rotating wheel fixed in the rotating wheel shaft bearing seat, a buoyancy body or gravity body connected to the spokes of the rotating wheel rim through a bearing, the buoyancy body or gravity body has a roller rod and a roller, the slide rail supported by the slide rail support is placed in front of the rotating wheel on the left and behind the rotating wheel on the right, and the slide rails on both sides of the rotating wheel are connected by the transition slide rails at the upper and lower parts of the rotating wheel across the rotating wheel rim.

[0005] The aforementioned self-rotating conversion device has a rotor shaft support that is an isosceles triangle, symmetrically fixed to the base, with a height greater than the rotor radius and a spacing greater than the length of the buoyancy body or gravity body. Each of its top ends has a bearing seat through which the rotor shaft passes.

[0006] In the aforementioned self-rotating conversion device, the rotating shaft is fixed in the bearing of the rotating shaft support bearing seat, and its length is greater than the distance between the front and rear supports. The front end of the rotating shaft is flush with the front facade of the support, and the rear end serves as the output shaft, which is longer than the rear facade of the support.

[0007] In the aforementioned self-rotating conversion device, the rotating wheel supports the rim through spokes. The number of spokes is the same as the number of buoyancy bodies or gravity bodies. The diameter of the rotating wheel is 2-4 times larger than the total length of the buoyancy bodies or gravity bodies. Bearings connecting the buoyancy bodies or gravity bodies are fixed between the spokes of the rim.

[0008] In the aforementioned self-rotating conversion device, the gravity body is a cylindrical metal entity with a semi-circular front end and identical shape, connected to the connecting rim of the wheel via bearings and connecting rods. The length of the cylindrical body is less than 1 / 4 of the diameter of the wheel and the diameter is less than 1 / 5 of the length. The roller rod is positioned at 90° to the cylindrical body at 1 / 15 of the distance from the spokes, and its length is less than the diameter of the cylindrical body, with a diameter matching the roller bearing. The buoyancy body is a cylindrical entity with semi-circular ends, its length is less than the radius of the wheel, and its diameter is less than 1 / 10 of the length. One end is a hollow, sealed shell, and the other end is a solid metal entity. The middle part of the metal entity is positioned on the spokes through a bearing hole that matches the bearing fixed to the spokes. At approximately one-third of its length, there is a roller rod at 90° to the cylindrical body. The length of the roller rod is less than the diameter of the cylindrical body, and its diameter matches the roller bearing.

[0009] In the aforementioned self-rotating conversion device, the roller is a limiting wheel connected to the end of the roller rod of the buoyancy body or gravity body via a bearing, constraining the orientation of the buoyancy body or gravity body, and rolling within a slide groove; its diameter is smaller than the length of the roller rod, and its height is less than 1 / 4 of its outer diameter.

[0010] The aforementioned self-rotating conversion device has a slide support divided into two parts: the front and rear of the rotating wheel. The front of the rotating wheel is horizontally T-shaped, with its vertical center fixed to the rotating wheel axle support. Both ends are fixed to the front and rear transition parts of the left slide, and the horizontal part is parallel to the center of the rotating wheel, connecting the slide to the left front of the rotating wheel. The rear of the rotating wheel is cross-shaped, with one side horizontally parallel to the rotating wheel axle, its left end fixed to the rotating wheel axle support, and its right end fixed to the rotating wheel axle parallel part of the right slide behind the rotating wheel. The other side is vertically parallel to the vertical line of the rotating wheel center, with its upper end fixed to the upper right of the right slide behind the rotating wheel and its lower end fixed to the lower right of the right slide behind the rotating wheel. The width of the support is greater than the width of the slide.

[0011] The aforementioned self-rotating conversion device features a slide rail supported by a slide rail bracket. This slide rail consists of a front section, a rear section, and two upper and lower transition sections with varying curvatures. The distance between the slide rail and the rotating wheel is equal to the length of the roller rod. The cross-section of the slide rail is an ellipse with a groove-shaped opening on the side facing the rotating wheel. The width of the groove-shaped opening is greater than the diameter of the roller, and the depth is greater than the height of the roller. The front slide rail is positioned to the left front of the rotating wheel, with an curvature smaller than the radius of the rotating wheel. The rear slide rail is positioned to the right rear of the rotating wheel, with an curvature greater than the radius of the rotating wheel. The upper transition slide rail arches upwards, passing over the rotating wheel and connecting the front and rear slide rails. The lower transition slide rail arches downwards, connecting the front and rear slide rails.

[0012] The beneficial effect of the present invention is that the self-rotating conversion device of the present invention adopts a buoyant body or a gravity body that revolves with the wheel. Under the restriction of the slide, the thin-shell sealed end of the gravity body or buoyant body in the working section is far away from the wheel shaft and points radially, while the thin-shell sealed end of the gravity body or buoyant body in the power consumption section is close to the wheel shaft and points centripetally. Due to the imbalance of forces, the wheel rotates and outputs power without the need for further conversion and input of power. Attached Figure Description

[0013] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0014] Figure 1 This is a schematic diagram of the overall invention and a schematic diagram of a partial removal of the slide rail;

[0015] Figure 2 for Figure 1 The left view;

[0016] Figure 3 for Figure 1 Top view;

[0017] Figure 4 A schematic diagram of a gravitational body;

[0018] Figure 5 for Figure 1 Rear view and schematic diagram of the slide with the rollers and gravity body partially removed;

[0019] Figure 6 This is a schematic diagram of Example 2;

[0020] Figure 7 for Figure 6 The left view;

[0021] Figure 8 for Figure 6 Top view;

[0022] Figure 9 This is a schematic diagram of a buoyant body.

[0023] In the diagram: 1. Support, 2. Wheel rim, 3. Gravity body connecting to wheel rim, 4. Buoyancy body or gravity body, 5. Spinner shaft bearing seat, 6. Spinner shaft, 7. Slide support, 8. Slide, 9. Wheel spoke, 10. Roller.

[0024] The present invention will be further described below with reference to the accompanying drawings and embodiments. Detailed Implementation

[0025]

Example 1

[0026] The gravity type of the self-rotating conversion device includes a wheel set on the bearing seat (5) and the wheel shaft (6) of the bracket (1). The wheel rim (2) has gravity body connecting wheel rim part (3) evenly distributed between the spokes (9). Its front end is gravity body (4). The roller (10) at the front end of the roller rod of gravity body (4) is placed in the roller groove of the slide (8) with different arcs set in front and behind the wheel.

[0027] like Figure 1 , Figure 2 , Figure 3 As shown, when the gravity body (4) is on the left side of the wheel, the roller (10) is in the roller groove of the slide (8) in front of the wheel, which has an arc smaller than the radius of the wheel, and is closest to the wheel shaft (6). The rollers (10) of the gravity body (4) at the top of the wheel are respectively in the roller groove of the slide (8) which is gradually larger than the radius of the wheel, gradually change their orientation, rotate 180°, and enter the roller groove of the slide (8) on the right side of the wheel which is larger than the radius of the wheel. The gravity body (4) is away from the wheel shaft (6) to the maximum extent. The rollers (10) of the gravity body (4) at the bottom of the wheel are respectively in the roller groove of the slide (8) which is gradually smaller than the radius of the wheel, gradually change their orientation, rotate 180°, and enter the roller groove of the slide (8) on the left side of the wheel which is larger than the radius of the wheel.

[0028] The gravitational body (4) rotates along with the rotating wheel, and under the action of the roller (10) and the slide (8) in the high and low regions of the rotating wheel, the rotating wheel is in an unbalanced state and the force is continuously unbalanced, so the rotating wheel rotates clockwise. There is no need to input and convert power again, so the power can be directly output.

[0029]

Example 2

[0030] The self-rotating conversion device buoyancy type system is based on the same concept and technical means as Example 1, except that the base and support are placed in a water tank, and the buoyancy body is changed to a gravity body.

[0031] The buoyancy type includes a support (1) and a bearing seat (5) and a rotating wheel shaft (6) set in a water tank. Buoyancy bodies (4) are evenly distributed between the spokes (9) of the wheel rim (2). The roller (10) at the front end of the roller rod is placed in the roller groove of the slide (8) with different arcs set in front and behind the rotating wheel.

[0032] like Figure 6 , Figure 7 , Figure 8As shown, when the buoyancy body (4) is on the left side of the wheel, the roller (10) is in the roller groove of the slide (8) in front of the wheel with an arc smaller than the radius of the wheel, and is closest to the wheel shaft (6). The rollers (10) of the buoyancy body (4) at the bottom of the wheel are respectively in the slide (8) roller grooves that are gradually larger than the radius of the wheel, gradually change their orientation, rotate 180°, and enter the slide (8) roller groove on the right side of the wheel that is larger than the radius of the wheel. The buoyancy body (4) is far away from the wheel shaft (6) to the maximum extent. The rollers (10) of the buoyancy body (4) at the top of the wheel are respectively in the slide (8) roller grooves that are gradually smaller than the radius of the wheel, gradually change their orientation, rotate 180°, and enter the slide (8) roller groove on the left side of the wheel that is smaller than the radius of the wheel.

[0033] The buoyant body (4) rotates counterclockwise with the rotor, and in the high and low regions of the rotor, it rotates in an unbalanced state under the constraints of the roller (10) and the slide (8). The rotor is continuously unbalanced in force, and the rotor rotates counterclockwise. There is no need to input and convert power again, so the power can be directly output.

[0034] When the invention is working, the roller is guided by the slide rail, causing the gravity body or buoyancy body to rotate in the high point and low point areas of the wheel. The power consumption area is close to the wheel shaft, and the power doing area is far away from the wheel shaft. The settling gravity or rising buoyancy on the right side of the wheel is greater than the lifting gravity or downward buoyancy on the left side of the wheel, driving the wheel to rotate continuously.

Claims

1. A self-rotating conversion device, comprising a rotating shaft (6) disposed in a bearing seat (5) of a support (1), wherein buoyancy bodies or gravity bodies (4) are evenly distributed on the rim, characterized in that: The slide (8) on one side of the wheel has an arc smaller than the radius of the wheel and is located in front of the wheel. The slide (8) on the opposite side has an arc larger than the radius of the wheel and is located behind the wheel. The upper and lower parts of the wheel have transition slides (8) that cross the wheel rim and connect the slides on both sides of the wheel. The buoyancy body or gravity body (4) has rollers (10) and is placed in the roller groove of the slide (8).

2. The self-rotating conversion device according to claim 1, characterized in that, The arc of the slide (8) on one side of the wheel, placed in front of or behind the wheel, is smaller than the radius of the wheel. The arc of the slide (8) on the other side of the wheel, placed in front of or behind the wheel, is smaller than the radius of the wheel. The arc of the slide (8) is larger than the radius of the wheel.

3. The self-rotating conversion device according to claim 2, characterized in that, There are sections (8) on the upper and lower parts of the wheel that connect the slides on both sides of the wheel to cross the wheel flange.

4. The self-rotating conversion device according to claim 2, characterized in that, The buoyant or gravity body (4) has rollers (10) placed in the arc-shaped slide (8).

5. The self-rotating conversion device according to claim 2, characterized in that, The slide (8) has roller grooves.

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