Rotary power assembly

Abstract

The invention provides a rotating power assembly which comprises a central shaft, a rotating module, at least one mass block, at least one sensor and at least one auxiliary external force module. The rotating module is rotatably sleeved on the central shaft. The at least one mass block is arranged at one end of the rotating module. The at least one sensor is arranged on one side edge of the rotating module. The at least one auxiliary external force module is spaced from the other side edge of the rotating module and is coupled with the at least one sensor. Wherein the at least one mass block drives the rotating module to pivot along the central shaft, and when the rotating module passes through the at least one sensor, the at least one sensor starts the at least one auxiliary external force module to apply force to the rotating module.

Description

Technical Field

[0001] The invention relates to a power assembly, in particular to a rotating power assembly capable of continuous rotation. Background Art

[0002] The existing turbine engine is a rotatable mechanism. When fluid passes through the blades of the turbine engine, the fluid pushes the blades to rotate to generate power. Turbine engines are mostly used in aircraft and large ships or vehicles as a power source.

[0003] If a turbine engine is operated in reverse, it is called a compressor and a pump. Its function is to drive the fluid after inputting force. In simple terms, the input external force drives the fan blades to rotate, and the rotation of the fan blades can drive gas or liquid. The function of the pump is to pump water and air, and the compressor forces the gas to flow to generate high pressure.

[0004] In addition, the concept of turbine engines is also applied to wind turbines, which have pillars, a central axis, and multiple blades. The wind turbine is placed in a location with strong winds. The multiple blades are rotated relative to the central axis due to the force exerted by the wind, thereby driving the generator to generate electricity. For this purpose, the present invention has developed a rotating power component based on the aforementioned technical concept. Summary of the invention

[0005] The present invention is directed to a rotary power component. When passing a specific position, an auxiliary module will be triggered to provide external force to help the rotary power component pass the rotation starting point and continue the next rotation cycle, so that the continuous rotation of the rotary power component can be achieved.

[0006] The rotary power assembly of the present invention includes a central axis, a rotation module, at least one mass block, at least one sensor and at least one auxiliary external force module. The rotation module is rotatably mounted on the central axis. At least one mass block is disposed at one end of the rotation module. At least one sensor is disposed at one side of the rotation module. At least one auxiliary external force module is spaced from another side of the rotation module and coupled to at least one sensor. Among them, at least one mass block drives the rotation module to pivot along the central axis, and when the rotation module passes through at least one sensor, at least one sensor activates at least one auxiliary external force module to apply force to the rotation module.

[0007] In one embodiment of the present invention, the rotating module has a first end and a second end, and the number of the at least one mass block is two and they are respectively disposed at the first end and the second end.

[0008] In one embodiment of the present invention, after the first end or the second end of the rotating module blocks the light or sound wave of at least one sensor, the at least one sensor activates at least one auxiliary external force module to release fluid, and the fluid drives the rotating module to rotate.

[0009] In one embodiment of the present invention, after the first and second ends of the rotating module are away from at least one sensor, light or sound waves of at least one sensor are transmitted to the first and second ends of the rotating module, and at least one sensor turns off the auxiliary external force module.

[0010] In one embodiment of the present invention, the number of at least one sensor is two, the number of at least one auxiliary external force module is two, the two sensors are respectively arranged on the first side along the horizontal line and the second side along the vertical direction of the central axis, and the two auxiliary external force modules are respectively arranged on the third side relative to the first side and the fourth side relative to the second side.

[0011] In one embodiment of the present invention, after the first end or the second end of the rotating module blocks the light or sound wave of the sensor located on the second side, the sensor activates the auxiliary external force module located on the fourth side to release the fluid, and the fluid drives the rotating module to rotate.

[0012] In one embodiment of the present invention, when the first end and the second end of the rotating module are away from the sensor located at the second side, the sensor turns off the auxiliary external force module located at the fourth side.

[0013] In one embodiment of the present invention, a plurality of first magnetic members and a second magnetic member are further included. The plurality of first magnetic members are disposed at the first end and the second end of the rotating module. The second magnetic member is disposed at one side of the rotating module and is adjacent to the at least one sensor.

[0014] In one embodiment of the present invention, the rotating module has a plurality of blades, the angles between the blades are the same, and the at least one mass block is multiple and respectively disposed at ends of the blades away from the central axis.

[0015] In one embodiment of the present invention, after one of the blades of the rotating module blocks the light or sound wave of at least one sensor, at least one sensor activates at least one auxiliary external force module to release fluid, and the fluid drives the rotating module to rotate.

[0016] In one embodiment of the present invention, when the plurality of blades of the rotating module are away from at least one sensor, the at least one sensor turns off at least one auxiliary external force module.

[0017] In one embodiment of the present invention, it also includes a plurality of first magnetic components and a second magnetic component, wherein the plurality of first magnetic components are arranged at the ends of the plurality of fan blades away from the central axis and relative to the plurality of mass blocks, and the second magnetic component is arranged on one side edge of the rotating module and adjacent to the at least one sensor.

[0018] Based on the above, the rotary power component of the present invention utilizes its own weight and the inertia of the mass block pulled by gravity to generate an initial rotation speed. When the rotary power component rotates through a specific position, it will trigger the sensor and start the auxiliary external force module to provide external force to the rotation module, helping the rotation module to pass the rotation starting point and continue the next rotation cycle, thereby achieving continuous rotation of the rotary power component. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The accompanying drawings are included to provide a further understanding of the present invention and are incorporated in and constitute a part of this specification. The drawings illustrate embodiments of the present invention and together with the description serve to explain the principles of the present invention.

[0020] Figure 1 is a schematic diagram of an initial state of a rotating power assembly according to an embodiment of the present invention;

[0021] Figure 2 yes Figure 1 A schematic diagram of a rotary power assembly rotating 90 degrees;

[0022] Figure 3 yes Figure 2 A schematic diagram of starting the auxiliary external force module of the rotating power assembly;

[0023] Figure 4 yes Figure 1 A schematic diagram of a rotating power assembly combined with two auxiliary external force modules;

[0024] Figure 5 yes Figure 4 A schematic diagram of starting the auxiliary external force module of the rotating power assembly;

[0025] Figure 6 is a schematic diagram of an initial state of a rotating power assembly according to another embodiment of the present invention;

[0026] Figure 7 yes Figure 6 A schematic diagram of starting the auxiliary external force module of the rotating power assembly;

[0027] Figure 8 yes Figure 7 Schematic diagram of a rotating power component being started by an auxiliary external force module.

[0028] Description of Figure Numbers

[0029] 100: Rotating power assembly;

[0030] 110, 110a: central axis;

[0031] 120, 120a: rotation module;

[0032] 121: first end;

[0033] 122: second end;

[0034] 121a: Fan blade

[0035] 130, 130a: mass block;

[0036] 140, 140a: sensor;

[0037] 141, 141a: Sound waves, light

[0038] 150, 150a: auxiliary external force module;

[0039] 160: transmission pipeline;

[0040] 170, 170a: first magnetic member;

[0041] 180, 180a: second magnetic member;

[0042] 200, 200a: fluid;

[0043] CA: included angle;

[0044] PL: horizontal line;

[0045] VL: vertical line;

[0046] S1: first side;

[0047] S2: second side;

[0048] S3: third side;

[0049] S4: fourth side. DETAILED DESCRIPTION

[0050] Reference will now be made in detail to exemplary embodiments of the present invention, examples of which are illustrated in the accompanying drawings. Whenever possible, the same reference numerals are used in the drawings and the description to refer to the same or like parts.

[0051] Figure 1 Schematic diagram of the initial state of a rotating power assembly according to an embodiment of the present invention. Figure 2 yes Figure 1 Schematic diagram of the rotary power assembly rotating 90 degrees. Figure 3 yes Figure 2 Schematic diagram of starting the auxiliary external force module of the rotating power component.

[0052] The rotary power component 100 of the present invention can be applied as a turbine, a compressor or a pump. In short, the rotary power component 100 has the effect of continuous rotation. When used as a turbine, it is combined with the high-pressure fluid generated by burning oil to further improve the rotation efficiency. When used as a compressor, the high-speed rotation of the rotary power component 100 is used to force the gas to flow to generate kinetic energy, and then the air flow rate is reduced by increasing the cross-sectional area, so that the kinetic energy of the gas is converted into pressure energy to form a high-pressure gas. When used as a pump, the continuous rotation of the rotary power component 100 is used to increase the pressure of the fluid. The pressurized fluid will generate thrust, thereby moving the fluid from a low place to a high place or from one position to another.

[0053] refer to Figures 1 to 3 The rotary power assembly 100 of this embodiment includes a central shaft 110 , a rotation module 120 , at least one mass block 130 , at least one sensor 140 , at least one auxiliary external force module 150 and a transmission pipeline 160 .

[0054] The central axis 110 is suitable for installation in any housing (not shown in the figure), and the rotating module 120 is rotatably mounted on the central axis 110, that is, the rotating module 120 pivots with the central axis 110 as the rotation center. At least one mass block 130 is disposed at one end of the rotating module 120. At least one sensor 140 is disposed at one side of the rotating module 120. In addition, the sensor 140 is, for example, an ultrasonic sensor or a light sensor. The ultrasonic sensor emits sound waves to the target and receives the rebounded sound waves to calculate the distance between the target and the ultrasonic sensor. The light sensor emits a light source. When a target approaches or passes through the light sensor, the brightness will decrease. The distance between the target and the light sensor can be calculated by the change in brightness.

[0055] At least one auxiliary external force module 150 is spaced apart from the other side of the rotation module 120 and coupled to at least one sensor 140. In short, the auxiliary external force module 150 is located on the side of the rotation module 120 relative to the sensor 140. The transmission pipeline 160 is connected to the auxiliary external force module 150 and is suitable for connecting to an external storage tank (not shown in the figure). In addition, the auxiliary external force module 150 adopts a nozzle, for example, and the fluid 200 enters the nozzle of the auxiliary external force module 150 from the storage tank through the transmission pipeline 160, and the flow rate of the fluid 200 in the nozzle is increased by reducing the cross-sectional area. When the fluid 200 is transmitted to the outlet of the nozzle, a high-speed fluid will be formed and sprayed to the rotation module 120 in a fan-shaped spray path, thereby providing an external force to push the rotation module 120, wherein the fluid 200 is, for example, water, oil or gas.

[0056] refer to Figure 1, the rotation module 120 is at the initial position, at this time, the sound wave or light 141 of the sensor 140 is transmitted to the rotation module 120, and it is known through the judgment of the distance that the rotation module 120 has not rotated, so the auxiliary external force module 150 is in a closed state, at least one mass block 130 is located above the central axis 110 and at least one mass block 130 is located on the left side of the rotation module 120, so the self-weight of at least one mass block 130 will drive the rotation module 120 to pivot counterclockwise along the central axis 110. Reference Figure 2 and Figure 3 When at least one mass block 130 drives the rotation module 120 to pass through at least one sensor 140, it will approach the sensor 140, and the sensor 140 determines that the rotation module 120 has rotated through the returned sound wave or light 141, so at least one sensor 140 activates the auxiliary external force module 150 and ejects high-speed fluid 200 to apply force to the rotation module 120.

[0057] refer to Figure 3 In addition, when the sensor 140 determines that the rotation module 120 has rotated, the auxiliary external force module 150 delays the ejection of the high-speed fluid 200. The effect here is that when the rotation module 120 passes through the sensor 140, the side of the rotation module 120 facing the sensor 140 will form a larger overlapping area, so that the high-speed fluid 200 can be sprayed on a large surface of the rotation module 120 to facilitate the rotation of the rotation module 120.

[0058] refer to Figures 1 to 3 The rotation module 120 has a first end 121 and a second end 122. The number of at least one mass block 130 is two and they are respectively arranged at the first end 121 and the second end 122 of the rotation module 120. Here, the first end 121 and the second end 122 of the rotation module 120 are respectively arranged with the mass blocks 130, so the continuous rotation efficiency of the rotation module 120 can be improved. In short, after the mass block 130 drives the first end 121 to pass through the sensor 140, the auxiliary external force module 150 ejects the high-speed fluid 200 to apply force to the second end 122, so that the second end 122 and its mass block 130 can quickly pass through the initial position and continue the next rotation cycle. Then, the second end 122 and its mass block 130 pass through the sensor 140, and the auxiliary external force module 150 ejects the high-speed fluid 200 to apply force to the first end 121.

[0059] refer to Figures 1 to 3After the first end 121 or the second end 122 of the rotation module 120 blocks the light or sound wave 141 of the at least one sensor 140, the at least one sensor 140 activates the at least one auxiliary external force module 150 to release the high-speed fluid 200, and the high-speed fluid 200 will drive the rotation module 120 to rotate. The blocking here means that the first end 121 and the second end 122 of the rotation module 120 and the at least one sensor 140 are located on the same horizontal line PL, so that the distance between the first end 121 or the second end 122 and the at least one sensor 140 is minimized.

[0060] refer to Figures 1 to 3 , after the first end 121 and the second end 122 of the rotating module 120 are away from the at least one sensor 140, the light or sound wave 141 of the at least one sensor 140 is transmitted to the first end 121 and the second end 122 of the rotating module 120, and the at least one sensor 140 turns off the auxiliary external force module 150. The distance here means that the first end 121 and the second end 122 of the rotating module 120 and the at least one sensor 140 are not located on the same horizontal line PL, so that the distance between the first end 121, the second end 122 and the at least one sensor 140 is greater than the minimum value.

[0061] refer to Figures 1 to 3 The rotary power assembly 100 includes a plurality of first magnetic members 170 and a second magnetic member 180. The plurality of first magnetic members 170 are disposed at the first end 121 and the second end 122 of the rotating module 120. The second magnetic member 180 is disposed at one side of the rotating module 120 and is adjacent to at least one sensor 140. The first magnetic member 170 and the second magnetic member 180 are, for example, electromagnets, so the direction of the current can be changed to change the magnetic poles of the first magnetic member 170 and the second magnetic member 180, so that the first magnetic member 170 and the second magnetic member 180 are N-pole-to-near or S-pole-to-near ( Figures 1 to 3 Taking the N poles facing each other as an example, the rotating module 120 is driven by the principle that like poles repel each other.

[0062] In short, when the first end 121 or the second end 122 of the rotating module 120 rotates through the second magnetic member 180 , each first magnetic member 170 and the second magnetic member 180 generate magnetic repulsion, and the repulsive force generated by the magnetic repulsion assists in pushing the rotating module 120 .

[0063] Figure 4 yes Figure 1 Schematic diagram of a rotational power assembly combined with two auxiliary external force modules. Figure 5 yes Figure 4 Schematic diagram of starting the auxiliary external force module of the rotating power component.

[0064] refer to Figure 4 and Figure 5, the number of at least one sensor 140 is two, and the number of at least one auxiliary external force module 150 is two. The two sensors 140 are respectively arranged on the first side S1 along the horizontal line PL and the second side S2 along the vertical line VL of the central axis 110, and the two auxiliary external force modules 150 are respectively arranged on the third side S3 relative to the first side S1 and the fourth side S4 relative to the second side S2.

[0065] Mate Reference Figure 4 and Figure 5 After the first end 121 or the second end 122 of the rotation module 120 blocks the light or sound wave 141 of the sensor 140 located at the second side S2, the sensor 140 activates the auxiliary external force module 150 located at the fourth side S4 to release the high-speed fluid 200, and the high-speed fluid 200 will push the rotation module 120 to rotate. The blocking here means that the first end 121, the second end 122 of the rotation module 120 and the sensor 140 are located on the same vertical line VL, so that the distance between the first end 121 or the second end 122 and the sensor 140 is the minimum.

[0066] After the first end 121 and the second end 122 of the rotating module 120 are away from the sensor 140 located at the second side S2, the light or sound wave 141 of the sensor 140 is transmitted to the first end 121 and the second end 122 of the rotating module 120, and the sensor 140 located at the second side S2 turns off the auxiliary external force module 150 located at the fourth side S4. The distance here means that the first end 121 and the second end 122 of the rotating module 120 and the sensor 140 of the second side S2 are not located on the same vertical line VL, so that the distance between the first end 121, the second end 122 and the sensor 140 of the second side S2 is greater than the minimum value.

[0067] Figure 6 It is a schematic diagram of the initial state of a rotating power component according to another embodiment of the present invention. Figure 7 yes Figure 6 Schematic diagram of starting the auxiliary external force module of the rotating power component. Figure 8 yes Figure 7 Schematic diagram of a rotating power component being started by an auxiliary external force module.

[0068] refer to Figures 6 to 8 The rotary power assembly 100A of this embodiment is different from Figure 1 The difference of the rotary power assembly 100 shown is that the rotation module 120a has a plurality of blades 121a, and the angles CA between the plurality of blades 121a are the same. In this embodiment, the number of the plurality of blades 121a is three, so each angle CA is 60 degrees. The number of at least one mass block 130a is three and they are respectively arranged at the ends of the three blades 121a away from the central axis 110a.

[0069] refer to Figure 6 , the rotating module 120a is located at the initial position, and the distances between the plurality of blades 121a and the sensor 140a are all greater than the minimum value, so the sensor 140a turns off the auxiliary external force module 150a.

[0070] refer to Figure 7 After one of the blades 121a of the rotating module 120a blocks the light or sound wave 141a of the sensor 140a, the sensor 140a activates the auxiliary external force module 150a to release the high-speed fluid 200a, and the high-speed fluid 200a will push the rotating module 120a to rotate. The blocking here means that the blade 121a of the rotating module 120a and the sensor 140 are located on the same horizontal line PL, so that the distance between the blade 121a and the sensor 140a is the minimum.

[0071] refer to Figure 8 When the multiple blades 121a of the rotating module 120a are away from the sensor 140a, the sensor 140a turns off the auxiliary external force module 150a. The distance here means that the multiple blades 121a of the rotating module 120 and the sensor 140a are not located on the same vertical line VL, so that the distance between the multiple blades 121a and the sensor 140a is greater than the minimum value.

[0072] For details, refer to Figures 6 to 8 After one mass block 130a drives the corresponding fan blade 121a to pass through the sensor 140a, the auxiliary external force module 150a ejects high-speed fluid 200a to exert force on the adjacent fan blade 121a, so that the pushed fan blade 121a and its mass block 130a can quickly pass through the initial position and continue the next rotation cycle through another set of fan blades 121a and mass block 130a.

[0073] refer to Figures 6 to 8 The rotary power assembly 100A includes a plurality of first magnetic members 170a and a second magnetic member 180a. The plurality of first magnetic members 170a are respectively disposed at the ends of the three blades 121a away from the central axis 110a, and the second magnetic member 180a is disposed at one side of the rotating module 120a and adjacent to the sensor 140a. The first magnetic member 170a and the second magnetic member 180a are, for example, electromagnets, so the direction of the current can be changed to change the magnetic poles of the first magnetic member 170a and the second magnetic member 180a, so that the first magnetic member 170a and the second magnetic member 180a are N-pole-to-near or S-pole-to-near ( Figures 6 to 8 Taking the N poles facing each other as an example, the rotating module 120a is driven by the principle that like poles repel each other.

[0074] In short, when the blades 121a of the rotating module 120a pass through the second magnetic member 180a, the first magnetic members 170a and the second magnetic members 180a produce magnetic repulsion, and the repulsive force generated by the magnetic repulsion assists in pushing the rotating module 120a.

[0075] Based on the above, the rotary power component of the present invention utilizes its own weight and the inertia of the mass block pulled by gravity to generate an initial rotation speed. When the rotary power component rotates through a specific position, it will trigger the sensor and start the auxiliary external force module to provide external force to the rotation module, helping the rotation module to pass the rotation starting point and continue the next rotation cycle, thereby achieving continuous rotation of the rotary power component.

[0076] Furthermore, the rotary power assembly uses magnetic parts to assist in driving the rotating module through the principle of like poles repelling each other.

Claims

1. A rotary power assembly, characterized in that: include: Central axis; A rotating module is rotatably mounted on the central axis; At least one mass block is disposed at one end of the rotating module; At least one sensor is disposed on one side of the rotating module; as well as at least one auxiliary external force module, spaced apart from another side of the rotation module and coupled to the at least one sensor, The at least one mass block drives the rotation module to pivot along the central axis. When the rotation module passes through the at least one sensor, the at least one sensor activates the at least one auxiliary external force module to apply force to the rotation module.

2. The rotary power assembly according to claim 1, characterized in that: The rotating module has a first end and a second end. The at least one mass block is two in number and is respectively disposed at the first end and the second end.

3. The rotary power assembly according to claim 2, characterized in that: After the first end or the second end of the rotation module blocks the light or sound wave of the at least one sensor, the at least one sensor activates the at least one auxiliary external force module to release fluid, and the fluid drives the rotation module to rotate.

4. The rotary power assembly according to claim 3, characterized in that: After the first end and the second end of the rotating module are away from the at least one sensor, the light or the sound wave of the at least one sensor is transmitted to the first end and the second end of the rotating module, and the at least one sensor turns off the auxiliary external force module.

5. The rotary power assembly according to claim 2, characterized in that: The number of the at least one sensor is two, the number of the at least one auxiliary external force module is two, the two sensors are respectively arranged on the first side along the horizontal line and the second side along the vertical direction of the central axis, and the two auxiliary external force modules are respectively arranged on the third side relative to the first side and the fourth side relative to the second side.

6. The rotary power assembly according to claim 5, characterized in that: After the first end or the second end of the rotating module blocks the light or sound wave of the sensor located on the second side, the sensor activates the auxiliary external force module located on the fourth side to release the fluid, and the fluid drives the rotating module to rotate.

7. The rotary power assembly according to claim 6, characterized in that: When the first end and the second end of the rotating module are away from the sensor located at the second side, the sensor turns off the auxiliary external force module located at the fourth side.

8. The rotary power assembly according to claim 2, characterized in that: It also includes a plurality of first magnetic components and a second magnetic component. The plurality of first magnetic components are disposed at the first end and the second end of the rotating module. The second magnetic component is disposed at one side of the rotating module and is adjacent to the at least one sensor.

9. The rotary power assembly according to claim 1, characterized in that: The rotating module has a plurality of blades, the angles between the blades are the same, and the at least one mass block is in plurality and respectively arranged at ends of the blades away from the central axis.

10. The rotary power assembly according to claim 9, characterized in that: After one of the blades of the rotation module blocks the light or sound wave of the at least one sensor, the at least one sensor activates the at least one auxiliary external force module to release fluid, and the fluid drives the rotation module to rotate.

11. The rotary power assembly according to claim 10, characterized in that: When the plurality of blades of the rotating module are away from the at least one sensor, the at least one sensor turns off the at least one auxiliary external force module.

12. The rotary power assembly according to claim 9, characterized in that: It also includes a plurality of first magnetic components and a second magnetic component. The plurality of first magnetic components are arranged at the ends of the plurality of blades away from the central axis and relative to the plurality of mass blocks. The second magnetic component is arranged at one side of the rotating module and adjacent to the at least one sensor.

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