CN218894922U - Mechanism for converting external kinetic energy into rotary mechanical energy - Google Patents
Mechanism for converting external kinetic energy into rotary mechanical energy Download PDFInfo
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- CN218894922U CN218894922U CN202222114034.6U CN202222114034U CN218894922U CN 218894922 U CN218894922 U CN 218894922U CN 202222114034 U CN202222114034 U CN 202222114034U CN 218894922 U CN218894922 U CN 218894922U
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Abstract
The utility model provides a mechanism for converting external kinetic energy into rotary mechanical energy, wherein a first unidirectional bearing and a second unidirectional bearing are fixedly arranged on a first gear and a second gear with the same tooth number modulus and are arranged on the same output shaft in the same rotation direction; the first gear and the second gear act through the first transition gear and the second transition gear, so that the second gear always rotates in the opposite direction to the first gear but at the same angular speed, and when the input part drives the first gear to rotate in any direction, the output shaft always keeps the same rotation acting state, bidirectional acting is realized, and the energy conversion efficiency is improved. The unidirectional bearing is used for replacing the traditional ratchet and pawl mechanism and is matched with the gear transmission structure to operate, so that swing and vibration energy with smaller amplitude can be collected and captured. The mechanism has simple structure and less parts, reduces the failure rate of equipment during operation, and ensures that the installation and maintenance are faster and simpler.
Description
Technical Field
The utility model belongs to the technical field of mechanical transmission equipment, and particularly relates to a mechanism for converting external kinetic energy into rotary mechanical energy.
Background
In the field of power generation such as wind energy and water energy, power generation is often performed by using energy conversion equipment. However, when the existing energy conversion devices realize energy conversion, only one direction does work, the input end of external kinetic energy does not do work in the process of return stroke, the conversion capability is lost, and two directions of work cannot be realized, so that a part of converted energy is lost. In addition, most of the prior equipment capable of realizing the bidirectional energy conversion function generally needs to be provided with a plurality of multi-stage gear transmission groups and is matched with a ratchet pawl mechanism to convert energy, and the ratchet pawl has a certain tooth space, if the vibration amplitude is smaller than the tooth space distance, the vibration can not be captured, so that the energy is wasted; in addition, the equipment has a plurality of parts, a complex structure and great inconvenience in installation and maintenance.
Disclosure of Invention
In order to solve the defects existing in the prior art, the utility model adopts the following technical scheme: a mechanism for converting external kinetic energy into rotational mechanical energy comprises a box body, wherein the box body comprises an input part which reciprocates between a forward direction and a reverse direction under the influence of the external kinetic energy; the box body further comprises an output shaft penetrating through the inside and the outside of the box body and a driving assembly arranged in the box body, the driving assembly comprises a first unidirectional driving piece and a second unidirectional driving piece which are arranged front and back, the first unidirectional driving piece and the second unidirectional driving piece are fixedly arranged on the output shaft, and the input part drives the first unidirectional driving piece to rotate when in reciprocating movement; one side of the driving component is provided with a steering component which is connected with the first unidirectional driving piece and the second unidirectional driving piece, and when the first unidirectional driving piece rotates forwards and backwards, the second unidirectional driving piece is respectively rotated and idled through the steering component;
further, the first unidirectional driving piece comprises a first gear and a first unidirectional bearing fixedly sleeved on the axis of the first gear, and the first unidirectional bearing is in interference insertion connection with the output shaft; the second unidirectional driving piece comprises a second gear and a second unidirectional bearing fixedly sleeved on the axis of the second gear, and the second unidirectional bearing is in interference insertion connection with the output shaft; the rack is meshed with the first gear;
still further, the input component is a rack, which is arranged through the box body, and the rack is meshed with the first gear;
further, limiting blocks are respectively arranged at two ends of the rack;
furthermore, a reset spring is arranged at the external kinetic energy input end of the rack and is arranged between the outer wall of the box body and the limiting block;
still further, the input component is an eccentric block, and the eccentric block is fixedly arranged at one side of the first gear;
still further, the number of teeth and the modulus of the first gear and the second gear are the same, and the first unidirectional bearing and the second unidirectional bearing are single steering bearings with the same steering;
still further, the steering assembly comprises a first transition gear and a second transition gear with the same tooth number and modulus, an upper rotating shaft and a lower rotating shaft are vertically and fixedly arranged on one side in the box body, the first transition gear is movably inserted on the upper rotating shaft, the second transition gear is movably inserted on the lower rotating shaft, and the first transition gear and the second transition gear are meshed;
still further, the first gear is meshed with the first transition gear, and the second gear is meshed with the second transition gear.
Compared with the prior art, the utility model has the beneficial effects that:
1. the bidirectional acting is realized, and the energy conversion efficiency is greatly improved.
2. The unidirectional bearing is used for replacing the traditional ratchet and pawl mechanism and is matched with the gear transmission structure to operate, so that the waste of gear clearances is reduced to the minimum, and therefore, the swing and vibration energy with smaller amplitude can be collected and captured.
3. The structure is simple, the parts are few, the failure rate of the equipment in operation is further reduced, and the installation and maintenance are faster and simpler.
Drawings
In order to more clearly illustrate the technical solutions in the embodiments of the present utility model, the following description will briefly explain the drawings that are required to be used in the description of the embodiments:
FIG. 1 is a schematic diagram of a first embodiment of the present utility model;
FIG. 2 is a cross-sectional view of a first embodiment of the present utility model;
FIG. 3 is a schematic diagram of a second embodiment of the present utility model;
FIG. 4 is a cross-sectional view of a second embodiment of the present utility model;
the view shown in fig. 5 is a partial cross-sectional view of fig. 2 and 4.
Reference numerals:
1. the box body 11, the input part 12, the rack 13, the limiting block 14, the reset spring 15, the upper rotating shaft 16, the lower rotating shaft 17 and the eccentric block; 2. an output shaft; 3. the driving assembly 31, the first unidirectional driving piece 32, the second unidirectional driving piece 33, the first gear 34, the second gear 35, the first unidirectional bearing 36 and the second unidirectional bearing; 4. steering assembly, 41, first transition gear, 42, second transition gear.
Detailed Description
In order to make the technical problems, technical schemes and beneficial effects solved by the utility model more clear, the utility model is further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are for purposes of illustration only and are not intended to limit the scope of the utility model.
The utility model provides a mechanism for converting external kinetic energy into rotary mechanical energy, which comprises a box body 1, wherein the box body 1 is provided with an input part 11 capable of receiving the external kinetic energy, and the external kinetic energy comprises energy such as hydraulic power, wind power and the like capable of producing push-pull, swing or vibration. The input member 11 is a member that can oscillate reciprocally, and the input member 11 reciprocates between a forward direction and a reverse direction in one direction under the influence of external kinetic energy. The box 1 further comprises an output shaft 2 penetrating through the inside and the outside of the box 1 and a driving assembly 3 arranged in the box 1, one end of the output shaft 2 penetrating out of the box 1 is connected with power generation equipment, and the power generation equipment is driven to generate power by outputting unidirectional rotating rotary mechanical energy. The driving assembly 3 comprises a first unidirectional driving piece 31 and a second unidirectional driving piece 32 which are arranged front and back, the first unidirectional driving piece 31 and the second unidirectional driving piece 32 are fixedly arranged on the output shaft 2, the input part 11 is connected with the first unidirectional driving piece 31, and the input part 11 drives the first unidirectional driving piece 31 to rotate when in reciprocating movement, so that the output shaft 2 is controlled to rotate in a single direction. One side of the driving assembly 3 is provided with a steering assembly 4, which is connected with the first unidirectional driving piece and the second unidirectional driving piece, and when the first unidirectional driving piece 31 rotates forward and backward, the second unidirectional driving piece 3 is respectively rotated and idled through the steering assembly 4.
In a first embodiment of the present utility model, as shown in fig. 1, 2 and 5, the input member 11 is a rack 12 penetrating through the inside and outside of the case 1, one end of the rack 12 is connected to the external kinetic energy, and two ends of the rack 12 are respectively provided with a stopper 13 for fixing the moving distance of the rack 12. A return spring 14 for damping shock and realizing automatic return of the rack 12 is arranged at one end of the rack 12 connected with external kinetic energy, and the return spring 14 is arranged between the outer wall of the box body 1 and the limiting block 13.
The first unidirectional driving member 31 includes a first gear 33 and a first unidirectional bearing 35 fixedly sleeved on the axis of the first gear 33, and the first unidirectional bearing 35 is in interference fit connection with the output shaft 2; the second unidirectional driving member 32 includes a second gear 34 and a second unidirectional bearing 36 fixedly sleeved on the axis of the second gear 34, where the second unidirectional bearing 36 is in interference fit with the output shaft 2. The rack gear 12 is engaged with the first gear 33, so that the first gear 33 is driven to rotate when the rack gear 12 reciprocates. The number of teeth and the modulus of the first gear 33 and the second gear 34 are the same, the first unidirectional bearing 35 and the second unidirectional bearing 36 are unidirectional bearings with the same steering direction, the first gear 33 is fixedly connected with the first unidirectional bearing 35, and the second gear 34 is fixedly connected with the second unidirectional bearing 36. The steering assembly 4 comprises a first transition gear 41 and a second transition gear 42 with the same tooth number and modulus, an upper rotating shaft 15 and a lower rotating shaft 16 are vertically and fixedly arranged on one side in the box body 1, the first transition gear 41 is movably inserted on the upper rotating shaft 15, the second transition gear 42 is movably inserted on the lower rotating shaft 16, and the first transition gear 41 and the second transition gear 42 are meshed. The first gear 33 is engaged with the first transition gear 41, and the second gear 34 is engaged with the second transition gear 42.
The operation of the first embodiment of the mechanism is as follows: when the rack 12 is affected by the external kinetic energy pressure, it generates downward displacement, and drives the first gear 33 to rotate left, and then drives the first transition gear 41 to rotate in the opposite direction, the first transition gear 41 is meshed with the second transition gear 42, and drives the second transition gear 42 to rotate in the same direction as the first gear 33, and the second transition gear 42 is meshed with the second gear 34, and drives the second gear 34 to rotate in the opposite direction to the first gear 33. Since the first one-way bearing 35 is provided between the first gear 33 and the output shaft 2, the first gear 33 slides relatively to the output shaft 2 at this time, and the idle rotation does not output rotation action, and does not generate obstruction action. In contrast, because the second gear 34 and the first gear 33 rotate in opposite directions, the output shaft 2 is driven to rotate in a right-hand direction under the action of the second unidirectional bearing 36, so that the output shaft 2 drives the power generation equipment to perform work and power generation.
When the rack 12 loses the influence of external kinetic energy pressure, the rack 12 is reset upwards under the action of the reset spring 14. The rack 12 drives the first gear 33 to rotate in a right-hand manner in the resetting process, and drives the output shaft 2 to rotate in a right-hand manner under the action of the first one-way bearing 35, so that the output shaft 2 drives the power generation equipment to do work and generate power. At this time, the first gear 33 drives the second gear 34 to rotate in a left-hand direction opposite to the first gear 33 through the first transition gear 41 and the second transition gear 42, and the second gear 34 slides relatively to the output shaft 2 under the action of the second unidirectional bearing 36, and the idle rotation of the second gear does not output rotation action, and does not generate blocking action.
The present utility model also provides a second embodiment, as shown in fig. 3-5, wherein the input member 11 is an eccentric mass 17 fixedly disposed on one side of the first unidirectional driving member 31.
The first unidirectional driving member 31 includes a first gear 33 and a first unidirectional bearing 35 fixedly sleeved on the axis of the first gear 33, and the first unidirectional bearing 35 is in interference fit connection with the output shaft 2; the second unidirectional driving member 32 includes a second gear 34 and a second unidirectional bearing 36 fixedly sleeved on the axis of the second gear 34, where the second unidirectional bearing 36 is in interference fit with the output shaft 2. The eccentric block 17 is fixedly arranged at one side of the first gear 33, and can swing reciprocally in the case when the eccentric block 17 is affected by external vibration, thereby driving the first gear 33 to rotate. The number of teeth and the modulus of the first gear 33 and the second gear 34 are the same, the first unidirectional bearing 35 and the second unidirectional bearing 36 are unidirectional bearings with the same steering direction, the first gear 33 is fixedly connected with the first unidirectional bearing 35, and the second gear 34 is fixedly connected with the second unidirectional bearing 36. The steering assembly 4 comprises a first transition gear 41 and a second transition gear 42 with the same tooth number and modulus, an upper rotating shaft 15 and a lower rotating shaft 16 are vertically and fixedly arranged on one side in the box body 1, the first transition gear 41 is movably inserted on the upper rotating shaft 15, the second transition gear 42 is movably inserted on the lower rotating shaft 16, and the first transition gear 41 and the second transition gear 42 are meshed. The first gear 33 is engaged with the first transition gear 41, and the second gear 34 is engaged with the second transition gear 42.
The second embodiment of the mechanism operates as follows: when the eccentric block 17 is influenced by vibration energy, left and right swinging is generated; when the eccentric block 17 swings leftwards, it drives the first gear 33 to rotate leftwards, and then drives the first transition gear 41 to rotate in the opposite direction, the first transition gear 41 is meshed with the second transition gear 42, drives the second transition gear 42 to rotate in the same direction as the first gear 33, and the second transition gear 42 is meshed with the second gear 34, and drives the second gear 34 to rotate in the opposite direction to the first gear 33. Since the first one-way bearing 35 is provided between the first gear 33 and the output shaft 2, the first gear 33 slides relatively to the output shaft 2 at this time, and the idle rotation does not output rotation action, and does not generate obstruction action. In contrast, because the second gear 34 and the first gear 33 rotate in opposite directions, the output shaft 2 is driven to rotate in a right-hand direction under the action of the second unidirectional bearing 36, so that the output shaft 2 drives the power generation equipment to perform work and power generation.
When the eccentric block 17 swings rightwards, the eccentric block drives the first gear 33 to rotate rightwards, and the output shaft 2 is driven to rotate rightwards under the action of the first one-way bearing 35, so that the output shaft 2 drives the power generation equipment to do work and generate power. At this time, the first gear 33 drives the second gear 34 to rotate in a left-hand direction opposite to the first gear 33 through the first transition gear 41 and the second transition gear 42, and the second gear 34 slides relatively to the output shaft 2 under the action of the second unidirectional bearing 36, and the idle rotation of the second gear does not output rotation action, and does not generate blocking action.
The utility model provides a mechanism for converting external kinetic energy into rotary mechanical energy, wherein a first unidirectional bearing 35 and a second unidirectional bearing 36 are fixedly arranged on a first gear 33 and a second gear 34 with the same tooth number modulus and are arranged on the same output shaft 2 in the same rotation direction; the first gear 33 acts on the second gear 34 through the first transition gear 41 and the second transition gear 42, so that the second gear 34 always rotates in the opposite direction to the first gear 33 but at the same angular velocity, and when the input component 11 drives the first gear 33 to rotate in any direction, the output shaft 2 always keeps the same rotation acting state, and bidirectional displacement of swing or vibration is used for realizing bidirectional acting, thereby reducing the waste of vibration energy and greatly improving the energy conversion efficiency. The unidirectional bearing is used for replacing the traditional ratchet and pawl mechanism and is matched with the gear transmission structure to operate, so that the waste of gear clearances is reduced to the minimum, and therefore, the swing and vibration energy with smaller amplitude can be collected and captured. The setting mode has the advantages of simple structure and few parts, further reduces the failure rate of equipment in operation, and ensures that the equipment is more rapid and convenient in installation and maintenance.
The foregoing description of the preferred embodiments of the present application is not intended to limit the scope of the present application, but is provided that the principles and basic structures of the present application are the same or similar to the same.
Claims (9)
1. A mechanism for converting external kinetic energy into rotational mechanical energy, characterized by comprising a housing (1), said housing (1) comprising an input member (11), said input member (11) being reciprocally movable between a forward and a reverse direction under the influence of external kinetic energy; the box body (1) further comprises an output shaft (2) penetrating through the inside and the outside of the box body (1) and a driving assembly (3) arranged in the box body (1), the driving assembly (3) comprises a first unidirectional driving piece (31) and a second unidirectional driving piece (32) which are arranged front and back, the first unidirectional driving piece (31) and the second unidirectional driving piece (32) are fixedly arranged on the output shaft (2), and the input part (11) is connected with the first unidirectional driving piece (31) so as to drive the first unidirectional driving piece (31) to rotate; one side of the driving assembly (3) is provided with a steering assembly (4), the steering assembly (4) is connected with the first unidirectional driving piece (31) and the second unidirectional driving piece (32), and when the first unidirectional driving piece (31) rotates forwards and reversely, the second unidirectional driving piece (32) is respectively rotated and idled through the steering assembly (4).
2. A mechanism for converting external kinetic energy into rotational mechanical energy as defined in claim 1, wherein: the first unidirectional driving piece (31) comprises a first gear (33) and a first unidirectional bearing (35) fixedly sleeved on the axis of the first gear (33), and the first unidirectional bearing (35) is in interference insertion connection with the output shaft (2); the second unidirectional driving piece (32) comprises a second gear (34) and a second unidirectional bearing (36) fixedly sleeved on the axis of the second gear (34), and the second unidirectional bearing (36) is in interference insertion connection with the output shaft (2).
3. A mechanism for converting external kinetic energy into rotational mechanical energy as defined in claim 2, wherein: the input member (11) is a rack (12) which is provided so as to penetrate the casing (1), and the rack (12) is engaged with the first gear (33).
4. A mechanism for converting external kinetic energy into rotational mechanical energy as defined in claim 3, wherein: limiting blocks (13) are respectively arranged at two ends of the rack (12).
5. A mechanism for converting external kinetic energy into rotational mechanical energy as defined in claim 4, wherein: the external kinetic energy input end of the rack (12) is provided with a return spring (14), and the return spring (14) is arranged between the outer wall of the box body (1) and the limiting block (13).
6. A mechanism for converting external kinetic energy into rotational mechanical energy as defined in claim 2, wherein: the input part (11) is an eccentric block (17), and the eccentric block (17) is fixedly arranged on one side of the first gear (33).
7. A mechanism for converting external kinetic energy into rotational mechanical energy according to claim 3 or 6, characterized in that: the first gear (33) and the second gear (34) have the same tooth number and modulus, and the first unidirectional bearing (35) and the second unidirectional bearing (36) are single steering bearings with the same steering.
8. A mechanism for converting external kinetic energy into rotational mechanical energy as defined in claim 7, wherein: the steering assembly (4) comprises a first transition gear (41) and a second transition gear (42) with the same tooth number and modulus, an upper rotating shaft (15) and a lower rotating shaft (16) are vertically and fixedly arranged on one side in the box body (1), the first transition gear (41) is movably inserted into the upper rotating shaft (15), the second transition gear (42) is movably inserted into the lower rotating shaft (16), and the first transition gear (41) and the second transition gear (42) are meshed.
9. A mechanism for converting external kinetic energy into rotational mechanical energy as defined in claim 8, wherein: the first gear (33) is meshed with the first transition gear (41), and the second gear (34) is meshed with the second transition gear (42).
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202222114034.6U CN218894922U (en) | 2022-08-10 | 2022-08-10 | Mechanism for converting external kinetic energy into rotary mechanical energy |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202222114034.6U CN218894922U (en) | 2022-08-10 | 2022-08-10 | Mechanism for converting external kinetic energy into rotary mechanical energy |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN218894922U true CN218894922U (en) | 2023-04-21 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202222114034.6U Active CN218894922U (en) | 2022-08-10 | 2022-08-10 | Mechanism for converting external kinetic energy into rotary mechanical energy |
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| CN (1) | CN218894922U (en) |
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- 2022-08-10 CN CN202222114034.6U patent/CN218894922U/en active Active
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