TWM552538U - Screw rod type kinetic energy generation device of using wave - Google Patents

Description

Wave type kinetic energy generating device using wave

This creation is about kinetic energy generating devices, especially a screw-type kinetic energy generating device that uses waves.

At present, most of the energy types are limited by development. For example, petrochemical energy is limited by its reserves and is increasingly exhausted, which makes the price increase. The petrochemical energy will produce greenhouse gases such as carbon dioxide during the combustion process, and the earth will be aggravated. The effect of the greenhouse effect itself, so in the long run, it will also damage the environment. Although nuclear energy is cheap and can generate a lot of energy, because nuclear energy has certain complexity and danger, if the development mechanism has problems, the environmental impact on the earth will be even greater. Therefore, nuclear energy development still has many doubts until today. The development of a short-term kernel is still quite limited. Other energy sources, such as wind and solar energy, are still not widely available due to their high cost and the need for large-scale land.

There is currently a tendency to use the kinetic energy generated by the body to convert these kinetic energy into other forms of energy for driving other devices such as generators.

Based on this concept, this case proposes a screw-type kinetic energy generating device that uses waves to achieve the purpose of extracting energy.

Therefore, the purpose of this creation is to solve the above-mentioned problems in the prior art. In this creation, a screw-type kinetic energy generating device using waves is proposed, which uses a screw-type transmission mechanism to connect a generator and is accommodated in a floating ball. . Wherein the screw transmission mechanism is configured to receive an external force applied in a linear direction and convert into a form of annular rotation, and drive the screw rotation inside the screw transmission mechanism, and the screw also drives the generator. Wherein the float ball is used to float the screw type transmission mechanism and the generator on the water surface, and the floating ball is connected to the bottom of the water by using a fixing member, and the screw type transmission mechanism is generated when the water surface is driven by the water flow to generate high and low undulations. It is driven by an external force applied in a vertical linear direction, and the screw is rotated, and the generator is driven to generate electricity to generate electric energy. Therefore, the device of the present invention can convert the bit energy of the water level difference into electric energy.

In order to achieve the above object, a screw type kinetic energy generating device applying wave is proposed, which comprises: a screw transmission mechanism for receiving an external linear force application and converting into a circular rotation form to drive a generator to generate electricity; the screw transmission The mechanism comprises: a body, which is divided into a top seat and a lower seat; the upper seat forms a plurality of through holes; the lower seat forms a plurality of through holes; a plurality of support rods are fixedly coupled between the upper seat and the lower seat; at least one screw The drive set, each of the screw drive sets includes: a screw, the upper end of the screw is rotatably and movable relative to the upper seat to extend corresponding corresponding through holes of the upper seat; the lower end of the screw is rotatable The screw is fixed to the corresponding perforation; the screw body of the screw forms a thread; a driving column has a hollow structure, the driving column is located between the upper seat and the lower seat; the screw is opposite to the driving column Moving through the hollow structure of the driving column; wherein the driving column comprises a driving member for connecting the screw, the driving member connecting the screw to the thread of the screw, the driving member is for opposing the screw The linear movement of the driving column is converted into an annular rotation of the screw; an elastic mechanism is coupled between the driving column and the lower seat, the elastic mechanism is configured to restore the original position of the driving column on the screw; When moving relative to the drive column, the screw will rotate as the drive member penetrates the thread of the screw. Wherein the at least one screw drive set is a plurality of screw drive sets, wherein each of the screw drive sets further comprises a screw gear connected to the corresponding screw to pass through the upper end of the upper seat; when the screw of each screw drive set rotates, it will be driven The corresponding screw gear rotates. a one-way gear is located above the upper seat, the one-way gear meshes with the screw gear of each screw transmission group, the screw gear of each screw transmission group is used to drive the one-way gear rotation; Generating electric power, the mandrel of the generator is coupled to the axis of the one-way gear, and when the axis of the one-way gear rotates, the mandrel of the generator will be rotated to drive the generator to generate electricity; The power output is connected to a wire to transmit the power generated by the generator to the outside. a floating ball has a hollow space, is an inflatable structure for accommodating the screw transmission mechanism and the generator, and provides buoyancy for the screw transmission mechanism and the generator, so that the screw transmission mechanism and the generator can Floating on the water; the float contains one The float seat is located at the bottom of the float ball, and the float ball seat has an opening, and the float ball seat connects the lower seat of the screw transmission mechanism to one end of the float ball. The application of the wave type kinetic energy generating device of the wave further comprises a fixing member; wherein the center of the lower seat forms a central perforation; wherein the screw transmission mechanism further comprises a disc body between the upper seat and the lower seat, the disc body is formed on the disc body a plurality of perforations, each of the drive trains of the screw drive set is fixedly connected to the disc body through a corresponding perforation on the disc body; wherein the fixing member is connected to the disc body, and the other end of the fixing member extends downwardly through The central portion of the lower seat is perforated to pass through the opening of the floating ball seat; one end of the fixing member passing through the floating ball seat is connected to a fixed seat mounted on the bottom of the water such that the disk body and the bottom of the water have substantially Fixed distance.

The features of the present invention and its advantages can be further understood from the description below, and please refer to the attached drawings when reading.

1‧‧‧ body

2‧‧‧Support rod

3‧‧‧ screw

4‧‧‧Drive column

5‧‧‧Flexible mechanism

6‧‧‧Generator

7‧‧‧Floating ball

8‧‧‧Waterproof mechanism

9‧‧‧ gas valve

10‧‧‧Present

11‧‧‧The lower seat

12‧‧‧Fixed parts

30‧‧‧ thread

31‧‧‧ screw gear

41‧‧‧ drive parts

42‧‧‧ trench

43‧‧‧Return pipe

50‧‧‧ Screw drive set

60‧‧‧ wire

70‧‧‧Float seat

71‧‧‧ openings

80‧‧‧ one-way gear

90‧‧‧ gas valve tube

100‧‧‧through hole

110‧‧‧Perforation

111‧‧‧Central Perforation

112‧‧‧Sleeve structure

200‧‧‧ screw drive mechanism

300‧‧‧ fixed seat

412‧‧‧ balls

500‧‧‧ dish

501‧‧‧Perforation

502‧‧‧Sleeve structure

600‧‧‧weight parts

601‧‧‧First rotating disk

602‧‧‧second rotating disk

603‧‧‧Central Perforation

604‧‧‧connection hole

605‧‧‧Central Perforation

606‧‧‧Connection hole

610‧‧‧Rotary disk set

700‧‧‧ top seat

701‧‧‧second support rod

Figure 1 shows a perspective view of the screw drive mechanism of the present invention.

Figure 2 shows a perspective view of the bottom view of the screw drive mechanism of the present invention.

Figure 3 shows an exploded view of the screw drive mechanism of the present invention.

Figure 4 shows a perspective view of a partial component combination of the present invention.

Fig. 5 shows a perspective view of a partial component combination of the present invention.

The partial component combination perspective view of Fig. 6 shows the connection relationship between the screw transmission group, the disk body and the lower seat of the present invention.

The bottom view of the partial component combination of Fig. 7 shows the connection relationship between the generator, the weight member, the rotating disk group and the one-way gear of the present invention.

The partial component combination perspective view of Fig. 8 shows the connection relationship of the screw transmission group, the upper seat and the lower seat of the present case.

Figure 9 shows an exploded view of the element of Figure 8.

Figure 10 shows the side view of Figure 8.

Figure 11 is a schematic view showing the connection relationship between the driving member, the driving column and the screw of the present case.

Figure 12 shows a schematic view of the float seat of the present case.

Figure 13 shows a schematic diagram of the component combinations of the present case.

Figure 14 shows a partial enlarged view of Figure 13.

Figure 15 shows a schematic diagram of the application of the present case.

In view of the structural composition of the case, and the functions and advantages that can be produced, in conjunction with the drawings, a preferred embodiment of the present invention is described in detail below.

Referring to FIG. 1 to FIG. 15, the application of the wave type kinetic energy generating device of the present invention includes the following components: a screw drive mechanism 200, as shown in FIG. 1 and FIG. 2, for receiving external linear force. And converted into a form of circular rotation to drive the generator to generate electricity. As shown in FIG. 3, the screw transmission mechanism 200 includes a body 1 divided into a top seat 10 and a lower seat 11. The upper seat 10 forms a plurality of through holes 100. The lower seat 11 forms a plurality of perforations 110. A central through hole 111 is formed in the center of the lower seat 11.

a plurality of support rods 2 fixedly coupled to the upper seat 10 and the lower Between the seats 11.

At least one screw drive train 50.

As shown in FIG. 8 to FIG. 10, each of the screw drive sets 50 includes a screw 3, and the upper end of the screw 3 extends out of the corresponding through hole 100 of the upper seat 10 so as to be rotatable and movable relative to the upper seat 10. The lower end of the screw 3 is rotatably fixed to the corresponding through hole 110 of the lower seat 11. The screw body of the screw 3 forms a thread 30.

A screw gear 31 is coupled to the screw 3 to pass through the upper end of the upper seat 10.

A driving column 4 has a hollow structure, and the driving column 4 is located between the upper seat 10 and the lower seat 11. The screw 3 passes through the hollow structure of the drive column 4 in such a manner as to be movable relative to the drive column 4.

The driving column 4 includes a driving member 41 for connecting the screw 3, and the driving member 41 is connected to the thread 30 of the screw 3, and the driving member 41 is used for the screw 3 relative to the screw 3 The linear movement of the drive column 4 translates into an annular rotation of the screw 3.

FIG. 11 is a schematic view showing the connection of the driving member 41, the driving column 4 and the screw 3. The driving member 41 is a plurality of balls 412, wherein one side of each of the balls 412 is embedded in the thread of the screw 3. In the 30, the other side of each of the balls 412 is embedded in the groove 42 disposed on the inner wall of the driving column 4, and the circulating flow path of each of the balls 412 is formed through the return pipe 43 disposed on the inner wall of the driving column 4. In order to form a general so-called ball screw driving method.

A resilient mechanism 5 is coupled between the drive post 4 and the lower seat 11 for restoring the original position of the drive post 4 on the screw 3.

When the screw 3 moves relative to the driving column 4, since the driving member 41 penetrates the thread 30 of the screw 3, the screw 3 is rotated thereby, and the screw gear 31 is rotated. The at least one screw drive set 50 can be a plurality of screw drive sets 50.

A one-way gear 80 is positioned above the upper seat 10, and the one-way gear 80 engages the screw gear 31 of each of the screw drive trains 50, as shown in FIG. The screw gear 31 of each of the screw drive trains 50 is used to drive the one-way gear 80 to rotate.

Wherein the plurality of screw transmission groups 50 are divided into two groups, such that when the screw 3 of each of the screw transmission groups 50 rotates, the rotation direction of the screw gear 31 of one of the screw transmission groups 50 and the screw drive of the other group The screw gears 31 of the group 50 rotate in opposite directions.

The one-way gear 80 can be driven only when the direction in which the screw gear 31 meshes with the one-way gear 80 is the direction of rotation of the one-way gear 80, and the one-way gear 80 is not driven in the reverse direction, as in the general case. Ratchet. When one of them When the screw gear 31 of the screw drive train 50 can drive the one-way gear 80, the screw gear 31 of the other set of screw drive trains 50 rotating in the opposite direction does not engage the one-way gear 80, so The one-way gear 80 is driven and vice versa.

Therefore, when the screw 3 of each of the screw transmission sets 50 slides upward relative to the corresponding drive column 4, only the screw gear 31 of the screw drive set 50 of one of the sets drives the one-way gear 80. Similarly, when the screw 3 of each of the screw drive trains 50 slides down relative to the corresponding drive column 4, only the screw gears 31 of the other set of screw drive sets 50 will drive the one-way gears 80. Therefore, when the screw 3 of each of the screw transmission groups 50 slides up or down with respect to the drive column 4, the one-way gear 80 is driven.

In the present case, the screw gears 31 of the plurality of screw drive trains 50 may all be in the same rotational direction, and the one-way gear 80 is driven only in the same direction.

a generator 6 for generating electric power, the spindle of the generator 6 (not shown) coupling the axis of the one-way gear 80, and when the axis of the one-way gear 80 is rotated, the hair will be driven The mandrel of the motor 6 rotates to drive the generator 6 to generate electricity and cause the entire generator 6 to rotate together. The power output of the generator 6 is connected to a wire 60 to transfer the power generated by the generator 6 to the outside.

Figure 13 is a schematic view showing the components of the present invention, and Figure 14 is a partially enlarged schematic view of Figure 13. The present invention further includes: a floating ball 7 having a hollow space (as shown in FIG. 13), being an inflatable structure for accommodating the screw transmission mechanism 200 and the generator 6, and The screw drive mechanism 200 and the generator 6 provide buoyancy such that the screw drive mechanism 200 and the generator 6 can float on the water surface.

Preferably, the float ball 7 is made of a rubber material.

The float ball 7 includes a float ball seat 70 (shown in FIG. 12) at the bottom of the float ball 7, and the float ball seat 70 has an opening 71 which is recessed inward by the surface of the float ball 7, so that The float seat 70 presents a flared structure. The float seat 70 is coupled to the lower seat 11 of the screw drive mechanism 200 at one end of the float ball 7.

As shown in FIG. 3 and FIG. 6 , the screw transmission mechanism 200 further includes a disk body 500 between the upper seat 10 and the lower seat 11 . The disk body 500 defines a plurality of through holes 501 , each of the screw transmission groups 50 . The driving columns 4 are fixed to the disk body 500 through the corresponding through holes 501 of the disk body 500.

A fixing member 12 is connected to the disk body 500 at one end (as shown in FIG. 13), and the other end of the fixing member 12 extends downwardly through the central through hole 111 of the lower seat 11 to pass through the opening of the floating ball seat 70. 71. One end of the fixing member 12 passing through the floating ball seat 70 is connected to a fixing base 300 mounted on the bottom of the water, so that the disk body 500 and the water bottom have a substantially fixed distance, and the driving of the disk body 500 is also connected. The column 4 has a substantially fixed distance from the bottom of the water and causes the fixture 12 to limit the floating area of the float 7 to a fixed range. The fixing member 12 can be a rope or a body. Preferably, the fixing base 300 is made of cement material.

The operation mode of this case is shown in Figure 15. When the float ball 7 is inflated, it should be Floating on the surface with buoyancy. When the water surface is driven by the water flow to generate high and low undulations, the floating ball 7 will move up and down, and the lower seat 11 of the screw transmission mechanism 200 will also move up and down, so that the screw 3 of each screw transmission group 50 moves together. And the one-way gear 80 and the generator 6 are also moved together. Since the distance between the disk body 500 and the bottom of the water is substantially fixed, the position of the driving column 4 of the disk body 500 and each of the screw driving groups 50 connected thereto is also substantially fixed, so that each of the screw driving groups 50 The screw 3 will be moved relative to the corresponding drive column 4 such that the screw 3 is simultaneously driven to rotate by the corresponding drive column 4, and the generator 6 is driven to generate electricity, and the generated electric power is transmitted to the ground via the wire 60. When the lower seat 11 moves up and down, since the distance between the disk body 500 and the bottom of the water is substantially fixed, the elastic mechanism 5 is compressed and extended, and the lower seat 11 can be driven to generate reciprocating motion. The screw 3 of each of the screw drive trains 50 is continuously driven.

As shown in FIG. 3, FIG. 4 and FIG. 7, the present invention may further include a plurality of weight members 600 surrounding the generator 6. The plurality of weight members 600 are coupled to the generator 6 via a rotating disk pack 610.

The rotating disk set 610 includes a first rotating disk 601 connected to the generator 6; wherein the first rotating disk 601 is connected to the plurality of weights 600; when the spindle of the generator 6 rotates, the The first rotating disk 601 rotates to drive the plurality of weight members 600 to rotate around the generator 6 with the mandrel of the generator 6 as a rotating shaft.

The rotating disk set 610 may further include a second rotating disk 602, wherein the first A rotating disk 601 is located above the generator 6, and the second rotating disk 602 is located below the generator 6.

The outer side of the first rotating disc 601 is connected to the upper end of the plurality of weights 600, and the center of the first rotating disc 601 is connected to the upper end of the generator 6. The outer side of the second rotating disc 602 is connected to the lower end of the plurality of weights 600. The upper side of the center of the second rotating disc 602 is connected to the lower end of the generator 6. The lower side of the second rotating disc 602 is connected at the lower side. The upper end of the one-way gear 80.

The upper end of the generator 6 is passed through a central through hole 603 formed in the center of the first rotating disk 601. A plurality of connecting holes 604 are formed around the central through hole 603 of the first rotating disk 601 for connecting the upper end of the generator 6.

A central opening 605 is formed in the center of the second rotating disk 602 for connecting the upper end of the one-way gear 80. A plurality of connecting holes 606 are formed around the plurality of central through holes 605 of the second rotating disk 602 for connecting the lower ends of the generator 6.

When the mandrel of the generator 6 rotates, that is, the first rotating disk 601 and the second rotating disk 602 are rotated, and the plurality of weight members 600 are driven to surround the mandrel of the generator 6 as a rotating shaft. The generator 6 rotates.

When the plurality of weight members 600 rotate, an inertial force is generated such that the mandrel of the generator 6 and the connected one-way gear 80 also have an inertial force. When the screw 3 of each of the screw drive sets 50 is not moved relative to the corresponding drive column 4 and cannot be driven by the corresponding drive column 4, the one-way gear 80 will apply the inertial force to drive the screw gears of each of the screw drive sets 50. 31, while driving the corresponding screw The rod 3 continues to rotate. Therefore, the rotational inertia force of the plurality of weight members 600 can reduce the amount of change in the rotational speed of the one-way gear 80 and the spindle of the generator 6, and the power output of the generator 6 can be maintained in a stable range. The generator 6 can output power in a stable manner without generating an excessive amount of power output variation.

The case may further include a top seat 700 located above the upper seat 10. The generator 6 is located between the top seat 700 and the upper seat 10. The top seat 700 is coupled to the upper seat 10 via a plurality of second support bars 701. The upper end of the generator 6 is rotatably passed over the top of the top seat 700.

Wherein the sleeve body 502 is connected to the fixing member 12 to form a sleeve structure 502, which is a columnar type having a hollow structure, and extends downwardly of the disk body 500, and one end of the fixing member 12 penetrates the same. The hollow structure of the sleeve structure 502 of the disk body 500 is fixed to the disk body 500.

A sleeve structure 112 is formed around the central through hole 111 of the lower seat 11 and has a columnar shape with a hollow structure extending upwardly of the lower seat 11. The other end of the fixing member 12 is movable. The hollow structure of the sleeve structure 112 of the lower seat 11 is passed through.

The horn structure of the opening 71 of the float seat 70 allows the fixing member 12 to extend outwardly along the flared inner edge of the opening 71 when the fixing member 12 is passed through the opening 71 at a different angle without The wear of the fixing member 12 is caused. When the floating ball 7 is moved by the water wave to cause a horizontal movement, the angle between the fixing member 12 and the opening 71 is changed, and the fixing member 12 can be along the The flared inner edge of the opening 71 makes a 360 degree annular rotation without causing wear of the fixing member 12.

A waterproof mechanism 8 is disposed between the float base 70 and the lower seat 11 of the screw drive mechanism 200, and the waterproof mechanism 8 is configured to close the connection of the float seat 70 and the lower seat 11 of the screw drive mechanism 200. The opening 71 is closed to prevent external water from penetrating into the interior of the float ball 7 from the joint of the float ball holder 70 and the screw drive mechanism 200.

A gas valve 9 is mounted on the float ball 7 for inflating or leaking the float ball 7. The gas valve 9 is connected to a gas valve tube 90, and the gas valve tube 90 communicates with an external space, so that the air valve 9 can inhale external air to inflate the floating ball 7 to float the floating ball 7 on the water surface; The gas valve 9 can discharge the air inside the float ball 7 to sink the float ball 7 into the bottom of the water.

Preferably, the wire 60 and the gas valve tube 90 are collected in one place outside the floating ball 7 and the fixing member 12, and are connected to the fixing base 300 in the same path and then connected to the ground.

When the weather is not good (for example, encountering a typhoon), the air valve 9 can be used to discharge the air in the floating ball 7, so that the floating ball 7 sinks down to the bottom of the water, avoiding the floating ball 7, the screw transmission mechanism 200, and The generator 6 is damaged by the influence of bad weather. When the weather returns to good, the air valve 9 is used to inflate the floating ball 7 to re-float the floating ball 7.

The advantage of this case is that a screw-type transmission mechanism is used to connect a generator and is accommodated in a floating ball. Where the screw drive mechanism is used to receive a linear direction The external force is applied and converted into a form of circular rotation, which drives the rotation of the screw inside the screw transmission mechanism, and the screw also drives the generator. Wherein the float ball is used to float the screw type transmission mechanism and the generator on the water surface, and the floating ball is connected to the bottom of the water by using a fixing member, and the screw type transmission mechanism is generated when the water surface is driven by the water flow to generate high and low undulations. It is driven by an external force applied in a vertical linear direction, and the screw is rotated, and the generator is driven to generate electricity to generate electric energy. Therefore, the device of the present invention can convert the bit energy of the water level difference into electric energy.

In summary, the humanized design of this case is quite in line with actual needs. The specific improvement of the existing defects is obviously a breakthrough improvement advantage compared with the prior art, and it has an improvement in efficacy and is not easy to achieve. The case has not been disclosed or disclosed in domestic and foreign literature and market, and has complied with the provisions of the Patent Law.

The detailed description above is a detailed description of one of the possible embodiments of the present invention, and the embodiment is not intended to limit the scope of the patents, and the equivalent implementations or modifications that are not included in the spirit of the present invention should be included in The patent scope of this case.

1‧‧‧ body

2‧‧‧Support rod

6‧‧‧Generator

10‧‧‧Present

11‧‧‧The lower seat

31‧‧‧ screw gear

50‧‧‧ Screw drive set

200‧‧‧ screw drive mechanism

600‧‧‧weight parts

700‧‧‧ top seat

701‧‧‧second support rod

Claims (17)

A screw type kinetic energy generating device applying wave comprises: a screw transmission mechanism for receiving an external linear force applied and converting into a form of circular rotation to drive a generator to generate electricity; the screw transmission mechanism comprises: a body, which is divided into a top seat and a lower seat; the upper seat forms a plurality of through holes; the lower seat forms a plurality of through holes; a plurality of support bars are fixedly coupled between the upper seat and the lower seat; at least one screw drive group, each of the screw drive sets The utility model comprises: a screw, an upper end of the screw protrudes from a corresponding through hole of the upper seat so as to be rotatable and movable relative to the upper seat; a lower end of the screw is rotatably fixed to a corresponding perforation of the lower seat The screw body of the screw is formed into a thread; a driving column has a hollow structure, the driving column is located between the upper seat and the lower seat; the screw passes through the hollow structure of the driving column in a manner movable relative to the driving column; Wherein the driving column comprises a driving member for connecting the screw, the driving member is connected to the screw to penetrate the thread of the screw, and the driving member is used for the screw relative to the screw Linear movement of the driving column into an annular rotation of the screw; an elastic means connected between the driving column and the lower seat, the resilient means for replying to the original position on the drive string of the screw When the screw moves relative to the drive column, the screw will rotate as the drive member penetrates the thread of the screw. The application of the wave type kinetic energy generating device of claim 1, wherein the at least one screw drive set is a plurality of screw drive sets, wherein each of the screw drive sets further comprises a screw gear connected to the corresponding screw to pass the The upper end of the upper seat; when the screw of each screw drive set rotates, the corresponding screw gear rotates. The application of the wave type kinetic energy generating device of claim 2, wherein the one-way gear is located above the upper seat, the one-way gear meshes with the screw gear of each screw transmission group, and the screw transmission group The screw gear is used to drive the one-way gear to rotate; a generator for generating electric power, the mandrel of the generator is coupled to the axis of the one-way gear, and when the axis of the one-way gear rotates, The generator's mandrel is rotated to drive the generator to generate electricity; the generator's power output is connected to a wire to transmit the power generated by the generator. For example, the application of the wave type kinetic energy generating device of the third aspect of the patent application includes: a floating ball having a hollow space, an inflatable structure for accommodating the screw transmission mechanism and the generator, and The screw drive mechanism and the generator provide buoyancy, so that the screw drive mechanism and the generator can float on the surface The float ball includes a float ball seat at the bottom of the float ball, and the float ball seat has an opening, and the float ball seat connects the lower seat of the screw transmission mechanism to one end of the float ball. The application of the wave type kinetic energy generating device of claim 4, further comprising: a fixing member; wherein the center of the lower seat forms a central perforation; wherein the screw transmission mechanism further comprises a disc body located at the upper seat and the lower portion Between the seats, a plurality of perforations are formed in the disc body, and the driving columns of each of the screw transmission groups are respectively fixed to the disc body through corresponding corresponding perforations on the disc body; wherein the fixing member is connected to the disc body, The other end of the fixing member extends downwardly through the central through hole of the lower seat to pass through the opening of the floating ball seat; the end of the fixing member passing through the floating ball seat is connected to a fixed seat mounted on the bottom of the water, so that There is a substantially fixed distance between the disk and the bottom of the water. The application of the wave type kinetic energy generating device of claim 4, wherein the opening is recessed inwardly from the surface of the floating ball, such that the floating ball seat presents a horn structure; wherein the opening of the floating ball seat The flared structure allows the fastener to extend outwardly along the flared inner edge of the opening when it exits the opening at a different angle. For example, the application of the wave type kinetic energy generating device of the wave of claim 4, wherein the floating ball is made of a rubber material. The application of the wave type kinetic energy generating device of claim 1 or 3, wherein the driving member is a plurality of balls, wherein one side of each of the balls is embedded in the thread of the screw, and the other side of each of the balls The ball is embedded in the groove disposed on the inner wall of the driving column, and the circulating flow path of each of the balls is formed through a return pipe disposed on the inner wall of the driving column to form a driving mode of the ball screw. The application of the wave type kinetic energy generating device of claim 3, wherein the plurality of screw drive sets are divided into two groups, such that when the screw of each screw drive set rotates, one of the screw drive sets The direction of rotation of the screw gear is opposite to the direction of rotation of the screw gear of the other set of screw drive sets; wherein the single drive can be driven only when the direction in which the screw gear meshes with the one-way gear is the direction of rotation of the one-way gear To the gear, when the reverse direction does not drive the one-way gear; when the screw gear of one of the screw drive sets can drive the one-way gear, the screw gear of the other set of screw drive sets that rotate in the opposite direction The one-way gear is not engaged, so the one-way gear is not driven and vice versa. The application of the wave type kinetic energy generating device of claim 3, further comprising: a plurality of weight members surrounding the generator; the plurality of weight members connecting the generator via a rotating disk group; The rotating disk set includes a first rotating disk connected to the generator; wherein the first rotating disk is connected to the plurality of weight members; When the mandrel of the generator rotates, the first rotating disk is rotated, and the plurality of weight members are driven to rotate around the generator with the mandrel of the generator as a rotating shaft. The application of the wave type kinetic energy generating device of claim 5, wherein a sleeve structure is formed at the disc body connecting the fixing member, and is a columnar type having a hollow structure, and is below the disc body. Extendingly, one end of the fixing member is fastened to the disk body through a hollow structure of the sleeve structure of the disk body. The application of the wave type kinetic energy generating device of claim 5, wherein a sleeve structure is formed around the central perforation of the lower seat, which is a columnar type having a hollow structure and extends upwardly from the lower seat. The other end of the fixing member is movably passed through the hollow structure of the sleeve structure of the lower seat. The application of the wave type kinetic energy generating device of claim 4, further comprising: a waterproof mechanism between the floating ball seat and the lower seat of the screw transmission mechanism, the waterproof mechanism for closing the floating ball The joint of the seat and the lower seat of the screw drive mechanism is such that the opening is closed to prevent external water from penetrating into the interior of the float ball from the connection between the float ball seat and the screw drive mechanism. The application of the wave type kinetic energy generating device of the wave of claim 5, further comprising: a gas valve mounted on the floating ball for inflating or leaking the floating ball; The gas valve is connected to a gas valve tube, and the gas valve tube is in communication with an external space, such that the air valve can inhale external air to inflate the floating ball to float the floating ball on the water surface; or enable the gas valve to discharge the valve The air inside the float causes the float to sink to the bottom of the water. The application of the wave type kinetic energy generating device of claim 14, wherein the wire and the gas valve tube are collected in one place outside the floating ball and the fixing member, and are connected to the fixing seat in the same path. Connect to the ground again. The application of the wave type kinetic energy generating device of the wave of claim 5, wherein the fixing member is a rope or a body. The application of the wave type kinetic energy generating device of the wave of claim 5, wherein the fixing base is made of cement material.