TWM454456U - Floating type wind power watering device pump - Google Patents

Description

Floating wind pump

The present invention relates to a floating wind pumping device, in particular to an innovative type designer who can drive a layered supercharged pumping impeller group to achieve a pumping action flow when the blades of the rotary vane group are in the wind.

According to the installation equipment (such as seawater desalination machine, seawater evaporative generator, etc.) installed in the adjacent waters, how to extract and guide seawater to the equipment for use is the first important task. Process.

At present, the practice of extracting seawater is generally achieved by the setting of pumping pumps. This method of drowning by pumping water is not uncommon in terms of traditional concepts. However, with recent years The awareness of environmental protection and energy conservation in the world is rising. The concepts of “green energy” and “low carbon” are gradually taking root in various product fields. Therefore, relevant industries have developed and designed various devices and equipments to make innovative breakthroughs. To contribute to environmental protection.

The seawater evaporative generator mentioned in the previous article is itself a green energy product, which mainly uses the concentrated solar heat to evaporate seawater to generate steam to promote the operation of the generator to generate electric energy. The advantage of the generator is that it can generate electricity through the pollution-free natural force. However, in the process of extracting seawater, the pumping pump that completely consumes electricity is used, which will inevitably cause the problem that the benefit of power generation is relatively depleted. The drawback is that this is clearly an important technical issue that the industry must further improve.

Therefore, in response to the above problems, how to develop an innovative pumping device structure that is more ideal and practical, and the relevant industry players must make efforts to develop breakthrough targets and directions.

In view of this, the creators have been engaged in the manufacturing and development of related products for many years. With the design experience, after the detailed design and careful evaluation of the above objectives, the original creation will be practical.

The main purpose of this creation is to provide a floating wind pumping device. The problem to be solved is to innovate and break through the goal of developing a new pumping device with more ideal and practicality. The technical feature is mainly that the floating wind pumping device structural component comprises a floatable carrier comprising a carrier and a buoyancy member capable of floating the platform on the water surface; a vertical support frame, standing The protruding support is disposed on a stage of the floatable carrier, the vertical support frame includes a top end, a bottom end and a hollow receiving portion; and a rotary vane group pivotally disposed on the vertical support frame a top end, the rotary vane set includes a central shaft and a plurality of blades connected to the central shaft, and a set of sockets for pivoting the rotary vane group to the top of the vertical support frame; a drive shaft extending in a vertical direction and The pivotable state includes an upper shaft end, a lower shaft end, and a middle portion of the shaft between the upper shaft end and the lower shaft end, wherein the middle portion of the shaft is accommodated in the hollow capacity of the vertical support frame The upper shaft end protrudes upwardly from the top end of the vertical support frame and is coupled to the central shaft of the rotary vane group by a transmission portion, and the transmission shaft can be rotated according to the rotation of the rotary vane group. The lower shaft end protrudes downwardly from the bottom of the stage of the floatable carrier; a layered pressurized pumping impeller set is disposed below the stage of the floatable carrier, and the set height must be lower than the buoyant member, the layering is increased The pressure pumping impeller assembly comprises at least two circular cylinders arranged in an upper and lower layer, and unit-rotating unit vane rotors respectively eccentrically arranged in each circular cylinder, thereby connecting adjacent upper and lower circular cylinders The communication pipe is formed by a water inlet provided on one side of the lowermost circular cylinder and an outlet pipe provided on one side of the uppermost circular cylinder, wherein each unit blade rotor is provided with a radially spaced expansion duct The plate can abut against the inner wall of the circular cylinder, and each adjacent to the expansion leaf And defining a unit compression space, and the compression space volume of each unit located in the upper circular cylinder is smaller than the compression space volume of each unit of the lower circular cylinder; and each unit blade rotor center has a through hole The lower shaft end of the transmission shaft is combined and fixed, and the rotors of the unit shafts can be synchronously rotated with the rotation of the transmission shaft. With this innovative and unique design, the creation can be improved according to the prior art. The pumping pump that consumes electricity affects the pumping efficiency due to the loss of power generation efficiency in the pumping process. This creation is to use the blades of the rotary vane group to rotate the wind in the wind, and to drive the drive shaft to drive the rotor of each unit. The telescopic blade guides the seawater into the circular cylinder through the water inlet, and then extracts and guides the seawater through the connecting pipe and the outlet pipe, further achieving the pumping efficiency, reducing energy consumption and conforming to Practical benefits such as modern environmental protection and energy conservation appeals.

Another object of the present invention is to stabilize one of the anchor bodies by a chain under the carrier of the floatable carrier, and to anchor the anchor body to the bottom of the water, thereby stabilizing the floatable carrier. The floating state makes the pumping process more stable.

Referring to Figures 1 through 5, the preferred embodiment of the present invention is a floating wind pumping device, but these embodiments are for illustrative purposes only and are not limited by this structure. The main structure of the floating wind pumping device 05 comprises: a floatable carrier 10 comprising a stage 11 and a buoyancy member 12 capable of floating the stage 11 on the water surface; a vertical support frame 20 in a standing orientation The protruding type is disposed on the stage 11 of the floatable carrier 10. The vertical support frame 20 includes a top end 21, a bottom end 22 and a hollow receiving portion 23; a rotating blade group 30 is in a rotatable state Located at the top of the vertical support frame 20 21, the rotary vane group 30 includes a central shaft 31 and a plurality of blades 32 connected to the central shaft 31, and a set of sockets 33 for pivoting the rotary vane group 30 to the top end 21 of the vertical support frame 20. A drive shaft 40, extending in a vertical direction and rotatable, includes an upper shaft end 41, a lower shaft end 42 and a shaft intermediate portion 43 interposed between the upper shaft end 41 and the lower shaft end 42, wherein the shaft The middle portion 43 is received in the hollow receiving portion 23 of the vertical support frame 20, and the upper shaft end 41 protrudes upwardly from the top end 21 of the vertical support frame 20 and is coupled to the rotary blade group 30 by a transmission portion 44. The central shaft 31 is in a transmission and connection relationship, and the transmission shaft 40 is configured to be rotatable with the rotation of the rotary vane group 30. The lower shaft end 42 projects downwardly from the bottom of the stage 11 of the floatable carrier 10; As shown, the artificial transmission portion 44 is specifically provided with a vertical bevel gear 441 at one end of the central shaft 31, and a lateral umbrella is disposed at a position opposite to the vertical bevel gear 441 at the shaft end 41 of the transmission shaft 40. a gear 442 for interlocking the drive shaft 40 when the rotary vane group 30 is rotated; a layered supercharged pump impeller group 50 disposed on the floatable carrier 10 Below the stage 11, and the height must be lower than the buoyancy member 12, the layered supercharged pump impeller group 50, as shown in reference to Figures 3 and 4, includes at least two circular cylinders 51 arranged in an upper and lower layer. And a unit vane rotor 52 rotatably accommodated in each of the circular cylinders 51, a communication tube 53 for connecting the upper and lower circular cylinders 51, and a lowermost circular cylinder 51. The water inlet port 54 on the side and the water outlet pipe 55 provided on the side of the uppermost circular cylinder 51 are arranged, and each of the unit blade rotors 52 is provided with a radially spaced apart expansion and contraction vane 56 that can be abutted against the circular motion. The inner wall of the cylinder 51, between the adjacent expansion vanes 56, defines a unit compression space 57, and the volume of each unit compression space 57 of the upper circular cylinder 51 is smaller than the units of the lower circular cylinder 51. The volume of the compression space 57; and the center of each of the unit rotors 52 has a through hole 58 for the lower shaft end 42 of the transmission shaft 40 to be coupled and fixed, and the unit rotor 52 can be synchronously rotated according to the rotation of the transmission shaft 40. Pumping action flow Cheng.

The specific implementation of this creation can be explained as follows:

As shown in FIG. 1 , the shaft 31 of the rotary vane group 30 is in a lateral angle type, and a rearward control wing 70 is added to the rear end of the shaft 31. The set of seats 33 is provided. Then, the rotation type is set, whereby the wind direction belt can be generated by the control tail fin 60, so that the blades 32 of the rotary vane group 30 can be normally maintained in the state corresponding to the windward surface, thereby enabling the shaft 31 to be stably linked. The drive shaft 40.

As shown in FIG. 1 , an electric drive motor 70 is disposed in the hollow receiving portion 23 of the vertical support frame 20 , and the drive shaft 71 of the electric drive motor 70 is coupled to the shaft middle portion 43 of the drive shaft 40 . The coaxial core is connected to the connected state, and a clutch switch 72 is disposed between the drive shaft 71 and the shaft middle portion 43 for switching to an electric drive mode driven by the electric drive motor 70 or a wind drive mode driven by the drive shaft 40. That is, when the wind is weak, the unit switch rotor 72 can be switched to the electric drive motor 70 to drive the unit vane rotor 52; wherein the floatable carrier 10 has a lower portion of the stage 11 and is connected by a chain 80. One of the anchor bodies 81 in the hanging state can stabilize the floating state of the floatable carrier 10 by the anchor body 81 falling on the bottom of the water; further, the layered pressurized pumping impeller 50 of the present invention includes an inner diameter. The same three-layer circular cylinder 51 and three sets of unit blade rotors 52 are disposed correspondingly, and wherein the number of the expansion and contraction blades 56 of the three-group unit blade rotor 52 is three, six in order from the lower layer to the upper layer. , the multiplication ratio of 12 pieces, Ratio of the number is not limited thereto; whereby the upper layer is located opposite the circular configuration of each actuator cylinder units 51, each unit volume of the compression space 57 is less than the relatively lower circular cylinder 51 for the volume of the compression space 57 type structure.

Another embodiment of the present invention is as shown in FIG. 9, wherein the drive shaft 40 is provided with a brake device 82 at a predetermined position of the middle portion 43 of the shaft, and the brake device 82 is configured to include The brake block 83 of the shaft middle portion 43 provided in the transmission shaft 40 and the abutting member 84 disposed at a corresponding position outside the brake block 83, wherein the resisting member 84 can be forced The brake block 83 allows the user to push the resisting member 84 so that the brake block 83 can be tightened to the shaft middle portion 43 (the brake action diagram is not shown), thereby causing the rotary vane group 30 to stop. In the state, the resisting member 84 is configured to be fitted with a return spring 85 so that the resisting member 84 can be automatically reset in a normal state.

As shown in FIG. 9, the shaft middle portion 43 of the transmission shaft 40 is further provided with a power generation switching member 90, and the power generation switching member 90 includes one of movable states disposed on the outer circumference of the shaft middle portion 43. The transmission member 91 and the control member 92 disposed on the outer side of the transmission member 91 can be driven by the transmission member 91, and the control member 92 has a lateral push rod pivoted on the vertical support frame 20. And a control rod 922 disposed at one end of the lateral push rod 921, and the lateral push rod 921 is different from the end of the control rod 922 against the transmission member 91, so when the user presses the control rod 922, The transmission member 91 can be lifted up; in addition, a generator 93 is disposed at a corresponding position on one side of the transmission member 91, and the transmission member 91 is lifted and connected to the transmission end 931 of the generator 93. (In the present embodiment, the transmission member 91 and the transmission end 931 of the generator 93 are set to match the bevel gear), so that the generator 93 can be additionally driven when the transmission shaft 40 rotates, thereby greatly improving the convenience of use. And practicality.

With the above structure and composition design, the following is the use of this creation:

As shown in Figures 1 and 6 to 8, the layered supercharged impeller group 50 of the present invention is described by taking a three-layer circular cylinder 51 having the same inner diameter as an example, when the blades 32 of the group of blades 30 rotate in the wind. When the central shaft 31 is rotated, the vertical bevel gear 441 of the transmission portion 44 is linked to the lateral bevel gear 442, and the transmission shaft 40 is rotated to drive the unit blade rotor 52 to operate. The seawater enters from the water inlet 54 provided in the lowermost circular cylinder 51, and the seawater (such as the sixth icon number L1) can be connected to the connecting pipe by the centrifugal action generated when the expansion blade 56 rotates. 53 tossed to the second The layer circular cylinder 51, while the expansion vane 56 throws seawater, the unit compression space 57 between the expansion ducts 56 forms a partial vacuum state, so that the atmospheric pressure of the external water surface is greater than the internal and can Continuously feeding into the circular cylinder 51; when the seawater enters the second circular cylinder 51 (as shown in the seventh icon L2), the rotation can be made by multiplying the six telescopic blades 56 in a proportional relationship. The torque is increased, thereby increasing the effect of the output head to achieve supercharging, and the seawater is thrown from the communication pipe 53 to the uppermost circular cylinder 51; also when the seawater enters the uppermost circular cylinder 51 (eg The eighth icon is shown in the figure L3), and the nine-stage expansion blade 56 of the multiplication ratio relationship further increases the output of the sun range to reach the second stage pressure, thereby enabling the seawater of sufficient flow to be exported from the water outlet pipe 55 to complete. The process of guiding and extracting seawater; as mentioned above, this creation can prevent the disadvantages of pumping efficiency due to the loss of power generation efficiency, compared with the pumping pump that uses completely power consumption in the process of extracting seawater. Multiplication proportional relationship Telescopic paddle 56 to reach a booster to enhance the purpose of pumping efficiency, so the pumping efficiency of the use of more stable, fast, able to meet the demands of the modern concept of energy saving and environmental protection.

Efficacy description:

The facts that enhance the effectiveness of this creation are as follows:

The "Floating Wind Pumping Device" disclosed in this work mainly consists of an innovative structure designed by a floatable carrier, a vertical support frame, a rotary vane group, a drive shaft and a layered supercharged pump impeller group. According to the prior art, when the blade set by the rotary vane group is rotated in the wind, the drive shaft can be linked to drive the rotor of each unit provided in the layered supercharged pump impeller group to operate. The expansion and expansion blade of the single-edge vane rotor guides the seawater into the circular cylinder through the water inlet, and then extracts and guides the seawater through the connecting pipe and the outlet pipe, which can effectively improve the conventional consumption. The pumping pump of electric power is easy to affect the pumping efficiency due to the loss of power generation efficiency. Therefore, this creation can achieve both pumping efficiency, energy consumption and modern environmental protection and energy saving requirements. And other practical benefits.

The new effects that this creation can produce are as follows:

The anchor body is suspended by a chain at a position below the stage of the floatable carrier, and the anchor body is placed on the bottom of the water to stabilize the floating state of the floatable carrier, so that the pumping process is performed. More stable.

The disclosures of the above embodiments are used to specifically explain the present creation, and although the descriptions are made through specific terms, the scope of patents of the novel creation cannot be limited thereby; those skilled in the art can understand the spirit of the creation. Changes and modifications are made to the equivalent purpose, and such changes and modifications are to be included in the scope defined by the scope of the patent application as described later.

05‧‧‧Floating wind pumping device

10‧‧‧Floating carrier

11‧‧‧ stage

12‧‧‧ buoyancy components

20‧‧‧Horizontal support frame

21‧‧‧Top

22‧‧‧ bottom

23‧‧‧ Hollow Housing

30‧‧‧Rotary leaf group

31‧‧‧ center shaft

32‧‧‧Multiple leaves

33‧‧‧ group seat

40‧‧‧Drive shaft

41‧‧‧Upper shaft end

42‧‧‧ Lower shaft end

43‧‧‧The middle section of the shaft

44‧‧‧Transmission Department

441‧‧‧Standing bevel gear

442‧‧‧Horizontal bevel gear

50‧‧‧Layered pressurized pumping impeller set

51‧‧‧Circular cylinder

52‧‧‧Unit blade rotor

53‧‧‧Connected pipe

54‧‧‧ water inlet

55‧‧‧Outlet

56‧‧‧Flexible leaf panels

57‧‧‧unit compression space

58‧‧‧With holes

60‧‧‧Controlled tail

70‧‧‧Electric drive motor

71‧‧‧Drive shaft

72‧‧‧Clutch switcher

80‧‧‧Chain

81‧‧‧ anchor body

82‧‧‧ brakes

83‧‧‧ brake block

84‧‧‧Committed components

85‧‧‧Return spring

90‧‧‧Power switching components

91‧‧‧ Transmission parts

92‧‧‧Control components

921‧‧‧ transverse putter

922‧‧‧Control lever

93‧‧‧Generator

931‧‧‧Drive end

Figure 1: A plan view of the overall shape of the floating wind pumping device.

Fig. 2: A partial enlarged view of the connection type of the creation transmission section.

Figure 3: A perspective view of the overall shape of the layered supercharged pump impeller group.

Figure 4: An exploded perspective view of the layered supercharged pump impeller group.

Figure 5: A cross-sectional view of the layered pressurized pumping impeller set of the present creation.

Figure 6: Schematic diagram of the operating state of the layered supercharged pumping impeller group.

Figure 7: Schematic diagram of the operating state of the layered supercharged pumping impeller group.

Figure 8: Schematic diagram of the operating state of the layered supercharged pumping impeller group.

Figure 9: A partial enlarged view of another embodiment of the present creation.

05‧‧‧Floating wind pumping device

10‧‧‧Floating carrier

11‧‧‧ stage

12‧‧‧ buoyancy components

20‧‧‧Horizontal support frame

21‧‧‧Top

22‧‧‧ bottom

23‧‧‧ Hollow Housing

30‧‧‧Rotary leaf group

31‧‧‧ center shaft

32‧‧‧Multiple leaves

33‧‧‧ group seat

40‧‧‧Drive shaft

41‧‧‧Upper shaft end

42‧‧‧ Lower shaft end

43‧‧‧The middle section of the shaft

44‧‧‧Transmission Department

441‧‧‧Standing bevel gear

442‧‧‧Horizontal bevel gear

50‧‧‧Layered pressurized pumping impeller set

51‧‧‧Circular cylinder

53‧‧‧Connected pipe

54‧‧‧ water inlet

55‧‧‧Outlet

60‧‧‧Controlled tail

70‧‧‧Electric drive motor

71‧‧‧Drive shaft

72‧‧‧Clutch switcher

80‧‧‧Chain

81‧‧‧ anchor body

Claims (7)

A floating wind pumping device comprises: a floatable carrier comprising a stage and a buoyancy member capable of floating the stage on the water surface; and a vertical support frame arranged in a vertical convex form on the floatable carrier On the stage, the vertical support frame includes a top end, a bottom end and a hollow receiving portion; a rotating blade group pivotally disposed at a top end of the vertical supporting frame, the rotating blade group including a central axis a rod and a plurality of blades connected to the central shaft, and a set of sockets for pivoting the rotary vane to the top of the vertical support frame; a drive shaft extending in a vertical direction and rotatable to include an upper shaft end, a lower shaft end and a middle portion of the shaft between the upper shaft end and the lower shaft end, wherein the middle portion of the shaft is received in a hollow receiving portion of the vertical support frame, and the upper shaft end protrudes upwardly To the top end of the support frame and in a transmission connection relationship with the central shaft of the rotary vane group by a transmission portion, the transmission shaft can be rotated with the rotation of the rotary vane group, and the lower shaft end protrudes downwardly from the floatable carrier Bottom of the stage; a layered pressurized pumping leaf The group is disposed under the stage of the floatable carrier and has a height lower than that of the buoyant member. The layered supercharged pump impeller group comprises at least two circular actuators arranged in an upper and lower layer, respectively eccentrically accommodating a unitary rotor that is rotatable in each of the circular cylinders, a communication tube that connects the upper and lower circular cylinders, a water inlet provided on one side of the lowermost circular cylinder, and a circular motion provided in the uppermost layer The water outlet pipe on one side of the cylinder is formed, wherein each unit blade rotor is provided with a radially spaced annular expansion plate to abut against the inner wall of the circular cylinder, and each of the adjacent expansion panels is defined to form a unit compression. Space, and the compression space volume of each unit in the upper circular cylinder is smaller than the compression of each unit of the lower circular cylinder The volume of each of the unit rotor rotors has a through hole for the lower shaft end of the transmission shaft to be combined and fixed, and the rotors constituting each unit can rotate synchronously with the rotation of the transmission shaft. The floating wind pumping device according to claim 1, wherein the shaft of the rotary vane group is a transverse angle type, and a rearward end of the shaft is further provided with an area-expanding type. The set of seats is set to a rotatable type, whereby the windward direction of the tail can be generated by the control, so that the blades of the group of blades can be normally maintained in the state corresponding to the windward side. The floating wind pumping device according to claim 1, wherein the hollow bearing portion of the vertical support frame is provided with an electric drive motor, and the drive shaft of the electric drive motor and the middle portion of the shaft of the drive shaft are The coaxial core is coupled to the connected state, and a clutch switch is disposed between the drive shaft and the middle portion of the shaft for switching to an electric drive mode driven by the electric drive motor or a wind drive mode driven by the drive shaft. The floating wind pumping device according to claim 1, wherein the anchoring body is disposed at a position below the stage of the floatable carrier and is connected by a chain to be suspended downwardly to be placed by the anchor body. The floating state of the floatable carrier can be stabilized at the bottom of the water. The floating wind pumping device according to claim 1, wherein the layered supercharged pump impeller assembly comprises a three-layer circular impeller having the same inner diameter and three sets of unit vane rotors correspondingly disposed, and Wherein, the number of the expansion and contraction blades of the three sets of unit blade rotors is a multiplication ratio relationship of 3, 6, and 12 pieces from the lower layer to the upper layer, thereby constituting the compression space volume of each unit located in the upper circular cylinder Less than the compression space of each unit of the lower circular cylinder The structure of the product. The floating wind pumping device according to claim 1, wherein the brake shaft is provided with a brake device at a predetermined position of the middle portion of the shaft, the brake device comprising a brake block disposed at a middle portion of the shaft and disposed on the brake block The resisting member at the corresponding position on the outer side of the brake block is configured to withstand the brake block, so that the brake block can press the middle portion of the shaft, thereby causing the group of blades to be in a brake stop state. The floating wind pumping device according to claim 1, wherein the middle portion of the shaft of the transmission shaft is further provided with a power generation switching member, and the power generation switching member is sleeved on the outer circumference of the middle portion of the shaft to be movable. a transmission member and a control member disposed on the outer side of the transmission member for driving the transmission member to be raised and reset; wherein a corresponding generator is disposed at a corresponding position on one side of the transmission member, and the When the transmission member is lifted, it is in a transmission connection state with the transmission end of the generator, so that the generator can be additionally driven when the transmission shaft rotates.