CN111238260B - U-shaped pipe positive displacement heat exchanger - Google Patents

Abstract

The invention relates to a heat exchanger, in particular to a U-shaped tube positive displacement heat exchanger, which comprises a device support, an energy conversion support, a planetary mechanism, a mixed flow mechanism I, a mixed flow mechanism II, a mixed flow mechanism III and an energy conversion pipeline, wherein the planetary mechanism can simultaneously drive the mixed flow mechanism I, the mixed flow mechanism II and the mixed flow mechanism III to rotate, the mixed flow mechanism I, the mixed flow mechanism II and the mixed flow mechanism III stir liquid in the energy conversion support when rotating to play a certain mixed flow function, the lengths of the mixed flow mechanism I, the mixed flow mechanism II and the mixed flow mechanism III are sequentially increased to layer water in the energy conversion support to form a plurality of mixed flow layers, the energy conversion pipeline is positioned among the mixed flow mechanism I, the mixed flow mechanism II and the mixed flow mechanism III to enable a heat medium and cold water to form strong heat medium and reverse flow, thereby forming a perfect heat exchange flow mode in heat transfer science and promoting full heat release, the cold water absorbs heat sufficiently.

Description

A U-tube volumetric heat exchanger

technical field

The invention relates to a heat exchanger, more specifically a U-tube volumetric heat exchanger.

Background technique

For example, Publication No. CN205808184U is a high-efficiency U-tube volumetric heat exchanger, which includes a water injection tank and a heat medium module. The water injection tank is separated by multiple return partitions to form multiple return mixing chambers, so that the The heat medium and the cold water form strong countercurrent and cross-flow, thus forming a perfect heat exchange flow mode in heat transfer. , the cold water fully absorbs heat, thereby improving the thermal efficiency and energy utilization rate; but the disadvantage of the utility model is that the thermal efficiency is low, and the thermal efficiency and energy utilization rate cannot be further improved.

SUMMARY OF THE INVENTION

The purpose of the present invention is to provide a U-tube volumetric heat exchanger, which can improve thermal efficiency and energy utilization rate.

The object of the present invention is achieved through the following technical solutions:

A U-tube volumetric heat exchanger, comprising a device support, an energy conversion support, a planetary mechanism, a mixed flow mechanism I, a mixed flow mechanism II, a mixed flow mechanism III and an energy conversion pipeline, and the device support is fixedly connected with an energy conversion support, The planetary mechanism is fixedly connected to the device bracket, and a mixed flow mechanism I is rotatably connected in the transducer bracket. The mixed flow mechanism I is connected with the planetary mechanism. The mixed flow mechanism I is rotatably connected with a mixed flow mechanism II, and the mixed flow mechanism II is connected with the planetary mechanism. The mixed flow mechanism II There is a mixed-flow mechanism III connected to the planetary mechanism in the inner rotating connection. The mixed-flow mechanism I, the mixed-flow mechanism II and the mixed-flow mechanism III are all coaxially arranged. The lengths of the mixed-flow mechanism I, the mixed-flow mechanism II and the mixed-flow mechanism III increase in turn, and the transduction pipes are fixedly connected. On the transducer support, the transducer pipe is inserted into the transducer holder, and the transducer pipe is located between the mixed flow mechanism I, the mixed flow mechanism II and the mixed flow mechanism III.

As a further optimization of the technical solution, the present invention is a U-tube volumetric heat exchanger. The device bracket includes a side bracket, a support ring, a rotating ring I and a rotating ring II. There are two side brackets and two side brackets. A support ring is fixedly connected between the front ends of the brackets, a rotating ring I is fixedly connected between the rear ends of the two side brackets, and a rotating ring II is fixedly connected coaxially inside the rotating ring I.

As a further optimization of the technical solution, the present invention is a U-tube volumetric heat exchanger, wherein the transduction support includes an outer transduction cylinder I, a water inlet pipe, an outer transduction cylinder II, an outer transduction cylinder III and a connecting plate Ⅰ, the upper end of the transduction outer cylinder I is fixed with a water inlet pipe, and the water inlet pipe is connected with the transduction outer cylinder I, the front end of the transduction outer cylinder I is fixedly connected with the transduction outer cylinder II, and the front end of the transduction outer cylinder II is fixedly connected with a Transduction outer cylinder III, transduction outer cylinder I, transduction outer cylinder II and transduction outer cylinder III are all coaxially arranged, and the diameters of transduction outer cylinder I, transduction outer cylinder II and transduction outer cylinder III gradually decrease , the front end of the transducing outer cylinder III is fixedly connected with the connecting plate I.

As a further optimization of the technical solution, the present invention is a U-tube volumetric heat exchanger. The planetary mechanism includes a motor, a gear, a planetary gear I, a ring gear I, a connecting column I, a planetary gear II, a ring gear II and Connecting column II, the motor is fixedly connected to the rotating ring I, the output shaft of the motor is fixedly connected with a gear, the outer meshing transmission of the gear has a planetary gear I, the outer meshing transmission of the planetary gear I has a ring gear I, and the ring gear I is fixed on Connected with connecting column I, the outer meshing transmission of ring gear I has planetary gear II, the outer meshing transmission of planetary gear II has ring gear II, the ring gear II is fixedly connected with connecting column II, and the ring gear II is rotatably connected to the rotating ring I The planetary gear I and the planetary gear II are both rotatably connected to the rotating ring I, and the ring gear I is rotatably connected to the rotating ring II.

As a further optimization of the technical solution, the present invention is a U-tube volumetric heat exchanger. The mixed flow mechanism I includes a mixed flow cylinder I, a rotating baffle I, a mixed flow plate I and a communication hole. The mixed flow cylinder I is fixedly connected with a Rotating the baffle I, the transducing outer cylinder I is rotatably connected to the rotating baffle I, the mixed flow cylinder I is fixedly connected with a plurality of mixed flow plates I, the mixed flow cylinder I is provided with a plurality of communication holes, and the connecting column II is fixedly connected to the mixed flow. on the barrel I.

As a further optimization of this technical solution, the present invention is a U-tube volumetric heat exchanger. The mixed flow mechanism II includes a mixed flow cylinder II, a rotating baffle II and a mixed flow plate II, and the mixed flow cylinder II is fixedly connected with a rotating baffle plate. II, the mixed flow cylinder I is rotatably connected to the rotating baffle II, a plurality of mixed flow plates II are fixedly connected to the mixed flow cylinder II, and the connecting column I is fixedly connected to the mixed flow cylinder II.

As a further optimization of the technical solution, the present invention is a U-tube volumetric heat exchanger. The mixed flow mechanism III includes a mixed flow cylinder III, a rotating baffle III, a mixed flow plate III, a communication pipe, a water outlet cylinder, and a rotating baffle IV. And the outlet pipe, the mixed flow cylinder III is fixedly connected with the rotating baffle III, the mixed flow cylinder II is rotatably connected to the rotating baffle III, the mixed flow cylinder III is fixedly connected with a plurality of mixed flow plates III, and the rear end of the mixed flow cylinder III is fixedly connected with a Connecting pipe, the rear end of the mixed-flow cylinder III is rotatably connected with a water outlet cylinder, and a rotating baffle IV is rotatably connected to the water outlet cylinder. It is fixedly connected to the rotating ring I, and the output shaft of the motor is fixedly connected to the mixed flow cylinder III.

As a further optimization of the technical solution, the present invention is a U-tube volumetric heat exchanger, and the energy conversion pipeline includes a connecting plate II, a U-shaped pipeline, a connecting pipeline I, a connecting pipeline II, a folding pipeline I and a folding pipeline II , the connecting plate II is fixedly connected to the connecting plate I, the U-shaped pipeline is fixedly connected to the connecting plate II, and two connecting pipelines I are arranged on the upper side of the U-shaped pipeline. Two connecting pipes II are arranged on the lower side of the shaped pipe, and the connecting pipes II are respectively arranged one after the other. There is a torsion spring I, the folding pipe I and the U-shaped pipe are connected, the two ends of the folding pipe II are respectively connected to the two connecting pipes II, and a torsion spring II is arranged between the folding pipe II and the connecting pipe II. The U-shaped pipe is connected, the U-shaped pipe is inserted into the mixed flow cylinder II and the mixed flow cylinder III, and the folded pipe I and the folded pipe II are both inserted into the mixed flow cylinder I.

The beneficial effects of the U-tube volumetric heat exchanger of the present invention are:

The present invention is a U-tube volume type heat exchanger, which can simultaneously drive the mixed flow mechanism I, the mixed flow mechanism II and the mixed flow mechanism III to rotate through the planetary mechanism. The liquid inside is stirred to play a certain mixed-flow effect. The lengths of the mixed-flow mechanism I, the mixed-flow mechanism II and the mixed-flow mechanism III increase in turn, and the water in the transducer bracket is stratified to form multiple mixed-flow layers. Between the mixed flow mechanism I, the mixed flow mechanism II and the mixed flow mechanism III, the heat medium and the cold water form a strong countercurrent and cross flow, thus forming a perfect heat exchange flow mode in heat transfer, which promotes the heat medium to fully release heat and the cold water to fully absorb. hot.

Description of drawings

The present invention will be described in further detail below with reference to the accompanying drawings and specific implementation methods.

In the description of the present invention, it should be noted that the terms "center", "portrait", "horizontal", "top", "bottom", "front", "rear", "left", "right", " The orientation or positional relationship indicated by "top", "bottom", "inside", "outside" and "vertical" is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present invention and simplifying the description, and It is not indicated or implied that the indicated device or element must have a particular orientation, be constructed and operate in a particular orientation, and therefore should not be construed as limiting the invention.

In the description of the present invention, it should be noted that the terms "installed", "connected" and "connected" should be understood in a broad sense unless otherwise expressly specified and limited, for example, it may be a fixed connection or a detachable connection , or the integral connection can be a direct connection, an indirect connection through an intermediate medium, or an internal communication between two components. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood in specific situations.

In addition, in the description of the present invention, unless otherwise specified, "plurality", "multiple groups" and "plurality" mean two or more.

1 is a schematic diagram of the overall structure of a U-tube volumetric heat exchanger of the present invention;

2 is a schematic structural view of a cross-sectional view of a U-tube volumetric heat exchanger of the present invention;

Fig. 3 is the schematic diagram of the device support structure of the present invention;

Fig. 4 is the structure schematic diagram of the transducer support of the present invention;

5 is a schematic structural diagram of a planetary mechanism of the present invention;

6 is a schematic structural diagram of the mixed flow mechanism I of the present invention;

7 is a schematic structural diagram of the mixed flow mechanism II of the present invention;

8 is a schematic structural diagram of the mixed flow mechanism III of the present invention;

9 is a schematic structural diagram of a cross-sectional view of the mixed flow mechanism III of the present invention;

FIG. 10 is a schematic structural diagram of the energy-transducing pipeline of the present invention.

In the figure: device bracket 1; side bracket 101; support ring 102; rotating ring I103; rotating ring II104; connecting plate I205; planetary mechanism 3; motor 301; gear 302; planetary gear I303; ring gear I304; connecting column I305; planetary gear II306; ring gear II307; connecting column II308; Mixed flow plate I403; communication hole 404; mixed flow mechanism II5; mixed flow cylinder II501; rotating baffle II502; mixed flow plate II503; mixed flow mechanism III6; mixed flow cylinder III601; Rotating baffle IV606; water outlet pipe 607; transduction pipe 7; connecting plate II 701; U-shaped pipe 702; connecting pipe I 703; connecting pipe II 704;

Detailed ways

The present invention will be further described in detail below in conjunction with the accompanying drawings.

Specific implementation one:

The present embodiment will be described below with reference to FIGS. 1-10 , a U-tube volumetric heat exchanger, including a device support 1, an energy conversion support 2, a planetary mechanism 3, a mixed flow mechanism I4, a mixed flow mechanism II5, a mixed flow mechanism III6 and an energy conversion mechanism. Pipe 7, the device bracket 1 is fixedly connected with a transducer bracket 2, the planetary mechanism 3 is fixedly connected to the device bracket 1, and a mixed flow mechanism I4 is rotatably connected in the transducer bracket 2, and the mixed flow mechanism I4 is connected with the planetary mechanism 3, mixed flow The mixed flow mechanism II5 is rotatably connected in the mechanism I4, and the mixed flow mechanism II5 is connected with the planetary mechanism 3. The mixed flow mechanism II5 is rotatably connected with the mixed flow mechanism III6 connected with the planetary mechanism 3. The mixed flow mechanism I4, the mixed flow mechanism II5 and the mixed flow mechanism III6 are all coaxial. Setting, the lengths of the mixed flow mechanism I4, the mixed flow mechanism II5 and the mixed flow mechanism III6 increase in turn, the transduction pipeline 7 is fixedly connected to the transduction bracket 2, the transduction pipeline 7 is inserted into the transduction bracket 2, and the transduction pipeline 7 is located in the mixed flow mechanism I4 , between the mixed flow mechanism II5 and the mixed flow mechanism III6; the planetary mechanism 3 can drive the mixed flow mechanism I4, the mixed flow mechanism II5 and the mixed flow mechanism III6 to rotate at the same time. When the mixed flow mechanism I4, the mixed flow mechanism II5 and the mixed flow mechanism III6 rotate, the transducer bracket 2 The liquid inside is stirred to play a certain mixed flow effect. The lengths of the mixed flow mechanism I4, the mixed flow mechanism II5 and the mixed flow mechanism III6 increase in turn, and the water in the transducer bracket 2 is stratified to form multiple mixed flow layers. 7 is located between the mixed-flow mechanism I4, the mixed-flow mechanism II5 and the mixed-flow mechanism III6, so that the heat medium and the cold water form a strong countercurrent and cross-flow, thus forming a perfect heat exchange flow mode in heat transfer, promoting the heat medium to fully release heat and the cold water. Fully absorb heat.

Specific implementation two:

This embodiment will be described below with reference to FIGS. 1-10 . This embodiment will further describe Embodiment 1. The device bracket 1 includes a side bracket 101 , a support ring 102 , a rotating ring I 103 and a rotating ring II 104 . The side bracket 101 is provided with two A support ring 102 is fixedly connected between the front ends of the two side brackets 101 , a rotating ring I103 is fixedly connected between the rear ends of the two side brackets 101 , and a rotating ring II 104 is fixed coaxially inside the rotating ring I103 .

Specific implementation three:

The present embodiment will be described below with reference to FIGS. 1-10. This embodiment will further describe the second embodiment. The transducing support 2 includes a transducing outer cylinder I201, a water inlet pipe 202, an outer transducing cylinder II 203, and an outer transducing cylinder III 204. With the connecting plate I205, the upper end of the transduction outer cylinder I201 is fixed with a water inlet pipe 202, the water inlet pipe 202 is connected with the transduction outer cylinder I201, and the front end of the transduction outer cylinder I201 is fixedly connected with the transduction outer cylinder II203, the transduction outer cylinder II203 The front end is fixedly connected with the transduction outer cylinder III204, the transduction outer cylinder I201, the transduction outer cylinder II203 and the transduction outer cylinder III204 are all coaxially arranged, the transduction outer cylinder I201, the transduction outer cylinder II203 and the transduction outer cylinder III204 The diameter gradually decreases, and the front end of the transducing outer cylinder III204 is fixedly connected with a connecting plate I205.

Specific implementation four:

The present embodiment will be described below with reference to FIGS. 1-10 , and the third embodiment will be further described in this embodiment. The planetary mechanism 3 includes a motor 301, a gear 302, a planetary gear I303, a ring gear I304, a connecting column I305, a planetary gear II 306, Ring gear II 307 and connecting column II 308, the motor 301 is fixedly connected to the rotating ring I103, the output shaft of the motor 301 is fixedly connected with a gear 302, the outer meshing transmission of the gear 302 has a planetary gear I303, and the outer meshing transmission of the planetary gear I303 has teeth Ring I304, the connecting column I305 is fixedly connected to the ring gear I304, the outer meshing transmission of the ring gear I304 has the planetary gear II306, the outer meshing transmission of the planetary gear II306 is the ring gear II307, the ring gear II307 is fixedly connected with the connecting column II308, The ring II307 is rotatably connected to the rotating ring I103, the planetary gear I303 and the planetary gear II306 are both rotatably connected to the rotating ring I103, and the ring gear I304 is rotatably connected to the rotating ring II104.

Specific implementation five:

The present embodiment will be described below with reference to FIGS. 1-10. This embodiment will further describe the fourth embodiment. The mixed flow mechanism I4 includes a mixed flow cylinder I401, a rotating baffle I402, a mixed flow plate I403 and a communication hole 404. The mixed flow cylinder I401 is fixed on the A rotating baffle I402 is connected, the transducing outer cylinder I201 is rotatably connected to the rotating baffle I402, a plurality of mixed flow plates I403 are fixedly connected to the mixed flow cylinder I401, a plurality of communication holes 404 are arranged on the mixed flow cylinder I401, and the connecting column II308 is fixed Connected to the mixed flow cylinder I401.

Specific implementation six:

The present embodiment will be described below with reference to Figs. 1-10. This embodiment will further describe the fifth embodiment. The mixed flow mechanism II5 includes a mixed flow cylinder II501, a rotating baffle II502 and a mixed flow plate II503. The mixed flow cylinder II501 is fixedly connected with a rotating block. Plate II502, the mixed flow cylinder I401 is rotatably connected to the rotating baffle II502, a plurality of mixed flow plates II503 are fixedly connected to the mixed flow cylinder II501, and the connecting column I305 is fixedly connected to the mixed flow cylinder II501.

Specific implementation seven:

The present embodiment will be described below with reference to Figs. 1-10. This embodiment will further describe the sixth embodiment. The mixed flow mechanism III6 includes a mixed flow cylinder III601, a rotating baffle III602, a mixed flow plate III603, a communication pipe 604, a water outlet cylinder 605, a rotating The baffle IV606 and the water outlet pipe 607, the mixed flow cylinder III601 is fixedly connected with a rotating baffle III602, the mixed flow cylinder II501 is rotatably connected to the rotating baffle III602, the mixed flow cylinder III601 is fixedly connected with a plurality of mixed flow plates III603, the rear of the mixed flow cylinder III601 The end is fixedly connected with a communication pipe 604, the rear end of the mixed flow cylinder III601 is rotatably connected with a water outlet cylinder 605, the water outlet cylinder 605 is rotatably connected with a rotating baffle IV606, the communication pipe 604 passes through the rotating baffle IV606 and is connected with the water outlet cylinder 605, the water outlet cylinder A water outlet pipe 607 is fixedly connected to the 605, the water outlet pipe 607 is fixedly connected to the rotating ring I103, and the output shaft of the motor 301 is fixedly connected to the mixed flow cylinder III601.

Eighth specific implementation:

The present embodiment will be described below with reference to FIGS. 1-10 , and the seventh embodiment will be further described in this embodiment. The transducing conduit 7 includes a connecting plate II 701 , a U-shaped conduit 702 , a connecting conduit I 703 , a connecting conduit II 704 , a folding conduit I 705 and The folded pipe II706, the connecting plate II701 is fixedly connected to the connecting plate I205, the U-shaped pipe 702 is fixedly connected to the connecting plate II701, and two connecting pipes I703 are arranged on the upper side of the U-shaped pipe 702. One rear arrangement, two connecting pipes II 704 are arranged on the lower side of the U-shaped pipe 702, and the connecting pipes II 704 are respectively arranged one after the other. There is a torsion spring I between the connecting pipes I703, the folding pipe I705 is connected with the U-shaped pipe 702, the two ends of the folding pipe II706 are respectively connected to the two connecting pipes II704 in rotation, and there is a torsion between the folding pipe II706 and the connecting pipe II704. Spring II, folded pipe II706 and U-shaped pipe 702 are connected, U-shaped pipe 702 is inserted into mixed flow cylinder II501 and mixed flow cylinder III601, and folded pipe I705 and folded pipe II706 are inserted into mixed flow cylinder I401.

The working principle of a U-tube volumetric heat exchanger of the present invention is as follows:

When in use, insert the U-shaped pipe 702 into the transduction outer cylinder I201, the transduction outer cylinder II203 and the transduction outer cylinder III204, as shown in Figure 2, the transduction outer cylinder I201, the transduction outer cylinder II203 and the transduction outer cylinder III204 The diameter of the U-shaped pipe 702 gradually decreases, the front end of the U-shaped pipe 702 can be inserted into the mixed-flow cylinder III601 and the mixed-flow cylinder II501, and when the U-shaped pipe 702 is inserted into the transducer bracket 2, due to the arrangement between the folded pipe I705 and the connecting pipe I703 There is a torsion spring I, a torsion spring II is arranged between the folding pipe II 706 and the connecting pipe II 704, the folding pipe I 705 is connected with the U-shaped pipe 702, and the folding pipe II 706 is connected with the U-shaped pipe 702, so that the folding pipe I705 and the folding pipe II 706 can also be It is inserted into the transducer bracket 2, and under the action of the torsion spring I and the torsion spring II, the folding pipe I705 and the folding pipe II706 have a certain reset ability. , the torsion spring I and the torsion spring II make the folded pipe I705 and the folded pipe II706 reset and inserted into the mixed flow cylinder I401, the two connecting pipes I703 are respectively arranged in tandem, and the connecting pipes II704 are respectively arranged in tandem, so that the inside of the folded pipe I705 is The water flow can flow in from one end and flow out from the other end, and the water flow in the connecting pipe II 704 can flow in from one end and flow out from the other end. As shown in Figure 2, the distance between the two connecting pipes I 703 can be set according to the usage. The distance between the connecting pipes II 704 can be specifically set according to the usage conditions, the cold water is introduced from the upper end of the U-shaped pipe 702 and flows out from the lower end of the U-shaped pipe 702, and the cold water can flow into the folded pipe I 705 and the folded pipe II 706; into the water inlet pipe 202, start the motor 301 at the same time, the output shaft of the motor 301 starts to rotate, the output shaft of the motor 301 drives the gear 302 to rotate, the gear 302 drives the planetary gear I303 to rotate, the planetary gear I303 drives the ring gear I304 to rotate, The ring gear I304 drives the planetary gear II306 to rotate, the planetary gear II306 drives the ring gear II307 to rotate, the output shaft of the motor 301 drives the mixed flow cylinder III601 to rotate, the ring gear I304 drives the mixed flow cylinder II501 to rotate, and the ring gear II307 drives the mixed flow cylinder III601 to rotate. Rotate, the mixed-flow cylinder I401, the mixed-flow cylinder II501 and the mixed-flow cylinder III601 divide the hot water, and the mixed-flow cylinder I401, the mixed-flow cylinder II501 and the mixed-flow cylinder III601 stratify the water in the transducer bracket 2 to form multiple mixed-flow layers. The pipeline 7 is located between the mixed flow mechanism I4, the mixed flow mechanism II5 and the mixed flow mechanism III6. The rotation speed and rotation direction of the mixed flow mechanism I4, the mixed flow mechanism II5 and the mixed flow mechanism III6 are all different, so that the heat medium and the cold water form strong countercurrent and cross flow , so as to form a perfect heat exchange flow mode in heat transfer, which promotes the sufficient heat release of the heat medium and the full absorption of heat by the cold water; The channel 7 can not only be quickly installed and replaced with the transducer bracket 2, but also because the folded pipe I705 and the folded pipe II706 are located in the mixed flow cylinder I401, the exchange of cold and heat is further increased.

Of course, the above description does not limit the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by those of ordinary skill in the art within the essential scope of the present invention also belong to the present invention. protected range.

Claims (1)

1. A U-tube volumetric heat exchanger, comprising a device support (1), an energy conversion support (2), a planetary mechanism (3), a mixed flow mechanism I (4), a mixed flow mechanism II (5), and a mixed flow mechanism III (6) and the energy conversion pipeline (7), characterized in that: the device support (1) is fixedly connected with a conversion support (2), the planetary mechanism (3) is fixedly connected to the device support (1), and the energy conversion A mixed flow mechanism I (4) is rotatably connected in the bracket (2), and the mixed flow mechanism I (4) is connected with the planetary mechanism (3). The mixed flow mechanism I (4) is rotatably connected with a mixed flow mechanism II (5), and the mixed flow mechanism II ( 5) Connected with the planetary mechanism (3), the mixed flow mechanism II (5) is rotatably connected with the mixed flow mechanism III (6) connected with the planetary mechanism (3), the mixed flow mechanism I (4), the mixed flow mechanism II (5) and the mixed flow mechanism Mechanisms III (6) are all coaxially arranged, the lengths of the mixed-flow mechanism I (4), the mixed-flow mechanism II (5) and the mixed-flow mechanism III (6) increase in turn, and the transduction pipe (7) is fixedly connected to the transduction bracket (2) On the upper side, the transducer pipe (7) is inserted into the transducer bracket (2), and the transducer pipe (7) is located between the mixed flow mechanism I (4), the mixed flow mechanism II (5) and the mixed flow mechanism III (6); The device bracket (1) includes a side bracket (101), a support ring (102), a rotation ring I (103) and a rotation ring II (104), two side brackets (101) are provided, and two side brackets (101) A support ring (102) is fixedly connected between the front ends of the two side brackets (101), a rotating ring I (103) is fixedly connected between the rear ends of the two side brackets (101), and a rotating ring I (103) is coaxially and fixedly connected inside the rotating ring. II(104); The transduction bracket (2) includes an outer transduction cylinder I (201), a water inlet pipe (202), an outer transduction cylinder II (203), an outer transduction cylinder III (204) and a connecting plate I (205). The upper end of the energy outer cylinder I (201) is fixed with a water inlet pipe (202), the water inlet pipe (202) is communicated with the energy conversion outer cylinder I (201), and the front end of the energy conversion outer cylinder I (201) is fixedly connected with the energy conversion outer cylinder II (203), the front end of the transduction outer cylinder II (203) is fixedly connected with the transduction outer cylinder III (204), the transduction outer cylinder I (201), the transduction outer cylinder II (203) and the transduction outer cylinder III (204) are all coaxially arranged, the diameters of the transduction outer cylinder I (201), the transduction outer cylinder II (203) and the transduction outer cylinder III (204) gradually decrease, and the front end of the transduction outer cylinder III (204) A connection plate I (205) is fixedly connected; The planetary mechanism (3) includes a motor (301), a gear (302), a planetary gear I (303), a ring gear I (304), a connecting column I (305), a planetary gear II (306), a ring gear II ( 307) and the connecting column II (308), the motor (301) is fixedly connected to the rotating ring I (103), the output shaft of the motor (301) is fixedly connected with a gear (302), and the outer side of the gear (302) engages and drives Planetary gear I (303), the outer side of the planetary gear I (303) is meshed with a ring gear I (304), and the ring gear I (304) is fixedly connected with a connecting column I (305), the outer side of the ring gear I (304) The meshing transmission has planetary gear II (306), the outer meshing transmission of planetary gear II (306) has ring gear II (307), and the ring gear II (307) is fixedly connected with connecting column II (308), ring gear II (307) ) is rotatably connected to the rotating ring I (103), the planetary gear I (303) and the planetary gear II (306) are both rotatably connected to the rotating ring I (103), and the ring gear I (304) is rotatably connected to the rotating ring II ( 104) on; The mixed flow mechanism I (4) includes a mixed flow cylinder I (401), a rotating baffle I (402), a mixed flow plate I (403) and a communication hole (404), and a rotating baffle is fixedly connected to the mixed flow cylinder I (401). Ⅰ(402), the transducing outer cylinder Ⅰ(201) is rotatably connected to the rotating baffle Ⅰ(402), and the mixed flow cylinder Ⅰ(401) is fixedly connected with a plurality of mixed flow plates Ⅰ(403), and the mixed flow cylinder Ⅰ(401) A plurality of communicating holes (404) are provided on the upper part, and the connecting column II (308) is fixedly connected to the mixed flow cylinder I (401); The mixed flow mechanism II (5) includes a mixed flow cylinder II (501), a rotating baffle II (502) and a mixed flow plate II (503). The mixed flow cylinder II (501) is fixedly connected with a rotating baffle II (502), and the mixed flow The cylinder I (401) is rotatably connected to the rotating baffle II (502), the mixed flow cylinder II (501) is fixedly connected with a plurality of mixed flow plates II (503), and the connecting column I (305) is fixedly connected to the mixed flow cylinder II (501). )superior; The mixed flow mechanism III (6) includes a mixed flow cylinder III (601), a rotating baffle III (602), a mixed flow plate III (603), a communication pipe (604), a water outlet cylinder (605), and a rotating baffle IV (606) and the outlet pipe (607), a rotating baffle III (602) is fixedly connected to the mixed flow cylinder III (601), the mixed flow cylinder II (501) is rotatably connected to the rotating baffle III (602), and the mixed flow cylinder III (601) A plurality of mixed flow plates III (603) are fixedly connected, the rear end of the mixed flow cylinder III (601) is fixedly connected with a communication pipe (604), and the rear end of the mixed flow cylinder III (601) is rotatably connected with a water outlet tube (605), and the water outlet tube A rotating baffle IV (606) is rotatably connected to the (605), the communication pipe (604) passes through the rotating baffle IV (606) and communicates with the water outlet cylinder (605), and the water outlet cylinder (605) is fixedly connected with a water outlet pipe (607). ), the water outlet pipe (607) is fixedly connected to the rotating ring I (103), and the output shaft of the motor (301) is fixedly connected to the mixed flow cylinder III (601); The transducing pipe (7) includes a connecting plate II (701), a U-shaped pipe (702), a connecting pipe I (703), a connecting pipe II (704), a folding pipe I (705) and a folding pipe II (706) , the connecting plate II (701) is fixedly connected to the connecting plate I (205), the U-shaped pipe (702) is fixedly connected to the connecting plate II (701), and the upper side of the U-shaped pipe (702) is provided with two connecting pipes I (703), two connecting pipes I (703) are arranged one after the other, and two connecting pipes II (704) are arranged on the lower side of the U-shaped pipe (702), and the connecting pipes II (704) are one in front of the other. After setting, the two ends of the folding pipe I (705) are respectively connected to the two connecting pipes I (703) in rotation, and a torsion spring I is arranged between the folding pipe I (705) and the connecting pipe I (703), and the folding pipe I (703). (705) is communicated with the U-shaped pipe (702), the two ends of the folded pipe II (706) are respectively connected to the two connecting pipes II (704) by rotation, and between the folding pipe II (706) and the connecting pipe II (704) There is a torsion spring II, the folded pipe II (706) is connected with the U-shaped pipe (702), the U-shaped pipe (702) is inserted into the mixed flow cylinder II (501) and the mixed flow cylinder III (601), and the folded pipe I (705) and The folded pipes II (706) are all inserted into the mixed flow cylinder I (401).

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