Shower head capable of efficiently generating microbubbles

Abstract

The invention relates to the technical field of shower heads, in particular to a shower head capable of efficiently generating microbubbles, which comprises a fluid pipeline, a first convergent-divergent pipe, a stirring pipeline, a second convergent-divergent pipe, a spray head, an air pipe, a mixing part, an air conditioning part, an ozone conditioning part, an air pump, an ozone generator and a flow guide cover, the second convergent-divergent pipe is communicated with the spray head, the two ends of the air pipe are communicated with the stirring pipeline and the air pump respectively, the mixing part is arranged in the second convergent-divergent pipe, the air conditioning part is arranged on the air pipe, the mixing part comprises a telescopic rod, fan blades, an exhaust hole, a protrusion, a rotating block, a magnet block and a base, and the telescopic rod is rotatably arranged on the base through a rotating bearing. The base is fixed in the second telescopic pipe, and the fan blades are of a hollow structure and arranged at the end of the telescopic rod. Air can be cut and adjusted, so that the air is in full contact with water, and the air is more uniformly distributed.

Description

Technical Field

[0001] The invention relates to the technical field of shower heads, and in particular to a shower head capable of efficiently generating microbubbles. Background Art

[0002] Micro-nano bubbles refer to bubbles whose diameter ranges from about 10 microns to hundreds of nanometers when they occur. This type of bubble is between micron bubbles and nano bubbles, and has physical and chemical properties that conventional bubbles do not have.

[0003] Although the existing micro-bubble shower structure can achieve the function of emitting bubbling water, during use, the bubbles and water are often mixed through negative pressure. However, the unidirectional mixing can easily cause the problem of uneven bubble distribution. In order to enhance the bactericidal effect of shower water, an appropriate amount of ozone can be added to the water. After the ozone is added, the above-mentioned problem of air and water mixing will also occur. At the same time, when the flow rate or flow velocity of the shower water changes, the degree of mixing of air, ozone and water often cannot be adjusted in real time along with the water flow rate.

[0004] Therefore, improvements are made to the above problems. Summary of the invention

[0005] Therefore, the present invention is made in view of the above problems. The present invention solves the problem that the mixing of air and ozone with water in one direction in the existing device easily causes bubbles and uneven distribution of ozone, and the mixing degree of air and ozone with water often cannot be adjusted in real time with the water flow rate when the flow rate or flow rate of the shower water changes. The present invention achieves the above purpose through the following technical solutions:

[0006] A shower head that efficiently generates microbubbles comprises a fluid pipeline, a first convergent-convex tube, a stirring pipeline, a second convergent-convex tube, a nozzle, an air pipe, a mixing part, an air conditioning part, an ozone conditioning part, an air pump, an ozone generator, and a flow guide cover. The fluid pipeline, the first convergent-convex tube, the stirring pipeline, and the second convergent-convex tube are sequentially connected, the second convergent-convex tube is connected to the nozzle, the two ends of the air pipe are respectively connected to the stirring pipeline and the air pump, the mixing part is arranged in the second convergent-convex tube, the air conditioning part is arranged on the air pipe, and the mixing part comprises: a telescopic rod, a fan blade, an exhaust hole, a protrusion, a rotating block, A magnet block and a base, a telescopic rod is rotatably arranged on the base through a rotating bearing, the base is fixed in the zoom tube 2, the fan blade is a hollow structure arranged at the end of the telescopic rod, a protrusion is fixedly arranged on the output end of the telescopic rod, the protrusion can be matched with the bayonet on the rotating block, the rotating block is sleeved on the outside of the telescopic rod, and a notch matched with the protrusion is arranged on the rotating block. The rotation of the rotating block can drive the ozone regulating part to rotate together, the ozone regulating part is connected to the guide cover and the mixing part, and the extension and retraction of the telescopic rod drives the air regulating part to regulate the air in the mixing pipe.

[0007] Preferably, the air conditioning unit comprises: an adjusting block, a transmission block, a rotating rod, a connecting rod, a driving block, a dividing block 1, a dividing block 2, a rope, a guide block 1, and a guide block 2. The adjusting block is rotatably arranged on the air pipe through a rotating bearing. The adjusting block passes through the wall of the air pipe and is connected to the dividing block 1. The transmission block is connected to the adjusting block through a connecting rod. The internal thread of the transmission block is connected with the rotating rod. The driving block abuts against one side of the rotating rod. The driving block is perpendicular to the connecting rod. The connecting rod is slidably arranged on one side of the outer wall of the air pipe. A rope is provided at one end of the connecting rod, and the other end of the rope is connected to the telescopic rod. The dividing block 1 is circular and fixedly arranged on the adjusting block and is located inside the air pipe. The dividing block 2 is formed by a plurality of cutting cylinders arranged at equal intervals and arranged on the inner wall of the air pipe. The dividing block 2 is located between the dividing block 1 and the stirring pipe.

[0008] Preferably, a spiral spring is provided at the connection portion between the regulating block and the trachea.

[0009] Preferably, the driving block is always in contact with the rotating rod, and the contacting surfaces of the two are matching inclined surfaces.

[0010] Preferably, the horizontally movable output end of the telescopic rod and the tail end fixed to the base are respectively provided with magnet blocks, and the two magnet blocks repel each other.

[0011] Preferably, both ends of the rope are connected to the magnet blocks at the output ends of the connecting rod and the telescopic rod, and the rope is nested inside the guide block 1 and the guide block 2. The guide block 1 and the guide block 2 mainly play a guiding role for it. The guide block 1 and the guide block 2 are hollow structures arranged on the zoom tube 2.

[0012] Preferably, the ozone regulating part includes: a guide blade, a transmission part, a duct, and a fixed cylinder. The guide blade is arranged on the transmission part. The central axis of the guide blade is the same as the central axis of the guide cover. The transmission part is a hollow structure that passes through the guide cover and the zoom tube 2. A belt transmission structure is arranged inside the transmission part and is sleeved and fixed on the arc surface of the rotating block. The duct is connected with the guide cover and the fixed cylinder. The base is a hollow structure that is connected with the fixed cylinder.

[0013] Preferably, the diameter of the segmentation block is adapted to the inner diameter of the trachea.

[0014] Preferably, a plurality of exhaust holes are evenly arranged on the fan blades.

[0015] Preferably, the inner wall diameter of the convergent tube 1 gradually decreases in the direction from the mixing pipe to the mixing pipe to form a throat structure, and the inner wall diameter of the convergent tube 2 gradually increases in the direction from the mixing pipe to the convergent tube 2.

[0016] Beneficial effects:

[0017] In the present invention, more fine air is formed after the air is cut by the dividing block 1 and the dividing block 2, and the fan blades are rotated under the drive of the water flow. The rotation of the fan blades further mixes the air and the water, thereby avoiding the problem of uneven distribution of bubbles. Cutting the air can not only increase the air pressure so that the air can fully contact the water, but also make the air more evenly distributed, thereby avoiding the problem of uneven distribution of bubbles caused by different areas of uneven air distribution and different degrees of contact with water.

[0018] The fan blades of the present invention rotate by driving the rotating block to rotate through the protrusions, and then drive the guide blades to rotate through the fixed block. With the rotation of the fan blades and the flow of water, the ozone in the fan blades is quickly and evenly discharged from the exhaust holes to mix with the bubble water, thereby avoiding the problem of uneven ozone distribution caused by the mixing of ozone with water in one direction. At the same time, the water flow direction is the same as the ozone discharge direction of the exhaust hole, which not only avoids the problem that the ozone cannot be discharged from the exhaust hole due to the impact of the water flow, but also accelerates the emission of ozone.

[0019] When the water flow rate or flow rate increases, the rotation speed of the fan blades will also increase. At the same time, the fan blades will also start to drive the telescopic rod to contract, so that the two magnet blocks begin to approach each other. The increase in the rotation speed of the fan blades ensures that the mixing effect of the bubble water and ozone is stable and sufficient. At the same time, the contraction of the telescopic rod drives the connecting rod to move toward the rotating rod through the rope, and the movement of the rotating rod drives the dividing block 1 to rotate and gradually change from a vertical state to a horizontal state; during the rotation of the dividing block 1, the degree of cutting of the air by the dividing block 1 and the dividing block 2 is gradually increased, the air diversion is more, the pressure is also greater, and the degree of uniformity of mixing with water also increases accordingly; when the water flow rate or flow rate increases, the attraction of the stirring pipe to the air will also increase accordingly; the faster the rotation speed of the fan blades, the faster and more volume of ozone entering the fan blades will also increase accordingly, which ensures that when the flow rate or flow rate of the shower water flow changes, the degree of mixing of the air, ozone and water can be adjusted in real time along with the water flow rate to maintain uniform mixing.

[0020] The rotation process of the dividing block 1 of the present invention is converted into the movement process of the rotating rod and the driving block, and the driving block is always in contact with the rotating rod, and the contacting surfaces of the two are matching inclined surfaces, so that the rotation of the dividing block 1 is only regulated by the rope, and the air movement cannot significantly affect the rotation state of the dividing block 1. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0022] Figure 2 It is a structural schematic diagram of the main device of the present invention.

[0023] Figure 3 It is a schematic diagram of the structure of the mixing section and the ozone regulating section of the present invention.

[0024] Figure 4 The structure of the air conditioning unit of the present invention is shown in FIG. Figure 1 .

[0025] Figure 5 The structure of the air conditioning unit of the present invention is shown in FIG. Figure 2 .

[0026] Figure 6 It is a structural schematic diagram of a dividing block of the present invention in a horizontal state.

[0027] like Figure 1-6 As shown: 1. fluid pipeline; 2. zoom-in tube 1; 3. stirring pipeline; 4. zoom-in tube 2; 5. nozzle; 6. air pipe; 7. mixing part; 71. telescopic rod; 72. fan blade; 73. exhaust hole; 74. protrusion; 75. rotating block; 76. magnet block; 77. base; 8. air conditioning part; 81. regulating block; 82. transmission block; 83. rotating rod; 84. connecting rod; 85. driving block; 86. dividing block 1; 87. dividing block 2; 88. rope; 89. guide block 1; 800. guide block 2; 9. ozone regulating part; 91. guide fan blade; 92. transmission part; 93. conduit; 94. fixing tube; 100. air pump; 200. ozone generator; 300. deflector cover. DETAILED DESCRIPTION

[0028] The preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings, so that it is easy for those skilled in the art to implement these embodiments. However, the present invention can also be implemented in various different forms, so the present invention is not limited to the embodiments described below.

[0029] like Figure 1-2 As shown, a shower head for efficiently generating microbubbles comprises: a fluid pipeline 1, a convergent-convex tube 1 2, a mixing pipeline 3, a convergent-convex tube 2 4, a nozzle 5, an air pipe 6, a mixing part 7, an air conditioning part 8, an ozone conditioning part 9, an air pump 100, an ozone generator 200, and a flow guide cover 300;

[0030] The fluid pipeline 1 is connected to an external water pipe during implementation to guide water to the fluid pipeline 1 and the reducing section 1 2;

[0031] The convergent-divergent tube 1 2, the stirring pipe 3, and the convergent-divergent tube 2 4 are connected in sequence, and the inner wall diameters of the tubes from the convergent-divergent tube 1 2 to the stirring pipe 3 gradually decrease to form a throat structure; when water is introduced into the fluid pipeline 1, the stirring pipe 3 can generate adsorption force to draw the air in the air pipe 6 to flow into the stirring pipe 3;

[0032] The inner wall diameter of the pipe gradually increases from the mixing pipe 3 to the convergent-divergent pipe 2 4. The convergent-divergent pipe 1 2 is connected to the fluid pipe 1, and the convergent-divergent pipe 2 4 is connected to the nozzle 5. This allows the water introduced into the fluid pipe 1 to be accelerated through the convergent-divergent pipe 1 2, mixed with air in the mixing pipe 3, mixed with ozone in the convergent-divergent pipe 2 4, and finally sprayed out from the hole on the nozzle 5.

[0033] The two ends of the air pipe 6 are respectively connected to the stirring pipe 3 and the air pump 100, and the external air can enter the stirring pipe 3 through the air pipe 6 under the drive of the air pump 100;

[0034] The mixing part 7 is arranged in the convergent-divergent tube 2 4;

[0035] The air conditioning unit 8 is arranged on the air pipe 6;

[0036] The ozone regulating part 9 is connected to the flow guide cover 300 and the mixing part 7;

[0037] The air pump 100 is arranged at one end of the air pipe 6 away from the stirring pipe 3;

[0038] The ozone generator 200 is arranged on the stirring pipe 3 through a connecting rod;

[0039] The deflector 300 is a hollow structure, and one end with a larger radius is connected to the ozone generator 200;

[0040] like Figure 3 As shown, the mixing section 7 includes: a telescopic rod 71, a fan blade 72, an exhaust hole 73, a protrusion 74, a rotating block 75, a magnet block 76, and a base 77;

[0041] The telescopic rod 71 is rotatably arranged on the base 77 through a rotating bearing, and a protrusion 74 is fixedly arranged on the output end of the telescopic rod 71, and the protrusion 74 can cooperate with the bayonet on the rotating block 75, so that the rotation of the telescopic rod 71 can drive the rotating block 75 to rotate together through the protrusion 74, and at the same time, the movement of the protrusion 74 will not drive the rotating block 75 to move, that is, the protrusion 74 can only transmit the rotation state to the rotating block 75;

[0042] The central axis of the telescopic rod 71 is the same as the central axis of the zoom tube 24;

[0043] The fan blade 72 is a hollow structure and is arranged on the output end of the telescopic rod 71 away from the nozzle 5. The fan blade 72, the telescopic rod 71 and the base 77 are connected;

[0044] The number of the exhaust holes 73 is multiple and evenly distributed on one side of the fan blade 72 close to the base 77;

[0045] The rotating block 75 is fixedly connected to the inner wall surface of the zoom tube 2 4 through the rotating bearing on the side close to the fan blade 72, and the rotating block 75 can rotate on the inner wall surface of the zoom tube 2 4; the rotating block 75 is also sleeved on the outside of the telescopic rod 71, and a notch is provided on the rotating block 75 to match the protrusion 74 on the telescopic rod 71;

[0046] The transmission part 92 is provided with a belt transmission structure which is sleeved and fixed on the arc surface of the rotating block 75. In the specific implementation, the rotation of the rotating block 75 can drive the belt transmission structure inside the transmission part 92 to rotate together;

[0047] The magnet blocks 76 are two in number and are relatively arranged at the horizontally movable output end of the telescopic rod 71 and fixed at the tail end of the base 77; the two magnet blocks 76 repel each other, so that the fan blades 72 are always driven by the driving force to move away from the base 77;

[0048] The base 77 is a hollow structure connected to the fixed tube 94, and the base 77 is fixed in the zoom tube 24;

[0049] like Figure 3 As shown, the ozone regulating part 9 includes: a guide blade 91, a transmission part 92, a conduit 93, and a fixing tube 94;

[0050] The guide blade 91 is arranged on the transmission part 92, and the central axis of the guide blade 91 is the same as the central axis of the air guide cover 300;

[0051] The transmission part 92 is a hollow structure that penetrates the air guide cover 300 and the zoom tube 24. A belt transmission structure is provided inside the transmission part 92. Under the linkage of this structure, the rotation state of the rotating block 75 can be transmitted to the air guide blade 91. The air guide blade 91 rotates to generate a driving force pointing to the direction of the fixed cylinder 94.

[0052] The conduit 93 is in communication with the air guide cover 300 and the fixing tube 94;

[0053] like Figure 4-5 As shown, the air conditioning unit 8 includes: an adjusting block 81, a transmission block 82, a rotating rod 83, a connecting rod 84, a driving block 85, a dividing block 1 86, a dividing block 2 87, a rope 88, a guide block 1 89, and a guide block 2 800;

[0054] The connecting rod 84 is disposed in a slideway on the outer wall of the air pipe 6 close to the base 77, and the connecting rod 84 can move in the slideway on the outer wall of the air pipe 6;

[0055] The transmission block 82 is connected to the adjustment block 81 through a connecting rod. The rotating rod 83 is a rotating rod with threads on the surface. The inner wall of the transmission block 82 is provided with matching threads. The two are connected through threads.

[0056] The adjusting block 81 is rotatably arranged on the air pipe 6 through a rotating bearing, and the adjusting block 81 penetrates the wall of the air pipe 6 and is connected to the dividing block 1 86; a worm spring is arranged at the connection between the adjusting block 81 and the air pipe 6, and under the action of the worm spring, the dividing block 1 86 is always driven by the adjusting block 81 to maintain a driving force in a vertical state;

[0057] The dividing block 86 is circular and fixedly arranged on the adjusting block 81 and is located inside the trachea 6; the diameter of the dividing block 86 is approximately the same as the inner diameter of the trachea 6, and the two can fit together; the dividing block 86 is provided with a plurality of evenly distributed air guide holes to cut and divert the air;

[0058] The driving block 85 is arranged on one side of the connecting rod 84 close to the rotating rod 83, and the driving block 85 is perpendicular to the connecting rod 84; the driving block 85 is always in contact with the rotating rod 83, and the contacting surfaces of the two are matching inclined surfaces, so that when the rotating rod 83 is limited, the rotating rod 83 can only move but not rotate;

[0059] The second segmentation block 87 is formed by a plurality of cutting cylinders arranged at equal intervals and arranged on the inner wall of the air pipe 6. The second segmentation block 87 is located between the first segmentation block 86 and the mixing pipe 3.

[0060] The two ends of the rope 88 are connected to the connecting rod 84 and the magnet block 76 at the output end of the telescopic rod 71; the rope 88 is nested inside the guide block 1 89 and the guide block 2 800, and the guide block 1 89 and the guide block 2 800 mainly play a guiding role for it;

[0061] The guide block 1 89 and the guide block 2 800 are hollow structures and are arranged on the convergent tube 2 4 .

[0062] Working principle of the present invention:

[0063] In the specific implementation process, the operator first connects the fluid pipeline to the external water pipe, so that the water in the fluid pipeline 1 is accelerated through the convergent pipe 1 2, mixed with air through the mixing pipe 3, mixed with ozone through the convergent pipe 2 4, and finally sprayed out from the hole on the nozzle 5;

[0064] The throat structure formed by the convergent-divergent tube 2 and the stirring pipe 3 increases the flow rate of water and reduces the pressure. The fine air with higher pressure can make the air in the air pipe 6 more easily blend into the water, thereby quickly forming microbubble water.

[0065] After the air in the air pipe 6 is cut by the dividing block 1 86 and the dividing block 2 87, more fine air will be formed, which can not only increase the air pressure so that the air can fully contact with the water, but also make the air more evenly distributed, avoiding the problem of uneven distribution of bubbles caused by uneven air distribution and different degrees of contact with water in different areas;

[0066] The bubble water initially formed in the stirring pipe 3 will quickly move toward the fan blade 71 in the convergent pipe 2 4 and drive it to rotate. The rotation of the fan blade 71 further mixes the air and water to avoid the problem of uneven distribution of bubbles.

[0067] The blade 71 rotates through the protrusion 74 to drive the rotating block 75 to rotate, and the rotating block 75 rotates through the belt transmission structure inside the transmission part 92 to drive the guide blade 91 to rotate. The ozone generated in the ozone generator 200 then enters the base 77 through the conduit 93 and the fixed cylinder 94 under the drive of the guide blade 91, and finally enters the blade 72 through the base 77;

[0068] As the fan blades 72 rotate and the water flows, the ozone in the fan blades 72 is quickly and evenly discharged from the exhaust holes 73 to mix with the bubble water, thereby avoiding the problem of uneven ozone distribution caused by the mixing of ozone with water in one direction. At the same time, the water flow direction is the same as the ozone discharge direction of the exhaust holes 73, which can not only avoid the problem that the ozone cannot be discharged from the exhaust holes 73 due to the impact of the water flow, but also accelerate the discharge of ozone.

[0069] When the water flow rate or flow velocity increases during specific implementation, the rotation speed of the fan blade 71 will also increase to ensure the stability and fullness of the bubble water ozone mixing effect, and at the same time, the fan blade 72 also begins to drive the telescopic rod 71 to contract so that the two magnet blocks 76 begin to approach each other; the contraction of the telescopic rod 71 drives the connecting rod 84 to move toward the rotating rod 83 through the rope 88, and the rotating rod 83 is squeezed and moves toward the transmission block 82, and the movement of the rotating rod 83 drives the transmission block 82 and the adjusting block 81 to overcome the spiral spring force between the adjusting block 81 and the air pipe 6 to rotate, and the rotation of the transmission block 82 drives the dividing block 86 to rotate, and the air pipe 6 gradually changes from a vertical state to a horizontal state. Figure 5 Transformed into Figure 6 ;

[0070] When the water flow inside the zoom tube 2 and the air flow inside the air pipe 6 stop, the telescopic rod 71 returns to the telescopic state due to the mutual repulsion of the two magnet blocks 76, and the rope 88 is released accordingly, and the driving block 85 can also return to the direction away from the rotating rod 83;

[0071] Afterwards, the dividing block 1 86 rotates under the action of the worm spring between the adjusting block 81 and the air pipe 6 to restore the vertical state; because the rotating rod 83 and the inclined surface of the driving block 85 are in contact with each other, the adjusting block 81 rotates under the action of the worm spring to drive the rotating rod 83 to reset, and the rotating rod 83 cannot rotate with the adjusting block 81, and can only move toward the driving block 85, and the rotating rod 83 moves to squeeze the driving block 85 to reset the driving block 85 upward;

[0072] When the rotating rod 83 moves to squeeze the driving block 85 to reset the driving block 85 upward and the rope 88 pulls the connecting rod 84 toward the rotating rod 83, the rotating rod 83 is always in contact with the inclined surface of the driving block 85, ensuring that the rotating rod 83 cannot rotate with the adjusting block 81 and can only move.

[0073] During the rotation of the dividing block 1 86, the dividing block 1 and the dividing block 2 87 gradually increase the degree of cutting of the air, the air diversion is more, the pressure is greater, and the degree of mixing with water is also increased; when the water flow rate or flow velocity increases, the attraction of the stirring pipe 3 to the air will also increase; the rotation speed of the fan blade 72 is accelerated, so that the speed and volume of ozone entering the fan blade 72 will also increase, which ensures that when the flow rate or flow velocity of the shower water changes, the degree of mixing of air, ozone and water can be adjusted in real time with the water flow rate to maintain uniform mixing;

[0074] By converting the rotation process of the dividing block 86 into the movement process of the rotating rod 83 and the driving block 85, and the driving block 85 is always in contact with the rotating rod 83, the contact surfaces of the two are matching inclined surfaces, so that the rotation of the dividing block 86 will only be regulated by the rope 88, and the air movement cannot significantly affect the rotation state of the dividing block 86.

Claims

1. A shower head for efficiently generating microbubbles, comprising a fluid pipeline (1), a convergent-divergent tube 1 (2), a stirring pipeline (3), a convergent-divergent tube 2 (4), a nozzle (5), an air pipe (6), a mixing part (7), an air conditioning part (8), an ozone conditioning part (9), an air pump (100), an ozone generator (200), and a flow guide cover (300), wherein the fluid pipeline (1), the convergent-divergent tube 1 (2), the stirring pipeline (3), and the convergent-divergent tube 2 (4) are connected in sequence, and the convergent-divergent tube 2 (4) is connected to the nozzle (5), and characterized in that: The two ends of the air pipe (6) are respectively connected to the stirring pipe (3) and the air pump (100); the mixing part (7) is arranged in the second convergent tube (4); the air conditioning part (8) is arranged on the air pipe (6); the mixing part (7) comprises: a telescopic rod (71), a fan blade (72), an exhaust hole (73), a protrusion (74), a rotating block (75), a magnet block (76), and a base (77); the telescopic rod (71) is rotatably arranged on the base (77) through a rotating bearing; the base (77) is fixed in the second convergent tube (4); the fan blade (72) is a hollow structure and is arranged in the telescopic rod (71); At the end of the retractable rod (71), a protrusion (74) is fixedly provided on the output end of the telescopic rod (71), and the protrusion (74) can be matched with a bayonet on a rotating block (75). The rotating block (75) is sleeved outside the telescopic rod (71), and a notch matching the protrusion (74) is provided on the rotating block (75). The rotation of the rotating block (75) can drive the ozone regulating part (9) to rotate together. The ozone regulating part (9) is connected to the air guide cover (300) and the mixing part (7), and the extension and retraction of the telescopic rod (71) drives the air regulating part (8) to regulate the air in the stirring pipe (3).

2. A shower head for efficiently generating microbubbles according to claim 1, characterized in that: The air conditioning unit (8) comprises: an adjusting block (81), a transmission block (82), a rotating rod (83), a connecting rod (84), a driving block (85), a dividing block 1 (86), a dividing block 2 (87), a rope (88), a guide block 1 (89), and a guide block 2 (800); the adjusting block (81) is rotatably arranged on the air pipe (6) via a rotating bearing; the adjusting block (81) penetrates the wall of the air pipe (6) and is connected to the dividing block 1 (86); the transmission block (82) is connected to the adjusting block (81) via a connecting rod; the rotating rod (83) is internally threadedly connected to the transmission block (82); The driving block (85) is in contact with one side of the rotating rod (83), the driving block (85) is perpendicular to the connecting rod (84), the connecting rod (84) is slidably arranged on one side of the outer wall of the air pipe (6), a rope (88) is arranged at one end of the connecting rod (84), and the other end of the rope (88) is connected to the telescopic rod (71), the dividing block 1 (86) is circular and fixedly arranged on the adjusting block (81), and is located inside the air pipe (6), the dividing block 2 (87) is formed by a plurality of cutting cylinders arranged at equal intervals and arranged on the inner wall surface of the air pipe (6), and the dividing block 2 (87) is located between the dividing block 1 (86) and the stirring pipe (3).

3. A shower head for efficiently generating microbubbles according to claim 2, characterized in that: A spiral spring is provided at the connection portion between the regulating block (81) and the air pipe (6).

4. A shower head for efficiently generating microbubbles according to claim 2, characterized in that: The driving block (85) is always in contact with the rotating rod (83), and the contacting surfaces of the two are matching inclined surfaces.

5. A shower head for efficiently generating microbubbles according to claim 2, characterized in that: A magnet block (76) is provided on the horizontally movable output end of the telescopic rod (71) and the tail end fixed to the base (77), respectively, and the two magnet blocks (76) repel each other.

6. A shower head for efficiently generating microbubbles according to claim 5, characterized in that: The two ends of the rope (88) are connected to the connecting rod (84) and the magnet block (76) at the output end of the telescopic rod (71). The rope (88) is nested inside the guide block 1 (89) and the guide block 2 (800). The guide block 1 (89) and the guide block 2 (800) mainly play a guiding role. The guide block 1 (89) and the guide block 2 (800) are hollow structures and are arranged on the zoom tube 2 (4).

7. A shower head for efficiently generating microbubbles according to claim 1, characterized in that: The ozone regulating part (9) comprises: a guide blade (91), a transmission part (92), a conduit (93), and a fixed cylinder (94); the guide blade (91) is arranged on the transmission part (92); the central axis of the guide blade (91) is the same as the central axis of the guide cover (300); the transmission part (92) is a hollow structure that penetrates the guide cover (300) and the second zoom tube (4); a belt transmission structure is arranged inside the transmission part (92) and is sleeved and fixed on the arc surface of the rotating block (75); the conduit (93) is connected to the guide cover (300) and the fixed cylinder (94); the base (77) is a hollow structure that is connected to the fixed cylinder (94).

8. A shower head for efficiently generating microbubbles according to claim 2, characterized in that: The diameter of the dividing block 1 (86) is adapted to the inner diameter of the trachea (6).

9. A shower head for efficiently generating microbubbles according to claim 2, characterized in that: A plurality of exhaust holes (73) are evenly arranged on the fan blade (72).

10. A shower head for efficiently generating microbubbles according to claim 1, characterized in that: The inner wall diameter of the convergent tube 1 (2) to the mixing pipe (3) gradually decreases to form a throat structure, and the inner wall diameter of the convergent tube 2 (4) gradually increases from the mixing pipe (3) to the mixing pipe.

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