Gas-liquid mixed water dental floss

Abstract

The utility model provides a gas-liquid mixed water dental floss which comprises an outer shell provided with a containing space, the outer shell is connected with a spray head used for spraying out water flow, a water storage tank is arranged in the outer shell, a spherical pump is further arranged in the outer shell, the spherical pump is provided with a liquid inlet and a liquid outlet, the liquid inlet is connected with the water storage tank, and the liquid outlet is connected with the spray head; a gas inlet nozzle connected with the liquid inlet is further arranged in the outer shell, a gas flow channel is formed in the gas inlet nozzle, the gas inlet end of the gas flow channel is communicated with external gas, and the gas exhaust end of the gas flow channel is communicated with the interior of the liquid inlet; according to the gas-liquid mixed water dental floss provided by the utility model, two media, namely liquid and gas, can be sucked simultaneously, air enters water to form bubbles, the bubbles and the liquid are mixed and then sprayed onto teeth through the spray head, and the teeth can be effectively removed by impact force generated by instant explosion after the bubbles are in contact with the teeth; residues on the surfaces of the teeth and between the teeth can be effectively removed after the bubbles are exploded.

Description

TECHNICAL FIELD

[0001] The utility model relates to oral cavity tooth cleaning device, especially in a kind of gas-liquid mixed water floss. BACKGROUND

[0002] Water floss is a kind of auxiliary tool for cleaning oral cavity, and residual food in teeth or interdental space is removed by water flow with pressure as power. Using water floss, food residues and harmful bacteria in tooth gap and gum line can be effectively removed, and gum can be protected, and bacteria reproduction in oral cavity can be reduced, and occurrence of dental caries, dental calculus and periodontitis can be prevented. The cleaning degree of interdental residues and plaque bacteria is an important technical index of water floss. At present, in order to improve the cleaning degree, pressure and flow are generally increased. The higher the water outlet pressure of nozzle and the larger the flow, the easier the residues in teeth and interdental space are removed, and the more obvious the cleaning effect is. However, the higher the pressure is, the greater the damage to gum is, and the stronger the pain is. The larger the flow per minute is, the greater the water demand is, and the larger the water tank is, so that the volume of water floss is increased, and carrying is inconvenient. For the same water tank, the cleaning time is insufficient due to the increase of flow, so that the comfort during use is reduced while the cleaning effect is improved, and user experience is seriously affected. SUMMARY

[0003] The utility model provides a kind of gas-liquid mixed water floss, to solve the problem that current pure reliance on increasing pressure and increasing flow to improve cleaning effect, it will reduce the comfort during use, and then seriously affect user experience.

[0004] The technical scheme of the utility model is as follows:

[0005] A kind of gas-liquid mixed water floss, including the shell body being provided with containing space, the shell body is connected with the nozzle for spraying water flow, the shell body is equipped with water storage tank inside, the shell body is also equipped with spherical pump inside, the spherical pump has liquid inlet and liquid outlet, the liquid inlet is connected with the water storage tank, the liquid outlet is connected with the nozzle;Gas inlet is arranged on the liquid inlet, the gas inlet is equipped with airflow channel inside, the gas inlet end of the airflow channel is communicated with external gas, and the exhaust end of the airflow channel is communicated with the liquid inlet inside liquid passage.

[0006] Air inlet is formed on the shell body, and the air inlet is communicated with the gas inlet end of the airflow channel by communication pipe.

[0007] The both ends of the communication pipe are respectively fixed with first connecting seat and second connecting seat, the first connecting seat is detachably connected with the gas inlet, and the second connecting seat is detachably connected with the shell body.

[0008] The exhaust direction of the exhaust end of the air flow passage is at an angle to the liquid inlet direction of the liquid inlet passage.

[0009] The spherical pump comprises a stator, a spherical inner cavity is arranged in the stator, a liquid inlet and a liquid outlet are arranged on the stator and communicate with the spherical inner cavity, a spherical rotor is arranged in the spherical inner cavity, and the spherical rotor comprises:

[0010] A piston is arranged, the piston has a spherical top surface which is matched with the spherical inner cavity and forms a sealing dynamic cooperation, the piston further has two side surfaces which are at an angle, and a protruding shoe is arranged at the center of the spherical top surface of the piston;

[0011] A rotary disc is arranged, the rotary disc has a spherical bottom surface which is matched with the spherical inner cavity and forms a sealing dynamic cooperation, a rotary disc shaft is protruded at the center of the lower end spherical bottom surface of the rotary disc, the central axis of the rotary disc shaft passes through the spherical center of the rotary disc, and the rotary disc and the piston are connected through a cylindrical hinge;

[0012] A shoe rotary sleeve is arranged, the shoe rotary sleeve is arranged in a rotary sleeve hole arranged on the spherical inner cavity to form a rotary cooperation, a sliding groove is arranged at the lower end of the shoe rotary sleeve, the shoe arranged at the end of the piston is arranged in the sliding groove, and the two parallel side surfaces of the shoe are matched with the two side surfaces of the sliding groove to form a sliding cooperation; the two parallel side surfaces of the shoe are symmetrically arranged on both sides of the axis of the shoe rotary sleeve; the central axis of the shoe rotary sleeve passes through the spherical center of the spherical inner cavity, and an included angle is formed between the central axis of the rotary disc shaft and the central axis of the shoe rotary sleeve;

[0013] The liquid inlet and the liquid outlet arranged on the stator are the liquid inlet and the liquid outlet of the spherical pump; when the rotary disc shaft drives the spherical rotor to rotate, the shoe reciprocally slides in the sliding groove, and two volume variable cavities with alternating volumes are formed between the upper end surface of the rotary disc, the two side surfaces of the piston and the inner spherical surface of the spherical inner cavity.

[0014] The stator comprises:

[0015] A cylinder body is arranged, a hemispherical inner cavity I is arranged at the upper portion of the cylinder body;

[0016] A cylinder cover is arranged, a hemispherical inner cavity II is arranged at the lower portion of the cylinder cover, the hemispherical inner cavity I and the hemispherical inner cavity II cooperatively form a spherical inner cavity, a liquid inlet and a liquid outlet are arranged on the cylinder cover and communicate with the spherical inner cavity, the liquid inlet and the liquid outlet arranged on the cylinder cover are the liquid inlet and the liquid outlet of the spherical pump, a rotary sleeve hole which is matched with the shoe rotary sleeve is arranged on the cylinder cover, and the cylinder cover and the cylinder body are fixedly connected.

[0017] The above-mentioned cylindrical hinge is a C-type cylindrical hinge; a convex piston pin seat is arranged at the lower part of the two side surfaces of the piston, and the end surfaces of the piston pin seat are spherical surfaces matched with the spherical inner cavity; a disc pin seat matched with the piston pin seat is arranged at the center of the top surface of the disc, and the piston pin seat and the disc pin seat form a C-type cylindrical hinge.

[0018] The utility model discloses beneficial effect has:

[0019] The utility model provides a kind of gas-liquid mixed water dental floss, air inlet nozzle is provided on the liquid inlet of spherical pump, liquid passes into by liquid inlet channel in liquid inlet after spherical pump starts, gas is inhaled into liquid inlet channel under the action of negative pressure simultaneously, gas and liquid enter into spherical pump together by liquid inlet channel and mix in pump body and form liquid with bubble, bubble mixes with liquid and is ejected to tooth by spray head after pump pressure boosting, bubble is instantaneously burst after contact with tooth, the impact force generated by bubble instantaneously burst under pressure can effectively remove dental plaque bacteria and interdental residue on the surface of tooth;Because bubble instantaneously burst will produce impact force, therefore without needing too high pressure and flow just can effectively remove interdental residue, reduce pressure and flow while guaranteeing cleaning effect will improve user use comfort, simultaneously improve the cleaning time of once water storage. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 It is a schematic diagram of a kind of gas-liquid mixed water dental floss for the utility model embodiment 1;

[0021] Figure 2 It is Figure 1 Schematic diagram of spherical pump in it;

[0022] Figure 3 It is Figure 2 A-A sectional view schematic diagram in it;

[0023] Figure 4 It is Figure 3 I local enlarged schematic diagram in it;

[0024] Figure 5 It is the structural schematic diagram of piston;

[0025] Figure 6 It is the structural schematic diagram of disc;

[0026] Figure 7 It is the structural schematic diagram of sliding shoe rotating sleeve;

[0027] Figure 8 It is the internal structure schematic diagram of cylinder cover;

[0028] Figure 9 It is the three-dimensional structure schematic diagram of cylinder cover;

[0029] Figure 10 A schematic view of a gas-liquid mixed water floss provided for the embodiment 2 of the utility model;

[0030] Figure 11 A schematic view of the connection of the communication pipe with the first connecting seat and the second connecting seat in the embodiment 2.

[0031] Mark explanation:

[0032] 1, the outer shell; 101, the air inlet; 2, the spray head; 3, the water storage tank; 4, the cylinder body; 5, the cylinder cover; 501, the liquid inlet; 502, the liquid outlet; 503, the rotating sleeve hole; 504, the liquid inlet groove; 505, the liquid outlet groove; 6, the piston; 601, the piston pin seat; 602, the sliding shoe; 7, the rotating disc; 701, the rotating disc pin seat; 702, the rotating disc shaft; 8, the sliding shoe rotating sleeve; 801, the sliding groove; 802, the process hole; 9, the air inlet nozzle; 901, the airflow channel; 10, the communication pipe; 11, the first connecting seat; 12, the second connecting seat; 13, the motor; 14, the support; 15, the liquid inlet pipe; 16, the sealing plug; 17, the liquid outlet pipe; 100, the working chamber. Specific implementation

[0033] The specific implementation of the utility model is described in detail below, Figures 1 to 11 But it should be understood that the protection scope of the utility model is not limited by the specific implementation.

[0034] Embodiment 1:

[0035] The utility model embodiment 1 provides a kind of gas-liquid mixed water floss, as Figure 1 As shown in the schematic view of a gas-liquid mixed water floss provided for the embodiment 1. A kind of gas-liquid mixed water floss, including outer shell 1, outer shell 1 inside is provided with containing space, outer shell 1 upper end is connected with the spray head 2 for spraying water flow, outer shell 1 inside is equipped with water storage tank 3, and water storage tank 3 is fixed in outer shell 1 inside.

[0036] Meanwhile, outer shell 1 inside is also equipped with spherical pump, spherical pump is fixed on support 14, support 14 is fixed in outer shell 1 inside, and spherical pump has liquid inlet 501 and liquid outlet 502;The liquid inlet 501 of spherical pump is detachably connected with the upper end of liquid inlet pipe 15, the lower end of liquid inlet pipe 15 passes through the through hole of the upper end of water storage tank 3 and enters the inside of water storage tank 3, and the lower end of liquid inlet pipe 15 and the through hole of the upper end of water storage tank 3 are equipped with sealing plug 16 for avoiding water leakage, the liquid outlet 502 of spherical pump is connected with spray head 2 by liquid outlet pipe 17, and spray head 2 is connected on the upper end of outer shell 1 by quick plug.

[0037] An air inlet 9 is provided on the liquid inlet 501 of the ball pump. An air inlet 9 has an airflow channel 901 inside. The air inlet end of the airflow channel 901 is connected to the external gas, and the air outlet end of the airflow channel 901 is connected to the liquid inlet channel inside the liquid inlet 501.

[0038] like Figure 2 As shown, Figure 1 A schematic diagram of a specific structure of a spherical pump; such as Figure 3 As shown, Figure 2 Schematic diagram of AA section; The spherical pump includes a stator, which includes a cylinder body 4 and a cylinder head 5. The upper part of the cylinder body 4 has a hemispherical inner cavity I, and the lower part of the cylinder head 5 has a hemispherical inner cavity II. The hemispherical inner cavity I and the hemispherical inner cavity II cooperate to form a spherical inner cavity.

[0039] like Figure 8 The diagram shown is a schematic representation of the internal structure of the cylinder head; as shown... Figure 9 The diagram shows a three-dimensional structure of the cylinder head. The cylinder head 5 is provided with an inlet 501 and an outlet 502 that communicate with the spherical inner cavity. The inlet 501 and outlet 502 on the cylinder head 5 are the inlet 501 and outlet 502 of the spherical pump. A rotating hole 503 adapted to the sliding shoe rotating sleeve 8 is provided on the hemispherical inner cavity II of the cylinder head 5. The central axis of the rotating hole 503 passes through the center of the hemispherical inner cavity II. At the same time, an inlet groove 504 and an outlet groove 505 are also provided on the hemispherical inner cavity II of the cylinder head 5. The inlet channel in the inlet 501 communicates with the inlet groove 504, and the outlet channel in the outlet 502 communicates with the outlet groove 505. The cylinder head 5 and the cylinder body 4 are fixedly connected. The method of fixing the cylinder head 5 and the cylinder body 4 can be selected according to the actual use. For example, screws can be used for fixing, or the cylinder body and the cylinder head can be fixedly connected by welding after being positioned by a positioning structure.

[0040] The cylinder head 5 is provided with a liquid inlet 501 and a liquid outlet 502 communicating with the spherical inner cavity. An air inlet 9 is provided on the liquid inlet 501 and is fixedly connected to the liquid inlet 501. An airflow channel 901 is provided inside the air inlet 9. The air inlet end of the airflow channel 901 communicates with external gas, and the air outlet end of the airflow channel 901 communicates with the interior of the liquid inlet 501. Figure 4 As shown, Figure 3 The enlarged schematic diagram of part I is the enlarged schematic diagram of part of the air intake 9.

[0041] Hemispherical inner cavity I and hemispherical inner cavity II cooperate to form a spherical inner cavity, within which a spherical rotor is housed. The spherical rotor includes a piston 6, a turntable 7, and a sliding shoe sleeve 8; as shown... Figure 5As shown in the structural diagram of the piston 6, the piston 6 has a spherical top surface which is matched with and forms a sealing dynamic cooperation with the spherical inner cavity provided in the stator; the piston 6 also has two angled side surfaces; a protruding shoe 602 is provided in the center of the spherical top surface of the piston 6, and the shoe 602 has two parallel working surfaces.

[0042] As shown in the structural diagram of the piston 6, the piston 6 has a spherical top surface which is matched with and forms a sealing dynamic cooperation with the spherical inner cavity provided in the stator; the piston 6 also has two angled side surfaces; a protruding shoe 602 is provided in the center of the spherical top surface of the piston 6, and the shoe 602 has two parallel working surfaces. Figure 6 As shown in the structural diagram of the piston 6, the piston 6 has a spherical top surface which is matched with and forms a sealing dynamic cooperation with the spherical inner cavity provided in the stator; the piston 6 also has two angled side surfaces; a protruding shoe 602 is provided in the center of the spherical top surface of the piston 6, and the shoe 602 has two parallel working surfaces.

[0043] As shown in the structural diagram of the piston 6, the piston 6 has a spherical top surface which is matched with and forms a sealing dynamic cooperation with the spherical inner cavity provided in the stator; the piston 6 also has two angled side surfaces; a protruding shoe 602 is provided in the center of the spherical top surface of the piston 6, and the shoe 602 has two parallel working surfaces. Figure 7 As shown in the structural diagram of the piston 6, the piston 6 has a spherical top surface which is matched with and forms a sealing dynamic cooperation with the spherical inner cavity provided in the stator; the piston 6 also has two angled side surfaces; a protruding shoe 602 is provided in the center of the spherical top surface of the piston 6, and the shoe 602 has two parallel working surfaces.

[0044] As shown in the structural diagram of the piston 6, the piston 6 has a spherical top surface which is matched with and forms a sealing dynamic cooperation with the spherical inner cavity provided in the stator; the piston 6 also has two angled side surfaces; a protruding shoe 602 is provided in the center of the spherical top surface of the piston 6, and the shoe 602 has two parallel working surfaces.

[0045] The cylindrical hinge in the embodiment is a C-type cylindrical hinge connection, and the piston pin seat 601 is protruding semicylindrical structure on the lower part of the two side surfaces of the piston 6, and the two ends of the semicylindrical structure are spherical surfaces. The rotary disc pin seat 701 is a semicylindrical hole structure on the upper end surface of the rotary disc 7, and the axis of the semicylindrical hole of the rotary disc pin seat 701 is parallel to the two side surfaces parallel to the slider shoe 602. The rotary disc pin seat 701 is matched with the piston pin seat 601, the protruding semicylindrical structure of the piston pin seat 601 is inserted into the semicylindrical hole of the rotary disc pin seat 701 to form a C-type cylindrical hinge connection, and a sealing dynamic fit is formed between the matching surfaces of the C-type cylindrical hinge connection.

[0046] The rotary disc shaft 702 is connected with the motor 13, and in the specific work, the rotary disc shaft 702 is driven to rotate by the motor 13, the rotary disc shaft 702 drives the rotary disc 7, the piston 6 and the slider shoe rotating sleeve 8 to rotate synchronously, that is, the spherical rotor rotates in the spherical inner cavity. When the rotary disc shaft 702 drives the rotary disc 7 and the piston 6 to rotate, the slider shoe 602 reciprocates in the sliding groove 801, and the piston 6 and the rotary disc 7 swing relative to each other, thereby forming two working chambers 100 with alternating volumes between the upper end surface of the rotary disc 7 and the two side surfaces of the piston 6 and the spherical inner cavity.

[0047] When one of the working chambers 100 needs to suck liquid, the liquid inlet 501 provided on the cylinder cover 5 is connected, and at the same time, the gas inlet nozzle 9 is provided on the liquid inlet 501 of the spherical pump. After the spherical pump is started, liquid is sucked into the liquid inlet 501 through the negative pressure effect, the liquid enters the liquid inlet channel in the liquid inlet 501, enters the liquid inlet groove 504 through the liquid inlet groove 504, and enters the working chamber 100 through the liquid inlet groove 504. At the same time, under the action of negative pressure, external gas is sucked into the liquid inlet 501 through the gas flow channel 901 in the gas inlet nozzle 9, the gas enters the liquid inlet channel in the liquid inlet 501, enters the liquid inlet groove 504 through the liquid inlet groove 504, and enters the working chamber 100 through the liquid inlet groove 504. The gas and liquid are mixed in the working chamber 100 of the spherical pump, the gas is mixed into the liquid to form liquid with bubbles; when the other working chamber 100 needs to compress and discharge liquid, the liquid discharge groove 505 provided on the semispherical inner cavity II of the cylinder cover 5 is connected, and the liquid discharge groove 505 is connected with the liquid discharge channel provided in the liquid discharge port 502; the bubbles contain pressure after being compressed in the pump body, the bubbles and the liquid are mixed and sprayed onto the teeth through the nozzle after being pressurized by the pump, and the bubbles with pressure are instantaneously burst after contacting the teeth. The impact force generated after the bubbles are instantaneously burst can effectively remove the dental plaque bacteria and interdental residues on the teeth.

[0048] Wherein, the rotary disc shaft 702 rotates one round, the rotary disc 7 and the piston 6 also rotate one round, the slide shoe 602 swings one time in the slide groove 801 set on the lower end surface of the slide shoe rotating sleeve 8, two working chambers 100 each occurs one complete liquid suction and air suction and liquid discharge and air discharge process, the bubble and liquid mixture sucked through the liquid inlet 501 and liquid channel enters into the working chamber 100 through the liquid inlet groove 504, and the bubble and liquid mixture is discharged through the liquid discharge channel in the liquid discharge groove 14 and liquid discharge port 12 after being pressurized by the pump body.

[0049] The current gas-liquid mixed water dental floss generally directly sets the air inlet part on the nozzle, and drives the gas entering from the nozzle to be directly sprayed out while spraying water, but this way, the gas mixed in the liquid is less, and the number of bubbles formed is less; while the gas is sucked at the same time as the liquid is sucked in the gas-liquid mixed water dental floss provided in the embodiment, the gas and the liquid are fully mixed in the working chamber 100 and sprayed out through the nozzle after being pressurized by the pump, and a large number of dense bubbles with pressure sprayed out through the nozzle will be instantaneously burst after contacting the tooth surface or the blind area of the tooth, the impact force generated by the bubble burst can wash away the dirt on the tooth surface and the residual food residues between the teeth, and the dense bubbles and the liquid formed together contacting the tooth surface can make the impact process more gentle, so that the user will not feel pain due to the excessive impact force, and the user's use comfort can be improved.

[0050] Embodiment 2

[0051] The embodiment is based on embodiment 1, and the difference between the embodiment and embodiment 1 is that the air inlet 101 is set on the outer shell 1 in the embodiment, the air inlet 101 is communicated with the air inlet end of the airflow channel 901 through the communication pipe 10, and the air discharge direction of the air discharge end of the airflow channel 901 and the liquid inlet direction of the liquid inlet of the spherical pump are at a certain angle in the embodiment; as shown in Figure 10 , it is a schematic diagram of the gas-liquid mixed water dental floss provided in embodiment 2.

[0052] Preferably, the air discharge direction of the air discharge end of the airflow channel 901 is perpendicular to the liquid inlet direction of the liquid inlet channel in the liquid inlet of the spherical pump.

[0053] Preferably, the first connecting seat 11 and the second connecting seat 12 are respectively fixed at both ends of the communication pipe 10, as shown in Figure 11 , it is a schematic diagram of the connection of the communication pipe 10 and the first connecting seat 11 and the second connecting seat 12; the first connecting seat 11 is detachably connected with the air inlet nozzle 9, and the second connecting seat 12 is detachably connected with the outer shell, and the use of the first connecting seat 11 and the second connecting seat 12 can quickly detach and connect the communication pipe 10 with the air inlet nozzle 9 and the outer shell, so as to facilitate the replacement of the communication pipe 10.

[0054] Preferably, an external thread is formed on the outside of the air inlet nozzle 9, and an internal thread is formed on the inside of the first connecting seat 11, and the first connecting seat 11 is threadedly connected with the air inlet nozzle 9; the threadedly connection is one mode of detachable connection, and the first connecting seat 11 and the air inlet nozzle 9 are threadedly connected, so that the operation is simple and the installation efficiency is improved; the second connecting seat 12 is detachably connected with the inner wall of the outer shell by screws.

[0055] In the embodiment, the air inlet 101 is formed on the outer shell 1, and the air inlet 101 is connected with the airflow channel 901 through the communication pipe 10; the communication pipe 10 has two advantages, first, because the external gas of the outer shell 1 is sufficient, more gas is sucked under the negative pressure after the spherical pump rotates; second, if liquid backflow occurs, the backflow liquid will enter the communication pipe 10 through the airflow channel 901, and because the communication pipe 10 has a certain length, the backflow liquid will not be directly sprayed out, but will be temporarily stored in the communication pipe 10 and then enter the working chamber 100 in the next liquid suction process; meanwhile, the exhaust direction of the exhaust end of the airflow channel 901 is perpendicular to the liquid inlet direction of the liquid inlet of the spherical pump in the embodiment, which can further avoid liquid backflow.

[0056] Specifically, the working process of the gas-liquid mixed water dental floss in the embodiment is the same as that in embodiment 1, and will not be repeated here.

[0057] In summary, the utility model provides a kind of gas-liquid mixed water dental floss, by being provided with air inlet nozzle on the liquid inlet of spherical pump, liquid and gas are simultaneously sucked into spherical pump by negative pressure effect and mixed after spherical pump starts through liquid inlet channel, bubble and liquid are mixed and are sprayed on tooth by pump pressure after being sprayed on tooth by nozzle, bubble is instantaneously burst after contacting tooth, and the impact force generated after the instant burst of bubble under pressure can effectively remove dental plaque bacteria and interdental residue on the surface of tooth.

Claims

1. A gas-liquid mixed water floss, characterized by, The shell is provided with a containing space, and is connected with a nozzle for spraying water flow. The shell is internally provided with a water storage tank and a spherical pump. The spherical pump is provided with a liquid inlet and a liquid outlet. The liquid inlet is connected with the water storage tank, and the liquid outlet is connected with the nozzle. An air inlet nozzle is arranged on the liquid inlet. The air inlet nozzle is internally provided with an air flow channel. The air inlet end of the air flow channel is in communication with external air. The air outlet end of the air flow channel is in communication with a liquid inlet channel in the liquid inlet.

2. The gas-liquid mixed water floss according to claim 1, wherein An air inlet is arranged on the shell. The air inlet is in communication with the air inlet end of the air flow channel through a communication pipe.

3. The gas-liquid mixed water floss according to claim 2, wherein The two ends of the communication pipe are respectively fixed with a first connecting seat and a second connecting seat. The first connecting seat is detachably connected with the air inlet nozzle, and the second connecting seat is detachably connected with the shell.

4. The gas-liquid mixed water floss according to claim 1, wherein The air outlet direction of the air outlet end of the air flow channel is at a certain angle with the liquid inlet direction of the liquid inlet channel in the liquid inlet.

5. The gas-liquid mixed water floss according to claim 1, wherein The spherical pump comprises a stator. The stator is internally provided with a spherical inner cavity. The stator is provided with a liquid inlet and a liquid outlet which are in communication with the spherical inner cavity. The spherical inner cavity is internally provided with a spherical rotor. The piston has a spherical top surface which is matched with the spherical inner cavity and forms a sealing dynamic cooperation. The piston further has two side surfaces at a certain angle. A protruding shoe is arranged on the center of the spherical top surface of the piston. The rotating disc has a spherical bottom surface which is matched with the spherical inner cavity and forms a sealing dynamic cooperation. A rotating disc shaft is protruded on the center of the lower end spherical bottom surface of the rotating disc. The central axis of the rotating disc shaft passes through the spherical center of the rotating disc. The rotating disc and the piston are connected through a cylindrical hinge. The shoe rotating sleeve is arranged in the rotating sleeve hole arranged on the spherical inner cavity to form a rotating cooperation. A sliding groove is arranged on the lower end of the shoe rotating sleeve. The shoe arranged on the end of the piston is arranged in the sliding groove. The two parallel side surfaces of the shoe are matched with the two side surfaces of the sliding groove to form a sliding cooperation. The two parallel side surfaces of the shoe are symmetrically arranged on the two sides of the axis of the shoe rotating sleeve. The central axis of the shoe rotating sleeve passes through the spherical center of the spherical inner cavity. An included angle is formed between the central axis of the rotating disc shaft and the central axis of the shoe rotating sleeve. The liquid inlet and the liquid outlet arranged on the stator are the liquid inlet and the liquid outlet of the spherical pump. When the spherical rotor is rotated through the rotating disc shaft, the shoe reciprocally slides in the sliding groove to form two volume variable cavities between the upper end surface of the rotating disc, the two side surfaces of the piston and the inner spherical surface of the spherical inner cavity.

6. The gas-liquid mixed water floss according to claim 5, wherein The stator comprises: A cylinder body is provided with a hemispherical inner cavity I on the upper portion. The cylinder head is provided with a hemispherical inner cavity II in the lower part, the hemispherical inner cavity I and the hemispherical inner cavity II cooperate to form a spherical inner cavity, the cylinder head is provided with a liquid inlet and a liquid outlet which communicate with the spherical inner cavity, and the liquid inlet and the liquid outlet of the cylinder head are the liquid inlet and the liquid outlet of the spherical pump; the cylinder head is provided with a rotating sleeve hole which is matched with the sliding shoe rotating sleeve; the cylinder head and the cylinder body are fixedly connected.

7. The gas-liquid mixed water floss according to claim 5, wherein The cylindrical hinge is a C-type cylindrical hinge; the piston is provided with a protruding piston pin seat in the lower part of the two side surfaces, and the end surfaces of the piston pin seat are spherical surfaces which are matched with the spherical inner cavity; the rotating disc is provided with a rotating disc pin seat in the center of the top surface, the rotating disc pin seat is matched with the piston pin seat, and the piston pin seat and the rotating disc pin seat form a C-type cylindrical hinge.

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