Multifunctional high-pressure nanometer fog pressurization output system

Abstract

The utility model discloses a multifunctional high-pressure nanometer fog pressurization output system which structurally comprises a gas-liquid fusion bin, a liquid supply mechanism and a gas supply mechanism, Laval pipes are connected to the two sides of the gas-liquid fusion bin in a penetrating mode, connecting pipes are connected to the other ends of the Laval pipes on the two sides in a penetrating mode, the connecting pipe on one side is communicated with the liquid supply mechanism, and the connecting pipe on the other side is communicated with the gas supply mechanism. The connecting pipe on the other side is communicated with a gas supply mechanism, two sets of water supply pipes are arranged on the front side of the gas-liquid fusion bin in a penetrating mode, the upper end of one set of water supply pipes is communicated with a nanometer mist shower head, the upper end of the other set of water supply pipes is communicated with a second shower head, and the proportion of the throat diameter of the Laval pipe to the diffusion section is set to be 1: 4-1: 6. Laval pipes are arranged on the two sides of the gas-liquid fusion bin, so that the noise during use is reduced, the energy consumption of the system is reduced, the sound pollution during operation is reduced, and the use comfort of customers is improved. The utility model belongs to the field of cleaning machines, and particularly relates to a multifunctional high-pressure nanometer mist pressurization output system.

Description

Technical Field

[0001] This utility model belongs to the field of cleaning machines, specifically referring to a multifunctional high-pressure nano-mist pressurization output system. Background Technology

[0002] While existing nano-water mist output systems can meet users' cleaning needs to some extent, their design limitations generally result in high power consumption and noise levels, severely impacting the user experience. As consumers increasingly demand a higher quality of life, the market demand for low-noise, high-efficiency products is growing. Furthermore, the market lacks multi-functional high-pressure nano-mist pressurization output systems that integrate multiple functions, failing to meet diverse consumer needs, particularly in health and wellness.

[0003] Common improvement measures currently available include optimizing the water pump structure to reduce vibration and noise, and adjusting the motor speed to control power consumption. However, these methods often only partially alleviate the problem. For example, adding sound insulation materials can reduce noise but does not fundamentally solve the problem, or it may sacrifice some performance to achieve energy saving and noise reduction, resulting in a poor overall user experience. In addition, for nano-water mist output systems with low integration levels, adding extra functional modules usually leads to increased costs and technical complexity, making them less cost-effective. Utility Model Content

[0004] The technical problems to be solved by this utility model are high power, loud noise affecting customer experience, and relatively limited functionality.

[0005] To solve the above problems, the technical solution adopted by this utility model is as follows: The multifunctional high-pressure nanomist pressurization output system proposed by this utility model includes a gas-liquid fusion chamber, a liquid supply mechanism, and a gas supply mechanism. A Laval pipe is connected through both sides of the gas-liquid fusion chamber, and a connecting pipe is connected through the other end of each of the two Laval pipes. One connecting pipe is connected to the liquid supply mechanism, and the other connecting pipe is connected to the gas supply mechanism. A water outlet mechanism is provided through the front of the gas-liquid fusion chamber. The water outlet mechanism includes a first water supply pipe and a second water supply pipe. One end of the first water supply pipe is connected through the gas-liquid fusion chamber, and a third solenoid valve is provided at the connection point. The other end of the first water supply pipe is provided with a nanomist shower head. One end of the second water supply pipe is connected through the gas-liquid fusion chamber, and a fourth solenoid valve is provided at the connection point. The other end of the second water supply pipe is provided with a milk water shower head.

[0006] Furthermore, the ratio of the throat diameter to the diffuser section of the Laval tube is set to be between 1:4 and 1:6.

[0007] Furthermore, the liquid supply mechanism includes a diaphragm pump, one side of the connecting pipe is connected to one end of the diaphragm pump, and a pressure valve and a liquid flow meter are provided at the connection point. The other end of the diaphragm pump is provided as a liquid inlet, and a second solenoid valve is provided at the connection point between the liquid inlet and the diaphragm pump.

[0008] Furthermore, the air supply mechanism includes an air pump, and the connecting pipe on the other side is connected to one end of the air pump, with a check valve provided at the connection point. The other end of the air pump is provided as an air inlet, and a first solenoid valve is provided at the connection point between the air inlet and the air pump.

[0009] Furthermore, the gas-liquid fusion chamber, the liquid supply mechanism, and the gas supply mechanism are all fixedly installed on the inner side of the wall. The diaphragm pump and the air pump are provided with double-layer shock-absorbing pads at the wall mounting points. The double-layer shock-absorbing pads are made of high-performance rubber material with a thickness of 5-10mm.

[0010] Furthermore, the air pump is selected with a rated power of less than or equal to 250W, and the diaphragm pump is selected with a rated power of no more than 150W.

[0011] Furthermore, the nano-mist shower head uses a curved surface pressure-boosting shower head with an aperture of 0.2mm, and the second water supply pipe is made of rubber hose.

[0012] Furthermore, the second solenoid valve, diaphragm pump, pressure valve, air pump, and first solenoid valve are all connected to a main control panel, which contains a shared control chip and a power input source.

[0013] The beneficial effects of this utility model by adopting the above structure are as follows:

[0014] 1. The multifunctional high-pressure nanomist pressurization output system proposed in this solution reduces noise during use, lowers system energy consumption, reduces noise pollution during operation, and improves user comfort by installing Laval pipes on both sides of the gas-liquid fusion chamber and two layers of shock-absorbing pads at the installation points of the air pump and diaphragm pump.

[0015] 2. The multi-functional high-pressure nano-mist pressurization output system proposed in this solution adds a milk bath function, which not only enriches the functionality of the shower head but also enhances the product's market competitiveness. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0017] Figure 2 This is a schematic diagram of the workflow of this utility model.

[0018] The components include: 1. Gas-liquid fusion chamber; 2. Laval pipe; 3. Liquid supply mechanism; 301. Liquid inlet; 302. Second solenoid valve; 303. Diaphragm pump; 304. Pressure valve; 4. Air supply mechanism; 401. Air inlet; 402. First solenoid valve; 403. Air pump; 404. Check valve; 5. Liquid flow meter; 6. Connecting pipe; 7. Water outlet mechanism; 701. Third solenoid valve; 702. First water supply pipe; 703. Nano mist shower head; 704. Fourth solenoid valve; 705. Second water supply pipe; 706. Milk water shower head; 8. Main control panel.

[0019] The accompanying drawings are provided to further understand the present invention and form part of the specification. They are used together with the embodiments of the present invention to explain the present invention and do not constitute a limitation thereof. Detailed Implementation

[0020] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the protection scope of the present utility model.

[0021] like Figure 1-2 As shown, the present invention proposes a multifunctional high-pressure nanomist pressurization output system, including a gas-liquid fusion chamber 1, a liquid supply mechanism 3, and a gas supply mechanism 4. A Laval tube 2 is connected through both sides of the gas-liquid fusion chamber 1. The ratio of the throat diameter to the diffuser section of the Laval tube 2 is set between 1:4 and 1:6. A connecting pipe 6 is connected to the other end of each of the two Laval tubes 2. One connecting pipe 6 is connected to the liquid supply mechanism 3. The liquid supply mechanism 3 includes a diaphragm pump 303. One connecting pipe 6 is connected to one end of the diaphragm pump 303, and a pressure valve 304 and a liquid flow meter 5 are provided at the connection point. The liquid flow meter 5 is used to detect the water supply volume of the liquid supply mechanism 3. The other end of the diaphragm pump 303 is designated as an inlet 301. A second solenoid valve 302 is provided at the connection point between the inlet 301 and the diaphragm pump 303.

[0022] like Figure 1-2 As shown, the other connecting pipe 6 is connected to the air supply mechanism 4. The air supply mechanism 4 includes an air pump 403. The other connecting pipe 6 is connected to one end of the air pump 403, and a check valve 404 is provided at the connection point to prevent liquid in the gas-liquid fusion chamber 1 from flowing into the air pump 403 and causing damage to the air pump 403. The other end of the air pump 403 is set as an air inlet 401. A first solenoid valve 402 is provided at the connection between the air inlet 401 and the air pump 403.

[0023] like Figure 1-2As shown, the gas-liquid fusion chamber 1, the liquid supply mechanism 3, and the gas supply mechanism 4 are all fixedly installed on the inner side of the wall. The diaphragm pump 303 and the air pump 403 are equipped with double-layer shock-absorbing pads at the wall mounting points. The double-layer shock-absorbing pads are made of high-performance rubber material with a thickness of 5-10mm. The air pump 403 is a model with a rated power of less than or equal to 50W, and the diaphragm pump 303 is a model with a rated power of no more than 80W. The second solenoid valve 302, the diaphragm pump 303, the pressure valve 304, the air pump 403, and the first solenoid valve 402 are connected to the main control panel 8. The main control panel 8 is equipped with a shared control chip and a power input source for controlling the start of the valves and pumps.

[0024] like Figure 1-2 As shown, a water outlet mechanism 7 is provided through the front of the gas-liquid fusion chamber 1. The water outlet mechanism 7 includes a first water supply pipe 702 and a second water supply pipe 705. One end of the first water supply pipe 702 is connected through to the gas-liquid fusion chamber 1 and a third solenoid valve 701 is provided at the connection. The other end of the first water supply pipe 702 is provided with a nano-mist shower head 703. One end of the second water supply pipe 705 is connected through to the gas-liquid fusion chamber 1 and a fourth solenoid valve 704 is provided at the connection. The other end of the second water supply pipe is provided with a milk water shower head 706. The nano-mist shower head 701 uses a curved surface pressurized shower head with an aperture of 0.2mm to pressurize the gas-liquid mixture for the third time and finally spray out nano-sized water mist. The second water supply pipe 705 is made of rubber hose and is used for slow spraying of milk to facilitate skin absorption.

[0025] In practical use, when the device is needed, the shared control chip in the main control panel 8 starts the inlet 301 and the diaphragm pump 303 to draw water in from the inlet 301 and pressurize it. The water is then supplied through the pressure valve 304 into the connecting pipe 6 connected to the pressure valve 304, and after secondary physical pressurization through the connected Laval pipe 2, it is supplied into the gas-liquid fusion chamber 1. When the liquid passes through the pressure valve 304, the pressure valve 304 senses the pressure and sends a signal to the main control panel 8, controlling the air pump 403 and the first solenoid valve 402 to start, drawing air in from the air inlet 401 and passing through the check valve. Valve 404, after secondary pressurization via Laval pipe 2, achieves mixing of water within gas-liquid fusion chamber 1. Laval pipe 2 is installed at the connection points between gas-liquid fusion chamber 1, liquid supply mechanism 3, and air supply mechanism 4. The required water supply pressure can be achieved by using a low-power diaphragm pump 303 and air pump 403 for pressurization. The addition of two layers of shock-absorbing pads prevents resonance between diaphragm pump 303 and pressure valve 304, reducing noise during use. Opening the third solenoid valve 701 allows the nano mist shower head 701 to be turned on for rinsing.

[0026] When a milk bath is needed, the above-mentioned liquid supply mechanism 3 is used to draw milk into the gas-liquid fusion chamber 1. The main control panel 8 is set to not start the air pump 403 and the first solenoid valve 402 when the pressure valve 304 is under pressure. Instead, the second shower head 702 is opened and the fourth solenoid valve 704 is opened to allow the milk water shower head 706 to output milk water at a slow spray, which is convenient for the human body to absorb.

[0027] The present invention and its embodiments have been described above. This description is not restrictive, and the accompanying drawings are only one embodiment of the present invention; the actual structure is not limited thereto. In conclusion, if those skilled in the art are inspired by this description and design similar structures and embodiments without departing from the inventive spirit of the present invention, such designs should fall within the protection scope of the present invention.

Claims

1. A multifunctional high-pressure nanomist pressurization and output system, characterized in that, The device includes a gas-liquid fusion chamber, a liquid supply mechanism, and a gas supply mechanism. Laval pipes are connected to both sides of the gas-liquid fusion chamber, and connecting pipes are connected to the other ends of both Laval pipes. One connecting pipe is connected to the liquid supply mechanism, and the other connecting pipe is connected to the gas supply mechanism. A water outlet mechanism is provided at the front of the gas-liquid fusion chamber. The water outlet mechanism includes a first water supply pipe and a second water supply pipe. One end of the first water supply pipe is connected to the gas-liquid fusion chamber, and a third solenoid valve is provided at the connection point. The other end of the first water supply pipe is equipped with a nano-mist shower head. One end of the second water supply pipe is connected to the gas-liquid fusion chamber, and a fourth solenoid valve is provided at the connection point. The other end of the second water supply pipe is equipped with a milk water shower head.

2. The multifunctional high-pressure nanomist pressurization output system according to claim 1, characterized in that: The ratio of the throat diameter to the diffuser section of the Laval tube is set between 1:4 and 1:

6.

3. The multifunctional high-pressure nanomist pressurization output system according to claim 2, characterized in that: The liquid supply mechanism includes a diaphragm pump. One side of the connecting pipe is connected to one end of the diaphragm pump, and a pressure valve and a liquid flow meter are provided at the connection point. The other end of the diaphragm pump is set as a liquid inlet, and a second solenoid valve is provided at the connection point between the liquid inlet and the diaphragm pump.

4. The multifunctional high-pressure nanomist pressurization output system according to claim 3, characterized in that: The air supply mechanism includes an air pump. The connecting pipe on the other side is connected to one end of the air pump, and a check valve is provided at the connection point. The other end of the air pump is set as an air inlet, and a first solenoid valve is provided at the connection point between the air inlet and the air pump.

5. The multifunctional high-pressure nanomist pressurization output system according to claim 4, characterized in that: The gas-liquid fusion chamber, liquid supply mechanism, and gas supply mechanism are all fixedly installed on the inner side of the wall. The diaphragm pump and air pump are equipped with double-layer shock-absorbing pads at the wall mounting points. The double-layer shock-absorbing pads are made of high-performance rubber material with a thickness of 5-10mm.

6. The multifunctional high-pressure nanomist pressurization output system according to claim 5, characterized in that: The air pump is selected with a rated power of less than or equal to 250W, and the diaphragm pump is selected with a rated power of no more than 150W.

7. The multifunctional high-pressure nanomist pressurization output system according to claim 6, characterized in that: The nano-mist shower head uses a curved surface pressure-boosting shower blade with an aperture of 0.2mm, and the second water supply pipe is made of rubber hose.

8. The multifunctional high-pressure nanomist pressurization output system according to claim 7, characterized in that: The second solenoid valve, diaphragm pump, pressure valve, air pump, and the first solenoid valve are connected to a main control panel, which contains a shared control chip and a power input source.

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