Water supply system and method, and moisture regenerator

Abstract

The application discloses a water supply system and a water supply method and a moisture regaining machine. The water storage module of the water supply system comprises an inner tank and a heating jacket layer. Liquid input from a water supply end is transmitted to the inner tank through a water supply pipe. The liquid in the inner tank is discharged through a water outlet. Steam input from a steam end is transmitted to the heating jacket layer through a steam pipe, and the steam is used for adjusting the temperature of the liquid in the inner tank. The detection module comprises a liquid level sensor and a temperature sensor. The control module controls the conduction or shutdown of the water supply pipe according to the acquired liquid level information, and controls the conduction or shutdown of the steam pipe according to the acquired temperature information. In different stages, the control module controls the conduction or shutdown of the water supply pipe according to the liquid level information, controls the conduction or shutdown of the steam pipe according to the first temperature information, and controls the conduction or shutdown of the steam pipe according to the second temperature information. The water quantity and water temperature in the inner tank are regulated in combination with preset values, the temperature and humidity of the discharged liquid meet the requirements, and the overall stability is improved.

Description

Technical Field

[0001] The present invention relates to the field of water supply equipment control, and in particular to a water supply system, a water supply method and a moisture regeneration machine. Background Art

[0002] Water supply systems including water tanks are common in production, such as in rehumidifiers. These systems ensure the moisture and temperature of tobacco leaves, thereby ensuring overall production efficiency. However, existing water supply systems suffer from poor stability and large fluctuations in the humidification and heating process, which can affect the overall quality of tobacco processing. Summary of the Invention

[0003] The present invention provides a water supply system and a water supply method, and a moisture regeneration machine, which can achieve fine regulation of liquid discharged from a discharge outlet and ensure stable operation of the water supply system.

[0004] According to one aspect of the present invention, a water supply system is provided, characterized in that the water supply system comprises: a control module, a water storage module, a detection module and a connecting pipe;

[0005] The water storage module includes an inner tank and a heating jacket, the heating jacket surrounds the inner tank; the inner tank includes a water inlet and a water outlet, and the heating jacket includes a steam input port; the connecting pipe includes a water supply pipe, a water outlet pipe and a steam pipe; the connecting pipe is connected to the control module;

[0006] The water inlet is connected to the water supply end through the water supply pipe, and the liquid input from the water supply end is transferred to the inner tank through the water supply pipe; the water outlet is connected to the water outlet pipe, and the liquid in the inner tank is discharged through the water outlet; the steam input port is connected to the steam end through the steam pipe, and the steam input from the steam end is transferred to the heating jacket through the steam pipe, and the steam in the heating jacket is used to adjust the temperature of the liquid in the inner tank;

[0007] The control module is connected to the detection module; the detection module includes a liquid level sensor and a temperature sensor; the liquid level sensor is used to detect the height of the liquid in the inner tank and generate liquid level information, and the temperature sensor is used to detect the temperature of the liquid in the inner tank and generate temperature information; the control module controls the conduction or shutoff of the water supply pipe according to the obtained liquid level information, and the control module controls the conduction or shutoff of the steam pipe according to the obtained temperature information;

[0008] Among them, in the first stage, when the liquid level information obtained by the control module exceeds the height preset value, the water supply pipe is controlled to be shut off; when the liquid level information obtained by the control module does not exceed the height preset value, the water supply pipe is controlled to be turned on; in the second stage, when the first temperature information obtained by the control module exceeds the first temperature preset value, the steam pipe is controlled to be shut off; when the first temperature information obtained by the control module does not exceed the first temperature preset value, the steam pipe is controlled to be turned on; in the third stage, when the second temperature information obtained by the control module exceeds the second temperature preset value, the steam pipe is controlled to be shut off; when the second temperature information obtained by the control module does not exceed the second temperature preset value, the steam pipe is controlled to be turned on; the second temperature preset value is less than the first temperature preset value, the starting time of the second stage is after the ending time of the first stage, and the starting time of the third stage is after the ending time of the second stage.

[0009] Optionally, the water supply pipe includes a pneumatic angle valve, which is connected to the control module; the steam pipe includes a first stop valve, which is connected to the control module;

[0010] The control module controls the pneumatic angle valve to be turned on or off. When the pneumatic angle valve is turned on, the water supply pipe is turned on, and when the pneumatic angle valve is turned off, the water supply pipe is turned off. The control module controls the first stop valve to be turned on or off. When the first stop valve is turned on, the steam pipe is turned on, and when the first stop valve is turned off, the steam pipe is turned off.

[0011] Optionally, the water outlet pipe includes a main water outlet pipe and a branch water outlet pipe connected to each other, the main water outlet pipe is located on a side of the branch water outlet pipe close to the water outlet; the main water outlet pipe includes a first pipe opening and a second pipe opening, the branch water outlet pipe includes a first water outlet pipe and a second water outlet pipe, the first water outlet pipe is connected to the first pipe opening, and the second water outlet pipe is connected to the second pipe opening;

[0012] In the third stage, the first water outlet pipe is controlled to be connected when the control module receives a production instruction; and the second water outlet pipe is controlled to be connected when the control module receives a maintenance instruction.

[0013] Optionally, the first water outlet pipe includes a second stop valve, which is connected to the control module; the second water outlet pipe includes a third stop valve, which is connected to the control module;

[0014] The control module controls the second stop valve to be turned on or off. When the second stop valve is turned on, the first water outlet pipe is turned on, and when the second stop valve is turned off, the first water outlet pipe is turned off. The control module controls the third stop valve to be turned on or off. When the third stop valve is turned on, the second water outlet pipe is turned on, and when the third stop valve is turned off, the second water outlet pipe is turned off.

[0015] Optionally, the water supply pipe further comprises at least one water supply bypass, and the steam pipe further comprises at least one steam bypass;

[0016] The control module controls the opening or closing of the water supply bypass and the steam bypass.

[0017] Optionally, the connecting pipe also includes a condenser, and the heating jacket layer also includes a condensation outlet, the condensation outlet is connected to the condenser, and the condensed water generated by the steam liquefaction in the heating jacket layer is discharged through the condenser; the control module controls the conduction or shutdown of the condenser.

[0018] Optionally, the water outlet pipe further includes a hydraulic valve and a pressure regulating pipe; the first end of the pressure regulating pipe is connected to the hydraulic valve, and the second end of the pressure regulating pipe is connected to the pressure regulating port;

[0019] The control module controls the on / off switching of the hydraulic valve.

[0020] According to another aspect of the present invention, there is provided a water supply method, comprising the above-mentioned water supply system, the water supply method comprising:

[0021] In the first stage, obtaining and determining whether the liquid level information exceeds the preset height value;

[0022] If the liquid level information does not exceed the preset height value, controlling the water supply pipe to be turned on;

[0023] If the liquid level information exceeds the preset height value, the water supply pipe is controlled to be shut off and enter the second stage;

[0024] In the second stage, obtaining and determining whether the first temperature information exceeds the first temperature preset value;

[0025] If the first temperature information does not exceed the first temperature preset value, controlling the steam pipe to be conductive;

[0026] If the first temperature information exceeds the first temperature preset value, controlling the steam pipe to shut down and entering the third stage;

[0027] In the third stage, obtaining and determining whether the second temperature information exceeds the second temperature preset value;

[0028] If the second temperature information does not exceed the second temperature preset value, controlling the steam pipe to be conductive;

[0029] If the second temperature information exceeds the second temperature preset value, the steam pipe is controlled to be closed.

[0030] Optionally, the water outlet pipe includes a main water outlet pipe and a branch water outlet pipe connected to each other, the main water outlet pipe is located on a side of the branch water outlet pipe close to the water outlet; the main water outlet pipe includes a first pipe opening and a second pipe opening, the branch water outlet pipe includes a first water outlet pipe and a second water outlet pipe, the first water outlet pipe is connected to the first pipe opening, and the second water outlet pipe is connected to the second pipe opening;

[0031] If the second temperature information exceeds a second temperature preset value, after controlling the steam pipe to be shut off, the method further includes:

[0032] receiving a production instruction and controlling the first water outlet pipe to be connected;

[0033] Alternatively, a maintenance instruction is received to control the second water outlet pipe to be connected.

[0034] According to another aspect of the present invention, a dehumidification machine is provided, comprising the above-mentioned water supply system.

[0035] The water supply system of an embodiment of the present invention includes: a control module, a water storage module, a detection module and a connecting pipe, wherein the water storage module includes an inner tank and a heating jacket surrounding the inner tank; the connecting pipe includes a water supply pipe, a water outlet pipe and a steam pipe, the water supply pipe transmits the liquid provided by the water supply port to the inner tank, the steam pipe transmits the steam provided by the steam port to the heating jacket for adjusting the temperature of the liquid in the inner tank, and the water outlet pipe discharges the liquid in the inner tank; further, the detection module includes a liquid level sensor and a temperature sensor, the liquid level sensor is used to feedback the liquid height in the inner tank to the control module, and the temperature sensor is used to feedback the temperature information of the liquid in the inner tank to the control module; the control module controls the conduction or shutoff of the water supply pipe and the steam pipe according to the liquid height and temperature information at different stages, thereby ensuring that the liquid discharged from the water outlet pipe meets the demand and ensuring the stability of the water supply system.

[0036] It should be understood that the content described in this section is not intended to identify the key or important features of the embodiments of the present invention, nor is it intended to limit the scope of the present invention. Other features of the present invention will become readily understood through the following description. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the following briefly introduces the drawings required for use in the description of the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0038] Figure 1 is a structural diagram of a first water supply system provided by an embodiment of the present invention;

[0039] Figure 2 is a structural diagram of a second water supply system provided by an embodiment of the present invention;

[0040] Figure 3 This is a flow chart of the first water supply method provided by an embodiment of the present invention;

[0041] Figure 4 This is a flow chart of a second water supply method provided by an embodiment of the present invention;

[0042] Figure 5 It is a structural schematic diagram of a moisture conditioning machine provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0043] In order to enable those skilled in the art to better understand the solutions of the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts should fall within the scope of protection of the present invention.

[0044] It should be noted that the terms "first", "second", etc. in the description and claims of the present invention and the above-mentioned drawings are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that the numbers used in this way can be interchanged where appropriate so that the embodiments of the present invention described herein can be implemented in an order other than those illustrated or described herein. In addition, the terms "including" and "having" and any variations thereof are intended to cover non-exclusive inclusions. For example, a process, method, system, product or device that includes a series of steps or units is not necessarily limited to those steps or units clearly listed, but may include other steps or units that are not clearly listed or inherent to these processes, methods, products or devices.

[0045] Figure 1 is a structural diagram of a first water supply system provided by an embodiment of the present invention, Figure 2This is a schematic diagram of the structure of the second water supply system provided by the embodiment of the present invention, referring to Figure 1 and Figure 2 As shown, an embodiment of the present invention provides a water supply system 10, which includes: a control module 100, a water storage module 200, a detection module 300 and a connecting pipe 400; the water storage module 200 includes an inner tank 210 and a heating jacket 220, and the heating jacket 220 surrounds the inner tank 210; the inner tank 210 includes a water inlet 210a and a water outlet 210b, and the heating jacket 220 includes a steam input port 220a; the connecting pipe 400 includes a water supply pipe 410, a water outlet pipe 420 and a steam pipe 430; the connecting pipe 400 is connected to the control module 100; the water inlet 210a is connected to the water supply end 20 through the water supply pipe 410 The liquid input from the water supply end 20 is transmitted to the inner tank 210 through the water supply pipe 410; the water outlet 210b is connected to the water outlet pipe 420, and the liquid in the inner tank 210 is discharged through the water outlet pipe 420; the steam input port 220a is connected to the steam end 30 through the steam pipe 430, and the steam input from the steam end 30 is transmitted to the heating jacket 220 through the steam pipe 430, and the steam in the heating jacket 220 is used to adjust the temperature of the liquid in the inner tank 210; the control module 100 is connected to the detection module 300; the detection module 300 includes a liquid level sensor 310 and a temperature sensor 320; the liquid level sensor 310 is used to detect the temperature of the inner tank 210 The height of the liquid in the inner tank 210 and generates liquid level information, the temperature sensor 320 is used to detect the temperature of the liquid in the inner tank 210 and generate temperature information; the control module 100 controls the conduction or shutoff of the water supply pipe 410 according to the obtained liquid level information, and the control module 100 controls the conduction or shutoff of the steam pipe 430 according to the obtained temperature information; wherein, in the first stage, when the liquid level information obtained by the control module 100 exceeds the preset height value, the water supply pipe 410 is controlled to be shut off, and when the liquid level information obtained by the control module 100 does not exceed the preset height value, the water supply pipe 410 is controlled to be conducted; in the second stage, when the first temperature information obtained by the control module 100 exceeds the preset height value, the water supply pipe 410 is controlled to be conducted. When the first temperature information obtained by the control module 100 exceeds the first temperature preset value, the steam pipe 430 is controlled to be closed. When the first temperature information obtained by the control module 100 does not exceed the first temperature preset value, the steam pipe 430 is controlled to be connected. In the third stage, when the second temperature information obtained by the control module 100 exceeds the second temperature preset value, the steam pipe 430 is controlled to be closed. When the second temperature information obtained by the control module 100 does not exceed the second temperature preset value, the steam pipe 430 is controlled to be connected. The second temperature preset value is less than the first temperature preset value, the starting time of the second stage is after the ending time of the first stage, and the starting time of the third stage is after the ending time of the second stage.

[0046] Among them, reference Figure 1 and Figure 2As shown, the water supply system 10 includes a water storage module 200, which includes an inner tank 210 and a heating jacket 220. The heating jacket 220 surrounds the inner tank 210. The temperature-regulating medium input into the heating jacket 220 can heat or insulate the medium stored in the inner tank 210. A connecting pipe 400 is connected to the water storage module 200 and is used to input liquid into the inner tank 210 and input the temperature-regulating medium into the heating jacket 220.

[0047] Furthermore, the connecting pipe 400 includes a water supply pipe 410, a water outlet pipe 420 and a steam pipe 430. At the same time, the inner tank 210 includes a water inlet 210a and a water outlet 210b. The heating jacket 220 includes a steam input port 220a. The water inlet 210a is connected to the water supply end 20 through the water supply pipe 410, the water outlet 210b is connected to the water outlet pipe 420, and the steam input port 220a is connected to the steam end 30 through the steam pipe 430. The water supply end 20 is used to provide liquid, and the steam end 30 is used to provide steam. The steam provides heat to the liquid in the inner tank 210 by liquefaction, thereby adjusting the temperature of the liquid. For details, refer to Figure 1 and Figure 2 As shown, Figure 1 The arrow in the middle represents the flow direction of the medium in the connecting pipe 400. The liquid input from the water supply end 20 is transmitted to the inner tank 210 via the water supply pipe 410, and the steam input from the steam end 30 is transmitted to the heating jacket 220 via the steam pipe 430. The steam in the heating jacket 220 is used to adjust the temperature of the liquid in the inner tank 210. The temperature and water volume of the liquid in the inner tank 210 are adjusted through the water supply pipe 410 and the steam pipe 430, thereby ensuring that the temperature and water volume of the liquid discharged through the water outlet pipe 420 meet the requirements, thereby ensuring the reliability and stability of the water supply system 10. Among them, the control module 100 is connected to the connecting pipe 400. The control module 100 can control the conduction or shutoff of the connecting pipe 400, for example, controlling the conduction or shutoff of the water supply pipe 410, the water outlet pipe 420, and the steam pipe 430, so that the liquid discharged from the drain pipe 420 is in the desired state. Optionally, the connection method between the control module 100 and the connecting pipe 400 can be a communication connection or an electrical connection, etc. The embodiment of the present invention does not specifically limit the specific connection method, and can be adaptively adjusted according to actual needs.

[0048] Furthermore, the water supply system 10 also includes a detection module 300, which includes a liquid level sensor 310 and a temperature sensor 320. The liquid level sensor 310 is used to detect the height of the liquid input into the inner tank 210 and generate corresponding liquid level information; the temperature sensor 320 is used to detect the temperature of the liquid input into the inner tank 210 and generate corresponding temperature information. The detection module 300 is connected to the control module 100. The detection module 300 can feed back the detected liquid level information and temperature information to the control module 100. The control module 100 can regulate the connecting pipe 400 based on the feedback detection information, thereby regulating the liquid discharged from the water outlet pipe 420, thereby ensuring that the liquid discharged through the water supply system 10 meets subsequent process requirements, thereby improving the operating stability of the water supply system 10.

[0049] Optional, combined Figure 1 and Figure 2 As shown, the liquid level sensor 310 can be located on the side wall of the inner tank 210, and the setting height of the liquid level sensor 310 can be pre-adjusted according to needs, such as a first height. When the liquid input through the water supply pipe 410 reaches the first height or exceeds the first height, the liquid level sensor 310 can transmit the liquid level information to the control module 100, and the control module 100 can determine whether the current liquid level content meets the requirements, and then control the water supply pipe 410 to disconnect. The content of the liquid in the inner tank 210 can affect the amount of water discharged by the outlet pipe 420. Therefore, adjusting the liquid content through the liquid level information can ensure the drainage content of the water supply system 10. Furthermore, different pressure sensors can be added to the connecting pipe 400, and the pressure sensors are connected to the control module 100. The control module 100 can further adjust the water supply provided by the water supply pipe 410 in combination with the pressure sensors. Optionally, the temperature sensor 320 can be located at the bottom of the inner tank 210. The temperature sensor 320 can effectively feedback the liquid temperature in the inner tank 210. If the temperature reaches a preset value, the control module 100 can adjust the steam value by controlling the opening and closing size and conduction state of the steam pipe 430, thereby realizing temperature regulation.

[0050] Specific, combined Figure 1 and Figure 2 As shown, in the first stage, when the liquid level information obtained by the control module 100 exceeds the preset height value, the water supply pipe 410 is controlled to be closed. When the liquid level information obtained by the control module 100 does not exceed the preset height value, the water supply pipe 410 is controlled to be opened. In other words, in the first stage, a sufficient amount of liquid is ensured in the inner tank 210 of the water supply system 10, thereby ensuring the water volume of the water supply system 10.

[0051] Furthermore, in the second stage, when the first temperature information obtained by the control module 100 exceeds the first preset temperature value, the steam pipe 430 is controlled to be closed. When the first temperature information obtained by the control module 100 does not exceed the first preset temperature value, the steam pipe 430 is controlled to be open. In other words, while ensuring that a sufficient amount of liquid is stored in the inner tank 210 of the water supply system 10, the steam pipe 430 is regulated based on the temperature information, where the first temperature information can be understood as the temperature information detected by the temperature sensor 320 in the second stage.

[0052] Furthermore, in the third phase, when the second temperature information obtained by the control module 100 exceeds the second preset temperature value, the steam pipe 430 is controlled to be closed. When the second temperature information obtained by the control module 100 does not exceed the second preset temperature value, the steam pipe 430 is controlled to be open. In other words, while ensuring that the temperature of the liquid in the inner tank 210 of the water supply system 10 meets the requirements of the second phase, the steam pipe 430 is further regulated based on the temperature information. The second temperature information can be understood as the temperature information detected by the temperature sensor 320 in the third phase. The first and second phases can be understood as the preheating preparation phase of the water supply system 10, and the third phase can be understood as the main drainage phase of the water supply system 10. If the water supply system 10 is used in a tobacco leaf rehumidification machine, the third phase can be used for production or maintenance as needed. It should be noted that the second preset temperature value is lower than the first preset temperature value. For example, the first preset temperature value may be 50°C and the second preset temperature value may be 30°C. By setting the liquid temperature in the inner tank 210 slightly higher during the preheating phase, the water temperature can be adjusted over a wide range as needed during subsequent production or maintenance, thereby ensuring the reliability and stability of the water supply system 10. The preset temperature value, the first preset temperature value, and the second preset temperature value can be adaptively adjusted based on actual production needs, and this is not specifically limited in this embodiment of the present invention.

[0053] In summary, an embodiment of the present invention provides a water supply system, wherein a water storage module includes an inner tank and a heating jacket surrounding the inner tank; a water supply pipe transmits liquid provided by a water supply port to the inner tank, a steam pipe transmits steam provided by a steam port to the heating jacket for adjusting the temperature of the liquid in the inner tank, and a water outlet pipe discharges the liquid in the inner tank; further, a liquid level sensor is used to feed back the height of the liquid in the inner tank to a control module, and a temperature sensor is used to feed back the temperature information of the liquid in the inner tank to the control module; the control module controls the conduction or shutoff of the water supply pipe and the steam pipe according to the liquid height and temperature information at different stages, thereby ensuring that the liquid discharged from the water outlet pipe meets the demand and ensuring the stability of the water supply system.

[0054] Continue to refer Figure 1 and Figure 2As shown, the water supply pipe 410 includes a pneumatic angle valve 411, which is connected to the control module 100; the steam pipe 430 includes a first stop valve 431, which is connected to the control module 100; the control module 100 controls the pneumatic angle valve 411 to be turned on or off, and the pneumatic angle valve 411 is turned on to drive the water supply pipe 410 to be turned on, and the pneumatic angle valve pipe 411 is turned off to drive the water supply pipe 410 to be turned off; the control module 100 controls the first stop valve 431 to be turned on or off, and the first stop valve 431 is turned on to drive the steam pipe 430 to be turned on, and the first stop valve 431 is turned off to drive the steam pipe 430 to be turned off.

[0055] Among them, reference Figure 2 As shown, the water supply pipe 410 includes a pneumatic angle valve 411, and the steam pipe 430 includes a first shut-off valve 431. The control module 100 is connected to the pneumatic angle valve 411 and the first shut-off valve 431, respectively. When the control module 100 controls the pneumatic angle valve 411 to be closed, the corresponding water supply pipe 410 stops supplying liquid to the inner tank 210. When the control module 100 controls the pneumatic angle valve 411 to be opened, the corresponding water supply pipe 410 supplies liquid to the inner tank 210. Similarly, when the control module 100 controls the first shut-off valve 43 to be closed, the corresponding steam pipe 430 stops supplying steam to the heating jacket 220, thereby stopping providing heat to the liquid in the inner tank 210. When the control module 100 controls the first shut-off valve 43 to be opened, the corresponding steam pipe 430 continues supplying steam to the heating jacket 220, thereby continuing to provide heat to the liquid in the inner tank 210. By setting the pneumatic angle valve 411 and the first stop valve 431, the control module 100 can effectively control the water supply pipe 410 and the steam pipe 430. It should be noted that, Figure 2 It is used to clearly illustrate the connection mode of each connecting pipe 400 and the setting of the valves in each connecting pipe 400, and thus the control module 100 is not shown.

[0056] Optional, reference Figure 2 As shown, in addition to the pneumatic angle valve 411, the water supply pipe 410 may also include a pressure sensor s1 and multiple stop valves s2 located at different locations. In addition to the first stop valve 431, the steam pipe 430 may also include multiple stop valves s2, a control valve s3, a pilot-operated pressure reducing valve s4, and a pressure gauge s5 located at different locations. By adding multiple valves at different locations and connecting these additional valves to the control module 100, precise control of the water supply pipe 410 and steam pipe 430 can be achieved, thereby ensuring the reliability and stability of the water supply system 10.

[0057] Continue to refer Figure 1 and Figure 2As shown, the water outlet pipe 420 includes a main water outlet pipe 421 and a branch water outlet pipe 422 that are interconnected. The main water outlet pipe 421 is located on the side of the branch water outlet pipe 422 close to the water outlet; the main water outlet pipe 421 includes a first pipe opening and a second pipe opening, and the branch water outlet pipe 422 includes a first water outlet pipe 422a and a second water outlet pipe 422b. The first water outlet pipe 422a is connected to the first pipe opening, and the second water outlet pipe 422b is connected to the second pipe opening; in the third stage, when the control module 100 receives a production instruction, the first water outlet pipe 422a is controlled to be connected; when the control module 100 receives a maintenance instruction, the second water outlet pipe 422b is controlled to be connected.

[0058] Among them, reference Figure 2 As shown, the outlet pipe 420 includes a main outlet pipe 421 and a branch outlet pipe 422. The branch outlet pipe 422 includes a first outlet pipe 422a and a second outlet pipe 422b. The first outlet pipe 422a and the second outlet pipe 422b branched out from this can be understood as the liquid provided by the water supply system 10 for use in different actual scenarios. Among them, the liquid discharged through the first outlet pipe 422a can be used for production, and the liquid discharged through the second outlet pipe 422b can be used for maintenance. For example, the water supply system 10 is used in a rehumidifier. The control module 100 adjusts different branches based on the acquired instruction information. Specifically, in the third stage, when the control module 100 receives a production instruction, the first outlet pipe 422a is controlled to be connected; when the control module 100 receives a maintenance instruction, the second outlet pipe 422b is controlled to be connected. Optionally, the way in which the control module 100 receives instructions can be implemented, on the one hand, by means of a human-computer interaction interface and instructions input by an operator; on the other hand, the adjustment method of the instructions can also be pre-stored in the control module 100, such as combining the acquisition of time or other parameters, etc., to achieve the jump of different instructions. The embodiment of the present invention does not make specific limitations on this.

[0059] Furthermore, while controlling the opening or closing of the first water outlet pipe 422a or the second water outlet pipe 422b, the flow rate of the liquid in the first water outlet pipe 422a or the flow rate of the liquid in the second water outlet pipe 422b can also be controlled, thereby achieving the regulation of the water pressure in the water outlet pipe 420. For example, the water pressure can be controlled to be adjusted between 4Mpa and 6.5Mpa to meet the different needs of production and maintenance. At the same time, the flow rate and flow rate of the steam in the steam pipe 430 can be adaptively adjusted in combination with the drainage needs, and the temperature of the liquid discharged from the water outlet pipe 420 can be controlled to be arbitrarily adjusted between 30°C and 90°C to meet the different needs of production and maintenance. Optionally, when the water supply system 10 is used in a rehumidification machine, by analyzing the impact of different rehumidification water temperatures on process control parameters, quality indicators, and moisture changes at process points, 70°C is determined to be the optimal rehumidification water temperature, which has the best effect on loosening and rehumidifying tobacco leaves.

[0060] Continue to refer Figure 1 and Figure 2 As shown, the first water outlet pipe 422a includes a second stop valve 422a1, and the second stop valve 422a1 is connected to the control module 100; the second water outlet pipe 422b includes a third stop valve 422b1, and the third stop valve 422b1 is connected to the control module 100; the control module 100 controls the second stop valve 422a1 to be turned on or off, and the second stop valve 422a1 is turned on to drive the first water outlet pipe 422a to be turned on, and the second stop valve 422a1 is turned off to drive the first water outlet pipe 422a to be turned off; the control module 100 controls the third stop valve 422b1 to be turned on or off, and the third stop valve 422b1 is turned on to drive the second water outlet pipe 422b to be turned on, and the third stop valve 422b1 is turned off to drive the second water outlet pipe 422b to be turned off.

[0061] Among them, reference Figure 2 As shown, the first water outlet pipe 422a includes a second stop valve 422a1, and the second water outlet pipe 422b includes a third stop valve 422b1. The control module 100 is connected to the second stop valve 422a1 and the third stop valve 422b1 respectively. When the control module 100 controls the second stop valve 422a to be turned off, the corresponding first water outlet pipe 422a does not discharge the liquid. When the control module 100 controls the second stop valve 422a to be turned on, the corresponding first water outlet pipe 422a discharges the liquid. Similarly, when the control module 100 controls the third stop valve 422b1 to be turned off, the corresponding second water outlet pipe 422b does not discharge the liquid. When the control module 100 controls the third stop valve 422b1 to be turned on, the corresponding second water outlet pipe 422b discharges the liquid. By setting the second stop valve 422a1 and the third stop valve 422b1, the control module 100 can effectively control the first water outlet pipe 422a and the second water outlet pipe 422b, thereby realizing different functions of production and maintenance, reflecting the functionality and reliability of the water supply system 10.

[0062] Optional, reference Figure 2 As shown, the branch outlet pipe 422 can be equipped with a shutoff valve s2, a filter s6, a pump S7, a pressure gauge s5, and the like. In addition to the second shutoff valve 422a1, the first outlet pipe 422a can also be equipped with a shutoff valve s2 and a filter s6. In addition to the third shutoff valve 422b1, the second outlet pipe 422b can also be equipped with a shutoff valve s2 and a filter s6. By adding multiple valves at different locations and connecting these additional valves to the control module 100, precise control of the first and second outlet pipes 422a, 422b can be achieved, thereby ensuring the reliability and stability of the water supply system 10.

[0063] Continue to refer Figure 1 and Figure 2As shown, the water supply pipe 410 further includes at least one water supply bypass 440 , and the steam pipe 430 further includes at least one steam bypass 450 ; the control module 100 controls the opening or closing of the water supply bypass 440 and the steam bypass 450 .

[0064] The water supply pipe 410 further includes at least one water supply bypass 440, and the steam pipe 430 includes at least one steam bypass 450, wherein the water supply bypass 440 and the steam bypass 450 are both connected to the control module 100, that is, the control module 100 can control the conduction or shutoff of the water supply bypass 440 and the steam bypass 450. The addition of the water supply bypass 440 can avoid balancing the overall pressure when the water supply pipe 410 connecting the water supply end 20 and the inner tank 210 is shut off, and the provided liquid can flow through the water supply bypass 440; similarly, the addition of the steam bypass 450 can also play a role in balancing the overall pressure. The specific number of water supply bypasses 440 and steam bypasses 450 can be adaptively adjusted according to the overall space occupancy of the water supply system 10, and the embodiment of the present invention does not specifically limit this.

[0065] Optional, reference Figure 2 As shown, a cleaning bypass 470 can be branched out from the water supply bypass 440, the cleaning bypass 470 is connected to the cleaning water tank 40, and a stop valve s2 is added to the cleaning bypass 470. Figure 2 As shown, multiple shutoff valves s2 can be added to the water supply bypass 440; and a shutoff valve s2 and a filter s6 can be added to the steam pipe 430. By adding multiple valves and filters s6 at different locations and connecting the added valves and filters to the control module 100, precise control of the water supply bypass 440 and steam pipe 430 can be ensured, thereby ensuring the reliability and stability of the water supply system 10.

[0066] Continue to refer Figure 1 and Figure 2 As shown, the connecting pipe 400 also includes a condenser 460, and the heating jacket 220 also includes a condensation outlet 220b, which is connected to the condenser 460. The condensed water generated by the liquefaction of steam in the heating jacket 220 is discharged through the condenser 460; the control module 100 controls the conduction or shutdown of the condenser 460.

[0067] Among them, reference Figure 2As shown, the connecting pipe 400 also includes a condenser pipe 460, and the heating jacket 220 also includes a condenser outlet 220b, which is connected to the condenser pipe 460. The control module 100 can control the conduction or shutoff of the condenser pipe 460. The steam transmitted to the heating jacket 220 via the steam pipe 430, while liquefying and providing heat to the liquid in the inner tank 210, produces condensed liquid. Therefore, the condensed liquid needs to be discharged in a timely manner to ensure stable and reliable temperature adjustment. Furthermore, the condensed liquid can be discharged through the condenser outlet 220b.

[0068] Optionally, inner tank 210 also includes an overflow port 210d. If the liquid level in inner tank 210 is too high, it can be drained through overflow port 210d. Furthermore, overflow port 210d is connected to overflow pipe 480, which can be equipped with a stop valve s2 and a one-way valve s8. These valves can be connected to control module 100, thereby simplifying and reliably controlling water supply system 10.

[0069] Optional, reference Figure 2 As shown, a shutoff valve s2, a filter s6, and a one-way valve s8 can also be added to the condenser 460. By adding multiple valves and filters s6 at different locations and connecting the additional valves and filters to the control module 100, precise control of the condenser 460 can be ensured, thereby ensuring the reliability and stability of the water supply system 10.

[0070] Continue to refer Figure 1 and Figure 2 As shown, the inner tank 210 also includes a pressure regulating port 210c; the water outlet pipe 420 also includes a hydraulic valve 423 and a pressure regulating pipe 424; the first end of the pressure regulating pipe 424 is connected to the hydraulic valve 423, and the second end of the pressure regulating pipe 424 is connected to the pressure regulating port 210c; the control module 100 controls the conduction or shutoff of the hydraulic valve 424.

[0071] Inner tank 210 further includes a pressure regulating port 210c, and water outlet pipe 420 further includes a pressure regulating pipe 424. Pressure regulating port 210c is connected to pressure regulating pipe 424. When the pressure in water outlet pipe 420 is too high, pressure relief is provided through pressure regulating pipe 424, thereby ensuring smooth and stable discharge of liquid from water outlet pipe 420. Furthermore, water outlet pipe 420 further includes a hydraulic valve 423. A first end of pressure regulating pipe 424 is connected to hydraulic valve 423, and a second end of pressure regulating pipe 424 is connected to pressure regulating port 210c. Control module 100 controls the opening and closing of hydraulic valve 424.

[0072] Based on the same inventive concept, an embodiment of the present invention provides a control method for a solenoid valve. Figure 3This is a flow chart of the first water supply method provided by the embodiment of the present invention, refer to Figure 3 As shown, the control method includes:

[0073] S110. In the first stage, obtain and determine whether the liquid level information exceeds a preset height value; if not, execute S120; if so, execute S130.

[0074] The water supply system includes a water storage module, which includes an inner tank and a heating jacket surrounding the inner tank. The heating jacket contains a temperature-regulating medium that can heat or insulate the medium stored in the inner tank. Connecting pipes are connected to the water storage module and are used to supply liquid to the inner tank and temperature-regulating medium to the heating jacket.

[0075] Furthermore, the connecting pipes include a water supply pipe, a water outlet pipe, and a steam pipe. The inner tank includes a water inlet and a water outlet, and the heating jacket includes a steam input port. The water inlet is connected to the water supply end via a water supply pipe, the water outlet is connected to the water outlet pipe, and the steam input port is connected to the steam end via a steam pipe. The water supply end is used to supply liquid, and the steam end is used to supply steam. The steam, through liquefaction, provides heat to the liquid in the inner tank, thereby adjusting the temperature of the liquid. Specifically, liquid input from the water supply end is transmitted to the inner tank via the water supply pipe, and steam input from the steam end is transmitted to the heating jacket via the steam pipe. The steam in the heating jacket is used to adjust the temperature of the liquid in the inner tank. The water supply pipe and steam pipe adjust the temperature and volume of the liquid in the inner tank, thereby ensuring that the temperature and volume of the liquid discharged through the water outlet meet the requirements, thereby ensuring the reliability and stability of the water supply system. A control module is connected to the connecting pipes and can control the opening and closing of the connecting pipes, for example, controlling the opening and closing of the water supply pipe, the water outlet pipe, and the steam pipe, to ensure that the liquid discharged from the drain pipe is in the desired state. Optionally, the connection method between the control module and the connecting pipe can be a communication connection or an electrical connection, etc. The embodiment of the present invention does not specifically limit the specific connection method, and can be adaptively adjusted according to actual needs.

[0076] Furthermore, the water supply system also includes a detection module, which includes a liquid level sensor and a temperature sensor. The liquid level sensor is used to detect the height of the liquid input into the inner tank and generate corresponding liquid level information; the temperature sensor is used to detect the temperature of the liquid input into the inner tank and generate corresponding temperature information. The detection module is connected to the control module, and the detection module can feed back the detected liquid level information and temperature information to the control module. The control module can regulate the connecting pipe according to the feedback detection information, thereby realizing the regulation of the liquid discharged from the outlet pipe, thereby ensuring that the liquid discharged through the water supply system meets the subsequent process requirements, thereby improving the working stability of the water supply system. Optionally, combined with Figure 1 and Figure 2As shown, the liquid level sensor 310 can be located on the side wall of the inner tank 210, and the setting height of the liquid level sensor 310 can be pre-adjusted according to needs, such as a first height. When the liquid input through the water supply pipe 410 reaches the first height or exceeds the first height, the liquid level sensor 310 can transmit the liquid level information to the control module 100, and the control module 100 can determine whether the current liquid level content meets the requirements, and then control the water supply pipe 410 to disconnect. The content of the liquid in the inner tank 210 can affect the amount of water discharged by the outlet pipe 420. Therefore, adjusting the liquid content through the liquid level information can ensure the drainage content of the water supply system 10. Furthermore, different pressure sensors can be added to the connecting pipe 400, and the pressure sensors are connected to the control module 100. The control module 100 can further adjust the water supply provided by the water supply pipe 410 in combination with the pressure sensors. Optionally, the temperature sensor 320 can be located at the bottom of the inner tank 210. The temperature sensor 320 can effectively feedback the liquid temperature in the inner tank 210. If the temperature reaches a preset value, the control module 100 can adjust the steam value by controlling the opening and closing size and conduction state of the steam pipe 430, thereby realizing temperature regulation.

[0077] Specifically, in the first stage, the control module 100 obtains the liquid level information and determines the relationship between the liquid level information and the preset height value. If the liquid level does not exceed the preset height value, step S120 is executed; if the liquid level exceeds the preset height value, step S130 is executed.

[0078] S120: If the liquid level information does not exceed the preset height value, the water supply pipe is controlled to be connected.

[0079] S130: If the liquid level information exceeds the preset height value, the water supply pipe is controlled to be shut off and enter the second stage.

[0080] Specifically, in the first phase, if the liquid level information obtained by the control module exceeds a preset height value, the water supply pipe is shut off. If the liquid level information obtained by the control module does not exceed the preset height value, the water supply pipe is opened. In other words, in the first phase, the internal tank of the water supply system is guaranteed to contain a sufficient amount of liquid, thereby ensuring the amount of water discharged from the water supply system. If a sufficient amount of liquid is stored in the internal tank of the water supply system, the steam pipe can be regulated in the second phase based on temperature information.

[0081] S140. In the second stage, obtain and determine whether the first temperature information exceeds the first temperature preset value; if not, execute S150; if so, execute S160.

[0082] S150: If the first temperature information does not exceed the first temperature preset value, control the steam pipe to be conductive.

[0083] S160: If the first temperature information exceeds the first temperature preset value, the steam pipe is controlled to be shut off and the process enters the third stage.

[0084] Specifically, in the second phase, if the first temperature information obtained by the control module exceeds the first preset temperature value, the steam pipe is controlled to be closed. If the first temperature information obtained by the control module does not exceed the first preset temperature value, the steam pipe is controlled to be open. In other words, while ensuring that a sufficient amount of liquid is stored in the inner tank of the water supply system, the steam pipe is regulated based on the temperature information. The first temperature information can be understood as the temperature information detected by the temperature sensor in the second phase.

[0085] S170. In the third stage, obtain and determine whether the second temperature information exceeds the second temperature preset value. If not, execute S180; if so, execute S190.

[0086] S180: If the second temperature information does not exceed the second temperature preset value, control the steam pipe to be conductive.

[0087] S190: If the second temperature information exceeds the second temperature preset value, control the steam pipe to be shut off.

[0088] Specifically, in the third phase, if the second temperature information obtained by the control module exceeds the second preset temperature value, the steam pipe is controlled to be closed. If the second temperature information obtained by the control module does not exceed the second preset temperature value, the steam pipe is controlled to be open. In other words, while ensuring that the temperature of the liquid in the inner tank of the water supply system meets the requirements of the second phase, the steam pipe is further regulated based on the temperature information. The second temperature information can be understood as the temperature information detected by the temperature sensor in the third phase. The first and second phases can be understood as the preheating and preparation phases of the water supply system, and the third phase can be understood as the main drainage phase of the water supply system. If the water supply system is used in a tobacco leaf conditioning machine, the third phase can be used for production or maintenance as needed. It should be noted that the second preset temperature value is lower than the first preset temperature value. For example, the first preset temperature value can be 50°C and the second preset temperature value can be 30°C. By setting the liquid temperature in the inner tank slightly higher during the preheating phase, the water temperature can be adjusted over a wide range as needed during actual production or maintenance, thereby ensuring the reliability and stability of the water supply system. The preset height value, the first preset temperature value, and the second preset temperature value can be adaptively adjusted according to actual production needs, and are not specifically limited in this embodiment of the present invention. It should be noted that when entering the third stage, liquid level information and temperature information can be continuously obtained. If the water temperature or water volume does not meet the preset requirements, the water supply pipe can be controlled to replenish the liquid at any time, and the steam pipe can be opened at any time to heat the liquid.

[0089] In summary, the embodiment of the present invention provides a water supply method, which controls the conduction or shutdown of the water supply pipe and the steam pipe according to the liquid height and temperature information at different stages, thereby ensuring that the liquid discharged from the water outlet pipe meets the demand and ensuring the stability of the water supply system.

[0090] Optional, Figure 4 This is a flow chart of the second water supply method provided by an embodiment of the present invention, refer to Figure 4 As shown, the water supply method also includes:

[0091] S210. In the first stage, obtain and determine whether the liquid level information exceeds a preset height value; if not, execute S220; if so, execute S230.

[0092] S220: If the liquid level information does not exceed the preset height value, the water supply pipe is controlled to be connected.

[0093] S230: If the liquid level information exceeds the preset height value, the water supply pipe is controlled to be shut off and enter the second stage.

[0094] S240. In the second stage, obtain and determine whether the first temperature information exceeds the first temperature preset value; if not, execute S250; if so, execute S260.

[0095] S250: If the first temperature information does not exceed the first temperature preset value, control the steam pipe to be conductive.

[0096] S260: If the first temperature information exceeds the first temperature preset value, the steam pipe is controlled to be shut off and the process enters the third stage.

[0097] S270. In the third stage, obtain and determine whether the second temperature information exceeds the second temperature preset value. If not, execute S280; if so, execute S290.

[0098] S280: If the second temperature information does not exceed the second temperature preset value, control the steam pipe to be conductive.

[0099] S290: If the second temperature information exceeds the second temperature preset value, control the steam pipe to be shut off.

[0100] S2100: Receive production instructions and control the first water outlet pipe to be connected.

[0101] S2110: Receive maintenance instructions and control the conduction of the second water outlet pipe.

[0102] The outlet pipes may include a main outlet pipe and branch outlet pipes, each of which includes a first outlet pipe and a second outlet pipe. The branch outlet pipes can be understood as providing liquid for different practical scenarios provided by the water supply system. Liquid discharged through the first outlet pipe can be used for production, while liquid discharged through the second outlet pipe can be used for maintenance. For example, the water supply system is used in a rehumidifier. The control module adjusts the different branches based on the acquired command information. Specifically, in the third stage, the control module controls the first outlet pipe to be open when receiving a production command, and controls the second outlet pipe to be open when receiving a maintenance command. Optionally, the control module can receive commands through operator input via a human-computer interface. Alternatively, the control module can pre-store command adjustment methods, for example, by combining them with time or other parameters to enable switching between different commands. This is not specifically limited in the present embodiment.

[0103] Furthermore, while controlling the opening or closing of the first or second water outlet pipe, the flow rate of the liquid in the first or second water outlet pipe can also be controlled, thereby achieving the regulation of the water pressure in the water outlet pipe. For example, the water pressure can be controlled to be adjusted between 4Mpa and 6.5Mpa to meet the different needs of production and maintenance. At the same time, the flow rate and flow velocity of the steam in the steam pipe can be adaptively adjusted in combination with the drainage needs, and the temperature of the liquid discharged from the water outlet pipe can be controlled to be arbitrarily adjusted between 30°C and 90°C to meet the different needs of production and maintenance. Optionally, when the water supply system is used for a rehumidification machine, the influence of different rehumidification water temperatures on process control parameters, quality indicators, and moisture changes at process points is analyzed to determine that 70°C is the optimal rehumidification water temperature, which has the best effect on loosening and rehumidifying tobacco leaves.

[0104] Based on the same inventive concept, the embodiment of the present invention further provides a moisture conditioning machine. Figure 5 This is a schematic diagram of the structure of a moisture conditioning machine provided by an embodiment of the present invention, with reference to Figure 5 As shown, the conditioning machine 1 includes the water supply system 10 described in any of the above embodiments. Therefore, the conditioning machine 1 provided in the embodiment of the present invention has the corresponding beneficial effects of the above embodiments, which will not be repeated here. Furthermore, the conditioning machine 1 adopts the above water supply system 10 to ensure that the temperature and humidity of the tobacco leaves are more in line with production requirements.

[0105] Note that the above are only preferred embodiments of the present invention and the technical principles employed. Those skilled in the art will understand that the present invention is not limited to the specific embodiments described herein, and that various obvious changes, readjustments, and substitutions can be made by those skilled in the art without departing from the scope of protection of the present invention. Therefore, although the present invention has been described in detail through the above embodiments, the present invention is not limited to the above embodiments and may include many other equivalent embodiments without departing from the concept of the present invention. The scope of the present invention is determined by the scope of the appended claims.

Claims

1. A water supply system, characterized in that: The water supply system includes: a control module, a water storage module, a detection module and a connecting pipe; The water storage module includes an inner tank and a heating jacket, wherein the heating jacket surrounds the inner tank; The inner tank includes a water inlet and a water outlet, and the heating jacket includes a steam input port; the connecting pipe includes a water supply pipe, a water outlet pipe and a steam pipe; the connecting pipe is connected to the control module; The water inlet is connected to the water supply end through the water supply pipe, and the liquid input from the water supply end is transferred to the inner tank through the water supply pipe; the water outlet is connected to the water outlet pipe, and the liquid in the inner tank is discharged through the water outlet; the steam input port is connected to the steam end through the steam pipe, and the steam input from the steam end is transferred to the heating jacket through the steam pipe, and the steam in the heating jacket is used to adjust the temperature of the liquid in the inner tank; The control module is connected to the detection module; the detection module includes a liquid level sensor and a temperature sensor; the liquid level sensor is used to detect the height of the liquid in the inner tank and generate liquid level information, and the temperature sensor is used to detect the temperature of the liquid in the inner tank and generate temperature information; the control module controls the conduction or shutoff of the water supply pipe according to the obtained liquid level information, and the control module controls the conduction or shutoff of the steam pipe according to the obtained temperature information; Among them, in the first stage, when the liquid level information obtained by the control module exceeds the height preset value, the water supply pipe is controlled to be shut off; when the liquid level information obtained by the control module does not exceed the height preset value, the water supply pipe is controlled to be turned on; in the second stage, when the first temperature information obtained by the control module exceeds the first temperature preset value, the steam pipe is controlled to be shut off; when the first temperature information obtained by the control module does not exceed the first temperature preset value, the steam pipe is controlled to be turned on; in the third stage, when the second temperature information obtained by the control module exceeds the second temperature preset value, the steam pipe is controlled to be shut off; when the second temperature information obtained by the control module does not exceed the second temperature preset value, the steam pipe is controlled to be turned on; the second temperature preset value is less than the first temperature preset value, the starting time of the second stage is after the ending time of the first stage, and the starting time of the third stage is after the ending time of the second stage.

2. The water supply system according to claim 1, characterized in that The water supply pipe includes a pneumatic angle valve, which is connected to the control module; the steam pipe includes a first stop valve, which is connected to the control module; The control module controls the pneumatic angle valve to be turned on or off. When the pneumatic angle valve is turned on, the water supply pipe is turned on, and when the pneumatic angle valve is turned off, the water supply pipe is turned off. The control module controls the first stop valve to be turned on or off. When the first stop valve is turned on, the steam pipe is turned on, and when the first stop valve is turned off, the steam pipe is turned off.

3. The water supply system according to claim 1, characterized in that The water outlet pipe includes a main water outlet pipe and a branch water outlet pipe connected to each other, the main water outlet pipe is located on a side of the branch water outlet pipe close to the water outlet; the main water outlet pipe includes a first pipe opening and a second pipe opening, the branch water outlet pipe includes a first water outlet pipe and a second water outlet pipe, the first water outlet pipe is connected to the first pipe opening, and the second water outlet pipe is connected to the second pipe opening; In the third stage, the first water outlet pipe is controlled to be connected when the control module receives a production instruction; and the second water outlet pipe is controlled to be connected when the control module receives a maintenance instruction.

4. The water supply system according to claim 3, characterized in that: The first water outlet pipe includes a second stop valve, which is connected to the control module; the second water outlet pipe includes a third stop valve, which is connected to the control module; The control module controls the second stop valve to be turned on or off. When the second stop valve is turned on, the first water outlet pipe is turned on, and when the second stop valve is turned off, the first water outlet pipe is turned off. The control module controls the third stop valve to be turned on or off. When the third stop valve is turned on, the second water outlet pipe is turned on, and when the third stop valve is turned off, the second water outlet pipe is turned off.

5. The water supply system according to claim 1, characterized in that The water supply pipe further comprises at least one water supply bypass, and the steam pipe further comprises at least one steam bypass; The control module controls the opening or closing of the water supply bypass and the steam bypass.

6. The water supply system according to claim 1, characterized in that The connecting pipe further includes a condenser pipe, and the heating jacket layer further includes a condensation outlet, the condensation outlet is connected to the condenser pipe, and the condensed water generated by the liquefaction of the steam in the heating jacket layer is discharged through the condenser pipe; The control module controls the on / off switching of the condenser.

7. The water supply system according to claim 1, characterized in that The inner tank further includes a pressure regulating port; the water outlet pipe further includes a hydraulic valve and a pressure regulating pipe; the first end of the pressure regulating pipe is connected to the hydraulic valve, and the second end of the pressure regulating pipe is connected to the pressure regulating port; The control module controls the on / off switching of the hydraulic valve.

8. A water supply method, characterized in that: Applied to the water supply system according to any one of claims 1 to 7, the water supply method comprises: In the first stage, obtaining and determining whether the liquid level information exceeds the preset height value; If the liquid level information does not exceed the preset height value, controlling the water supply pipe to be turned on; If the liquid level information exceeds the preset height value, the water supply pipe is controlled to be shut off and enter the second stage; In the second stage, obtaining and determining whether the first temperature information exceeds the first temperature preset value; If the first temperature information does not exceed the first temperature preset value, controlling the steam pipe to be conductive; If the first temperature information exceeds the first temperature preset value, controlling the steam pipe to shut down and entering the third stage; In the third stage, obtaining and determining whether the second temperature information exceeds the second temperature preset value; If the second temperature information does not exceed the second temperature preset value, controlling the steam pipe to be conductive; If the second temperature information exceeds the second temperature preset value, the steam pipe is controlled to be closed.

9. The water supply method according to claim 8, characterized in that: The water outlet pipe includes a main water outlet pipe and a branch water outlet pipe connected to each other, the main water outlet pipe is located on a side of the branch water outlet pipe close to the water outlet; the main water outlet pipe includes a first pipe opening and a second pipe opening, the branch water outlet pipe includes a first water outlet pipe and a second water outlet pipe, the first water outlet pipe is connected to the first pipe opening, and the second water outlet pipe is connected to the second pipe opening; If the second temperature information exceeds a second temperature preset value, after controlling the steam pipe to be shut off, the method further includes: receiving a production instruction and controlling the first water outlet pipe to be connected; Alternatively, a maintenance instruction is received to control the second water outlet pipe to be connected.

10. A moisture conditioning machine, characterized in that: A water supply system comprising the water supply system according to any one of claims 1 to 7.

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