Integrated water delivery module and water treatment device of ultrasound therapy apparatus using same

Abstract

An integrated water delivery module and a water treatment device of an ultrasound therapy apparatus using same. The integrated water delivery module comprises: a module housing, a plurality of communication portions being formed on the surface of the module housing; and at least one tube section structure, encapsulated within the module housing and communicated with at least some of the plurality of communication portions. The at least one tube section structure comprises one or more tube sections used for constructing at least part of at least one medium delivery tube of the water treatment device. In the integrated water delivery module, tubes required for water treatment can be pre-integrated, and a water path system can be quickly and efficiently constructed by connecting the plurality of communication portions to a tube component, thereby simplifying the structure and reducing the volume of the water treatment device.

Description

Water treatment device of an integrated water delivery module and an ultrasonic treatment device using the same TECHNICAL FIELD

[0001] The present disclosure relates to the technical field of medical equipment, and in particular, to an integrated water delivery module and a water treatment device of an ultrasonic treatment device using the same. BACKGROUND

[0002] With the development of modern medicine, local treatment of diseased tissue (e.g., tumors) is shifting from minimally invasive surgery to non-invasive treatment. Among non-invasive treatment techniques, high-intensity focused ultrasound (HIFU) treatment is widely used because it is harmless to the human body. HIFU is a treatment method that promotes necrosis of diseased tissue by focusing high-intensity ultrasound into a diseased site in the human body. The ultrasound energy received by the tissue at the focal point is converted into heat energy, thereby raising the temperature of the tissue at the point and thus promoting coagulative necrosis of the tissue or blood vessels at the focal point.

[0003] Generally, a water bag is provided to cooperate with the use of high-intensity focused ultrasound. The water bag is provided on a focused ultrasound treatment head and is filled with degassed water inside to contact and couple to the skin. At the same time, the water in the water bag can also have a cooling effect on the contacted skin area to avoid skin damage caused by heat accumulation during treatment.

[0004] Therefore, the water in the water bag needs to be treated to build a good and stable acoustic channel, thereby achieving a good and stable treatment environment. For example, filtration, degassing, and other treatments that facilitate the transmission of ultrasound waves, and for example, water cooling. However, various water treatment methods result in complex pipe connection structures, which are inconvenient to arrange and prone to errors, and also cause the water treatment device of the ultrasonic treatment equipment to have a large volume, which is difficult to reduce and thus reduces the product competitiveness. SUMMARY

[0005] In view of the above-mentioned shortcomings of the prior art, the purpose of the present disclosure is to provide an integrated water delivery module and a water treatment device of an ultrasonic treatment device using the same, to solve the problems in the related art.

[0006] The first aspect of the present disclosure provides an integrated water delivery module, which is applied to a water treatment device of an ultrasonic treatment device. The integrated water delivery module comprises a module housing, a plurality of communication parts are formed on the surface of the module housing; at least one pipe segment structure is encapsulated in the module housing and is in communication with at least part of the plurality of communication parts; the at least one pipe segment structure comprises one or more pipe segments for constructing at least part of at least one medium delivery pipeline of the water treatment device.

[0007] In an embodiment of the first aspect, the water treatment device comprises a water tank, at least one water inlet, a water return outlet, and a water outlet; the water tank comprises a water tank inlet and a water tank outlet; the at least one medium conveying pipeline comprises at least one of: a water inlet pipeline between one of the water inlets and the water tank inlet; a water outlet pipeline between the water tank outlet and one of the water inlets; a water return pipeline between the water return outlet and the water tank inlet; a water outlet pipeline between the water tank outlet and the water outlet via a water outlet treatment assembly; a self-circulation bridging pipeline between the water outlet pipeline and the water return pipeline; the at least one pipeline segment structure comprises at least one of: a first pipeline segment structure comprising one or more pipeline segments for constructing at least part of the water inlet pipeline; a second pipeline segment structure comprising one or more pipeline segments for constructing at least part of the water outlet pipeline; a third pipeline segment structure comprising one or more pipeline segments for constructing at least part of the water return pipeline; a fourth pipeline segment structure comprising one or more pipeline segments for constructing at least part of the water outlet pipeline; and a fifth pipeline segment structure comprising one or more pipeline segments for constructing at least part of the self-circulation bridging pipeline.

[0008] In an embodiment of the first aspect, the at least one pipeline segment structure is arranged along the coordinate axes of a spatial orthogonal coordinate system within the module housing.

[0009] In an embodiment of the first aspect, the pipeline segments in the at least one pipeline segment structure form one or more meandering extensions of the constructed medium conveying pipeline within the module housing.

[0010] In an embodiment of the first aspect, the communication portions in the plurality of communication portions that communicate with the water return outlet and the water outlet are respectively arranged close to both ends in the length direction of the module housing from the communication portions that communicate with the water inlet and the water outlet; and / or, at least part of the communication portions that communicate with the module housing via the external pipeline are arranged in the same coordinate axis direction; and / or, the communication portions in the plurality of communication portions that communicate with the water return outlet and the water outlet are respectively arranged close to both ends in the length direction of the module housing from the communication portions that communicate with the water tank inlet and the water tank outlet.

[0011] In an embodiment of the first aspect, the at least one pipeline segment structure further comprises: a fifth pipeline segment structure comprising one or more pipeline segments for constructing at least part of the self-circulation bridging pipeline between the water outlet pipeline and the water return pipeline.

[0012] In an embodiment of the first aspect, the plurality of communication portions are externally connected to pipeline elements, which comprise at least one of: a pipe; a pump; a valve; a gas storage container; a filter assembly; a water outlet treatment assembly; a sensor; and / or, the water outlet treatment assembly comprises a degassing assembly and a refrigeration assembly.

[0013] In an embodiment of the first aspect, the pipeline elements enclosed in the module housing include at least one of: a gas storage container; a water outlet treatment assembly; a sensor.

[0014] In an embodiment of the first aspect, the at least one water passage includes: a water inlet and a water outlet, the water inlet pipeline is connected to the water inlet and is provided with a water inlet valve and a water inlet pump, the water outlet pipeline is connected to the water outlet and is provided with a water outlet valve and a water outlet pump; or, the at least one water passage includes: a water inlet and outlet, the water inlet pipeline is provided with a water inlet pump, the water outlet pipeline is provided with a water outlet pump, the water inlet pipeline and the water outlet pipeline are connected to the water inlet and outlet through a reversing valve, the reversing valve is used to switch the water inlet and outlet to be connected to the water inlet pipeline as a water inlet, or to be connected to the water outlet pipeline as a water outlet; and / or, the backwater pipeline is provided with a backwater valve and a backwater pump; and / or, the water outlet pipeline is provided with a water outlet pump and a water outlet valve; and / or, the water outlet treatment assembly includes a degassing assembly, the degassing assembly is connected to a gas storage container, the gas storage container includes: a gas inlet end, a vacuum end and a water outlet end; the at least one medium conveying pipeline includes: a gas inlet pipeline connected to the gas inlet end and the degassing assembly, a gas extraction pipeline connected to the vacuum end, an exhaust pipeline connected to the pressure section, and a gas storage water outlet pipeline connected to the water outlet end; the plurality of functional elements include: a negative pressure pump arranged in the gas extraction pipeline; an exhaust valve arranged in the exhaust pipeline; a gas storage water outlet valve arranged in the gas storage water outlet pipeline; and / or, a self-circulation bridge pipeline is connected between the water outlet pipeline and the backwater pipeline, the self-circulation bridge pipeline is provided with a circulation valve.

[0015] In an embodiment of the first aspect, the plurality of communication portions comprises: a first communication portion, a second communication portion, a third communication portion, a fourth communication portion, a fifth communication portion and a sixth communication portion for configuring the first pipe segment structure; the first communication portion is communicated with the water inlet through a water inlet valve pipeline; the second communication portion is communicated with the first communication portion in the module shell, and is communicated with the third communication portion through a water inlet pump; the fourth communication portion is communicated with the third communication portion in the module shell; the fifth communication portion is directly communicated with the fourth communication portion through a pipeline or communicated with the fourth communication portion through a filter assembly; the sixth communication portion is communicated with the fifth communication portion in the module shell, and is communicated with the water tank water inlet pipeline; and / or, the plurality of communication portions comprises: a seventh communication portion, an eighth communication portion, a ninth communication portion, a tenth communication portion, an eleventh communication portion and a twelfth communication portion for configuring the second pipe segment structure; the seventh communication portion is communicated with the water tank water outlet; the eighth communication portion is communicated with the seventh communication portion in the module shell, and is communicated with the ninth communication portion through a drain valve; the tenth communication portion is communicated with the ninth communication portion in the module shell, and is communicated with the eleventh communication portion through a drain pump; the twelfth communication portion is communicated with the eleventh communication portion in the module shell; and / or, the plurality of communication portions comprises: a thirteenth communication portion, a fourteenth communication portion, a fifteenth communication portion and a sixteenth communication portion for configuring the third pipe segment structure; the thirteenth communication portion is communicated with the water tank water inlet; the fourteenth communication portion is communicated with the thirteenth communication portion in the module shell, and is communicated to the fifteenth communication portion through a backwater pump pipeline; the fifteenth communication portion is communicated with the sixteenth communication portion in the module shell; the sixteenth communication portion is communicated with the backwater outlet through a backwater valve; and / or, the plurality of communication portions comprises: the seventh communication portion, an eighteenth communication portion, a nineteenth communication portion, a twentieth communication portion, a twenty-first communication portion, a twenty-second communication portion and a twenty-third communication portion for configuring the fourth pipe segment structure; the seventh communication portion is communicated with the water tank water outlet; the eighteenth communication portion is communicated with the seventh communication portion in the module shell, and is communicated with the nineteenth communication portion through a water outlet pump; the nineteenth communication portion is communicated with the twentieth communication portion through a degassing assembly; the twenty-first communication portion is communicated with the twentieth communication portion in the module shell through a pipeline, and is communicated with the twenty-second communication portion through a refrigeration assembly; the twenty-second communication portion is communicated with the water outlet through a water outlet valve; and / or, the plurality of communication portions comprises a twenty-third communication portion and a twenty-fourth communication portion, the twenty-third communication portion is communicated with the twenty-second communication portion in the module shell, the twenty-third communication portion is communicated with the twenty-fourth communication portion through a circulation valve; the twenty-fourth communication portion is communicated with the third pipe segment structure; and / or, the plurality of communication portions comprises a twenty-fifth communication portion; the twenty-fifth communication portion is communicated with the twenty-second communication portion in the module shell, and the twenty-fifth communication portion is provided with a temperature sensor.And / or, the plurality of communication parts includes a twenty-sixth communication part, which is communicated with the gas inlet / outlet pipeline of the gas storage container in the module shell, for setting a negative pressure sensor; and / or, the at least one pipe section structure is provided with the degassing assembly and a gas storage container, the gas storage container is communicated with the degassing assembly; the plurality of communication parts includes a twenty-seventh communication part, a twenty-eighth communication part, a twenty-ninth communication part and a thirtieth communication part; the twenty-seventh communication part is communicated with the vacuum end of the gas storage container, for connecting a negative pressure pump; the twenty-eighth communication part is communicated with the vacuum end of the gas storage container, for being communicated with the external gas pressure source through an exhaust valve; the twenty-ninth communication part is communicated with the thirtieth communication part through a gas storage drain valve, and the thirtieth communication part is communicated with the second pipe section structure in the module shell to be communicated with the drain port.

[0016] In an embodiment of the first aspect, the plurality of communication portions include: thirty-first, thirty-second, thirty-third, thirty-fourth, thirty-fifth and thirty-sixth communication portions for configuring the first pipe segment structure; the thirty-first communication portion is communicated with the water inlet through a water inlet valve pipe; the thirty-second communication portion is communicated with the thirty-first communication portion in the module housing, and is communicated with the thirty-third communication portion through a water inlet pump; the thirty-fourth communication portion is communicated with the thirty-third communication portion in the module housing; the thirty-fifth communication portion is directly communicated with the thirty-fourth communication portion through a pipe or communicated with the thirty-fourth communication portion through a filter assembly; the thirty-sixth communication portion is communicated with the thirty-fifth communication portion in the module housing, and is communicated with a water tank water inlet pipe; and / or, the plurality of communication portions include: thirty-seventh, thirty-eighth, thirty-ninth, fortieth, forty-first and forty-second communication portions for configuring the second pipe segment structure; the thirty-seventh communication portion is communicated with a water tank water outlet; the thirty-eighth communication portion is communicated with the thirty-ninth communication portion through a drain valve; the fortieth communication portion is communicated with the fortieth communication portion in the module housing; the forty-first communication portion is communicated with the fortieth communication portion through a drain pump; the forty-second communication portion is communicated with the forty-first communication portion in the module housing; and / or, the plurality of communication portions include: forty-third, forty-fourth, forty-fifth and forty-sixth communication portions for configuring the third pipe segment structure; the forty-third communication portion is communicated with a water tank water inlet; the forty-fourth communication portion is communicated with the forty-third communication portion in the module housing, and is communicated with the forty-fifth communication portion through a backwater pump pipe; the forty-fifth communication portion is communicated with the forty-sixth communication portion in the module housing; the forty-sixth communication portion is communicated with a backwater outlet through a backwater valve; and / or, the plurality of communication portions include: thirty-seventh, forty-seventh, forty-eighth, forty-ninth and fiftieth communication portions for configuring the fourth pipe segment structure; the thirty-seventh communication portion is communicated with a water tank water outlet, and is communicated with the forty-seventh communication portion through a water outlet pump; the forty-seventh communication portion is communicated with the forty-eighth communication portion through a degassing assembly and a refrigeration assembly; the forty-ninth communication portion is communicated with the forty-eighth communication portion in the pipe module structure, and the forty-ninth communication portion is communicated with the water outlet through a water outlet valve; and / or, the plurality of communication portions include a fifty-seventh communication portion and a fifty-eighth communication portion; the fifty-seventh communication portion is communicated with the forty-ninth communication portion in the module housing, and is communicated with the fifty-eighth communication portion through a circulation valve; the fifty-eighth communication portion is communicated with the third pipe segment structure, for example, is communicated with the forty-fifth communication portion; and / or, the plurality of communication portions include a fifty-ninth communication portion; the fifty-ninth communication portion is communicated with the forty-ninth communication portion in the module housing, and a temperature sensor is arranged in the fifty-ninth communication portion.And / or, the plurality of communication parts include a fiftieth communication part, a fifty-first communication part, a fifty-second communication part, a fifty-fourth communication part, a fifty-fifth communication part, and a fifty-sixth communication part; the fiftieth communication part is in communication with a vacuum end of the gas storage container, the fifty-first communication part is in communication with the fiftieth communication part in the pipe segment module structure, for connecting a negative pressure pump; the fifty-second communication part is in communication with the vacuum end, for being communicated to an external gas pressure source through an exhaust valve; the fifty-fourth communication part is in communication with a drainage end of the gas storage container, and is in communication with the fifty-fifth communication part in the module housing; the fifty-fifth communication part is in communication with the fifty-sixth communication part through a gas storage drainage valve, and the fifty-sixth communication part is in communication with the second pipe segment structure in the module housing to be communicated to the drainage port; and / or, the plurality of communication parts include a fifty-third communication part; the fifty-third communication part is in communication with an inlet / outlet gas pipeline of the gas storage container, for arranging a negative pressure sensor.

[0017] The second aspect of the present disclosure provides a water treatment device of an ultrasonic treatment device, comprising the integrated water delivery module according to any one of the first aspect.

[0018] As described above, the present disclosure provides an integrated water delivery module and a water treatment device of an ultrasonic treatment device using the same, the integrated water delivery module comprising: a module housing, a surface of which forms a plurality of communication parts; at least one pipe segment structure encapsulated in the module housing and in communication with at least part of the plurality of communication parts; the at least one pipe segment structure comprises one or more pipe segments for constructing at least part of at least one medium delivery pipeline of the water treatment device. The integrated water delivery module can pre-integrate the pipeline required for water treatment, and the pipeline elements connected by the plurality of communication parts can quickly and efficiently construct the water pipeline system, simplify the structure, and reduce the volume of the water treatment device. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 shows a schematic diagram of a pipeline structure of a water treatment device according to an embodiment of the present disclosure.

[0020] Figure 2 shows a perspective structural schematic diagram of an integrated water delivery module according to a first embodiment of the present disclosure from one perspective.

[0021] Figure 3 shows a perspective structural schematic diagram of the integrated water delivery module of Figure 2 from a back perspective.

[0022] Figure 4 shows a structural schematic diagram of a first pipeline and a second pipeline constructed using the integrated water delivery module according to the first embodiment of the present disclosure.

[0023] Figure 5 shows a structural schematic diagram of a third pipeline and a fourth pipeline constructed using the integrated water delivery module according to the first embodiment of the present disclosure.

[0024] Figure 6 shows a structural schematic diagram of a self-circulation bridging pipeline constructed using the integrated water delivery module according to the first embodiment of the present disclosure.

[0025] Figure 7 shows a schematic diagram of the structure of the gas inlet pipeline, the gas extraction pipeline, the gas exhaust pipeline and the water drainage pipeline of the gas storage container constructed by the integrated water delivery module in the first embodiment of the present disclosure.

[0026] Figure 8 shows a schematic diagram of the structure of the integrated water delivery module after the complete connection of the pipeline elements in the first embodiment of the present disclosure.

[0027] Figure 9 shows a perspective schematic diagram of the structure of the integrated water delivery module from one perspective in the second embodiment of the present disclosure.

[0028] Figure 10 shows a schematic diagram of the pipeline structure of the water treatment device marked with the communication part of the integrated water delivery module in the second embodiment. DETAILED DESCRIPTION

[0029] The advantages and effects of the present disclosure can be easily understood by those skilled in the art from the messages disclosed in the present disclosure. The present disclosure can also be implemented or applied in different specific embodiments or modules, and the details in the present disclosure can be modified or changed in different perspectives and application modules without departing from the spirit of the present disclosure. It should be noted that the embodiments in the present disclosure and the features in the embodiments can be combined with each other without conflict.

[0030] The embodiments of the present disclosure will be described in detail below with reference to the accompanying drawings. The present disclosure can be embodied in various different forms, and is not limited to the embodiments described herein.

[0031] In the description of the present disclosure, the expressions of "one embodiment", "some embodiments", "an example", "a specific example", or "some examples" mean that the specific features, structures, materials or characteristics represented in connection with the embodiment or example are included in at least one embodiment or example of the present disclosure. Moreover, the specific features, structures, materials or characteristics represented can be combined in any one or a group of embodiments or examples in a suitable manner. In addition, the different embodiments or examples represented in the present disclosure and the features of the different embodiments or examples can be combined and combined by those skilled in the art without conflict.

[0032] In addition, the terms "first", "second" are only used for the purpose of representation, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features limited by "first", "second" can explicitly or implicitly include at least one of the features. In the description of the present disclosure, the meaning of "a group" is two or more, unless otherwise specifically limited.

[0033] For the purpose of clearness of the present disclosure, devices irrelevant to the description are omitted, and the same reference numerals are assigned to the same or similar constituent elements throughout the specification.

[0034] Throughout the specification, when it is said that a certain device is "connected" to another device, this includes not only the case of "direct connection" but also the case of "indirect connection" in which other elements are interposed therebetween. In addition, when it is said that a certain device "includes" a certain constituent element, other constituent elements are not excluded unless specifically stated to the contrary, but it means that other constituent elements can be further included.

[0035] Although the terms first, second, etc. are used herein to refer to various elements, these elements should not be limited by these terms. These terms are only used to distinguish one element from another. For example, first communication portion and second communication portion are indicated. Also, as used herein, the singular forms "a", "an" and "the" are intended to include the plural forms as well, unless the context clearly indicates otherwise. It will be further understood that the terms "comprises", "comprising", "includes" and / or "including" means that the mentioned features, steps, operations, elements, modules, items, kinds and / or groups are present, but do not exclude the presence or addition of one or more other features, steps, operations, elements, modules, items, kinds and / or groups. The terms "or" and "and / or" as used herein are to be interpreted as inclusive, i.e., as meaning either item by itself or any combination of one or more items. Thus "A, B or C" or "A, B and / or C" means any of the following: A; B; C; A and B; A and C; B and C; A, B and C. An exception to this definition will occur only when a combination of elements, functions, steps or acts are in some way inherently mutually exclusive.

[0036] The professional terms used herein are used only to refer to specific embodiments, and are not intended to limit the present disclosure. The singular form used herein, unless the context clearly indicates otherwise, also includes the plural form. The meaning of "include" used in the specification is to specify a certain characteristic, region, integer, step, operation, element and / or component, and does not exclude the presence or addition of other characteristics, regions, integers, steps, operations, elements and / or components.

[0037] Although not differently defined, including technical terms and scientific terms used herein, all terms have the same meaning as generally understood by those skilled in the art to which the present disclosure belongs. The terms defined in a generally used dictionary are additionally interpreted to have a meaning consistent with the related technical literature and the currently prompted message, unless defined, and should not be over-interpreted as an ideal or very formal meaning.

[0038] High intensity focused ultrasound (HIFU) treatment equipment usually uses water as the medium of ultrasound transmission to improve the transmission quality of ultrasound signals. Moreover, water can also play a role in cooling the skin. Usually, a water bag is set to cooperate with the high intensity focused ultrasound, and the water bag is set in the focused ultrasound treatment head, and the inside is filled with degassed water to contact and couple to the skin. At the same time, the water in the water bag can also cool the contacted skin area to avoid skin damage caused by heat accumulation during the treatment process.

[0039] Therefore, the water in the water bag needs to be treated to build a good and stable sound channel, so as to realize a good and stable treatment environment. For example, filtration, degassing and other treatments conducive to ultrasound transmission, and for example, water cooling and the like. However, various water treatment methods result in complex pipeline connection structure, inconvenient arrangement and easy error, and also cause the water treatment device of the ultrasound treatment equipment to have a large volume, which is difficult to reduce, and is detrimental to product competitiveness.

[0040] In view of this, an integrated water delivery module is provided in the embodiments of the present disclosure, at least part of the pipe sections in the pipeline required for water treatment are integrated in the water delivery module, and at least one pipe section structure, simplified pipeline arrangement, and easy-to-connect elements to build a water treatment system can be achieved. It should be particularly pointed out that the integrated water delivery module in the embodiments of the present disclosure is not limited to water treatment of the water in the water bag, and water treatment in other types of ultrasound treatment equipment can also apply the integrated water delivery module in the embodiments of the present disclosure.

[0041] As shown in FIG. 1, a schematic diagram of the pipeline structure of the water treatment device in the first embodiment of the present disclosure is shown.

[0042] In FIG. 1, the water treatment device is exemplarily shown to include a water inlet 101, a water inlet valve 102, a water inlet pump 103, a water outlet 104, a water outlet valve 105, a water outlet pump 106, a water return inlet 107, a water return valve 108, a water return pump 109, a water outlet 110, a water outlet valve 111, a water outlet pump 112, a water tank 113, a degassing assembly 114, a refrigeration assembly 115, and the like.

[0043] The water tank 113 includes a water tank water inlet 1131 and a water tank water outlet 1132, and the water tank water inlet 1131 and the water tank water outlet 1132 can be one respectively. However, the water tank water inlet 1131 and the water tank water outlet 1132 can be led out by a pipeline respectively one or more, for example, a first water tank water inlet 1131a for a first pipeline tap water inlet and a second water tank water inlet 1131b for a third pipeline water return inlet.

[0044] According to FIG. 1, a water inlet pipeline for water tank 113 is formed from water inlet 101, water inlet valve 102, water inlet pump 103 to water tank inlet 1131 of water tank 113. Optionally, the water inlet pipeline can pass through filter assembly 116 to perform filtration treatment such as pre-treatment, ultra-purification, etc. on the water inlet of water inlet 101. In some embodiments, the water inlet of water inlet 101 can select water source with different purification levels according to cost, such as tap water, filtered water or pure water, etc.

[0045] A water outlet pipeline for water tank 113 to discharge waste water is formed from water tank outlet 1132 of water tank 113, drain valve 105, drain pump 106 to drain 104.

[0046] A backwater pipeline for water tank 113 to backwater is formed from backwater valve 108, backwater pump 109 to water tank inlet 1131.

[0047] A water outlet pipeline for water tank 113 to output water after water treatment is formed from water tank outlet 1132 of water tank 113, water outlet pump 112, water treatment assembly to drain 104. The backwater pipeline and the water outlet pipeline can be used for water tank to backwater and water inlet. Exemplarily, the water treatment assembly can include degassing assembly 114 and refrigeration assembly 115.

[0048] Optionally, a self-circulation bridge pipeline provided with circulation valve 117 is branched from the water outlet pipeline to the backwater pipeline, which constitutes a self-circulation pipeline for water tank 113 to backwater and water inlet when water outlet valve 111 and backwater valve 108 are closed and circulation valve 117 is turned on. Exemplarily, one end of the self-circulation bridge pipeline is connected between water outlet valve 111 and refrigeration assembly 115, and the other end of the self-circulation bridge pipeline is connected between backwater valve 108 and backwater pump 109. Of course, the connection positions of the two ends of the self-circulation bridge pipeline can be changed.

[0049] Optionally, degassing assembly 114 is communicated with gas storage container 118 to discharge the gas removed from the water to gas storage container 118. Gas storage container 118 includes gas inlet end 1181, vacuum end 1182 and drain end 1183. The vacuum end 1182 can also output one or more pipelines.

[0050] The air inlet end 1181 is connected to the degassing assembly 114 through an air inlet pipeline to intake air. The vacuum end 1182 is connected to a negative pressure pump 119 through an air outlet pipeline, and the negative pressure pump 119 is used to pump the air storage container 118 to form a vacuum environment. Optionally, the air outlet pipeline is also provided with a silencer 120 to eliminate noise. The vacuum end 1182 is connected to the outside through an air outlet pipeline provided with an air outlet valve 121 to discharge the gas in the air storage container 118 to achieve air outlet. Since the gas output by the degassing assembly 114 will carry water vapor, water will be formed in the air storage container 118, and the water outlet end 1183 is used to drain the water in the air storage container 118. Specifically, the water outlet end 1183 is connected to the water outlet pipeline through an air storage drainage pipeline to drain water to the water outlet 104. The air storage drainage pipeline is provided with an air storage drainage valve 122. Exemplarily, the connection end of the air storage drainage pipeline and the water outlet pipeline can be located between the water outlet valve 105 and the water outlet pump 106.

[0051] Optionally, at least one sensor can also be included in the water treatment system. For example, a negative pressure sensor 123 connected to the air inlet / outlet pipeline of the air storage container 118, a temperature sensor 124 connected to the water outlet pipeline after the refrigeration assembly 115 to detect the temperature of the return water, a liquid level sensor 125 connected to the water tank 113, etc.

[0052] In some embodiments, one or more of the water inlet valve 102, the water outlet valve 111, the water outlet valve 105, the return water valve 108, the circulation valve 117, the air outlet valve 121, the air storage drainage valve 122, etc. can be solenoid valves, and the on-off is realized by electric control. Preferably, the return water pump 109 and the water outlet pump 112 are preferably peristaltic pumps. The peristaltic pump can realize high-sealing fluid transmission, and the entire transmission path will not be contacted by external medium, which can effectively reduce the pollution of the return water.

[0053] It should be particularly pointed out that although the water inlet 101, the water inlet valve 102, the water outlet 104, and the water outlet valve 105 are shown in FIG. 1, in other embodiments, the water inlet 101 and the water outlet 104 can be replaced by an inlet and outlet, and the water inlet valve 102 and the water outlet valve 105 can be replaced by a reversing valve for switching the inlet and outlet to be connected to the water inlet pipeline as a water inlet, or switching the inlet and outlet to be connected to the water outlet pipeline as a water outlet.

[0054] The integrated water delivery module provided in the embodiments of the present disclosure can encapsulate at least part of the pipe section of at least one medium delivery pipeline (such as a water inlet pipeline, a water outlet pipeline, a water return pipeline, a water outlet pipeline, a self-circulation pipeline, an air inlet pipeline, an air extraction pipeline, an air outlet pipeline, a gas storage and water discharge pipeline, etc.) in FIG. 1 and provide multiple communication parts for communication elements, so as to construct the water treatment system, simplify the pipeline structure, and reduce the volume. The communication part can be a through hole, a through opening, or other structures. To improve the integration, at least part of the components, such as at least one of the degassing assembly 114, the gas storage container 118, the refrigeration assembly 115, a valve, a pump, and a sensor, can be encapsulated in the integrated water delivery module.

[0055] FIGS. 2 to 8 show the structural schematic diagram of the integrated water delivery module 200 in the first embodiment of the present disclosure. Optionally, the degassing assembly 114, the gas storage container 118, and the refrigeration assembly 115 are integrated in the integrated water delivery module 200.

[0056] Please refer to FIGS. 2 and 3. FIG. 2 shows the perspective structural schematic diagram of one view of the integrated water delivery module 200 in the first embodiment of the present disclosure. FIG. 3 shows the perspective structural schematic diagram of the back view of the integrated water delivery module 200 in FIG. 2. In FIG. 3, the communication parts that are not clearly shown in the back view in FIG. 2 are mainly shown.

[0057] The integrated water delivery module 200 includes a module shell 210 and at least one pipe section structure encapsulated in the module shell 210. The at least one pipe section structure includes one or more pipe sections of at least part of at least one medium delivery pipeline used to construct a water treatment device. Specifically, each pipe section structure belongs to one medium delivery pipeline and contains one or more pipe sections of the medium delivery pipeline.

[0058] For example, the module shell 210 is solid, and each pipe section in the at least one pipe section structure is formed by a tubular hollow in the module shell 210; or each pipe section can also be arranged in the structural module by a solid hard pipe. For example, the module shell 210 can have a square body shape, specifically a cuboid shape.

[0059] The surface of the module shell 210 forms multiple communication parts. The at least one pipe section structure is encapsulated in the module shell 210 and forms communication with at least part of the multiple communication parts. For example, the communication part can be a through hole or a through opening.

[0060] For example, the at least one pipe section structure includes at least a first pipe section structure, a second pipe section structure, a third pipe section structure, and a fourth pipe section structure.

[0061] The first pipe segment structure includes one or more pipe segments for constructing at least part of the communicating pipe line between the water inlet 101 and the first water tank water inlet 1131a (the water flow direction is schematically indicated by the dashed arrow). Exemplarily, the plurality of communicating portions includes a first communicating portion 2101, a second communicating portion 2102, a third communicating portion 2103, a fourth communicating portion 2104, a fifth communicating portion 2105, and a sixth communicating portion 2106 in the first pipe segment structure.

[0062] The second pipe segment structure includes one or more pipe segments for constructing at least part of the communicating pipe line between the water tank water outlet 1132 and the drain 104 (e.g., the drain pipe line in FIG. 1). Exemplarily, the plurality of communicating portions includes a seventh communicating portion 2107, an eighth communicating portion 2108, a ninth communicating portion 2109, a tenth communicating portion 2110, an eleventh communicating portion 2111, and a twelfth communicating portion 2112 in the second pipe segment structure.

[0063] The third pipe segment structure includes one or more pipe segments for constructing at least part of the communicating pipe line between the backwater 107 and the second water tank water inlet 1131b (e.g., the backwater pipe line in FIG. 1). Exemplarily, the plurality of communicating portions includes a thirteenth communicating portion 2113, a fourteenth communicating portion 2114, a fifteenth communicating portion 2115, and a sixteenth communicating portion 2116 in the third pipe segment structure.

[0064] The fourth pipe segment structure includes one or more pipe segments for constructing at least part of the communicating pipe line between the water tank water outlet 1132, the degassing assembly 114, and the refrigeration assembly 115 to the water outlet 110. Exemplarily, the plurality of communicating portions includes the seventh communicating portion 2107, an eighteenth communicating portion 2118, a nineteenth communicating portion 2119, a twentieth communicating portion 2120, a twenty-first communicating portion 2121, a twenty-second communicating portion 2122, and a twenty-third communicating portion 2123 in the fourth pipe segment structure.

[0065] In some embodiments, the at least one pipe segment structure is arranged along the coordinate axes of a spatial rectangular coordinate system within the module housing 210. For example, as shown in FIG2, a spatial rectangular coordinate system is defined based on the length, width, and height directions of the rectangular module housing 210, with the X, Y, and Z axes defined by these directions. The pipe segment between the first connecting portion 2101 and the second connecting portion 2102 extends along the Y direction. As another example, the pipe segment between the fifth connecting portion 2105 and the sixth connecting portion 2106 extends from the fifth connecting portion 2105 first along the negative Y-axis, then along the negative X-axis, and finally along the positive Z-axis to reach the sixth connecting portion 2106. From the above examples, it can also be understood that two connected portions can be located on the same, opposite, or adjacent surfaces within the defined space (e.g., the rectangular shape shown in the figure). Furthermore, at least one or more pipe segments in the at least one pipe segment structure can also extend in a circuitous manner within the module housing 210. For example, in the return water direction of the third pipe segment structure in Figure 2, from the thirteenth connecting part 2113 through the pipe segment inside the module housing 210 to the fourteenth connecting part 2114, it exhibits changes along the negative Z-axis, positive X-axis, and negative Y-axis. Then, from the fourteenth connecting part 2114, it connects to the fifteenth connecting part 2115 (see Figure 3 for reference), exhibiting a change along the negative X-axis. Then, from the fifteenth connecting part 2115, it connects to the sixteenth pipe through the internal pipe, exhibiting changes along the positive X-axis, negative Y-axis, and negative and positive Z-axis. It can be seen that the third pipe segment structure exhibits a circuitous extension in the X-axis and Z-axis directions during application. This circuitous extension is beneficial for improving the integration of the pipeline and reducing the occupied space, thus reducing the volume.

[0066] The first communication part 2101 is used for communication with the water inlet 101, the twelfth communication part 2112 is used for communication with the water outlet 104, the seventh communication part 2107 can be communicated with the water tank outlet 1132, the sixth communication part 2106 is used for communication with the first water tank water inlet 1131a, the sixteenth communication part 2116 is used for communication with the backwater outlet 107, and the twenty-second communication part 2122 is used for communication with the water outlet 110. In FIG. 1, the first communication part 2101, the twelfth communication part 2112, the seventh communication part 2107, and the sixth communication part 2106 can be arranged near one end of the module shell 210 in the X-axis direction, and the sixteenth communication part 2116 and the twenty-second communication part 2122 can be arranged near the other end opposite to the one end. That is, the communication parts for communication with the backwater outlet 107 and the water outlet 110 are arranged near the two ends of the module shell 210 in the length direction, respectively, and the communication parts for communication with the water tank water inlet 1131 and the water tank outlet 1132 are arranged near the two ends of the module shell 210 in the length direction, respectively. In this way, it is beneficial to form communication with the corresponding pipeline elements at the ends by shorter pipelines, thereby simplifying the pipeline structure. For example, the water tank 113 can be arranged near the left end of the module shell 210 to be conveniently communicated with the sixth communication part 2106 and the seventh communication part 2107 by shorter pipelines for water inlet / outlet of the water tank 113.

[0067] In some embodiments, the plurality of communication parts are used for external communication with pipeline elements, and the pipeline elements include at least one of the following: a pipe; a pump; a valve; a gas storage container; a filter assembly; a water outlet treatment assembly; a sensor. As an example, the water outlet treatment assembly includes a degassing assembly and a refrigeration assembly, and of course can also include other functional assemblies. In some embodiments, at least part of the pipeline elements are packaged in the module shell 210, such as the degassing assembly 114, the gas storage container 118, and the refrigeration assembly 115 in FIGS. 2 and 3, which are packaged together with other pipeline structures in the module shell 210.

[0068] The following describes the construction of the plurality of pipelines in FIG. 1 using the integrated water delivery module 200 in combination with a plurality of illustrated embodiments. For ease of display, other pipeline structures and communication parts that are not directly related to the currently displayed pipeline structures are hidden in each of the following illustrations.

[0069] As shown in FIG. 4, a structure schematic diagram for constructing a first pipeline and a second pipeline using the integrated water delivery module 200 in the first embodiment of the present disclosure is shown.

[0070] The first communication part 2101 to the sixth communication part 2106 are used for constructing the first pipeline. As an example, the first communication part 2101 is located on the front wall of the module shell 210. The first communication part 2101 is communicated with the water inlet 101 through a water inlet valve 102.

[0071] The second communication portion 2102 is in communication with the first communication portion 2101 within the module housing 210, and is in communication with the third communication portion 2103 via a water inlet pump 103. As an example, the second communication portion 2102 and the first communication portion 2101 are located on opposite surfaces in the Y direction, i.e. the second communication portion 2102 is located on the rear wall of the module housing 210. The third communication portion 2103 is also located on the rear wall of the module housing 210. The second communication portion 2102 is in communication with a straight pipe within the module housing 210, and the second communication portion 2102 is in communication with the third communication portion 2103 on the same surface via a pipe.

[0072] The fourth communication portion 2104 is in communication with the third communication portion 2103 within the module housing 210. The fifth communication portion 2105 is directly connected to the fourth communication portion 2104 via a pipe or is in communication with the fourth communication portion 2104 via a filter assembly. As an example, the third communication portion 2103 and the fourth communication portion 2104 are located on opposite surfaces in the Y direction, i.e. the fourth communication portion 2104 is located on the front wall. The fifth communication portion 2105 is arranged in the Z direction on the front wall relative to the fourth communication portion 2104, e.g. the fifth communication portion 2105 is located above the fourth communication portion 2104 in the figure. As shown in FIG. 4, the fourth communication portion 2104 and the fifth communication portion 2105 are directly connected by a pipe, but in other embodiments, the filter assembly 116 can be externally connected.

[0073] The sixth communication portion 2106 is in communication with the fifth communication portion 2105 within the module housing 210, and is in communication with the first water tank water inlet 1131a via a pipe. As an example, the sixth communication portion 2106 is located on the top surface of the module housing 210, and the fifth communication portion 2105 extends to the sixth communication portion 2106 via a pipe in the negative Y direction, the negative X direction, and the positive Z direction.

[0074] The seventh communication portion 2107 to the twelfth communication portion 2112 are used to construct a second pipe.

[0075] The seventh communication portion 2107 is in communication with the water tank water outlet 1132. As an example, the seventh communication portion 2107 is located on the left side surface of the module housing 210.

[0076] The eighth communication portion 2108 is in communication with the seventh communication portion 2107 within the module housing 210, and is in communication with the ninth communication portion 2109 via a drain valve 105. As an example, the eighth communication portion 2108 is located on the front wall of the module housing 210, and the seventh communication portion 2107 extends to the eighth communication portion 2108 via a pipe in the positive X direction and the positive Y direction. The ninth communication portion 2109 and the eighth communication portion 2108 can be located on the same surface, such as the front wall of the module housing 210.

[0077] The tenth communication part 2110 is in communication with the ninth communication part 2109 in the module housing 210, and is in communication with the eleventh communication part 2111 through a drainage pump 106. As an example, the tenth communication part 2110 and the ninth communication part 2109 are located on opposite surfaces in the Y-axis direction, for example, the back wall, and can be in linear communication with the ninth communication part 2109. The eleventh communication part 2111 and the tenth communication part 2110 can be located on the same surface, and can be different in height. The eleventh communication part 2111 can be higher than the tenth communication part 2110.

[0078] The twelfth communication part 2112 is in communication with the eleventh communication part 2111 in the module housing 210. As an example, the twelfth communication part 2112 and the eleventh communication part 2111 can be located on opposite surfaces in the Y direction, for example, the front wall, and the eleventh communication part 2111 can extend through the Y-axis positive direction, the Z-axis positive direction, the X-axis negative direction, the Z-axis negative direction, and the Y-axis positive direction to communicate with the twelfth communication part 2112. As an example, the twelfth communication part 2112 can be at the same height as the first communication part 2101 and the fourth communication part 2104 on the front wall.

[0079] Returning to FIG. 1, the communication parts involved in the first pipe segment structure and the second pipe segment structure are marked, which can facilitate understanding. As can be seen, the first pipe segment structure is connected to the water inlet valve 102, the water inlet pump 103 (and can also have a filter assembly 116) and other elements through the first communication part to the sixth communication part, which can facilitate efficient construction of the first pipe. The second pipe segment structure is connected to the drainage valve 105, the drainage pump 106 and other elements through the seventh communication part to the twelfth communication part, which can facilitate efficient construction of the second pipe.

[0080] As shown in FIG. 5, a structure schematic diagram for constructing the third pipe and the fourth pipe using the integrated water delivery module 200 in the first embodiment of the present disclosure is shown.

[0081] The thirteenth communication part 2113 to the sixteenth communication part 2116 are used to construct the third pipe.

[0082] The thirteenth communication part 2113 is in communication with the second water tank inlet 1131b. As an example, the thirteenth communication part 2113 can be provided on the top wall of the module housing 210, and the sixth communication part 2106 can be sequentially arranged along the Y-axis positive direction.

[0083] The fourteenth communication portion 2114 is in communication with the thirteenth communication portion 2113 within the module housing 210 and is in communication with a fifteenth communication portion 2115 via a return pump 109 conduit. As an example, the fourteenth communication portion 2114 can be located on a rear wall of the module housing 210 and is located lower than the thirteenth communication portion 2113. The fourteenth communication portion 2114 is in communication with the thirteenth communication portion 2113 via a conduit extending in the positive Y-axis direction, the positive Z-axis direction, the negative X-axis direction, and the positive Z-axis direction. The fifteenth communication portion 2115 is located on the same surface, e.g., rear wall, as the fourteenth communication portion 2114. The fifteenth communication portion 2115 and the fourteenth communication portion 2114 can be located at the same height.

[0084] The fifteenth communication portion 2115 is in communication with a sixteenth communication portion 2116 within the module housing 210. As an example, the fifteenth communication portion 2115 is in communication with the sixteenth conduit via an internal conduit that exhibits a change in the positive X-axis direction, the negative Y-axis direction, and the negative and positive Z-axis directions.

[0085] The sixteenth communication portion 2116 is in communication with the return port 107 via a return valve 108. Thus, a third conduit is formed from the return port 107, through the sixteenth communication portion 2116, to the thirteenth communication portion 2113, and to the water inlet 1131 of the water tank.

[0086] The seventh communication portion 2107, the eighteenth communication portion 2118, and the twenty-second communication portion 2122 can be used to construct the fourth conduit. The flow direction of water through the fourth conduit is schematically illustrated in FIG. 5 by dashed arrows.

[0087] The eighteenth communication portion 2118 is in communication with the seventh communication portion 2107 within the module housing 210 for communication with a nineteenth communication portion 2119 via an outlet pump 112. As an example, the eighteenth communication portion 2118 and the nineteenth communication portion 2119 can be located on the same surface, e.g., rear wall.

[0088] The nineteenth communication portion 2119 is in communication with a twentieth communication portion 2120 via a degassing assembly 114. As an example, the nineteenth communication portion 2119 and the twentieth communication portion 2120 can be located on the same surface, e.g., rear wall. The degassing assembly 114 can extend in the X-axis direction. The nineteenth communication portion 2119 and the twentieth communication portion 2120 can be formed by conduit extensions from opposite ends of the degassing assembly 114 to the rear wall. The nineteenth communication portion 2119 and the twentieth communication portion 2120 can be located at the same height.

[0089] The twenty-first communication part 2121 can be communicated with the twentieth communication part 2120 through the external pipeline of the module shell 210, and communicated with the twenty-second communication part 2122 through the refrigeration assembly 115. As an example, the twenty-first communication part 2121 can be located on the same surface as the twentieth communication part 2120, such as the rear wall. The twenty-first communication part 2121 can be located below the twentieth communication part 2120. The refrigeration assembly 115 can also extend along the X-axis direction and can be located below the degassing assembly 114.

[0090] The twenty-second communication part 2122 is communicated with the twenty-third communication part 2123 in the module shell 210. The twenty-second communication part 2122 is communicated with the water outlet 110 through a water outlet valve 111. As an example, the twenty-second communication part 2122 and the twenty-first communication part 2121 can be located on opposite surfaces, such as the twenty-second communication part 2122 can be located on the front wall.

[0091] As can be seen from FIGS. 2 and 3, the twentieth communication part 2120 is offset relative to the nineteenth communication part 2119 in the negative direction of the X-axis, the twenty-first communication part 2121 is offset relative to the twentieth communication part 2120 in the negative direction of the Z-axis, and the twenty-second communication part 2122 is offset relative to the twenty-first communication part 2121 in the positive direction of the X-axis, the positive direction of the Y-axis and the positive direction of the Z-axis, that is, the pipe sections, the degassing module and the refrigeration assembly 115 therebetween can be arranged in a form of one or more times of winding in at least one axial direction in the module shell 210, so as to improve the integration degree and reduce the volume.

[0092] Returning to FIG. 1, the communication parts involved in the third pipe section structure and the fourth pipe section structure are marked, which can facilitate understanding by comparison.

[0093] As shown in FIG. 6, a structure schematic diagram of a self-circulation pipeline constructed by using the integrated water delivery module 200 in the first embodiment of the present disclosure is shown.

[0094] In FIG. 6, a third pipeline from the water return port 107 to the second water tank water inlet port 1131b and a fourth pipeline from the water tank water outlet port 1132 to the water outlet 110 are shown. The plurality of communication parts include a twenty-third communication part 2123 and a twenty-fourth communication part 2124 for constructing the fifth pipe section structure, and the twenty-third communication part 2123 is communicated to the twenty-fourth communication part 2124 through a circulation valve 117.

[0095] The twenty-fourth communication part 2124 is communicated with the third pipeline. As an example, the twenty-fourth communication part 2124 is communicated with the fifteenth communication part 2115. Further as an example, the twenty-fourth communication part 2124 and the fifteenth communication part 2115 are respectively located on opposite surfaces on the Y-axis, that is, the front wall and the rear wall, and have the same height and can be communicated through a straight line.

[0096] The twenty-third communicating portion 2123 is communicated with the fourth pipeline. Illustratively, the twenty-third communicating portion 2123 is communicated with the twenty-second communicating portion 2122. Further illustratively, the twenty-third communicating portion 2123, the twenty-fourth communicating portion 2124 and the twenty-second communicating portion 2122 are located on the same surface, such as the front wall. The twenty-third communicating portion 2123 can be located below the twenty-fourth communicating portion 2124, and the height can be lower than the twenty-second communicating portion 2122. The twenty-third communicating portion 2123 is extended to the same twenty-second communicating portion 2122 through the pipeline in the negative direction of the Y axis, the positive direction of the X axis, the positive direction of the Y axis, the positive direction of the Z axis and the positive direction of the Y axis.

[0097] Optionally, the common section between the pipeline section of the twenty-first communicating portion 2121 to the twenty-second communicating portion 2122 and the pipeline section of the twenty-third communicating portion 2123 to the twenty-second communicating portion 2122 can be led to the twenty-fifth communicating portion 2125. The twenty-fifth communicating portion 2125 can be provided for inserting the temperature sensor 124. As an example, the twenty-fifth communicating portion 2125 can be located below the twenty-second communicating portion 2122. The common section can be a pipeline section extending along the Z axis.

[0098] Returning to FIG. 1, the twenty-third communicating portion 2123, the twenty-fourth communicating portion 2124 and the twenty-fifth communicating portion 2125 are marked for easy understanding.

[0099] As shown in FIG. 7, a structure schematic diagram of the gas inlet pipeline, the gas extraction pipeline, the gas exhaust pipeline and the drainage pipeline of the gas storage container 118 constructed by the integrated water delivery module 200 in the first embodiment of the present disclosure is shown.

[0100] The plurality of communicating portions further include a twenty-sixth communicating portion 2126, a twenty-seventh communicating portion 2127, a twenty-eighth communicating portion 2128, a twenty-ninth communicating portion 2129 and a thirtieth communicating portion 2130.

[0101] The degassing assembly 114 can be communicated with the gas inlet end 1181 of the gas storage container 118 through the gas inlet pipeline in the integrated water delivery pipeline. Optionally, the gas inlet pipeline can lead out the twenty-sixth communicating portion 2126, and the negative pressure sensor 123 can be inserted. It can be understood that the communicating portion corresponding to the pipeline connected to the gas inlet / outlet end of the gas storage container 118 can also be provided to insert the negative pressure sensor 123, and it is not limited to the illustration.

[0102] The twenty-seventh communicating portion 2127 is communicated with the vacuum end 1182 of the gas storage container 118.

[0103] The twenty-eighth communication part 2128 is in communication with the vacuum end 1182 of the gas storage container 118, and is in communication with an external gas pressure source (such as the atmospheric environment) through an exhaust valve 121. As an example, the twenty-eighth communication part 2128 can extend along the Z-axis between the twenty-seventh communication part 2127, for example, the twenty-eighth communication part 2128 is located above the twenty-seventh communication part 2127. The twenty-eighth communication part 2128 and the twenty-seventh communication part 2127 can be located on the same surface, such as the front wall.

[0104] As an example, the gas storage container 118 can be arranged near the distal end of the module housing 210 in the positive direction of the X-axis, and the bottom surface thereof can be close to the bottom surface of the module housing 210. The gas inlet end 1181 of the gas storage container 118 can be located on the top surface, the vacuum end 1182 can be located on the side surface, and the drain end 1183 can be located on the side surface close to the bottom surface. The twenty-ninth communication part 2129 can be located on the front wall, and the heights of the gas inlet end 1181, the vacuum end 1182, and the drain end 1183 decrease in turn. The pipeline from the drain end 1183 to the twenty-ninth communication part 2129 can be arranged side by side with the refrigeration assembly 115 in the negative direction of the X-axis in turn.

[0105] The twenty-ninth communication part 2129 is in communication with the thirtieth communication part 2130 through a gas storage drain valve 122, and the thirtieth communication part 2130 is in communication with the second pipe segment structure in the module housing 210 to communicate with the drain port 104. Specifically, the thirtieth communication part 2130 and the twenty-ninth communication part 2129 are located on the same surface, and can be arranged at the same height as the ninth communication part 2109 by being located above the twenty-ninth communication part 2129. As an example, the thirtieth communication part 2130 can be in communication with the pipe segment between the ninth communication part 2109 and the tenth communication part 2110 through an internal pipe segment, so as to be in communication with the tenth communication part 2110, the eleventh communication part 2111, the drain pump 106, and the twelfth communication part 2112 to the drain port 104.

[0106] Returning to FIG. 1, the twenty-sixth communication part 2126 to the thirtieth communication part 2130 are marked in FIG. 1, which can facilitate understanding by comparison.

[0107] As shown in FIG. 8, a structure schematic diagram of the integrated water supply module 200 after the complete connection of the pipeline elements is shown in the first embodiment of the present disclosure.

[0108] It is to be noted that, although the module housing 210 of the integrated water delivery module 200 shown in the above embodiments encapsulates each of the pipe segment structure, the communication portion, the degassing assembly, the gas storage container, and the refrigeration assembly, in other embodiments, the encapsulation can be changed, for example, only the pipe segment structure and the communication portion are encapsulated, one or more of the degassing assembly, the gas storage container, and the refrigeration assembly are arranged outside the module housing 210; for example, one or more of each valve and pump are also encapsulated in the module housing 210, etc., which can be flexibly changed according to actual needs. The purpose is to modularize the pipes and elements to simplify the layout and reduce the volume.

[0109] For example, the degassing assembly 114, the gas storage container 118, and the refrigeration assembly 115 in FIG. 2 can also be removed from the integrated water delivery module 200, and only the pipe segment structure is retained. Accordingly, the module housing can be correspondingly provided with communication portions for externally connecting the degassing assembly, the gas storage container, and the refrigeration assembly. Of course, the positions of each communication portion can also be changed according to needs, and are not limited to the embodiment of FIG. 2.

[0110] As shown in FIG. 9, a structural schematic diagram of the integrated water delivery module 200' in the second embodiment of the present disclosure is shown. In this embodiment, the integrated water delivery module 200' only integrates the pipe segment structure, and does not integrate the pipe elements. Moreover, compared with the first embodiment, the number and positions of the plurality of communication portions on the module housing 210' in this embodiment can be changed, and then the pipe segment structure is also changed accordingly. FIG. 10 is a pipe structure schematic diagram of a water treatment device marked with the plurality of communication portions in the second embodiment.

[0111] Exemplarily, the plurality of communication portions in the embodiment include: a thirty-first communication portion 2131, a thirty-second communication portion 2132, a thirty-third communication portion 2133, a thirty-fourth communication portion 2134, a thirty-fifth communication portion 2135 and a thirty-sixth communication portion 2136 for configuring the first pipe segment structure. The thirty-first communication portion 2131 is communicated with the water inlet 101 through a water inlet valve 102 pipe, the thirty-second communication portion 2132 is communicated with the thirty-first communication portion 2131 in the module shell 210', and is communicated with the thirty-third communication portion 2133 through a water inlet pump 103, the thirty-fourth communication portion 2134 is communicated with the thirty-third communication portion 2133 in the module shell 210', the thirty-fifth communication portion 2135 is directly communicated with the thirty-fourth communication portion 2134 through a pipe or communicated with the thirty-fourth communication portion 2134 through a filter assembly. The thirty-sixth communication portion 2136 is communicated with the thirty-fifth communication portion 2135 in the module shell 210', and is communicated with a first water tank water inlet 1131a through a pipe. As an example, in FIG. 9, the thirty-first communication portion 2131 and the thirty-second communication portion 2132 can be located on the front wall and the rear wall of the module shell 210' respectively and communicated linearly, the thirty-third communication portion 2133 and the thirty-fourth communication portion 2134 can be located on the front wall and the rear wall respectively and communicated linearly, the thirty-fifth communication portion 2135 can be located above the thirty-fourth communication portion 2134 on the front wall, and the thirty-sixth communication portion 2136 can be located on the top wall.

[0112] Exemplarily, the plurality of communication portions include: a thirty-seventh communication portion 2137, a thirty-eighth communication portion 2138, a thirty-ninth communication portion 2139, a fortieth communication portion 2140, a forty-first communication portion 2141, and a forty-second communication portion 2142 for configuring the second pipe segment structure. The thirty-seventh communication portion 2137 is communicated with the water tank water outlet 1132. The thirty-eighth communication portion 2138 is communicated with the thirty-ninth communication portion 2139 via a drain valve 105. The fortieth communication portion 2140 is communicated with the fortieth communication portion 2140 within the module shell 210'. The forty-first communication portion 2141 is communicated with the fortieth communication portion 2140 via a drain pump 106. The forty-second communication portion 2142 is communicated with the forty-first communication portion 2141 within the module shell 210'. As an example, in FIG. 9, the thirty-seventh communication portion 2137 is located on the left side wall, the thirty-eighth communication portion 2138 is located on the front wall, the thirty-ninth communication portion is located on the front wall above the thirty-eighth communication portion 2138, the fortieth communication portion 2140 can be located on the rear wall behind the thirty-ninth communication portion 2139, the forty-first communication portion 2141 and the fortieth communication portion 2140 can be located on the rear wall at the same height. The forty-second communication portion 2142 is located on the front wall, which can be exemplarily communicated with the forty-second communication portion 2142 by the pipe extending along the Y-axis positive direction, the Z-axis positive direction, the X-axis negative direction, the Z-axis negative direction, and the Y-axis negative direction of the forty-first through hole 2141.

[0113] Exemplarily, the plurality of communication portions include: a forty-third communication portion 2143, a forty-fourth communication portion 2144, a forty-fifth communication portion 2145, and a forty-sixth communication portion 2146 for configuring the third pipe segment structure; the forty-third communication portion 2143 is communicated with the second water tank water inlet 1131b; the forty-fourth communication portion 2144 is communicated with the forty-third communication portion 2143 within the module shell 210', and is communicated to the forty-fifth communication portion 2145 via a backwater pump 109 pipe; the forty-fifth communication portion 2145 is communicated with the forty-sixth communication portion 2146 within the module shell 210'; the forty-sixth communication portion 2146 is communicated with the backwater outlet 107 via a backwater valve 108. As an example, in FIG. 9, the forty-third communication portion 2143 can be located on the top wall, and the forty-fourth communication portion 2144 can be located on the rear wall. The forty-fifth communication portion 2145 can be located on the rear wall at the same height as the forty-fourth communication portion 2144, and the forty-sixth communication portion 2146 can be located on the front wall.

[0114] Exemplarily, the plurality of communication portions includes a thirty-seventh communication portion 2137, a forty-seventh communication portion 2147, a forty-eighth communication portion 2148, a forty-ninth communication portion 2149, and a fiftieth communication portion 2150 for configuring the fourth pipe segment structure. The thirty-seventh communication portion 2137 is in communication with the water outlet 1132 of the water tank, and is in communication with the forty-seventh communication portion 2147 through a water outlet pump 112; the forty-seventh communication portion 2147 is in communication with the forty-eighth communication portion 2148 through a degassing assembly 114 and a refrigeration assembly 115; the forty-ninth communication portion 2149 is in communication with the forty-eighth communication portion 2148 within the pipe module structure, and the forty-ninth communication portion 2149 is in communication with the water outlet 110 through a water outlet valve 111. As an example, in FIG. 9, the forty-seventh communication portion 2147 is located on the rear wall, and can be reached from the thirty-seventh communication portion 2137 through the positive direction of the X-axis, the positive direction of the Z-axis, and the negative direction of the Y-axis, and the forty-eighth communication portion 2148 can be located on the rear wall. The forty-ninth communication portion 2149 can be located on the front wall.

[0115] Exemplarily, the plurality of communication portions includes a fifty-seventh communication portion 2157 and a fifty-eighth communication portion 2158, the fifty-seventh communication portion is in communication with the forty-ninth communication portion 2149 within the module housing 210', and the fifty-seventh communication portion 2157 is in communication with the fifty-eighth communication portion 2158 through a circulation valve; the fifty-eighth communication portion 2158 is in communication with the third pipe segment structure, for example, in communication with the forty-fifth communication portion 2145. As an example, in FIG. 9, the fifty-eighth communication portion 2158 is in linear communication with the forty-fifth communication portion 2145 on the front and rear walls, and the fifty-eighth communication portion 2158 can be located directly above the fifty-seventh communication portion 2157.

[0116] Exemplarily, the plurality of communication portions includes a fifty-ninth communication portion 2159. The fifty-ninth communication portion is in communication with the forty-ninth communication portion 2149 within the module housing 210', for example, in communication with the pipe segment between the forty-eighth communication portion 2148 and the forty-ninth communication portion 2149, and the fifty-ninth communication portion 2159 is provided with a temperature sensor.

[0117] Since the gas storage container in this embodiment is arranged outside the module housing 210', the plurality of communication portions can include a fiftieth communication portion 2150, a fifty-first communication portion 2151, a fifty-second communication portion 2152, a fifty-fourth communication portion 2154, a fifty-fifth communication portion 2155, and a fifty-sixth communication portion 2156. The fiftieth communication portion 2150 communicates with the vacuum end 1182 of the gas storage container, the fifty-first communication portion 2151 communicates with the fiftieth communication portion 2150 in the pipe segment module structure, for connecting a negative pressure pump 119, and can also be connected to a silencer 120. The fifty-second communication portion 2152 communicates with the vacuum end 1182, for communicating to an external gas pressure source through an exhaust valve 121. The fifty-fourth communication portion 2154 communicates with the drain end 1183 of the gas storage container, and communicates with the fifty-fifth communication portion 2155 in the module housing 210'. The fifty-fifth communication portion 2155 communicates with the fifty-sixth communication portion 2156 through a gas storage drain valve, and the fifty-sixth communication portion 2156 communicates with the second pipe segment structure in the module housing 210' to communicate to the drain port 104, for example, to the pipe segment between the thirty-ninth communication portion 2139 and the fortieth communication portion 2140. As an example, in FIG. 9, the fifty-fourth communication portion 2154 can be located on the right end wall, the fifty-fifth communication portion 2155 can be located on the front wall, and the fifty-sixth communication portion 2156 can be located above the fifty-fifth communication portion 2155 on the front wall and extend along the Z-axis positive direction, the X-axis negative direction, and the Z-axis negative direction pipe inside the module housing 210' to communicate with the pipe segment between the thirty-ninth communication portion 2139 and the fortieth communication portion 2140. The gas inlet end 1181 of the gas storage container 118 and the degassing assembly 114 are not shown in FIG. 9 because they communicate with each other through pipes outside the module housing 210'.

[0118] As an example, the plurality of communication portions include a fifty-third communication portion 2153. The fifty-third communication portion 2153 communicates with the gas inlet / outlet pipe of the gas storage container in the module housing 210' in the module housing, for arranging a negative pressure sensor. For example, the fifty-third communication portion 2153 communicates with the fifty-second communication portion 2152 in the module housing 210'.

[0119] It should be noted that the communication portions and the corresponding pipes not labeled in FIG. 9 can be closed as a backup, and can be used or canceled in actual design, and are not limited by the illustrated examples.

[0120] It should be noted that according to the principles shown in the first and second embodiments, it can be understood that the positions of the communication portions are not unique and can be changed according to the needs of convenient connection of external pipeline elements and the like. For example, the fifty-fifth communication portion 2155 can also be arranged on the rear wall. For another example, the fifty-sixth communication portion 2156 can also be arranged on the rear wall together with the fifty-fifth communication portion 2155 for the convenience of pipeline connection on the same surface, and the like. Other communication portions can also be designed according to the same principles. Therefore, the specific structure of the integrated water delivery module is not limited to the first and second embodiments.

[0121] The water treatment device of the ultrasonic treatment equipment according to the embodiments of the present disclosure can also be provided, which comprises the integrated water delivery module as described in any of the first embodiments.

[0122] In summary, the present disclosure provides an integrated water delivery module and a water treatment device of ultrasonic treatment equipment using the same, which comprises: a module housing, a surface of which forms a plurality of communication portions; at least one pipe segment structure encapsulated in the module housing and in communication with at least part of the plurality of communication portions; and the at least one pipe segment structure comprises one or more pipe segments used to construct at least part of at least one medium delivery pipeline of the water treatment device. The integrated water delivery module can pre-integrate the pipeline required for water treatment, and the pipeline elements can be quickly and efficiently connected to construct the water pipeline system using the plurality of communication portions, thereby simplifying the structure and reducing the volume of the water treatment device.

[0123] The above embodiments are only illustrative of the principles and effects of the present disclosure and are not intended to limit the present disclosure. Any person skilled in the art can modify or change the above embodiments without departing from the spirit and scope of the present disclosure. Therefore, all equivalent modifications or changes made by those skilled in the art without departing from the spirit and technical ideas disclosed by the present disclosure should still be covered by the protection scope of the present disclosure.

Claims

1. An integrated water delivery module, characterized by, Water treatment device applied to ultrasonic treatment equipment; the integrated water delivery module comprises: a module housing, the surface of which forms a plurality of communication parts; at least one pipe segment structure encapsulated in the module housing and in communication with at least part of the plurality of communication parts; the at least one pipe segment structure comprises one or more pipe segments for constructing at least part of at least one medium delivery pipeline of the water treatment device.

2. The integrated water delivery module of claim 1, wherein, The water treatment device comprises a water tank, at least one water inlet, a water return inlet and a water outlet; the water tank comprises a water tank water inlet and a water tank water outlet; The at least one medium delivery pipeline comprises at least one of the following: a water inlet pipeline between one of the water inlets and the water tank water inlet; a water outlet pipeline between the water tank water outlet and one of the water inlets; a water return pipeline between the water return inlet and the water tank water inlet; a water outlet pipeline between the water tank water outlet, a water treatment assembly and the water outlet; a self-circulation bridge pipeline in communication between the water outlet pipeline and the water return pipeline; The at least one pipe segment structure comprises at least one of the following: a first pipe segment structure comprising one or more pipe segments for constructing at least part of the water inlet pipeline; a second pipe segment structure comprising one or more pipe segments for constructing at least part of the water outlet pipeline; a third pipe segment structure comprising one or more pipe segments for constructing at least part of the water return pipeline; a fourth pipe segment structure comprising one or more pipe segments for constructing at least part of the water outlet pipeline; a fifth pipe segment structure comprising one or more pipe segments for constructing at least part of the self-circulation bridge pipeline.

3. The integrated water delivery module of claim 1, wherein, The at least one pipe segment structure is arranged along the coordinate axes of a spatial orthogonal coordinate system within the module housing.

4. The integrated water delivery module of claim 1, wherein, The pipe segments in the at least one pipe segment structure form one or more meandering extensions of the constructed medium delivery pipeline within the module housing.

5. The integrated water delivery module of claim 2, wherein, The communication parts in communication with the water return inlet and the water outlet are respectively arranged near both ends in the length direction of the module housing from the communication parts in communication with the water inlet and the water outlet; and / or, at least part of the communication parts in communication with the module housing through the external pipeline are arranged in the same coordinate axis direction; and / or, the communication parts in communication with the water return inlet and the water outlet are respectively arranged near both ends in the length direction of the module housing from the communication parts in communication with the water tank water inlet and the water tank water outlet.

6. The integrated water delivery module of claim 1, wherein, The plurality of communication parts are for external communication with pipeline elements, which comprise at least one of the following: a pipe; a pump; a valve; a gas storage container; a filter assembly; a water outlet treatment assembly; a sensor; and / or, the water outlet treatment assembly comprises a degassing assembly and a refrigeration assembly.

7. The integrated water delivery module of claim 1, wherein, The pipeline elements encapsulated in the module housing comprise at least one of the following: a gas storage container; a water outlet treatment assembly; a sensor.

8. The integrated water delivery module of claim 2, wherein, The at least one water passage includes a water inlet and a water outlet, the water inlet is connected with a water inlet pipeline provided with a water inlet valve and a water inlet pump, and the water outlet is connected with a water outlet pipeline provided with a water outlet valve and a water outlet pump; or the at least one water passage includes a water inlet and outlet, the water inlet pipeline is provided with a water inlet pump, and the water outlet pipeline is provided with a water outlet pump, the water inlet pipeline and the water outlet pipeline are connected with the water inlet and outlet through a reversing valve, and the reversing valve is used for switching the water inlet and outlet to be connected with the water inlet pipeline as a water inlet or to be connected with the water outlet pipeline as a water outlet; And / or, the water return pipeline is provided with a water return valve and a water return pump; And / or, the water outlet pipeline is provided with a water outlet pump and a water outlet valve; And / or, the water outlet treatment assembly includes a degassing assembly connected with a gas storage container, the gas storage container includes a gas inlet end, a vacuum end and a water outlet end, the at least one medium conveying pipeline includes a gas inlet pipeline connected with the gas inlet end and the degassing assembly, a gas extraction pipeline connected with the vacuum end, an exhaust pipeline connected with the pressure section and a gas storage water outlet pipeline connected with the water outlet end, and the plurality of functional elements include a negative pressure pump arranged in the gas extraction pipeline, an exhaust valve arranged in the exhaust pipeline and a gas storage water outlet valve arranged in the gas storage water outlet pipeline; And / or, a self-circulation bridge pipeline is connected between the water outlet pipeline and the water return pipeline, and the self-circulation bridge pipeline is provided with a circulation valve.

9. The integrated water delivery module of claim 2, wherein, The plurality of communication parts include a first communication part, a second communication part, a third communication part, a fourth communication part, a fifth communication part and a sixth communication part for constructing the first pipe section structure, the first communication part is connected with a water inlet through a water inlet valve pipeline, the second communication part is connected with the first communication part in the module shell and is connected with the third communication part through a water inlet pump, the fourth communication part is connected with the third communication part in the module shell, the fifth communication part is directly connected with the fourth communication part through a pipeline or is connected with the fourth communication part through a filter assembly, and the sixth communication part is connected with the fifth communication part in the module shell and is connected with a water tank water inlet pipeline; And / or, the plurality of communication parts include a seventh communication part, an eighth communication part, a ninth communication part, a tenth communication part, an eleventh communication part and a twelfth communication part for constructing the second pipe section structure, the seventh communication part is connected with a water tank water outlet, the eighth communication part is connected with the seventh communication part in the module shell and is connected with the ninth communication part through a water outlet valve, the tenth communication part is connected with the ninth communication part in the module shell and is connected with the eleventh communication part through a water outlet pump, and the twelfth communication part is connected with the eleventh communication part in the module shell. And / or, the plurality of communication portions include a thirteenth communication portion, a fourteenth communication portion, a fifteenth communication portion and a sixteenth communication portion for configuring the third pipe segment structure; the thirteenth communication portion is communicated with the water inlet of the water tank; the fourteenth communication portion is communicated with the thirteenth communication portion in the module shell, and is communicated to the fifteenth communication portion through a backwater pump pipeline; the fifteenth communication portion is communicated with the sixteenth communication portion in the module shell; the sixteenth communication portion is communicated with the backwater outlet through a backwater valve; And / or, the plurality of communication portions include a seventh communication portion, an eighteenth communication portion, a nineteenth communication portion, a twentieth communication portion, a twenty-first communication portion, a twenty-second communication portion and a twenty-third communication portion for configuring the fourth pipe segment structure; the seventh communication portion is communicated with the water outlet of the water tank; the eighteenth communication portion is communicated with the seventh communication portion in the module shell, and is communicated with the nineteenth communication portion through an outlet pump; the nineteenth communication portion is communicated with the twentieth communication portion through a degassing assembly; the twenty-first communication portion is communicated with the twentieth communication portion in the module shell through a pipeline, and is communicated with the twenty-second communication portion through a refrigeration assembly; the twenty-second communication portion is communicated with the outlet through an outlet valve; And / or, the plurality of communication portions include a twenty-third communication portion and a twenty-fourth communication portion, the twenty-third communication portion is communicated with the twenty-second communication portion in the module shell, and the twenty-third communication portion is communicated with the twenty-fourth communication portion through a circulation valve; the twenty-fourth communication portion is communicated with the third pipe segment structure; And / or, the plurality of communication portions include a twenty-fifth communication portion; the twenty-fifth communication portion is communicated with the twenty-second communication portion in the module shell, and the twenty-fifth communication portion is provided with a temperature sensor; And / or, the plurality of communication portions include a twenty-sixth communication portion, the twenty-sixth communication portion is communicated with the gas inlet / outlet pipeline of the gas storage container in the module shell, and is provided with a negative pressure sensor; And / or, the degassing assembly and a gas storage container are arranged in the at least one pipe segment structure, the gas storage container is communicated with the degassing assembly; the plurality of communication portions include a twenty-seventh communication portion, a twenty-eighth communication portion, a twenty-ninth communication portion and a thirtieth communication portion; the twenty-seventh communication portion is communicated with the vacuum end of the gas storage container, and is connected with a negative pressure pump; the twenty-eighth communication portion is communicated with the vacuum end of the gas storage container, and is communicated to an external gas pressure source through an exhaust valve; the twenty-ninth communication portion is communicated with the thirtieth communication portion through a gas storage drain valve, and the thirtieth communication portion is communicated with the second pipe segment structure in the module shell to be communicated to the drain outlet.

10. The integrated water delivery module of claim 2, wherein, The plurality of communication parts include: the thirty-first communication part, the thirty-second communication part, the thirty-third communication part, the thirty-fourth communication part, the thirty-fifth communication part and the thirty-sixth communication part for constructing the first pipe segment structure; the thirty-first communication part is communicated with the water inlet through a water inlet valve pipeline; the thirty-second communication part is communicated with the thirty-first communication part in the module shell, and is communicated with the thirty-third communication part through a water inlet pump; the thirty-fourth communication part is communicated with the thirty-third communication part in the module shell; the thirty-fifth communication part is directly communicated with the thirty-fourth communication part through a pipeline or communicated with the thirty-fourth communication part through a filter assembly; the thirty-sixth communication part is communicated with the thirty-fifth communication part in the module shell, and is communicated with a water tank water inlet pipeline; And / or, the plurality of communication parts include: the thirty-seventh communication part, the thirty-eighth communication part, the thirty-ninth communication part, the fortieth communication part, the forty-first communication part and the forty-second communication part for constructing the second pipe segment structure; the thirty-seventh communication part is communicated with the water tank water outlet; the thirty-eighth communication part is communicated with the thirty-ninth communication part through a drain valve; the fortieth communication part is communicated with the fortieth communication part in the module shell; the forty-first communication part is communicated with the fortieth communication part through a drain pump; the forty-second communication part is communicated with the forty-first communication part in the module shell; And / or, the plurality of communication parts include: the forty-third communication part, the forty-fourth communication part, the forty-fifth communication part and the forty-sixth communication part for constructing the third pipe segment structure; the forty-third communication part is communicated with the water tank water inlet; the forty-fourth communication part is communicated with the forty-third communication part in the module shell, and is communicated to the forty-fifth communication part through a backwater pump pipeline; the forty-fifth communication part is communicated with the forty-sixth communication part in the module shell; the forty-sixth communication part is communicated with the backwater outlet through a backwater valve; And / or, the plurality of communication parts include: the thirty-seventh communication part, the forty-seventh communication part, the forty-eighth communication part, the forty-ninth communication part, the fiftieth communication part for constructing the fourth pipe segment structure; the thirty-seventh communication part is communicated with the water tank water outlet, and is communicated with the forty-seventh communication part through a water outlet pump; the forty-seventh communication part is communicated with the forty-eighth communication part through a degassing assembly and a refrigeration assembly; the forty-ninth communication part is communicated with the forty-eighth communication part in the pipeline module structure, and the forty-ninth communication part is communicated with the water outlet through a water outlet valve; And / or, the plurality of communication parts include the fifty-seventh communication part and the fifty-eighth communication part; the fifty-seventh communication part is communicated with the forty-ninth communication part in the module shell, and is communicated with the fifty-eighth communication part through a circulation valve; the fifty-eighth communication part is communicated with the third pipe segment structure, for example, is communicated with the forty-fifth communication part; And / or, the plurality of communication parts include the fifty-ninth communication part; the fifty-ninth communication part is communicated with the forty-ninth communication part in the module shell, and a temperature sensor is arranged on the fifty-ninth communication part. and / or, the plurality of communication portions include a fiftieth communication portion, a fifty-first communication portion, a fifty-second communication portion, a fifty-fourth communication portion, a fifty-fifth communication portion, and a fifty-sixth communication portion; the fiftieth communication portion is communicated with a vacuum end of the gas storage container, the fifty-first communication portion is communicated with the fiftieth communication portion in the pipe segment module structure, for connecting a negative pressure pump; the fifty-second communication portion is communicated with the vacuum end, for being communicated with an external gas pressure source through an exhaust valve; the fifty-fourth communication portion is communicated with a drainage end of the gas storage container, and is communicated with the fifty-fifth communication portion in the module shell; the fifty-fifth communication portion is communicated with the fifty-sixth communication portion through a gas storage drainage valve, and the fifty-sixth communication portion is communicated with the second pipe segment structure in the module shell to be communicated with the drainage port; and / or, the plurality of communication portions include a fifty-third communication portion; the fifty-third communication portion is communicated with an air inlet / outlet pipeline of the gas storage container, for setting a negative pressure sensor.

11. A water treatment device for an ultrasonic therapy apparatus, characterized in that comprise: The integrated water delivery module of any one of claims 1 to 10.

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