Stacked structure of moisture generator

Abstract

The utility model relates to a stack type structure of a moisture generator, the structure comprises a support skeleton and a buckle, the support skeleton comprises a top protrusion and a bottom protrusion, the top end of the support skeleton extends out of the top protrusion, the bottom end of the support skeleton extends out of the bottom protrusion, an electrode is arranged on the surface of the protrusion, a slurry pool is arranged in the support skeleton, and the buckle is arranged in the slurry pool. Moisture absorption slurry is contained in the slurry pool, the adjacent moisture generators are stacked, and electrodes of the adjacent moisture generators make contact through buckles in a buckled mode. Compared with the prior art, the utility model is convenient for three-dimensional stacking for series / parallel connection of moisture generators, and saves space.

Description

Technical Field

[0001] This utility model belongs to the field of wet power generation technology and relates to a stacked structure of a wet power generator. Background Technology

[0002] In the existing technology CN117578911A, the physical structure used is a single-layer planar structure. The problems with this technology include:

[0003] (1) In planar structures, the surface is prone to dust accumulation and the slurry used is prone to overflow;

[0004] (2) It is difficult to connect in series and parallel. Electrode materials are required between series and parallel connections, which increases costs and is prone to poor contact.

[0005] Patent application CN202510143772.9 discloses a three-dimensional moisture generator based on vermiculite nanosheet thin films and its preparation method. The device includes a support, a bottom positive electrode, a functional layer, a bottom negative electrode, and a solution pool. The support is sequentially coated with a positive electrode slurry and a functional mixture, which includes vermiculite slurry and an adhesive. Part of the functional layer is wiped away to expose the bottom positive electrode. An intermediate sandwich positive electrode and an intermediate sandwich negative electrode are embedded in the solution pool, which is filled with a moisture-absorbing mixture, including a polymer electrolyte and a fixative. The electrodes extend outside the solution pool, with the bottom positive electrode close to the intermediate sandwich positive electrode and the bottom negative electrode close to the intermediate sandwich negative electrode. The bottom positive and bottom negative electrodes are arranged opposite each other, while the intermediate sandwich positive and intermediate sandwich negative electrodes are arranged intersecting with the bottom positive and bottom negative electrodes. However, this patent uses quick-drying cloth as the support substrate, which has low physical strength, is not resistant to folding and compression, is difficult to stack, and has low space utilization. Furthermore, each moisture generator requires wire clamps and wires for series / parallel connection, making operation complex. Utility Model Content

[0006] The purpose of this invention is to overcome at least one of the defects of the prior art and provide a stacked structure for a moisture generator. This invention facilitates the series / parallel connection of moisture generators through three-dimensional stacking, saving space.

[0007] The objective of this utility model can be achieved through the following technical solutions:

[0008] One of the technical solutions of this utility model is to provide a stacked structure of a moisture generator. The structure includes a support frame and a buckle. The support frame includes a top protrusion and a bottom protrusion. The top end of the support frame extends outward from the top protrusion, and the bottom end extends outward from the bottom protrusion. Electrodes are provided on the surface of the protrusions. A slurry pool is provided inside the support frame. The slurry pool contains moisture-absorbing slurry. Adjacent moisture generators are stacked on top of each other, and the electrodes of adjacent moisture generators are fastened and contacted by the buckle.

[0009] Furthermore, the top protrusion and the bottom protrusion are provided on both sides or the same side of the support frame.

[0010] Furthermore, the buckle engages with the protrusions of the adjacent support frame, achieving contact connection between the electrode surfaces of adjacent moisture generators.

[0011] Furthermore, electrodes are provided on the top side surface of the top protrusion and on the top side surface outside the slurry pool on the support frame and connected to the top protrusion; electrodes are also provided on the bottom side surface of the bottom protrusion and on the bottom side surface outside the slurry pool on the support frame and connected to the bottom protrusion.

[0012] Furthermore, when adjacent moisture generators are connected in series, they are stacked longitudinally, and the opposite poles of the adjacent moisture generators are connected by snap-fit.

[0013] Furthermore, when adjacent moisture generators are connected in parallel, they are stacked longitudinally, and the same poles of adjacent moisture generators are connected by snap-fit.

[0014] Furthermore, electrodes are provided on the top and side surfaces of the top protrusion, as well as on the top side surface connected to the top protrusion outside the slurry pool on the support frame; electrodes are also provided on the bottom and side surfaces of the bottom protrusion, as well as on the bottom side surface connected to the bottom protrusion outside the slurry pool on the support frame.

[0015] Furthermore, when adjacent moisture generators are connected in parallel, they are stacked laterally, and the same poles of adjacent moisture generators are connected by snap-fit.

[0016] Furthermore, electrode slurry is applied to the protruding surface and the surface outside the slurry pool on the supporting frame and connected to the protrusion to form an electrode, ensuring that the electrode is in contact with the slurry pool.

[0017] As a preferred technical solution, the top protruding surface and the surface outside the slurry pool on the supporting frame and connected to the protrusion are coated with positive electrode slurry to form a positive electrode; the bottom protruding surface and the surface outside the slurry pool on the supporting frame and connected to the protrusion are coated with negative electrode slurry to form a negative electrode.

[0018] Alternatively, the top protruding surface and the surface outside the slurry pool on the supporting frame and connected to the protrusion are coated with negative electrode slurry to form a negative electrode, and the bottom protruding surface and the surface outside the slurry pool on the supporting frame and connected to the protrusion are coated with positive electrode slurry to form a positive electrode.

[0019] As a preferred technical solution, the positive electrode slurry is silver paste, the negative electrode slurry is carbon nanotube slurry, and the hygroscopic slurry is selected from one or more polyelectrolyte slurries selected from polydiallyldimethylammonium chloride (PDDA) slurry, polystyrene sulfonic acid (PSS) slurry, polyacrylic acid (PAA) slurry, and polysulfone (PSU) slurry.

[0020] As a preferred technical solution, the materials of the support frame and the buckle are selected from one or more of polylactic acid (PLA) and acrylonitrile-butadiene-styrene copolymer (ABS).

[0021] Furthermore, the support frame also includes an outer frame frame, a vertical frame frame, and a horizontal frame frame. The outer frame frame is provided with the vertical frame frame and the horizontal frame frame. The space inside the support frame is divided into several rows of slurry pools by the vertical frame frame and into several rows of slurry pools by the horizontal frame frame.

[0022] One of the technical solutions of this utility model is to provide a method for stacking moisture generators, which uses the aforementioned structure to connect moisture generators, and the method includes the following steps:

[0023] S1. The supporting skeleton is produced by 3D printing;

[0024] S2. Electrode paste is brushed onto the protruding surface to form an electrode;

[0025] S3. Repeat the above process until the required number of wet generator unit modules are obtained.

[0026] S4. Inject moisture-absorbing slurry into the slurry tank and dry it;

[0027] S5. By using 3D-printed snap-fit ​​devices to fasten the protrusions of adjacent support frames, the wet gas generator unit modules are connected and fixed in pairs to complete the assembly.

[0028] S6. Connect the positive and negative terminals to the outside via wires respectively.

[0029] As a preferred technical solution, in the series-connected adjacent moisture generator unit modules, the bottom protrusion of the upper moisture generator unit module and the top protrusion of the lower moisture generator unit module are in opposite polarity contact, thereby connecting and fixing the moisture generator unit modules in series.

[0030] By connecting the top protrusion of the isolated moisture generator unit module to the outside via wires, and connecting the bottom protrusion of the isolated moisture generator unit module to the outside via wires, only one pair of wires needs to be connected, which greatly reduces the number of wires required for the entire moisture generator unit module.

[0031] As a preferred technical solution, in the parallel adjacent moisture generator unit modules, the bottom protrusion of the upper moisture generator unit module and the top protrusion of the lower moisture generator unit module are in contact with the same pole, so that the moisture generator unit modules are connected and fixed in parallel in pairs.

[0032] The positive terminal of the isolated and same-pole snap-fit ​​wet gas generator unit module is connected to the outside via a wire, and the negative terminal of the isolated and same-pole snap-fit ​​wet gas generator unit module is connected to the outside via a wire. Since the electrodes of adjacent wet gas generator unit modules are in close contact, only one wire needs to be connected to the corresponding electrode of one snap-fit, thus reducing the number of wires required for the overall wet gas generator unit module.

[0033] As a preferred technical solution, in the parallel adjacent moisture generator unit modules, the top protrusion of the front moisture generator unit module and the top protrusion of the rear moisture generator unit module are in contact with the same pole, and the bottom protrusion of the front moisture generator unit module and the bottom protrusion of the rear moisture generator unit module are in contact with the same pole, so that the moisture generator unit modules are connected and fixed in parallel in pairs.

[0034] By connecting the top protrusion of the isolated moisture generator unit module to the outside via wires, and connecting the bottom protrusion of the isolated moisture generator unit module to the outside via wires, only one pair of wires needs to be connected, which greatly reduces the number of wires required for the entire moisture generator unit module.

[0035] As a preferred technical solution, the entire wet gas generator unit module can be connected in series, or in parallel, or partially in series and partially in parallel.

[0036] Compared with the prior art, the present invention has the following beneficial effects:

[0037] (1) The present invention prepares a supporting skeleton as the exoskeleton of the structure, forming a rigid structure, increasing the physical strength of the structure, resisting extrusion and impact, not easily damaged or bent, and facilitating the adjustment of position and three-dimensional stacking when connected in series / parallel, saving space;

[0038] (2) This utility model uses a slurry tank to store moisture-absorbing slurry, which makes it difficult for the moisture-absorbing slurry to flow out;

[0039] (3) In this utility model, only the top layer of slurry pool is in direct contact with the air, while the rest is sealed inside, reducing the possibility of pollution and dust accumulation.

[0040] (4) This utility model uses a method of stacking moisture generators on each other and makes the protrusion of the support frame into electrodes; at the same time, it uses snap-fit ​​to fasten the electrodes of adjacent moisture generators, which can complete the series / parallel connection of the overall moisture generator module, reduce the number of wires used, and make integrated use more convenient. Attached Figure Description

[0041] Figure 1 This is a front view schematic diagram of the stacked structure of the moisture generator in Embodiments 1 to 3 of this utility model;

[0042] Figure 2This is a top view schematic diagram of the stacked structure of the moisture generator in embodiments 1 to 3 of this utility model;

[0043] Figure 3 This is a front view schematic diagram of the stacked structure of the moisture generator in Embodiment 4 of this utility model;

[0044] Figure 4 This is a top view schematic diagram of the stacked structure of the moisture generator in embodiments 4 and 5 of this utility model;

[0045] Figure 5 This is a front view schematic diagram of the stacked structure of the moisture generator in Embodiment 5 of this utility model.

[0046] Explanation of markings in the diagram:

[0047] 1—Support frame; 2—Snap fastener;

[0048] 11—Top protrusion, 12—Bottom protrusion, 13—Slurry pool, 14—Vertical frame, 15—Horizontal frame. Detailed Implementation

[0049] The present invention will now be described in detail with reference to specific embodiments. These embodiments are based on the technical solution of the present invention and provide detailed implementation methods and specific operating procedures. However, the scope of protection of the present invention is not limited to the following embodiments.

[0050] In the description of this utility model, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicating the orientation or positional relationship, are based on the orientation or positional relationship shown in the accompanying drawings and are only for the convenience of describing this utility model and simplifying the description. They do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model. In addition, the terms "first," "second," "third," etc., used to describe a common object only indicate different instances of the same object, and are not intended to imply that the objects described in this way must be in a given order, whether temporally, spatially, sequentially, or in any other way.

[0051] In the description of this utility model, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "joining" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.

[0052] Example 1:

[0053] A stacked structure for a moisture generator, such as Figure 1 and Figure 2 As shown, it includes a support frame 1 and a buckle 2. The support frame 1 includes a top protrusion 11 and a bottom protrusion 12. The top end of the support frame 1 extends outward from the top protrusion 11, and the bottom end extends outward from the bottom protrusion 12. Electrodes are provided on the protruding surfaces. A slurry pool 13 is provided inside the support frame 1. The slurry pool 13 contains moisture-absorbing slurry. Adjacent moisture generators are stacked on top of each other, and the electrodes of adjacent moisture generators are fastened and contacted by the buckle 2.

[0054] The top protrusion 11 and the bottom protrusion 12 are disposed on both sides or the same side of the support frame 1, and in this embodiment, they are preferably on both sides;

[0055] The buckle 2 engages with the protrusion of the adjacent support frame 1, thereby achieving contact connection between the electrode surfaces of the adjacent moisture generators.

[0056] Electrodes are provided on the top side surface of the top protrusion 11 and on the top side surface outside the slurry pool 13 on the support frame 1 and connected to the top protrusion 11. Electrodes are also provided on the bottom side surface of the bottom protrusion 12 and on the bottom side surface outside the slurry pool 13 on the support frame 1 and connected to the bottom protrusion 12.

[0057] When adjacent moisture generators are connected in series, they are stacked vertically, and the opposite poles of the adjacent moisture generators are engaged and contacted by snap-fit ​​2.

[0058] Electrode paste is applied to the protruding surface and the surface outside the slurry pool 13 on the support frame 1 and the surface connected to the protrusion to form an electrode, ensuring that the electrode is in contact with the slurry pool 13.

[0059] A positive electrode is formed by coating the surface of the top protrusion 11 and the surface outside the slurry pool 13 on the support frame 1 and the surface connected to the protrusion. A negative electrode is formed by coating the surface of the bottom protrusion 12 and the surface outside the slurry pool 13 on the support frame 1 and the surface connected to the protrusion.

[0060] Alternatively, negative electrode slurry is applied to the surface of the top protrusion 11 and the surface outside the slurry pool 13 on the support frame 1 and connected to the protrusion to form a negative electrode, and positive electrode slurry is applied to the surface of the bottom protrusion 12 and the surface outside the slurry pool 13 on the support frame 1 and connected to the protrusion to form a positive electrode.

[0061] The positive electrode slurry is silver paste, the negative electrode slurry is carbon nanotube slurry, and the hygroscopic slurry is selected from one or more polyelectrolyte slurries selected from polydiallyldimethylammonium chloride (PDDA) slurry, polystyrene sulfonic acid (PSS) slurry, polyacrylic acid (PAA) slurry, and polysulfone (PSU) slurry. In this embodiment, polydiallyldimethylammonium chloride is preferred.

[0062] The material of the support frame 1 and the buckle 2 is selected from one or more of polylactic acid (PLA) and acrylonitrile-butadiene-styrene copolymer (ABS), and in this embodiment, polylactic acid is preferred;

[0063] The support frame 1 also includes an outer frame frame, a vertical frame 14, and a horizontal frame 15. The outer frame frame contains the vertical frame 14 and the horizontal frame 15. The space inside the support frame 1 is divided into several rows of slurry pools 13 by the vertical frame 14. In this embodiment, it is preferred to divide the space into two rows of slurry pools 13 by one vertical frame 14. The space inside the support frame 1 is divided into several rows of slurry pools 13 by the horizontal frame 15. In this embodiment, it is preferred to divide the space into three rows of slurry pools 13 by two horizontal frames 15.

[0064] A method for stacking moisture generators, using the above structure to connect moisture generators in series, includes the following specific steps:

[0065] S1. The supporting skeleton 1 is produced by 3D printing;

[0066] S2. Positive electrode slurry is brushed onto the top side surface of the top protrusion 11 and the top side surface of the slurry pool 13 on the support frame 1, which is connected to the top protrusion 11, to form a positive electrode. Negative electrode slurry is brushed onto the bottom side surface of the bottom protrusion 12 and the bottom side surface of the slurry pool 13 on the support frame 1, which is connected to the bottom protrusion 12, to form a negative electrode.

[0067] S3. Repeat the above process until the required number of wet generator unit modules are obtained.

[0068] S4. Inject moisture-absorbing slurry into slurry tank 13 and dry it;

[0069] S5. The 3D-printed buckle 2 is used to fasten the protrusions of the adjacent support frame 1, that is, the negative electrode of the bottom protrusion 12 of the upper wet gas generator unit module contacts the positive electrode of the top protrusion 11 of the lower wet gas generator unit module, and the wet gas generator unit modules are connected in series and fixed to complete the assembly.

[0070] S6. Connect the positive terminal of the top protrusion 11 of the top layer moisture generator unit module to the outside through a wire, and connect the negative terminal of the bottom protrusion 12 of the bottom layer moisture generator unit module to the outside through a wire. Only one pair of wires needs to be connected, which greatly reduces the number of wires required for the entire moisture generator unit module.

[0071] Silver paste and carbon nanotube slurry are brushed onto the polylactic acid support framework 1 to form silver-carbon electrodes at both ends of the support framework 1. Then, polydiallyldimethylammonium chloride is injected into the slurry pool 13 to form a complete moisture generator module. Two moisture generator modules are stacked one on top of the other, with the silver-carbon electrodes in direct contact, thus completing the series connection between the two modules. The number of moisture generator modules can be increased as needed, and finally connected using clips 2, allowing for easy circuit integration with high stability and convenient use.

[0072] Example 2:

[0073] A stacked structure for a moisture generator, such as Figure 1 and Figure 2 As shown, it is basically the same as in Example 1, except that when adjacent moisture generators are connected in parallel, the adjacent moisture generators are stacked vertically, and the same pole of the adjacent moisture generators are engaged and contacted by the buckle 2.

[0074] A method for stacking moisture generators, using the above structure to connect moisture generators in parallel, includes the following specific steps:

[0075] S1. The supporting skeleton 1 is produced by 3D printing;

[0076] S2. Positive electrode slurry is brushed onto the top side surface of the top protrusion 11 of the partial support frame 1, and onto the top side surface of the support frame 1 outside the slurry pool 13 connected to the top protrusion 11 to form a positive electrode. Negative electrode slurry is brushed onto the bottom side surface of the bottom protrusion 12, and onto the bottom side surface of the support frame 1 outside the slurry pool 13 connected to the bottom protrusion 12 to form a negative electrode.

[0077] A negative electrode slurry is brushed onto the top side surface of the top protrusion 11 of the support frame 1 and the top side surface outside the slurry pool 13 of the support frame 1 and connected to the top protrusion 11 to form a negative electrode. A positive electrode slurry is brushed onto the bottom side surface of the bottom protrusion 12 and the bottom side surface outside the slurry pool 13 of the support frame 1 and connected to the bottom protrusion 12 to form a positive electrode.

[0078] S3. Repeat the above process until the required number of wet generator unit modules are obtained.

[0079] S4. Inject moisture-absorbing slurry into slurry tank 13 and dry it;

[0080] S5. The 3D-printed buckles 2 fasten the protrusions of the adjacent support frame 1, that is, the negative electrode of the bottom protrusion 12 of the upper moisture generator unit module contacts the negative electrode of the top protrusion 11 of the middle moisture generator unit module, and the positive electrode of the bottom protrusion 12 of the middle moisture generator unit module contacts the positive electrode of the top protrusion 11 of the lower moisture generator unit module, so that the moisture generator unit modules are connected and fixed in parallel to each other, and the assembly is completed.

[0081] S6. Connect the positive terminals of all moisture generator unit modules to the outside via wires, and connect the negative terminals of all moisture generator unit modules to the outside via wires. Since the electrodes of adjacent moisture generator unit modules are in close contact, only one wire needs to be connected to the electrode that is snapped in by the clip 2, thus reducing the number of wires required for the overall moisture generator unit module.

[0082] Silver paste and carbon nanotube slurry are brushed onto the polylactic acid support framework 1 to form silver-carbon electrodes at both ends of the support framework 1. Then, polydiallyldimethylammonium chloride is injected into the slurry pool 13 to form a complete moisture generator module. Two moisture generator modules are stacked one on top of the other, with the silver-carbon electrodes in direct contact, thus completing the parallel connection between the two modules. The number of moisture generator modules can be increased as needed, and finally connected using clips 2, allowing for easy circuit integration with high stability and convenient use.

[0083] Example 3:

[0084] A stacked structure for a moisture generator, such as Figure 1 and Figure 2 As shown, using Examples 1 and 2 in combination, the overall wet gas generator is partially connected in series and partially in parallel.

[0085] A method for stacking moisture generators, using the above structure to connect moisture generators in series and parallel, includes the following specific steps:

[0086] S1. The supporting skeleton 1 is produced by 3D printing;

[0087] S2. Positive electrode slurry is brushed onto the top side surface of the top protrusion 11 of the partial support frame 1, and onto the top side surface of the support frame 1 outside the slurry pool 13 connected to the top protrusion 11 to form a positive electrode. Negative electrode slurry is brushed onto the bottom side surface of the bottom protrusion 12, and onto the bottom side surface of the support frame 1 outside the slurry pool 13 connected to the bottom protrusion 12 to form a negative electrode.

[0088] A negative electrode slurry is brushed onto the top side surface of the top protrusion 11 of the support frame 1 and the top side surface outside the slurry pool 13 of the support frame 1 and connected to the top protrusion 11 to form a negative electrode. A positive electrode slurry is brushed onto the bottom side surface of the bottom protrusion 12 and the bottom side surface outside the slurry pool 13 of the support frame 1 and connected to the bottom protrusion 12 to form a positive electrode.

[0089] S3. Repeat the above process until the required number of wet generator unit modules are obtained.

[0090] S4. Inject moisture-absorbing slurry into slurry tank 13 and dry it;

[0091] S5. The 3D-printed buckles 2 fasten the protrusions of the adjacent support frame 1, that is, the negative electrode of the bottom protrusion 12 of the upper moisture generator unit module contacts the positive electrode of the top protrusion 11 of the middle moisture generator unit module, and the negative electrode of the bottom protrusion 12 of the middle moisture generator unit module contacts the negative electrode of the top protrusion 11 of the lower moisture generator unit module, so that the moisture generator unit modules are connected and fixed in series and parallel in pairs, and the assembly is completed.

[0092] S6. Connect the positive terminal of the top protrusion 11 of the upper moisture generator unit module and the positive terminal of the bottom protrusion 12 of the lower moisture generator unit module together through a wire. Connect the contact point of the negative terminal of the bottom protrusion 12 of the middle moisture generator unit module and the negative terminal of the top protrusion 11 of the lower moisture generator unit module through a wire. Since the electrodes of adjacent moisture generator unit modules are in close contact, only one wire is needed to connect them, reducing the number of wires required for the overall moisture generator unit module.

[0093] Silver paste and carbon nanotube slurry are applied to the polylactic acid support framework 1 to form silver-carbon electrodes at both ends of the support framework 1. Then, polydiallyldimethylammonium chloride is injected into the slurry pool 13 to form a complete moisture generator module. Two moisture generator modules are stacked one on top of the other, with the silver-carbon electrodes in direct contact, thus completing the series-parallel connection between the two modules. The number of moisture generator modules can be increased as needed, and finally connected using clips 2, allowing for easy circuit integration with high stability and convenient use.

[0094] Example 4:

[0095] A stacked structure for a moisture generator, such as Figure 3 and Figure 4 As shown, it is basically the same as in Embodiment 1, except that electrodes are provided on the top side and side surfaces of the top protrusion 11, as well as on the top side surface connected to the top protrusion 11 outside the slurry pool 13 on the support frame 1, and electrodes are provided on the bottom side and side surfaces of the bottom protrusion 12, as well as on the bottom side surface connected to the bottom protrusion 12 outside the slurry pool 13 on the support frame 1.

[0096] When adjacent moisture generators are connected in parallel, they are stacked horizontally, and the same pole of the adjacent moisture generators are engaged by snap-fit ​​2.

[0097] A method for stacking moisture generators, using the above structure to connect moisture generators in parallel, includes the following specific steps:

[0098] S1. The supporting skeleton 1 is produced by 3D printing;

[0099] S2. Positive electrode slurry is brushed onto the top side and side surfaces of the top protrusion 11 of the partial support frame 1, as well as the top side surface connected to the top protrusion 11 outside the slurry pool 13 of the support frame 1 to form a positive electrode. Negative electrode slurry is brushed onto the bottom side and side surfaces of the bottom protrusion 12, as well as the bottom side surface connected to the bottom protrusion 12 outside the slurry pool 13 of the support frame 1 to form a negative electrode.

[0100] S3. Repeat the above process until the required number of wet generator unit modules are obtained.

[0101] S4. Inject moisture-absorbing slurry into slurry tank 13 and dry it;

[0102] S5. The 3D-printed buckles 2 fasten the protrusions of the adjacent support frame 1, that is, the positive pole of the top protrusion 11 of the front moisture generator unit module contacts the positive pole of the top protrusion 11 of the rear moisture generator unit module, and the negative pole of the bottom protrusion 12 of the front moisture generator unit module contacts the negative pole of the bottom protrusion 12 of the rear moisture generator unit module, so that the moisture generator unit modules are connected and fixed in parallel to each other, and the assembly is completed.

[0103] S6. Connect the positive terminal of the top protrusion 11 of the outermost moisture generator unit module to the outside through a wire, and connect the negative terminal of the bottom protrusion 12 of the outermost moisture generator unit module to the outside through a wire. Only one pair of wires needs to be connected, which greatly reduces the number of wires required for the entire moisture generator unit module.

[0104] Silver paste and carbon nanotube slurry are brushed onto the polylactic acid support framework 1 to form silver-carbon electrodes at both ends of the support framework 1. Then, polydiallyldimethylammonium chloride is injected into the slurry pool 13 to form a complete moisture generator module. Two moisture generator modules are stacked one after the other, with the silver-carbon electrodes in direct contact, thus completing the parallel connection between the two modules. The number of moisture generator modules can be increased as needed, and finally connected using clips 2, allowing for easy circuit integration with high stability and convenient use.

[0105] Example 5:

[0106] A stacked structure for a moisture generator, such as Figure 4 and Figure 5 As shown, using Examples 1 and 4 in combination, the overall wet gas generator is partially connected in series and partially in parallel.

[0107] A method for stacking moisture generators, using the above structure to connect moisture generators in series and parallel, includes the following specific steps:

[0108] S1. The supporting skeleton 1 is produced by 3D printing;

[0109] S2. Positive electrode slurry is brushed onto the top side and side surfaces of the top protrusion 11 of the partial support frame 1, as well as the top side surface connected to the top protrusion 11 outside the slurry pool 13 of the support frame 1 to form a positive electrode. Negative electrode slurry is brushed onto the bottom side and side surfaces of the bottom protrusion 12, as well as the bottom side surface connected to the bottom protrusion 12 outside the slurry pool 13 of the support frame 1 to form a negative electrode.

[0110] S3. Repeat the above process until the required number of wet generator unit modules are obtained.

[0111] S4. Inject moisture-absorbing slurry into slurry tank 13 and dry it;

[0112] S5. The 3D-printed buckles 2 fasten the protrusions of the adjacent support frame 1, that is, the negative electrode of the bottom protrusion 12 of the upper moisture generator unit module contacts the positive electrode of the top protrusion 11 of the lower moisture generator unit module, the positive electrode of the top protrusion 11 of the front moisture generator unit module contacts the positive electrode of the top protrusion 11 of the rear moisture generator unit module, and the negative electrode of the bottom protrusion 12 of the front moisture generator unit module contacts the negative electrode of the bottom protrusion 12 of the rear moisture generator unit module, so that the moisture generator unit modules are connected and fixed in series and parallel in pairs, and the assembly is completed.

[0113] S6. Connect the positive terminal of the top protrusion 11 of the outermost moisture generator unit module to the outside via a wire, and connect the negative terminal of the bottom protrusion 12 of the outermost moisture generator unit module to the outside via a wire. Only one pair of wires needs to be connected, which greatly reduces the number of wires required for the entire moisture generator unit module.

[0114] Silver paste and carbon nanotube slurry are brushed onto the polylactic acid support framework 1 to form silver-carbon electrodes at both ends of the support framework 1. Then, polydiallyldimethylammonium chloride is injected into the slurry pool 13 to form a complete moisture generator module. Two moisture generator modules are stacked vertically and horizontally, with the silver-carbon electrodes in direct contact, thus completing the series-parallel connection between the two modules. The number of moisture generator modules can be increased as needed, and finally connected using clips 2, allowing for easy circuit integration with high stability and convenient use.

[0115] The above description of the embodiments is provided to enable those skilled in the art to understand and use the utility model. It will be apparent to those skilled in the art that various modifications can be easily made to these embodiments, and the general principles described herein can be applied to other embodiments without inventive effort. Therefore, the present utility model is not limited to the above embodiments, and any improvements and modifications made by those skilled in the art based on the disclosure of the present utility model without departing from its scope should be within the protection scope of the present utility model.

Claims

1. A stacked structure of a wet gas generator, characterized by, The structure includes a support frame (1) and a buckle (2). The support frame (1) includes a top protrusion (11) and a bottom protrusion (12). The top end of the support frame (1) extends outward from the top protrusion (11), and the bottom end extends outward from the bottom protrusion (12). Electrodes are provided on the surface of the protrusions. A slurry pool (13) is provided inside the support frame (1). The slurry pool (13) contains moisture-absorbing slurry. Adjacent moisture generators are stacked on top of each other, and the electrodes of adjacent moisture generators are fastened and contacted by the buckle (2).

2. A stacked structure of a wet gas generator according to claim 1, wherein The top protrusion (11) and bottom protrusion (12) are located on both sides or the same side of the support frame (1).

3. A stacked structure of a wet gas generator according to claim 1, wherein The buckle (2) engages with the protrusion of the adjacent support frame (1) to achieve contact connection of the electrode surfaces of the adjacent moisture generators.

4. A stacked structure of a wet gas generator according to claim 3, wherein Electrodes are provided on the top side surface of the top protrusion (11) and on the top side surface of the slurry pool (13) on the support frame (1) connected to the top protrusion (11). Electrodes are also provided on the bottom side surface of the bottom protrusion (12) and on the bottom side surface of the slurry pool (13) on the support frame (1) connected to the bottom protrusion (12).

5. A stacked structure of a wet gas generator according to claim 4, wherein When adjacent moisture generators are connected in series, they are stacked longitudinally, and the opposite poles of the adjacent moisture generators are engaged by a snap-fit ​​(2).

6. A stacked structure of a wet gas generator according to claim 4, wherein When adjacent moisture generators are connected in parallel, they are stacked longitudinally, and the same pole of the adjacent moisture generators are engaged by a snap fastener (2).

7. The stacked structure of a moisture generator according to claim 3, characterized in that, Electrodes are provided on the top and side surfaces of the top protrusion (11) and on the top side surface connected to the top protrusion (11) outside the slurry pool (13) of the support frame (1). Electrodes are also provided on the bottom and side surfaces of the bottom protrusion (12) and on the bottom side surface connected to the bottom protrusion (12) outside the slurry pool (13) of the support frame (1).

8. A stacked structure of a wet gas generator according to claim 7, wherein When adjacent moisture generators are connected in parallel, they are stacked horizontally, and the same pole of the adjacent moisture generators are fastened together by a buckle (2).

9. A stacked structure of a wet gas generator according to claim 1, wherein Electrode slurry is applied to the protruding surface and the surface connected to the protrusion outside the slurry pool (13) on the support frame (1) to form an electrode.

10. A stacked structure of a wet gas generator according to claim 1, wherein The supporting frame (1) also includes an outer frame, a vertical frame (14), and a horizontal frame (15). The outer frame is provided with the vertical frame (14) and the horizontal frame (15). The space inside the supporting frame (1) is divided into several rows of slurry pools (13) by the vertical frame (14), and the space inside the supporting frame (1) is divided into several rows of slurry pools (13) by the horizontal frame (15).

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