Split external electrical structure, electrolysis structure and purification and consumption integrated machine

Abstract

The utility model relates to a kind of split external electrical structure, electrolytic structure and net consumption integrated machine, belong to the field of purification.A kind of split external electrical structure, comprising: chassis assembly;Cover body assembly, cover body assembly is set on chassis assembly, cover body assembly is cooperated with chassis assembly and forms assembly space;External wire assembly, external wire assembly is set on chassis assembly and passes through chassis assembly, part of external wire assembly is located in assembly space, and external wire assembly is used for with external structure electric connection;Electrode sheet assembly, electrode sheet assembly is set on chassis assembly, electrode sheet assembly is electrically connected with external wire assembly, and the part of electrode sheet assembly and external wire assembly electric connection is located in assembly space.The application discloses a kind of split external electrical structure, greatly reduce the space requirement to installation scene, even in narrow or complex installation environment, can also be adapted by component one by one, improve the convenience of installation operation, reduce assembly difficulty and failure rate.

Description

Technical Field

[0001] This utility model relates to the field of purification, and in particular to a split external electrical structure, an electrolysis structure, and an integrated purification and disinfection machine. Background Technology

[0002] In existing technologies, the electrolytic structure of integrated purification and disinfection machines lacks a separate external power supply structure. Operators cannot test individual components individually and must simultaneously adjust the positions of all components within a limited space. This makes it difficult to accurately control the alignment of each component and can easily lead to wiring misalignment and component collisions due to operational limitations, significantly increasing the assembly error rate. This not only slows down installation efficiency but may also cause abnormal connections between the external power supply structure and the electrolytic components, or even damage the components, posing a hidden danger to the subsequent stable power supply and normal purification and disinfection functions of the equipment. Utility Model Content

[0003] Therefore, it is necessary to address the lack of a separate external power supply structure in the electrolysis structure of integrated air purification and disinfection machines, and to provide a separate external power supply structure, an electrolysis structure, and an integrated air purification and disinfection machine.

[0004] A split-type external electrical structure includes: a chassis assembly; a cover assembly disposed on the chassis assembly, the cover assembly and the chassis assembly cooperating to form an assembly space; an external wiring assembly disposed on the chassis assembly and passing through the chassis assembly, a portion of the external wiring assembly being located in the assembly space, the external wiring assembly being used for electrical connection with an external structure; and an electrode plate assembly disposed on the chassis assembly and located in the assembly space, the electrode plate assembly being electrically connected to the external wiring assembly.

[0005] The above discloses a split-type external electrical structure for electrolytic structures. The chassis assembly can be independently fixed to the target installation position without simultaneously considering the assembly accuracy of the external wiring and electrode plates. After the chassis assembly is stable, the external wiring assembly is inserted and fixed from the outside of the chassis, extending partly into the assembly space. Subsequently, the electrode plate assembly is installed separately and its internal electrical connection with the external wiring assembly is completed. Finally, the cover assembly is closed to form a sealed assembly space. This step-by-step installation method significantly reduces the space requirements of the installation environment. Even in narrow or complex installation environments, the components can be adapted one by one, improving the convenience of installation operations, reducing mutual interference during overall installation, and lowering assembly difficulty and error rate. When the external wiring assembly or electrode plate assembly malfunctions and requires repair, it is not necessary to disassemble the entire structure. Only the cover assembly needs to be opened to directly inspect and replace the electrical connection parts and component bodies located in the assembly space, avoiding damage to surrounding structures caused by overall disassembly, while shortening maintenance time and reducing labor and material costs. Meanwhile, the chassis assembly, external wiring assembly, and electrode plate assembly can be individually optimized and replaced according to the electrical connection requirements and installation size requirements of different usage scenarios.

[0006] In one embodiment, the chassis assembly includes a chassis body and a mounting component. The mounting component is disposed on the chassis body, a portion of the external wiring assembly is disposed on and passes through the mounting component, the electrode plate assembly is disposed on the mounting component, and the cover assembly is engaged with the mounting component to form the assembly space. The fixed engagement between the mounting component and the chassis body provides a unified reference for the external wiring assembly, electrode plate assembly, and cover assembly, avoiding positioning deviations that may occur when directly installing components on the chassis body. The external wiring assembly is partially disposed on and passes through the mounting component, while the electrode plate assembly is directly assembled to the mounting component. This centralized installation layout shortens the electrical connection path between the external wiring assembly and the electrode plate assembly within the assembly space, reducing line loss. Simultaneously, the structural restraint of the mounting component prevents displacement of the external wiring assembly due to external pulling forces and loosening of the electrode plate assembly, ensuring the stability of the electrical connection.

[0007] In one embodiment, the assembly space includes a locking space, a first assembly space, a second assembly space, and a third assembly space. The portion of the cover assembly that snaps into the mounting component is located in the locking space. A portion of the external wiring assembly is located in the first assembly space and passes through it. The remaining portion of the external wiring assembly is located in the second assembly space, and the electrode assembly is placed in the third assembly space. By dividing the assembly space into the locking space, the first assembly space, the second assembly space, and the third assembly space, the assembly area of ​​the components and the positioning accuracy of the reinforced structure are ensured. The locking space is specifically designed to accommodate the snap-fit ​​connection between the cover assembly and the mounting component. This dedicated space limits the snap-fit ​​structure, preventing the connection from loosening due to misalignment during assembly or use. The first assembly space provides a passage for the external wiring assembly, and the external wiring assembly is fixed by the space boundary to prevent wear caused by shaking at the passage point, ensuring the structural stability of the external wiring assembly after installation. The second assembly space accommodates the rest of the external wiring assembly, and together with the first assembly space, forms a complete placement path for the external wiring assembly, avoiding entanglement or compression between the external wiring and other components, and reducing line loss. The third assembly space is dedicated to placing the electrode plate assembly, providing an independent and stable installation environment for the electrode plate assembly, preventing collision or interference between the electrode plate assembly and other components such as the external wiring assembly, and ensuring the reliability of the electrical connection between the electrode plate assembly and the external wiring assembly.

[0008] In one embodiment, there are two third assembly spaces located at both ends of the mounting component. The cover assembly has two mating holes located at both ends of the cover assembly. There are two electrode assemblies, with the portions of each electrode assembly electrically connected to the external wiring assembly located in the second assembly space. The fixing portions of the two electrode assemblies are placed in the two third assembly spaces, and the remaining portions of the two electrode assemblies are located at the two mating holes. By utilizing the third assembly spaces at both ends of the mounting component, symmetrical and independent installation areas are provided for the fixing portions of the electrode assemblies, avoiding mutual interference when the two electrode assemblies are fixed. Simultaneously, the symmetrical layout balances the overall structural center of gravity, preventing center of gravity shift caused by concentrated installation at one end. The electrical connections between the two electrode assemblies and the external wiring assembly are concentrated in the second assembly space, facilitating centralized protection of the electrical connection points to avoid external influences and ensuring even distribution of current from the external wiring assembly to the two electrode assemblies. The third assembly space precisely accommodates the electrode plate assembly fixing part, ensuring the assembly is firmly fixed, while the mating holes of the cover assembly provide suitable through channels for the rest of the electrode plate assembly, ensuring that the electrode plate assembly can stably connect with the electrolytic structure and meet the usage requirements.

[0009] In one embodiment, the external wiring assembly includes an external wiring body, a mating component, and electrode wires. The assembly space includes a first assembly space and a second assembly space. The mating component is disposed on the external wiring body and abuts against the chassis assembly. The mating component is located in the first assembly space, and the external wiring body passes through the first assembly space. There are two electrode wires, which are disposed on the mating component and located in the second assembly space. There are two electrode plate assemblies, each corresponding to one of the two electrode wires and electrically connected. By disposing of the mating component on the external wiring body and abutting against the chassis assembly, and being located in the first assembly space, the axial displacement of the external wiring body can be limited by the abutment against the chassis assembly, preventing the external wiring body from loosening or falling off when passing through the first assembly space. Furthermore, the boundary of the first assembly space provides lateral restraint for the mating component, further improving the overall installation stability of the external wiring assembly. The two electrode wires are disposed on the mating component and concentrated in the second assembly space, and are electrically connected to the two electrode plate assemblies, realizing a positive and negative electrode structure. Meanwhile, the enclosed environment of the second assembly space provides centralized protection for electrical connection parts, isolating them from external interference such as dust and moisture, and ensuring the stability and safety of electrical connections.

[0010] In one embodiment, the electrode assembly includes a connecting base, an extension piece, and a protrusion. The assembly space includes a second assembly space and a third assembly space. The connecting base is disposed on the chassis assembly and located in the third assembly space. The extension piece is disposed on the connecting base and located in the second assembly space. The protrusion is disposed on the connecting base and protrudes in a direction away from the connecting base. The external wiring assembly is electrically connected to the extension piece. The cover assembly has a mating hole, and the protrusion is located at the mating hole. By disposing of the connecting base on the chassis assembly and in the third assembly space, the third assembly space provides a precise installation and positioning area for the connecting base, preventing the connecting base from shifting on the chassis assembly. Simultaneously, the support of the chassis assembly ensures the overall stability of the electrode assembly, preventing loosening due to vibration or other factors during use. The extension piece extends from the connecting base to the second assembly space and is electrically connected to the external wiring assembly. The enclosed environment of the second assembly space effectively protects the electrical connection points, isolating them from external dust and moisture, and preventing poor contact or short circuits. The bump protrudes in a direction away from the connecting base plate and is located at the mating hole of the cover assembly. The mating hole can both limit the bump and prevent it from shifting, and allow the bump to be stably exposed through the mating hole, which is convenient for precise docking with the electrolytic structure.

[0011] In one embodiment, the cover assembly includes a cover body and a snap-fit ​​assembly. Multiple snap-fit ​​assemblies are disposed on the cover body and located on both sides of the cover body. The assembly space includes a locking space. The multiple snap-fit ​​assemblies abut against the chassis assembly and are located within the locking space. The cover body covers a portion of the external wiring assembly and a portion of the electrode plate assembly. By distributing multiple sets of snap-fit ​​assemblies on both sides of the cover body, the positioning effect of the locking space prevents snap-fit ​​misalignment, and the symmetrical distribution on both sides ensures even distribution of connection force. Compared to a single-sided or single-snap design, this significantly improves the connection strength between the cover and the chassis, effectively preventing the cover from detaching due to vibration or external pulling during use, and ensuring overall structural stability. The cover body's coverage of a portion of the external wiring assembly and electrode plate assembly directly isolates external dust, moisture, and impurities, preventing surface oxidation and short circuits in core electrical components. It also reduces physical damage to components from external impacts, extends the service life of electrical components, and ensures stable electrical connection functionality.

[0012] In one embodiment, the latching assembly includes an extension and a latching body. The extension is disposed on the cover body and extends toward the chassis assembly. The latching body is disposed on the extension and abuts against the chassis assembly, and the latching body is located in the latching space. By extending the extension from the cover body toward the chassis assembly, not only is a reasonable installation height and position provided for the latching body, allowing the latching body to be accurately aligned with the abutting part of the chassis assembly, but the guiding effect of the extension structure also reduces the alignment difficulty when the cover assembly and chassis assembly are connected, preventing the latching body from failing to abut properly due to positional deviation, thus improving assembly efficiency. The buckle body is set on the extension and abuts against the chassis component, and is located in the locking space. The locking space forms a lateral limit on the buckle body to prevent the buckle body from shifting or deforming when subjected to force. The extension component can evenly transfer the contact force between the buckle body and the chassis component to the cover body, avoiding excessive local force that could damage the cover or buckle. With multiple sets of buckle components distributed on both sides, the firmness of the connection between the cover and the chassis is further enhanced, effectively resisting the effects of vibration, external pulling force, etc.

[0013] A second aspect of this application discloses an electrolysis structure, which includes: the aforementioned split external electrical structure; an electrolysis shell, on which the chassis assembly is disposed, and a portion of the external wiring assembly passes through the electrolysis shell; and an electrolysis assembly, on which the electrolysis assembly is disposed, and electrically connected to the electrode assembly.

[0014] The second aspect disclosed above discloses an electrolysis structure for an integrated air purifier / disinfection machine. The split-type external power supply structure serves as the core power supply unit. Its external wiring component passes through the electrolysis shell, allowing for stable access to an external power source. Through the electrode assembly electrically connected to the electrolysis component, electrical energy is precisely transferred to the electrolysis component, meeting the power requirements of the electrolysis reaction. Furthermore, the modular design of the split-type external power supply structure reduces interference and losses in the power supply lines, ensuring the stability and safety of the power supply and preventing power supply issues from affecting electrolysis efficiency. The electrolysis shell provides a unified installation area for the chassis assembly and the electrolysis component, ensuring stable positioning of the chassis assembly and facilitating easier electrical connection between the electrolysis component and the electrode assembly. This eliminates the need for a complex additional installation frame, achieving a compact layout of all components, reducing the overall structural space occupied, and improving space utilization.

[0015] The third aspect of this application discloses an integrated air purification and disinfection machine, which includes: the aforementioned electrolytic structure; and an integrated air purification and disinfection machine body, wherein the electrolytic structure is disposed on the integrated air purification and disinfection machine body.

[0016] The aforementioned discloses an integrated disinfection and purification machine. Its separate external power supply structure provides a stable power source for the electrolysis components, ensuring continuous and efficient electrolysis reactions and preventing fluctuations in disinfection effectiveness due to unstable power supply. This meets the disinfection and purification needs of the integrated machine in various scenarios. The machine body provides a dedicated mounting platform for the electrolysis structure, allowing for precise integration into a suitable location based on the overall size and functional layout of the device. This eliminates the need for additional external space. Furthermore, the structural frame of the machine body further secures the electrolysis structure, preventing displacement during operation and ensuring the connection stability between the electrolysis components and electrode assembly, thus achieving orderly integration of all components. Attached Figure Description

[0017] Figure 1 Exploded view of a split external electrical structure;

[0018] Figure 2 A three-dimensional diagram of a split-type external electrical structure;

[0019] Figure 3 This is a first perspective view of the chassis components;

[0020] Figure 4 This is a second perspective view of the chassis components;

[0021] Figure 5 This is a cross-sectional view of the chassis components;

[0022] Figure 6 for Figure 5 A magnified view of a portion of region A;

[0023] Figure 7 This is a three-dimensional view of the cover assembly;

[0024] Figure 8 A 3D view of the external wiring components;

[0025] Figure 9 This is a three-dimensional view of the electrode assembly;

[0026] Figure 10 This is an exploded view of the electrolytic structure.

[0027] The correspondence between the reference numerals and the component names is as follows:

[0028] 1 Chassis components, 11 Chassis body, 12 Mounting parts, 101 Assembly space, 1011 Mounting space, 1012 First assembly space, 1013 Second assembly space, 1014 Third assembly space.

[0029] 2. Cover assembly, 21. Cover body, 22. Buckle assembly, 221. Extension piece, 222. Buckle body, 201. Mating hole;

[0030] 3. External wiring assembly; 31. External wiring body; 32. Mating parts; 33. Electrode wire;

[0031] 4. Electrode assembly, 41. Connecting substrate, 42. Extension plate, 43. Protrusion;

[0032] 5. Electrolytic casing;

[0033] 6. Electrolysis assembly. Detailed Implementation

[0034] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0035] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0036] The following description, with reference to the accompanying drawings, describes some embodiments of the present invention, including the split external electrical structure, electrolysis structure, and integrated purification and disinfection machine.

[0037] Example 1

[0038] like Figures 1 to 9As shown, this embodiment discloses a split external electrical structure, including: a chassis assembly 1; a cover assembly 2, which is disposed on the chassis assembly 1 and forms an assembly space 101 with the chassis assembly 1; an external wiring assembly 3, which is disposed on the chassis assembly 1 and passes through the chassis assembly 1, with a portion of the external wiring assembly 3 located in the assembly space 101, and is used for electrical connection with an external structure; and an electrode assembly 4, which is disposed on the chassis assembly 1 and located in the assembly space 101, and is electrically connected to the external wiring assembly 3.

[0039] This application discloses a split-type external electrical structure for electrolysis structures. The chassis assembly 1 can be independently fixed to the target installation position without simultaneously considering the assembly accuracy of the external wiring and electrode plates. After the chassis assembly 1 is stable, the external wiring assembly 3 is inserted and fixed from the outside of the chassis, extending partially into the assembly space 101. Subsequently, the electrode plate assembly 4 is installed separately and its internal electrical connection with the external wiring assembly 3 is completed. Finally, the cover assembly 2 is closed to form the enclosed assembly space 101. This step-by-step installation method significantly reduces the space requirements of the installation environment. Even in narrow or complex installation environments, the components can be adapted one by one, improving the convenience of installation operations, reducing mutual interference during overall installation, and lowering assembly difficulty and error rate. Simultaneously, it allows operators to complete installation and testing at a dedicated workstation, without being restricted to working within the overall structure of the electrolysis equipment, reducing wasted time due to assembly interference. This is particularly suitable for multi-station division of labor and batch assembly scenarios in large-scale production. When the external wiring assembly 3 or the electrode plate assembly 4 malfunctions and requires repair, it is not necessary to disassemble the entire structure. Only the cover assembly 2 needs to be opened to directly inspect and replace the electrical connection parts and the assembly body located in the assembly space 101. This avoids damage to the surrounding structure caused by overall disassembly, while shortening maintenance time and reducing labor and material costs. At the same time, the chassis assembly 1, external wiring assembly 3, and electrode plate assembly 4 can be individually optimized and replaced according to the electrical connection requirements and installation size requirements of different usage scenarios.

[0040] like Figure 1 , Figure 2 and Figure 3As shown, in addition to the features of the above embodiments, this embodiment further defines: the chassis assembly 1 includes a chassis body 11 and a mounting component 12. The mounting component 12 is disposed on the chassis body 11. A portion of the external wiring assembly 3 is disposed on and passes through the mounting component 12. The electrode plate assembly 4 is disposed on the mounting component 12. The cover assembly 2 is snapped onto the mounting component 12 and cooperates to form an assembly space 101. Through the fixed cooperation between the mounting component 12 and the chassis body 11, a unified reference is provided for the external wiring assembly 3, the electrode plate assembly 4, and the cover assembly 2, avoiding the positioning deviation problem that may occur when installing each component directly on the chassis body 11. The external wiring assembly 3 is partially disposed on the mounting component 12 and passes through this component, and the electrode plate assembly 4 is directly assembled on the mounting component 12. This centralized installation layout can shorten the electrical connection path between the external wiring assembly 3 and the electrode plate assembly 4 in the assembly space 101, reduce line loss, and at the same time, with the structural limitation of the mounting component 12, prevent the external wiring assembly 3 from shifting due to external force and the electrode plate assembly 4 from loosening, ensuring the stability of the electrical connection.

[0041] like Figures 1 to 6 As shown, in addition to the features of the above embodiments, this embodiment further defines: the assembly space 101 includes a locking space 1011, a first assembly space 1012, a second assembly space 1013, and a third assembly space 1014. The portion of the cover assembly 2 that is snapped together with the mounting component 12 is located in the locking space 1011. A portion of the external wiring assembly 3 is located in the first assembly space 1012 and passes through the first assembly space 1012. The remaining portion of the external wiring assembly 3 is located in the second assembly space 1013. The electrode assembly 4 is placed in the third assembly space 1014. By dividing the assembly space 101 into the locking space 1011, the first assembly space 1012, the second assembly space 1013, and the third assembly space 1014, the positioning accuracy of the component assembly area and the reinforced structure is ensured. The locking space 1011 is specifically designed to accommodate the snap-connected portion of the cover assembly 2 and the mounting component 12. The dedicated space limits the snap-connection structure, preventing the connection from becoming loose due to misalignment during assembly or use. The first assembly space 1012 provides a passage for the external wiring assembly 3, and fixes the external wiring assembly 3 through the space boundary to prevent it from being worn due to shaking at the passage point, thus ensuring the structural stability of the external wiring assembly 3 after it is installed. The second assembly space 1013 accommodates the rest of the external wiring assembly 3 and, together with the first assembly space 1012, forms a complete placement path for the external wiring assembly 3, avoiding entanglement or compression of the external wiring with other components and reducing line loss. The third assembly space 1014 is dedicated to placing the electrode plate assembly 4, providing an independent and stable installation environment for the electrode plate assembly 4, preventing the electrode plate assembly 4 from colliding or interfering with other components such as the external wiring assembly 3, and ensuring the reliability of the electrical connection between the electrode plate assembly 4 and the external wiring assembly 3.

[0042] like Figure 1 , Figure 2 , Figure 4 and Figure 7 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the number of third assembly spaces 1014 is two, the two third assembly spaces 1014 are located at both ends of the mounting member 12, the cover assembly 2 is provided with mating holes 201, the number of mating holes 201 is two, the two mating holes 201 are located at both ends of the cover assembly 2, the number of electrode plate assemblies 4 is two, the part of the two electrode plate assemblies 4 electrically connected to the external wiring assembly 3 is located in the second assembly space 1013, the fixing part of the two electrode plate assemblies 4 is placed in the two third assembly spaces 1014 one-to-one, and the remaining part of the two electrode plate assemblies 4 is located at the two mating holes 201 respectively. By utilizing the third assembly spaces 1014 at both ends of the mounting member 12, symmetrical and independent installation areas are provided for the fixing part of the electrode plate assembly 4, avoiding mutual interference when the two electrode plate assemblies 4 are fixed. At the same time, the symmetrical layout can balance the center of gravity of the overall structure and prevent the center of gravity shift caused by single-end concentrated installation. The electrical connections between the two electrode assemblies 4 and the external wiring assembly 3 are concentrated in the second assembly space 1013. This facilitates centralized protection of the electrical connection points, preventing external factors from affecting them, and also allows the current from the external wiring assembly 3 to be evenly distributed to the two electrode assemblies 4. The third assembly space 1014 precisely accommodates the fixing part of the electrode assembly 4, ensuring the assembly is firmly fixed. Meanwhile, the mating hole 201 of the cover assembly 2 provides a suitable through-hole for the rest of the electrode assembly 4, ensuring that the electrode assembly 4 can stably connect with the electrolytic structure and meet the usage requirements.

[0043] like Figure 2 , Figure 4 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment further defines: the external wiring assembly 3 includes an external wiring body 31, a mating part 32, and an electrode wire 33; the assembly space 101 includes a first assembly space 1012 and a second assembly space 1013; the mating part 32 is disposed on the external wiring body 31 and abuts against the chassis assembly 1; the mating part 32 is located in the first assembly space 1012; the external wiring body 31 passes through the first assembly space 1012; there are two electrode wires 33; the two electrode wires 33 are disposed on the mating part 32 and located in the second assembly space 1013; there are two electrode sheet assemblies 4; the two electrode sheet assemblies 4 are electrically connected to the two electrode wires 33 in a one-to-one correspondence. The mating component 32 is installed on the external wiring body 31 and abuts against the chassis assembly 1, located in the first assembly space 1012. This not only restricts the axial displacement of the external wiring body 31 by abutting against the chassis assembly 1, preventing loosening or detachment when the external wiring body 31 passes through the first assembly space 1012, but also provides lateral restraint to the mating component 32 by utilizing the boundary of the first assembly space 1012, further enhancing the overall installation stability of the external wiring assembly 3. Two electrode wires 33 are installed on the mating component 32 and concentrated in the second assembly space 1013, and are electrically connected to the two electrode sheet assemblies 4 one-to-one, realizing the positive and negative electrode structure. Simultaneously, the enclosed environment of the second assembly space 1013 provides concentrated protection for the electrical connection points, isolating them from external interference such as dust and moisture, ensuring the stability and safety of the electrical connection.

[0044] like Figure 4 , Figure 7 and Figure 9As shown, in addition to the features of the above embodiments, this embodiment further defines: the electrode assembly 4 includes a connecting base plate 41, an extension plate 42, and a protrusion 43; the assembly space 101 includes a second assembly space 1013 and a third assembly space 1014; the connecting base plate 41 is disposed on the chassis assembly 1 and located in the third assembly space 1014; the extension plate 42 is disposed on the connecting base plate 41 and located in the second assembly space 1013; the protrusion 43 is disposed on the connecting base plate 41 and protrudes in a direction away from the connecting base plate 41; the external wiring assembly 3 is electrically connected to the extension plate 42; the cover assembly 2 is provided with a mating hole 201, and the protrusion 43 is located at the mating hole 201. The connecting base plate 41 is mounted on the chassis assembly 1 and located in the third assembly space 1014. The third assembly space 1014 provides a precise installation and positioning area for the connecting base plate 41, preventing it from shifting on the chassis assembly 1. Simultaneously, the support of the chassis assembly 1 ensures the overall stability of the electrode assembly 4, preventing loosening due to vibration or other factors during use. The extension plate 42 extends from the connecting base plate 41 to the second assembly space 1013 and is electrically connected to the external wiring assembly 3. The enclosed environment of the second assembly space 1013 effectively protects the electrical connection points, isolating them from external dust and moisture, preventing poor contact or short circuits. The protrusion 43 protrudes away from the connecting base plate 41 and is located at the mating hole 201 of the cover assembly 2. The mating hole 201 both limits the protrusion 43, preventing it from shifting, and allows it to be stably exposed through the mating hole 201, facilitating precise docking with the electrolytic structure.

[0045] like Figures 4 to 7 As shown, in addition to the features of the above embodiments, this embodiment further defines: the cover assembly 2 includes a cover body 21 and a buckle assembly 22. The number of buckle assemblies 22 is multiple, and these multiple buckle assemblies 22 are disposed on the cover body 21 and located on both sides of the cover body 21. The assembly space 101 includes a locking space 1011, and the number of locking spaces 1011 is multiple. The multiple buckle assemblies 22 abut against the chassis assembly 1 and are located one-to-one in the multiple locking spaces 1011. The cover body 21 covers part of the external wiring assembly 3 and part of the electrode sheet assembly 4. By distributing multiple sets of buckle assemblies 22 on both sides of the cover body 21, the positioning effect of the multiple locking spaces 1011 is used to prevent buckle assembly misalignment, and the symmetrical distribution on both sides ensures even distribution of the connection force. Compared with a single-sided or single-buckle design, this significantly improves the connection firmness between the cover and the chassis, effectively preventing the cover from falling off due to vibration or external pulling during use, and ensuring the overall structural stability. The cover body 21 covers part of the external wiring assembly 3 and electrode plate assembly 4, which can directly isolate external dust, moisture and impurities, avoid problems such as surface oxidation and short circuits of core electrical components, reduce physical damage to components from external impacts, extend the service life of electrical components, and ensure stable electrical connection function.

[0046] like Figure 6 and Figure 7 As shown, in addition to the features of the above embodiments, this embodiment further defines that: the latching assembly 22 includes an extension 221 and a latching body 222. The extension 221 is disposed on the cover body 21 and extends toward the chassis assembly 1. The latching body 222 is disposed on the extension 221 and abuts against the chassis assembly 1. The latching body 222 is located at the latching space 1011. By extending the extension 221 from the cover body 21 toward the chassis assembly 1, not only is a reasonable installation height and position provided for the latching body 222, enabling the latching body 222 to be accurately aligned with the abutting part of the chassis assembly 1, but also the guiding effect of the extension structure reduces the alignment difficulty when the cover assembly 2 and the chassis assembly 1 are connected, avoiding the latching body 222 from failing to abut properly due to positional deviation, thus improving assembly efficiency. The buckle body 222 is disposed on the extension 221 and abuts against the chassis component 1, and is located at the locking space 1011. The locking space 1011 forms a lateral limit on the buckle body 222 to prevent the buckle body 222 from shifting or deforming when subjected to force. The extension 221 can evenly transfer the contact force between the buckle body 222 and the chassis component 1 to the cover body 21, avoiding excessive local force that could damage the cover or buckle. With the multiple sets of buckle components distributed on both sides, the firmness of the connection between the cover and the chassis is further enhanced, effectively resisting the effects of vibration, external pulling and other forces.

[0047] Example 2

[0048] like Figures 1 to 10 As shown, this embodiment discloses an electrolysis structure, including: the above-mentioned split external electrical structure; an electrolysis shell 5, a chassis assembly 1 disposed on the electrolysis shell 5, and a portion of the external wiring assembly 3 passing through the electrolysis shell 5; an electrolysis assembly 6 disposed on the electrolysis shell 5, the electrolysis assembly 6 abutting against and electrically connected to the electrode sheet assembly 4.

[0049] The second aspect of this application discloses an electrolysis structure for an integrated air purification and disinfection machine. A split-type external power supply structure serves as the core power supply unit. Its external wiring component 3 passes through the electrolysis housing 5, allowing for stable access to an external power source. Through the electrode assembly 4, which is electrically connected to the electrolysis assembly 6, electrical energy is precisely transferred to the electrolysis assembly 6, meeting the power requirements of the electrolysis reaction. Furthermore, the modular design of the split-type external power supply structure reduces interference and losses in the power supply lines, ensuring the stability and safety of the power supply and preventing power supply issues from affecting electrolysis efficiency. The electrolysis housing 5 provides a unified installation area for the chassis assembly 1 and the electrolysis assembly 6, ensuring stable positioning of the chassis assembly 1 and facilitating easier electrical connection between the electrolysis assembly 6 and the electrode assembly 4. This eliminates the need for a complex additional installation frame, achieving a compact layout of all components, reducing the overall structural space occupied, and improving space utilization.

[0050] Example 3

[0051] like Figures 1 to 10 As shown in the figure, this embodiment discloses an integrated air purification and disinfection machine, including: the above-mentioned electrolytic structure; and an integrated air purification and disinfection machine body, wherein the electrolytic structure is disposed on the integrated air purification and disinfection machine body.

[0052] The third aspect of this application discloses an integrated disinfection and purification machine. Its separate external power supply structure provides a stable power source for the electrolysis component 6, ensuring continuous and efficient electrolysis reaction and preventing fluctuations in disinfection and purification effects due to unstable power supply. This meets the disinfection and purification needs of the integrated machine in different scenarios. The machine body provides a dedicated mounting carrier for the electrolysis structure, allowing for precise integration into a suitable location based on the overall size and functional layout of the device. This eliminates the need for additional external space. Furthermore, the structural frame of the machine body further secures the electrolysis structure, preventing displacement during operation and ensuring the connection stability between the electrolysis component 6 and the electrode assembly 4, thus achieving orderly integration of all components.

[0053] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0054] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A split-type external electrical structure, characterized in that, The aforementioned split-type external power supply structure includes: Chassis components (1); Cover assembly (2), the cover assembly (2) is disposed on the chassis assembly (1), the cover assembly (2) and the chassis assembly (1) cooperate to form an assembly space (101); An external wiring assembly (3) is disposed on the chassis assembly (1) and passes through the chassis assembly (1). A portion of the external wiring assembly (3) is located in the assembly space (101). The external wiring assembly (3) is used for electrical connection with an external structure. Electrode assembly (4) is disposed on the chassis assembly (1) and located in the assembly space (101). The electrode assembly (4) is electrically connected to the external wiring assembly (3).

2. The split-type external electrical structure according to claim 1, characterized in that, The chassis assembly (1) includes a chassis body (11) and a mounting component (12). The mounting component (12) is disposed on the chassis body (11). A portion of the external wiring assembly (3) is disposed on the mounting component (12) and passes through the mounting component (12). The electrode plate assembly (4) is disposed on the mounting component (12). The cover assembly (2) is engaged with the mounting component (12) and cooperates to form the assembly space (101).

3. The split-type external electrical structure according to claim 2, characterized in that, The assembly space (101) includes a slotting space (1011), a first assembly space (1012), a second assembly space (1013), and a third assembly space (1014). The portion of the cover assembly (2) that is snapped into the mounting component (12) is located in the slotting space (1011). A portion of the external wiring assembly (3) is located in the first assembly space (1012) and passes through the first assembly space (1012). The remaining portion of the external wiring assembly (3) is located in the second assembly space (1013). The electrode assembly (4) is placed in the third assembly space (1014).

4. The split external electrical structure according to claim 3, characterized in that, There are two third assembly spaces (1014), which are located at both ends of the mounting component (12). The cover assembly (2) is provided with mating holes (201), which are located at both ends of the cover assembly (2). There are two electrode plate assemblies (4), and the part of the two electrode plate assemblies (4) that is electrically connected to the external wiring assembly (3) is located in the second assembly space (1013). The fixed part of the two electrode plate assemblies (4) is placed in the two third assembly spaces (1014) one by one, and the remaining part of the two electrode plate assemblies (4) is located at the two mating holes (201).

5. The split-type external electrical structure according to claim 1, characterized in that, The external wiring assembly (3) includes an external wiring body (31), a mating part (32), and an electrode wire (33). The assembly space (101) includes a first assembly space (1012) and a second assembly space (1013). The mating part (32) is disposed on the external wiring body (31) and abuts against the chassis assembly (1). The mating part (32) is located in the first assembly space (1012). The external wiring body (31) passes through the first assembly space (1012). There are two electrode wires (33). The two electrode wires (33) are disposed on the mating part (32) and located in the second assembly space (1013). There are two electrode sheet assemblies (4). The two electrode sheet assemblies (4) are electrically connected to the two electrode wires (33) one by one.

6. The split-type external electrical structure according to claim 1, characterized in that, The electrode assembly (4) includes a connecting base plate (41), an extension plate (42), and a protrusion (43). The assembly space (101) includes a second assembly space (1013) and a third assembly space (1014). The connecting base plate (41) is disposed on the chassis assembly (1) and located in the third assembly space (1014). The extension plate (42) is disposed on the connecting base plate (41) and located in the second assembly space (1013). The protrusion (43) is disposed on the connecting base plate (41) and protrudes in a direction away from the connecting base plate (41). The external wiring assembly (3) is electrically connected to the extension plate (42). The cover assembly (2) is provided with a mating hole (201), and the protrusion (43) is located at the mating hole (201).

7. The split-type external electrical structure according to claim 1, characterized in that, The cover assembly (2) includes a cover body (21) and a snap fastener assembly (22). There are multiple snap fastener assemblies (22), which are disposed on the cover body (21) and located on both sides of the cover body (21). The assembly space (101) includes a slot space (1011), which is also multiple. The multiple snap fastener assemblies (22) abut against the chassis assembly (1) and are located one-to-one in the multiple slot spaces (1011). The cover body (21) covers part of the external wiring assembly (3) and part of the electrode sheet assembly (4).

8. The split-type external electrical structure according to claim 7, characterized in that, The buckle assembly (22) includes an extension (221) and a buckle body (222). The extension (221) is disposed on the cover body (21) and extends toward the chassis assembly (1). The buckle body (222) is disposed on the extension (221) and abuts against the chassis assembly (1). The buckle body (222) is located at the buckle space (1011).

9. An electrolytic structure, characterized in that, The electrolytic structure includes: The split external power supply structure according to any one of claims 1 to 8; An electrolytic casing (5) is provided, the chassis assembly (1) is disposed on the electrolytic casing (5), and a portion of the external wiring assembly (3) passes through the electrolytic casing (5); An electrolysis assembly (6) is disposed on the electrolysis shell (5), and the electrolysis assembly (6) abuts against and is electrically connected to the electrode assembly (4).

10. A disinfection and sanitation integrated machine, characterized in that, The aforementioned integrated disinfection and purification machine includes: The electrolytic structure as described in claim 9; The electrolytic structure is disposed on the main body of the integrated air purification and disinfection machine.

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