Electrical control box

Abstract

This utility model relates to an electrical control box, belonging to the field of electrical appliances. An electrical control box includes: a box assembly with a first receiving space; a hook assembly disposed on the box assembly; an electronic component disposed on the hook assembly; and a baffle assembly, part of which is disposed on the main box assembly, and the remaining part of which is disposed on the electronic component. The baffle assembly divides the first receiving space into an internal space and an external space, with the electronic component located in the internal space. This application discloses an electrical control box. The baffle assembly partially connects to the box assembly and partially connects to the electronic component. Users can open the corresponding baffles one by one to directly access the electronic component in the internal space from the external space without disassembling the overall structure, significantly reducing maintenance and operation time.

Description

Technical Field

[0001] This utility model relates to the field of electrical appliances, and in particular to an electrical control box. Background Technology

[0002] In existing technologies, electrical control boxes lack segmented baffles. When users inspect or operate electronic structures, they need to extensively disassemble the box to access core components. This not only prolongs maintenance time but may also degrade the box's sealing performance due to frequent disassembly. Furthermore, unlike independent baffles, they cannot be used for precise operation of specific modules, making it easy to accidentally touch other components during operation and increasing the risk of malfunction. Utility Model Content

[0003] Therefore, it is necessary to provide an electrical control box that addresses the lack of segmented baffle design inside the electrical control box.

[0004] An electrical control box includes: a box assembly having a first receiving space; a hook assembly disposed on the box assembly; an electronic component disposed on the hook assembly; and a baffle assembly, a portion of which is disposed on the main box assembly and the remaining portion of which is disposed on the electronic component, the baffle assembly dividing the first receiving space into an internal space and an external space, the electronic component being located in the internal space.

[0005] The aforementioned disclosure describes an electrical control box. The first accommodating space of the box assembly provides its basic framework. Combined with a baffle assembly, this first accommodating space is divided into an internal space and an external space, achieving a deep integration of protection and operability. The internal space, as the core protection area, forms an independent protection system, effectively blocking dust, moisture, and other contaminants, preventing short circuits or aging of electronic components due to environmental corrosion, and significantly extending equipment lifespan. The hook assembly securely suspends the electronic components inside the box, reducing direct contact with the box body. Combined with the enclosed nature of the internal space, it buffers external vibrations and shocks, preventing loose wiring, making it particularly suitable for complex scenarios such as industrial or outdoor environments. Simultaneously, the enclosed environment, combined with the shielding properties of the box material, weakens electromagnetic interference, ensuring accurate signal transmission from electronic components and stable equipment operation. The external space design leverages the flexible structure of the baffle assembly to enhance operational convenience. The baffle assembly partially connects to the box assembly and partially connects to the electronic components. Users can open the corresponding baffles one by one to directly access the electronic components in the internal space from the external space without disassembling the overall structure, significantly reducing maintenance and operation time. This design allows the electronic components secured by the hook assembly to be fully protected by the built-in space, while allowing users to quickly operate them through the external space, perfectly balancing device safety and efficiency.

[0006] In one embodiment, the baffle assembly includes a first baffle, a second baffle, and a third baffle. The second baffle is disposed on the electronic component, and the first and third baffles are disposed on the housing assembly and located on either side of the second baffle. The main bodies of the first, second, and third baffles are located on the same vertical plane. By directly connecting the second baffle to the electronic component, and fixing the first and third baffles to the housing assembly and placing them on either side of the second baffle, the three main bodies are on the same vertical plane, forming a continuous and tight separation barrier. This design can precisely enhance the sealing of the internal space, effectively blocking the intrusion of external dust, moisture, and other impurities, building a more reliable protective boundary for the electronic component, and further reducing the impact of environmental factors on electronic components. At the same time, the arrangement on the same vertical plane reduces the misalignment gap between the baffles, enhances the shielding effect against electromagnetic interference, and ensures the stable operation of the electronic component. Furthermore, the segmented baffle structure makes maintenance and operation more targeted. The first and third baffles are independently installed based on the enclosure assembly, while the second baffle is positioned synchronously with the electronic components. Users can open a specific baffle as needed: to inspect the side area of ​​the electronic components, the first or third baffle can be opened; to operate the core parts of the electronic components, the second baffle can be opened directly. This design avoids the cumbersome process of complete disassembly, greatly improves operational flexibility, and makes the maintenance process more efficient.

[0007] In one embodiment, the enclosure assembly includes a main housing, a front cover, and mounting side panels. The front cover is disposed on the main housing, and the two cooperate to form the first accommodating space. The mounting side panels are disposed on the main housing and located on both sides of the main housing. The hook assembly is disposed on the main housing and located on the side away from the front cover. A portion of the baffle assembly is disposed on the mounting side panels. By cooperating the main housing and the front cover to form the first accommodating space, a stable mounting carrier and protective shell are provided for the internal structures such as electronic components, hook assemblies, and baffle assemblies. This modular design ensures the integrity of the accommodating space and facilitates opening and closing operations during initial assembly and subsequent maintenance, balancing structural sealing and operational flexibility. The mounting side panels, located on both sides of the main housing, not only enhance the overall structural strength of the enclosure and resist the risk of deformation from external collisions, but also serve as important support points for the baffle assembly. Their partial connection with the baffle assembly further improves the stability of the baffle separating the internal and external spaces, ensuring the tightness of the separation barrier and strengthening the protection of the electronic components in the internal space. The hook assembly is positioned on the side of the main housing away from the front cover. This placement makes full use of the internal space of the main housing while avoiding interference with the opening and closing of the front cover. The main housing provides a solid mounting base for the hook assembly, ensuring it can stably support the weight of the electronic components and reduce swaying of the components during equipment operation or movement. Combined with the lateral support of the baffle assembly, this further enhances the installation stability of the electronic components and ensures long-term reliable operation of the equipment.

[0008] In one embodiment, the mounting side panel includes a first mounting side panel and a second mounting side panel. There are two first mounting side panels, each located on one of the two sides of the main housing near the front cover. Similarly, there are two second mounting side panels, also located on the main housing and one of the two sides of the main housing near the front cover. By subdividing the mounting side panels into first and second mounting side panels, the two first and two second mounting side panels form a double support on the two sides of the main housing near the front cover. This double layout greatly enhances the deformation resistance of both sides of the main housing. When the enclosure is subjected to external impact or pressure, the two sets of side panels can jointly disperse the impact force, effectively resisting the risk of deformation and providing a more reliable rigidity guarantee for the entire enclosure structure, thereby protecting internal electronic components from the effects of structural deformation. These mounting side panels provide a more stable mounting base for the baffle assembly. Since both the first and second mounting side plates are located on the two sides of the main housing near the front cover, the connection points between the baffle assembly and the mounting side plates are increased and more rationally distributed, which can further improve the stability and tightness of the baffle separating the internal space and the external space, and ensure better protection for electronic components.

[0009] In one embodiment, two first mounting side plates are located on one side of the electronic component, extending along the length of the main housing from the end closest to the electronic component. Two second mounting side plates are located on the side of the electronic component away from the two first mounting side plates, also extending along the length of the main housing from the end closest to the electronic component. A portion of the baffle assembly is disposed on the two first mounting side plates and the two second mounting side plates. By placing the two first mounting side plates on one side of the electronic component and extending along the length of the main housing from the end closest to the electronic component, and placing the two second mounting side plates on the side of the electronic component away from the first mounting side plates, also extending along the length of the main housing, this arrangement forms a wraparound protective structure on both sides of the electronic component. When the device is subjected to lateral impact, the mounting side plates on both sides act as a barrier, preventing external forces from directly acting on the electronic component. Simultaneously, the length-extending design increases the force transmission path, distributing the impact force more evenly across the main housing, significantly reducing the risk of damage to the electronic component due to force, and providing more comprehensive protection. The baffle assembly is partially mounted on these two sets of mounting side plates. Since these two sets of mounting side plates are located on both sides of the electronic component and extend along its length, the mounting points of the baffle assembly are evenly distributed along both sides of the electronic component. This distribution allows the baffle assembly to bear more balanced forces when separating the internal and external spaces, further improving the stability and tightness of the separation barrier. It can more effectively prevent dust, moisture, and other contaminants from entering the internal space, ensuring the operating environment of the electronic component. Simultaneously, the mounting side plates, positioned along the length of the main housing, also enhance the structural rigidity of the main housing in the length direction, reducing bending deformation caused by the main housing's own weight or the load of internal components. This ensures the stability of the hook assembly's support for the electronic component, preventing positional displacement of the electronic component due to housing deformation and ensuring the overall reliability of the equipment's operation.

[0010] In one embodiment, the main housing is provided with a first heat dissipation space, and the number of first heat dissipation spaces is plurality of them, which are spaced apart along the length of the main housing. By spacedly distributing the plurality of first heat dissipation spaces on the main housing, a uniform and efficient heat dissipation channel can be formed on the main housing. Electronic components continuously generate heat during operation. If the heat accumulates in the enclosed internal space and cannot be dissipated in time, it may cause the electronic components to degrade in performance or even be damaged due to high temperature. These heat dissipation spaces distributed along the length of the main housing can accelerate the air circulation between the internal space and the external environment, and quickly dissipate heat through convection, effectively reducing the temperature of the internal space, creating a suitable working environment for the electronic components, and ensuring their stable operation.

[0011] In one embodiment, the main housing is provided with multiple first heat dissipation spaces, which are located on both sides of the main housing and opposite to the electronic components. This design, where multiple first heat dissipation spaces are distributed on both sides of the main housing and opposite to the electronic components, further optimizes the heat dissipation function. This arrangement allows for precise targeting of the electronic components for heat dissipation. Since the electronic components are the primary source of heat, the first heat dissipation spaces, being opposite to them, can directly target the heat source and accelerate heat exchange. When the electronic components generate heat during operation, the heat diffuses to the surroundings. The first heat dissipation spaces located on both sides of the main housing and opposite each other can quickly capture this heat and conduct it to the outside through air convection, greatly shortening the heat transfer path, improving the targeting and efficiency of heat dissipation, and preventing excessive heat accumulation around the electronic components.

[0012] In one embodiment, the main housing has a wiring inlet space that communicates with the internal space. This connection provides a dedicated channel for external wiring to access the internal space. Electronic components need to connect to external devices via wiring to achieve control functions; the wiring inlet space allows these wires to enter the internal space in an orderly manner, preventing them from becoming tangled or exposed outside the housing. This facilitates wiring organization and locating during later maintenance, reduces interference between wires, and ensures stable signal transmission.

[0013] In one embodiment, the hook assembly includes a hook body and a hook body. The hook body is disposed on the housing assembly, and the hook body is disposed on the hook body. The hook body extends into and abuts against the electronic component. By placing the hook body on the housing assembly, a stable mounting base is provided for the entire hook assembly, ensuring it can support the weight of the electronic component. The hook body, disposed on the hook body and extending into and abutting against the electronic component, provides effective restraint for the electronic component. This not only firmly fixes the electronic component in a preset position, preventing displacement or shaking during equipment operation, handling, or vibration, but also avoids damage caused by collisions or friction between the electronic component and the housing assembly or other components, providing reliable structural support for the electronic component.

[0014] In one embodiment, there are multiple hook assemblies, which are disposed on the housing assembly and on the electronic component. By placing multiple hook assemblies on the housing assembly and the electronic component on these hook assemblies, this design further enhances the securing effect on the electronic component. The combined action of multiple hook assemblies significantly improves the installation stability of the electronic component. While the fixing force of a single hook assembly is limited, multiple hook assemblies provide support and restraint to the electronic component from different positions, effectively distributing the weight of the electronic component and preventing loosening of the fixing structure due to excessive force at a single point. Even when the equipment experiences strong vibrations or during handling, the multiple hook assemblies can work together to limit the displacement of the electronic component, preventing it from tilting, shaking, or even falling off, providing comprehensive structural protection for the electronic component and ensuring that it remains in a stable working position within the built-in space.

[0015] In one embodiment, the electronic component includes an electronic housing, a first module, a second module, and a power module. The electronic housing is mounted on the hook assembly, and a portion of the baffle assembly is mounted on the electronic housing, with the two cooperating to form a second receiving space. The first module is mounted on the electronic housing, with a portion of the first module located within the second receiving space, and the remaining portion of the first module extending outside the second receiving space. The second module and the power module are both mounted on the electronic housing and located within the second receiving space. By mounting the electronic housing on the hook assembly and utilizing the coordinated fixation of multiple hook assemblies, a stable overall installation of the electronic component is achieved. This installation method ensures the electronic component is firmly positioned within the internal space, preventing collisions with the housing assembly or baffle assembly due to shaking. Simultaneously, the baffle assembly's partial mounting on the electronic housing not only enhances the sealing of the second receiving space but also creates a linkage between the electronic component and the baffle assembly. When the baffle assembly is opened, the module on the electronic housing can be more easily accessed, facilitating maintenance and operation, echoing the convenient design of the external space. Furthermore, centralizing the first module, second module, and power module within the second accommodating space of the electronic enclosure facilitates wiring connections and signal transmission between modules. This centralized layout reduces cluttered wiring, minimizes interference, and enables more precise and efficient control command transmission. Simultaneously, this integrated design facilitates unified management and maintenance of modules based on functional requirements. When a module needs replacement or upgrade, it can be directly accessed by opening the baffle assembly, enhancing maintenance convenience and efficiency.

[0016] In one embodiment, the first module includes a first module body and multiple fixing columns. These fixing columns are disposed on the electronic housing, and the first module body is mounted on these columns. A portion of the first module body is located within the second receiving space, while the remainder extends outside the second receiving space. By mounting multiple fixing columns on the electronic housing, a stable mounting point is provided for the first module body. This multi-point support method allows the first module body to be stably mounted on the electronic housing, avoiding friction or compression caused by direct contact with the housing. It also distributes the weight of the first module body, preventing excessive force at a single point from causing loosening. This ensures the accurate and stable position of the first module body within the second receiving space and reduces the risk of displacement due to equipment vibration.

[0017] In one embodiment, the electronic housing is provided with multiple second heat dissipation spaces, which are spaced apart along the length of the electronic housing and located on both sides of the electronic housing. The housing assembly is provided with multiple first heat dissipation spaces, which are arranged opposite to the multiple second heat dissipation spaces. By arranging the first and second heat dissipation spaces opposite to each other, a heat dissipation channel that runs through the interior and exterior is constructed. The heat generated by the first and second modules of the electronic components within the second housing space can first be dissipated to the internal space through the second heat dissipation spaces on both sides of the electronic housing, and then discharged to the outside through the opposite first heat dissipation spaces on the housing assembly. This heat dissipation path significantly shortens the heat transfer distance, accelerates the diffusion of heat from the core heat-generating area to the external environment, avoids heat accumulation in the two housing spaces, and significantly improves the overall heat dissipation efficiency. At the same time, the layout of multiple heat dissipation spaces spaced apart along the length of the housing ensures comprehensive heat dissipation coverage. Both the electronic enclosure and the main enclosure have heat dissipation spaces on both sides that can dissipate heat to different areas simultaneously. Combined with the air gap formed by the fixed column in the first module, heat can circulate evenly between the electronic components, the internal space, and the outside, avoiding the impact of local high temperatures on module performance and ensuring that each electronic component works stably at a suitable temperature.

[0018] In one embodiment, a plurality of ventilation fans are also included, which are disposed on the electronic component. By placing multiple ventilation fans on the electronic component, active power is injected into the heat dissipation system. The first module, second module, and other internal components of the electronic component continuously generate heat during operation, and natural convection alone may be insufficient to handle the heat accumulation under high loads. Multiple ventilation fans directly act on the electronic component, actively accelerating airflow within the second housing space, pushing the heat generated by the modules to the second heat dissipation space more quickly. Combined with the outward exhaust from the first heat dissipation space, this forms a highly efficient heat dissipation cycle, significantly improving the heat removal speed and preventing high temperatures from affecting module performance. Attached Figure Description

[0019] Figure 1 This is a first perspective view of the electrical control box; Figure 2 This is a second perspective view of the electrical control box; Figure 3 This is a first cross-sectional view of the electrical control box; Figure 4 This is a second cross-sectional view of the electrical control box; Figure 5 This is an exploded view of the electrical control box. Figure 6 This is a first perspective view of the housing assembly; Figure 7 This is a second perspective view of the housing assembly; Figure 8 A perspective view of the housing assembly and the baffle assembly; Figure 9 This is the third cross-sectional view of the electrical control box; Figure 10 for Figure 9 A magnified view of a portion of region A; Figure 11 A 3D view of the hook assembly; Figure 12 This is a third-dimensional view of the electrical control box; Figure 13 This is an exploded view of the electronic components.

[0020] The correspondence between the reference numerals and the component names is as follows: 1. Enclosure assembly, 11. Main shell, 12. Front cover, 13. Mounting side panel, 131. First mounting side panel, 132. Second mounting side panel, 101. First receiving space, 1011. Internal space, 1012. External space, 102. First heat dissipation space, 103. Cable entry space. 2 hook assembly, 21 hook body, 22 hook body; 3 Electronic components, 31 Electronic box housing, 32 First module, 321 First module body, 322 Fixing column, 33 Second module, 34 Power module, 301 Second housing space, 302 Second heat dissipation space; 4-baffle assembly, 41 first baffle, 42 second baffle, 43 third baffle; 5-way fan. Detailed Implementation

[0021] 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.

[0022] 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.

[0023] The electrical control box of this utility model is described below with reference to the accompanying drawings.

[0024] Example

[0025] like Figures 1 to 13 As shown, this embodiment discloses an electrical control box, including: a box assembly 1, the box assembly 1 having a first accommodating space 101; a hook assembly 2, the hook assembly 2 being disposed on the box assembly 1; an electronic component 3, the electronic component 3 being disposed on the hook assembly 2; and a baffle assembly 4, a portion of the baffle assembly 4 being disposed on the main box assembly 1, and the remaining portion of the baffle assembly 4 being disposed on the electronic component 3. The baffle assembly 4 divides the first accommodating space 101 into an internal space 1011 and an external space 1012, and the electronic component 3 is located in the internal space 1011.

[0026] This application discloses an electrical control box. The first accommodating space 101 of the box assembly 1 provides its basic framework. With the help of the baffle assembly 4, the first accommodating space 101 is divided into an internal space 1011 and an external space 1012, achieving a deep integration of protection and operability. The internal space 1011, as the core protection area, forms an independent protection system, effectively blocking dust, moisture, and other contaminants, preventing short circuits or aging of the electronic components 3 due to environmental corrosion, and significantly extending the equipment's lifespan. The hook assembly 2 securely suspends the electronic components 3 inside the box, reducing direct contact with the box. Combined with the enclosed nature of the internal space, it can buffer external vibrations and shocks, preventing loose wiring, making it particularly suitable for complex scenarios such as industrial or outdoor environments. Simultaneously, the enclosed environment, combined with the shielding properties of the box material, weakens electromagnetic interference, ensuring accurate signal transmission of the electronic components 3 and ensuring stable equipment operation. The design of the external space 1012 relies on the flexible structure of the baffle assembly 4 to improve operational convenience. The baffle assembly 4 partially connects to the housing assembly 1 and partially connects to the electronic component 3. Users can open the corresponding baffles one by one to directly access the electronic component 3 in the internal space 1011 from the external space 1012 without disassembling the overall structure, significantly reducing maintenance and operation time. This design ensures that the electronic component 3, fixed by the hook assembly 2, is fully protected by the internal space 1011, while allowing users to quickly operate it through the external space 1012, perfectly balancing equipment safety and efficiency.

[0027] like Figure 3 , Figure 5 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment further defines: the baffle assembly 4 includes a first baffle 41, a second baffle 42, and a third baffle 43. The second baffle 42 is disposed on the electronic component 3, and the first baffle 41 and the third baffle 43 are disposed on the housing assembly 1 and located on both sides of the second baffle 42. The main body portions of the first baffle 41, the second baffle 42, and the third baffle 43 are located on the same vertical plane. By directly connecting the second baffle 42 to the electronic component 3, and fixing the first baffle 41 and the third baffle 43 to the housing assembly 1 and placing them on both sides of the second baffle 42, the main bodies of the three are located on the same vertical plane, forming a continuous and tight separation barrier. This design can precisely enhance the sealing of the internal space 1011, effectively blocking the intrusion of external dust, moisture, and other impurities, building a more reliable protective boundary for the electronic component 3, and further reducing the impact of environmental factors on electronic components. Meanwhile, the arrangement of the baffles on the same vertical plane reduces the misalignment gaps between them, enhancing the shielding effect against electromagnetic interference and ensuring the stable operation of electronic component 3. Furthermore, the segmented baffle structure makes maintenance and operation more targeted. The first baffle 41 and the third baffle 43 are independently set based on the housing component 1, while the second baffle 42 is positioned synchronously with the electronic component 3. Users can open a specific baffle as needed: to inspect the side area of ​​the electronic component 3, the first baffle 41 or the third baffle 43 can be opened; to operate the core part of the electronic component 3, the second baffle 42 can be opened directly. This design avoids the cumbersome process of overall disassembly, significantly improving operational flexibility and making the maintenance process more efficient.

[0028] like Figure 3 , Figure 5 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment further defines: the housing assembly 1 includes a main housing 11, a front cover 12, and a mounting side plate 13. The front cover 12 is disposed on the main housing 11, and the two cooperate to form a first accommodating space 101. The mounting side plate 13 is disposed on the main housing 11 and located on both sides of the main housing 11. The hook assembly 2 is disposed on the main housing 11 and located on the side away from the front cover 12. A portion of the baffle assembly 4 is disposed on the mounting side plate 13. By cooperating the main housing 11 and the front cover 12 to form the first accommodating space 101, a stable mounting carrier and protective shell are provided for the internal structures such as the electronic components 3, the hook assembly 2, and the baffle assembly 4. This modular design ensures the integrity of the accommodating space and facilitates opening and closing operations during initial assembly and subsequent maintenance, taking into account both structural sealing and operational flexibility. The mounting side plate 13 is disposed on both sides of the main housing 11, which not only enhances the overall structural strength of the housing and resists the risk of deformation caused by external collisions, but also becomes an important support point for the baffle assembly 4. Its partial connection with the baffle assembly 4 further enhances the stability of the baffle separating the internal space 1011 and the external space 1012, ensuring the tightness of the separation barrier and strengthening the protection of the electronic components 3 in the internal space. The hook assembly 2 is located on the side of the main housing 11 away from the front cover 12. This location makes full use of the internal space of the main housing and avoids interference with the opening and closing operation of the front cover 12. The main housing 11 provides a solid mounting base for the hook assembly 2, ensuring that it can stably support the weight of the electronic components 3, reducing the shaking of the electronic components 3 during equipment operation or movement. Combined with the lateral support of the baffle assembly 4, it further improves the installation stability of the electronic components 3 and ensures the long-term reliable operation of the equipment.

[0029] like Figures 5 to 8As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the mounting side plate 13 includes a first mounting side plate 131 and a second mounting side plate 132. There are two first mounting side plates 131, which are disposed on the main housing 11 and located on both sides of the main housing 11 near the front cover 12. There are also two second mounting side plates 132, which are disposed on the main housing 11 and located on both sides of the main housing 11 near the front cover 12. By subdividing the mounting side plate 13 into first mounting side plates 131 and second mounting side plates 132, the two first mounting side plates 131 and the two second mounting side plates 132 respectively form a double support on both sides of the main housing 11 near the front cover 12. This double layout greatly enhances the deformation resistance of both sides of the main housing 11. When the housing is subjected to external impact or compression, the two sets of side plates can jointly disperse the impact force, effectively resisting the risk of deformation and providing a more reliable rigidity guarantee for the entire housing structure, thereby protecting the internal electronic components 3 from the effects of structural deformation. These mounting side plates provide a more stable mounting base for the baffle assembly 4. Since the first mounting side plate 131 and the second mounting side plate 132 are both located on the two sides of the main housing 11 near the front cover 12, the connection points between the baffle assembly 4 and the mounting side plates are increased and more rationally distributed, which can further improve the stability and tightness of the baffle separating the internal space 1011 and the external space 1012, and ensure better protection for the electronic components 3.

[0030] like Figures 5 to 8As shown, in addition to the features of the above embodiments, this embodiment further specifies that: two first mounting side plates 131 are located on one side of the electronic component 3, and the two first mounting side plates 131 are arranged along the length direction of the main housing 11 from the end near the electronic component 3; two second mounting side plates 132 are located on the side of the electronic component 3 away from the two first mounting side plates 131, and the two second mounting side plates 132 are arranged along the length direction of the main housing 11 from the end near the electronic component 3; and a portion of the baffle assembly 4 is disposed on the two first mounting side plates 131 and the two second mounting side plates 132. By placing the two first mounting side plates 131 on one side of the electronic component 3 and arranging them along the length direction of the main housing 11 from the end near the electronic component 3, and arranging the two second mounting side plates 132 on the side of the electronic component 3 away from the first mounting side plates 131, also along the length direction of the main housing 11, this arrangement forms a wrap-around protective structure on both sides of the electronic component 3. When the device is subjected to lateral impact, the mounting side plates on both sides act as a barrier to prevent external forces from directly acting on the electronic component 3. Simultaneously, the design extending along the length increases the force transmission path, distributing the impact force more evenly across the main housing 11, significantly reducing the risk of damage to the electronic component 3 and providing more comprehensive protection. Part of the baffle assembly 4 is mounted on these two sets of mounting side plates. Since the two sets of mounting side plates are located on both sides of the electronic component 3 and extend along the length, the mounting points of the baffle assembly 4 are evenly distributed along both sides of the electronic component 3. This distribution allows the baffle assembly 4 to experience more balanced force when separating the internal space 1011 and the external space 1012, further improving the stability and tightness of the barrier. It can more effectively prevent dust, moisture, etc., from entering the internal space 1011, ensuring the operating environment of the electronic component 3. Meanwhile, the mounting side plate arranged along the length of the main housing 11 also enhances the structural rigidity of the main housing 11 in the length direction, reduces the bending deformation of the main housing 11 due to its own weight or the load of the internal components, thereby ensuring the stability of the hook assembly 2 supporting the electronic component 3, avoiding the electronic component 3 from shifting position due to housing deformation, and ensuring the overall reliability of the equipment operation.

[0031] like Figure 1 , Figure 2 , Figure 3 and Figure 5As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the main housing 11 is provided with a first heat dissipation space 102, and the number of first heat dissipation spaces 102 is multiple, and the multiple first heat dissipation spaces 102 are distributed at intervals along the length direction of the main housing 11. By distributing the multiple first heat dissipation spaces 102 at intervals on the main housing 11, a uniform and efficient heat dissipation channel can be formed on the main housing 11. The electronic component 3 will continuously generate heat during operation. If the heat accumulates in the closed internal space 1011 and cannot be dissipated in time, it may cause the electronic component to degrade in performance or even be damaged due to high temperature. These heat dissipation spaces distributed along the length direction of the main housing 11 can accelerate the air circulation between the internal space 1011 and the external environment, and quickly dissipate heat through convection, effectively reducing the temperature of the internal space 1011, creating a suitable working environment for the electronic component 3, and ensuring its stable operation.

[0032] like Figure 1 , Figure 2 , Figure 3 and Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the main housing 11 is provided with a first heat dissipation space 102, and there are multiple first heat dissipation spaces 102, which are located on both sides of the main housing 11 and are arranged opposite to the electronic components 3. By distributing multiple first heat dissipation spaces 102 on both sides of the main housing 11 and arranged opposite to the electronic components 3, the heat dissipation function is further optimized. This arrangement can accurately target the electronic components 3 for heat dissipation. The electronic components 3 are the main source of heat, and the first heat dissipation spaces 102 are opposite to them, which can directly target the heat source and accelerate heat exchange. When the electronic components 3 generate heat during operation, the heat will diffuse to the surroundings, and the first heat dissipation spaces 102 located on both sides of the main housing 11 and opposite to each other can quickly capture this heat and conduct it to the outside through air convection, which greatly shortens the heat transfer path, improves the targeting and efficiency of heat dissipation, and avoids excessive heat accumulation around the electronic components 3.

[0033] like Figure 2 , Figure 3 and Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the main housing 11 is provided with a cable entry space 103, which communicates with the internal space 1011. By communicating the cable entry space 103 with the internal space 1011, a dedicated channel is provided for external lines to access the internal space 1011. The electronic components 3 need to be connected to external devices via cables to achieve control functions. The existence of the cable entry space 103 allows these lines to enter the internal space 1011 in an orderly manner, avoiding messy tangling or exposure of lines outside the housing. This facilitates the organization of lines and their retrieval during later maintenance, reduces mutual interference between lines, and ensures the stability of signal transmission.

[0034] like Figure 4 , Figure 9 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further defines: the hook assembly 2 includes a hook body 21 and a hook body 22. The hook body 21 is disposed on the housing assembly 1, and the hook body 22 is disposed on the hook body 21. The hook body 22 extends into the electronic component 3 and abuts against the electronic component 3. By disposing the hook body 21 on the housing assembly 1, a stable mounting base is provided for the entire hook assembly, ensuring that it can bear the weight of the electronic component 3. The hook body 22 is disposed on the hook body 21 and extends into the electronic component 3 and abuts against it. This deep contact method can effectively limit the electronic component 3. It can not only firmly fix the electronic component 3 in the preset position, preventing it from shifting or shaking when the equipment is running, being transported, or being vibrated, but also prevent the electronic component 3 from colliding or rubbing against the housing assembly 1 or other components and causing damage, thus providing reliable structural support for the electronic component 3.

[0035] like Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the number of hook components 2 is multiple, and multiple hook components 2 are disposed on the housing component 1, with the electronic component 3 on multiple hook components 2. By disposing of multiple hook components 2 on the housing component 1 and placing the electronic component 3 on these hook components 2, this design further enhances the fixing effect on the electronic component 3. The combined action of multiple hook components 2 can significantly improve the installation firmness of the electronic component 3. The fixing force of a single hook component is limited, while multiple hook components provide support and restraint for the electronic component 3 from different positions, effectively distributing the weight of the electronic component 3 and preventing the fixing structure from loosening due to excessive force at a single point. Even when the equipment encounters strong vibrations or during transportation, multiple hook components can work together to restrict the displacement of the electronic component 3, preventing it from tilting, shaking, or even falling off, providing comprehensive structural protection for the electronic component 3 and ensuring that it remains in a stable working position within the built-in space 1011.

[0036] like Figure 9 and Figure 12As shown, in addition to the features of the above embodiments, this embodiment further defines: the electronic component 3 includes an electronic housing 31, a first module 32, a second module 33, and a power module 34. The electronic housing 31 is disposed on the hook assembly 2, and a portion of the baffle assembly 4 is disposed on the electronic housing 31, with the two cooperating to form a second receiving space 301. The first module 32 is disposed on the electronic housing 31, with a portion of the first module 32 located in the second receiving space 301, and the remaining portion of the first module 32 extending outside the second receiving space 301. The second module 33 and the power module 34 are both disposed on the electronic housing 31 and located in the second receiving space 301. By disposing of the electronic housing 31 on the hook assembly 2, and with the cooperative fixation of multiple hook assemblies 2, the overall stable installation of the electronic component 3 is achieved. This installation method ensures that the electronic component 3 is stably positioned in the internal space 1011, preventing collisions with the housing assembly 1 or the baffle assembly 4 due to shaking. Meanwhile, the baffle assembly 4 is partially mounted on the electronic housing 31, which not only enhances the sealing of the second accommodating space 301 but also allows the electronic components 3 and the baffle assembly 4 to work together. When the baffle assembly 4 is opened, the modules on the electronic housing 31 can be accessed more easily, facilitating maintenance and operation, echoing the convenient design of the external space 1012. Furthermore, centralizing the first module 32, the second module 33, and the power module 34 within the second accommodating space 301 of the electronic housing 31 facilitates wiring connections and signal transmission between modules. This centralized layout reduces cluttered wiring, minimizes interference between lines, and makes control command transmission more precise and efficient. Simultaneously, this integrated design facilitates unified management and maintenance of modules according to functional requirements. When a module needs to be replaced or upgraded, it can be directly operated by opening the baffle assembly 4, improving the convenience and efficiency of maintenance.

[0037] like Figure 12 and Figure 13As shown, in addition to the features of the above embodiments, this embodiment further defines the following: the first module 32 includes a first module body 321 and fixing columns 322. Multiple fixing columns 322 are disposed on the electronic housing 31. The first module body 321 is disposed on the multiple fixing columns 322. A portion of the first module body 321 is located within the second receiving space 301, and the remaining portion extends outside the second receiving space 301. By disposing of multiple fixing columns 322 on the electronic housing 31, a stable mounting point is provided for the first module body 321. This multi-point support method allows the first module body 321 to be stably mounted on the electronic housing 31, avoiding friction or compression caused by direct contact with the housing. It also distributes the weight of the first module body 321, preventing excessive force at a single point from causing loosening, ensuring the accurate and stable position of the first module body 321 within the second receiving space 301, and reducing the risk of displacement due to equipment vibration.

[0038] like Figure 12 and Figure 13 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the electronic housing 31 is provided with a second heat dissipation space 302, and there are multiple second heat dissipation spaces 302. The multiple second heat dissipation spaces 302 are spaced apart along the length direction of the electronic housing 31 and are located on both sides of the electronic housing 31. The housing assembly 1 is provided with a first heat dissipation space 102, and there are multiple first heat dissipation spaces 102. The multiple first heat dissipation spaces 102 are arranged opposite to the multiple second heat dissipation spaces 302. By arranging the first heat dissipation spaces 102 and the second heat dissipation spaces 302 opposite to each other, a heat dissipation channel that runs through the inside and outside is constructed. The heat generated by the first module 32, the second module 33, etc. of the electronic components 3 in the second receiving space 301 can first be dissipated to the internal space 1011 through the second heat dissipation spaces 302 on both sides of the electronic housing 31, and then discharged to the outside through the opposite first heat dissipation spaces 102 on the housing assembly 1. This heat dissipation path greatly shortens the heat transfer distance, accelerates the diffusion of heat from the core heat-generating area to the external environment, avoids the accumulation of heat in the two receiving spaces, and significantly improves the overall heat dissipation efficiency. Meanwhile, the layout of multiple heat dissipation spaces spaced along the length of both sides ensures comprehensive heat dissipation coverage. Whether it is the electronic housing 31 or the main housing 11, the heat dissipation spaces on both sides can dissipate heat to different areas simultaneously. Combined with the air gap formed by the fixed column 322 in the first module 32, heat can circulate evenly between the inside of the electronic components, the internal space 1011, and the outside, avoiding the impact of local high temperature on the module performance and ensuring that each electronic component operates stably at a suitable temperature.

[0039] like Figure 3 and Figure 13As shown, in addition to the features of the above embodiments, this embodiment further includes: a ventilation fan 5, and the number of ventilation fans 5 is multiple, with multiple ventilation fans 5 disposed on the electronic component 3. By disposing of multiple ventilation fans 5 on the electronic component 3, active power is injected into the heat dissipation system. The first module 32, the second module 33, etc. inside the electronic component 3 continuously generate heat during operation, and relying solely on natural convection for heat dissipation may be insufficient to cope with heat accumulation under high loads. However, multiple ventilation fans 5 act directly on the electronic component 3, actively accelerating the airflow within the second accommodating space 301, pushing the heat generated by the modules to the second heat dissipation space 302 more quickly, and then, in conjunction with the outward exhaust of the first heat dissipation space 102, forming an efficient heat dissipation cycle, significantly improving the heat dissipation speed, and avoiding the impact of high temperatures on module performance.

[0040] 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.

[0041] 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. An electrical control box, characterized in that, The electrical control box includes: The housing assembly (1) is provided with a first receiving space (101). Hook assembly (2), said hook assembly (2) is disposed on said housing assembly (1); Electronic component (3), said electronic component (3) is disposed on said hook assembly (2); A baffle assembly (4) is partially disposed on the housing assembly (1), and the remaining portion of the baffle assembly (4) is disposed on the electronic assembly (3). The baffle assembly (4) divides the first accommodating space (101) into an internal space (1011) and an external space (1012). The electronic assembly (3) is located in the internal space (1011).

2. The electrical control box according to claim 1, characterized in that, The baffle assembly (4) includes a first baffle (41), a second baffle (42) and a third baffle (43). The second baffle (42) is disposed on the electronic component (3). The first baffle (41) and the third baffle (43) are disposed on the housing assembly (1) and located on both sides of the second baffle (42). The main body of the first baffle (41), the main body of the second baffle (42) and the main body of the third baffle (43) are located on the same vertical plane. The first baffle (41), the second baffle (42) and the third baffle (43) are distributed sequentially along the length direction of the housing assembly (1).

3. The electrical control box according to claim 1, characterized in that, The housing assembly (1) includes a main housing (11), a front cover (12) and a mounting side plate (13). The front cover (12) is disposed on the main housing (11) and the two cooperate to form the first accommodating space (101). The mounting side plate (13) is disposed on the main housing (11) and located on both sides of the main housing (11). The hook assembly (2) is disposed on the main housing (11) and located on the side away from the front cover (12). A portion of the baffle assembly (4) is disposed on the mounting side plate (13).

4. The electrical control box according to claim 3, characterized in that, The mounting side plate (13) includes a first mounting side plate (131) and a second mounting side plate (132). There are two first mounting side plates (131), which are disposed on the main housing (11) and located on both sides of the main housing (11) near the front cover (12). There are two second mounting side plates (132), which are disposed on the main housing (11) and located on both sides of the main housing (11) near the front cover (12).

5. The electrical control box according to claim 4, characterized in that, Two first mounting side plates (131) are located on one side of the electronic component (3). The two first mounting side plates (131) are arranged along the length direction of the main housing (11) from one end near the electronic component (3). Two second mounting side plates (132) are located on the side of the electronic component (3) away from the two first mounting side plates (131). The two second mounting side plates (132) are arranged along the length direction of the main housing (11) from one end near the electronic component (3). A portion of the baffle assembly (4) is disposed on the two first mounting side plates (131) and the two second mounting side plates (132).

6. The electrical control box according to claim 3, characterized in that, The main housing (11) is provided with a first heat dissipation space (102), and there are multiple first heat dissipation spaces (102), which are distributed at intervals along the length direction of the main housing (11); And / or the main housing (11) is provided with a first heat dissipation space (102), and there are multiple first heat dissipation spaces (102), which are located on both sides of the main housing (11) and are arranged opposite to the electronic components (3); And / or the main housing (11) is provided with a cable inlet space (103), which is connected to the internal space (1011).

7. The electrical control box according to claim 1, characterized in that, The hook assembly (2) includes a hook body (21) and a hook body (22). The hook body (21) is disposed on the box assembly (1), and the hook body (22) is disposed on the hook body (21). The hook body (22) extends into the electronic assembly (3) and abuts against the electronic assembly (3). And / or the number of hook assemblies (2) is multiple, multiple hook assemblies (2) are disposed on the housing assembly (1), and the electronic assembly (3) is disposed on multiple hook assemblies (2).

8. The electrical control box according to claim 1, characterized in that, The electronic component (3) includes an electronic housing (31), a first module (32), a second module (33), and a power module (34). The electronic housing (31) is disposed on the hook assembly (2). A portion of the baffle assembly (4) is disposed on the electronic housing (31), and the two cooperate to form a second receiving space (301). The first module (32) is disposed on the electronic housing (31), a portion of the first module (32) is located in the second receiving space (301), and the remaining portion of the first module (32) extends outside the second receiving space (301). The second module (33) and the power module (34) are both disposed on the electronic housing (31) and located in the second receiving space (301).

9. The electrical control box according to claim 8, characterized in that, The first module (32) includes a first module body (321) and a fixing column (322). There are multiple fixing columns (322). The first module body (321) is disposed on multiple fixing columns (322). The multiple fixing columns (322) are disposed on the electronic box housing (31). A portion of the first module body (321) is located in the second accommodating space (301), and the remaining portion of the first module body (321) extends outside the second accommodating space (301). And / or the electronic housing (31) is provided with a second heat dissipation space (302), the number of the second heat dissipation spaces (302) is multiple, the multiple second heat dissipation spaces (302) are spaced apart along the length direction of the electronic housing (31), the multiple second heat dissipation spaces (302) are located on both sides of the electronic housing (31), the housing assembly (1) is provided with a first heat dissipation space (102), the number of the first heat dissipation spaces (102) is multiple, the multiple first heat dissipation spaces (102) are arranged opposite to the multiple second heat dissipation spaces (302).

10. The electrical control box according to claim 1, characterized in that, It also includes ventilation fans (5), and there are multiple ventilation fans (5) disposed on the electronic component (3).

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