A machine body of a laundry treating apparatus and a laundry treating apparatus

Abstract

The utility model provides a kind of body of clothes processing equipment and clothes processing equipment, including body one side plate, body back plate, body two side plates, wiring area and functional component installation area;Body one side plate, body back plate and body two side plates are integrally pressure die forming, wiring area and / or functional component installation area are formed on its any one or more side plates;Wiring area, functional component installation area and body integrally pressure die forming;By the body of clothes processing equipment and clothes processing equipment of the utility model, the setting of device structure in clothes processing equipment can be effectively optimized, the space size occupied by wiring area and / or functional component installation area in clothes processing equipment is reduced, the moisture-proof heat dissipation performance of device in clothes processing equipment is improved, the disassembly and repair efficiency of clothes processing equipment is improved, the disassembly and repair cost consumption of clothes processing equipment is reduced, and resonance and noise in equipment operation process are reduced.

Description

Technical Field

[0001] This utility model relates to the field of clothing processing equipment, and more specifically, to the body of a clothing processing device and the clothing processing equipment itself. Background Technology

[0002] As garment processing equipment technology continues to evolve, users' demands for product intelligence, reliability, and space utilization are constantly increasing. However, the independently set circuit board boxes and wire harness boxes in traditional garment processing equipment, while convenient for modular production, are gradually revealing structural defects that contradict the modern laundry experience.

[0003] Specifically, the problems and drawbacks of separately distributing the circuit board box and wire harness box inside the main body are becoming increasingly apparent:

[0004] I. Spatial fragmentation and potential malfunctions

[0005] Independent enclosures occupy redundant space, forcing the body size to be passively increased. At the same time, the wiring harnesses are prone to compression and wear when traveling long distances inside the body (such as the friction between the drain pump wiring harness and the inner cylinder), which can lead to insulation layer cracking or poor contact, causing safety hazards such as leakage and short circuit.

[0006] II. Insufficient moisture-proof and heat dissipation performance

[0007] Although the circuit board box is individually potted for moisture protection, condensation can still easily seep into the seam between the box and the chassis (common in high humidity environments). Furthermore, split-type heat dissipation designs (such as heat sinks and fans) are difficult to form efficient airflow due to the spatial division, resulting in a higher failure rate of the circuit board under high temperature and high humidity conditions.

[0008] III. Increased Complexity in Maintenance

[0009] The wiring harness plugs are crisscrossed among the densely packed boxes (in some existing models, multiple clips need to be disassembled to replace the motor wires), making it easy to accidentally plug them in the wrong way during maintenance. This can lead to minor malfunctions or even burn out the core chip. The cost of manual repair accounts for a large proportion of the total cost of repairing the machine.

[0010] IV. Resonance and the generation of additional noise

[0011] The independently mounted circuit board box (usually fixed to a sheet metal part of the casing by screws or clips) and its internal, heavier components such as relays have their own natural vibration frequencies. When the operating frequency of the garment processing equipment approaches or coincides with its natural frequency, this component will experience local resonance. This local resonance not only amplifies the vibration and noise of the entire machine, producing an unpleasant "humming" or impact sound, but also causes continuous fatigue stress on the fixing structure of the box itself.

[0012] These issues can easily restrict the lightweighting and reliability upgrades of garment processing equipment. Therefore, it is of great significance to study how to optimize the configuration of internal components, reduce the use of parts, and reduce the resonance between the garment processing equipment and the wiring channels and electrical control boxes that are prone to occur when the equipment is running at high speed. Utility Model Content

[0013] In view of this, the present invention aims to propose a body and device for garment processing equipment to solve the problems of existing technologies where independently located wiring areas and / or functional component installation areas within garment processing equipment tend to occupy large internal space, have poor moisture-proof and heat dissipation performance, increase maintenance complexity, and generate resonance and additional noise. This invention effectively optimizes the internal structure of the garment processing equipment, reduces the space occupied by wiring areas and / or functional component installation areas, improves the moisture-proof and heat dissipation performance of components within the garment processing equipment, enhances the ease of maintenance of components within the wiring areas and / or functional component installation areas, improves the efficiency of disassembly and maintenance, reduces disassembly and assembly costs, and reduces resonance and noise during equipment operation. It also significantly reduces the number of parts, lowers manufacturing costs, simplifies production processes, and avoids resonance between the body of the garment processing equipment and the wiring and functional component installation areas at high speeds, thereby improving the operational stability of the garment processing equipment.

[0014] To achieve the above objectives, the technical solution of this utility model is implemented as follows:

[0015] This utility model relates to the body of a garment processing device and the garment processing device itself. The body of the garment processing device includes a side panel, a back panel, two side panels, a wiring area, and a functional component mounting area. After the side panel, back panel, and two side panels are integrally die-cast, a wiring area and / or a functional component mounting area are formed on any one or more of the side panels. The wiring area accommodates the wiring of the device's wire harness, and the functional component mounting area accommodates circuit boards or related functional components.

[0016] Furthermore, the fuselage also includes shock-absorbing strips; at least a portion of one side panel and / or two side panels of the fuselage are provided with the shock-absorbing strips, which are arranged along the front-rear direction of one side panel and / or two side panels of the fuselage.

[0017] Furthermore, the wiring area includes a wiring base plate and a wiring side plate. The top of the wiring base plate is connected to the bottom of the wiring side plate. The wiring base plate and the wiring side plate, together with any one of the side plates of the machine body, the machine body back plate, and the machine body two side plates, form a wiring groove to facilitate the wiring inside the garment processing equipment.

[0018] Furthermore, the distance between the bottom plate of the wiring and the top of the garment processing equipment is denoted as L1mm, and the vertical height of the machine body is denoted as L2mm; the value range of L1 / L2 is 0-37.5%.

[0019] Furthermore, the width of the cable tray ranges from 0 to 150 mm.

[0020] Furthermore, the depth of the cable tray ranges from 0 to 200 mm.

[0021] Furthermore, the wiring trough includes a conductor section, an extension section, and an output section; the conductor section is connected to the output section through the extension section; the wire harness inside the garment processing equipment is arranged in the trough cavity of the wiring area; the height of the wiring side plate corresponding to the conductor section is greater than or equal to the height of the wiring side plate corresponding to the output section and greater than the height of the wiring side plate corresponding to the extension section.

[0022] Furthermore, the wiring area also includes a limiting member; the limiting member is connected to the inside of the wiring area; the top of the limiting member is higher than the top of the wiring area.

[0023] Furthermore, the functional component mounting area includes a component mounting section and a wire area; the bottom end of the component mounting section is connected to the top end of the wire area, and both the component mounting section and the wire area are located inside the body.

[0024] Furthermore, the functional component mounting area also includes raised ribs, which are located on the inner side of the component mounting section.

[0025] A garment processing device includes a body of the garment processing device, the body being disposed on the garment processing device.

[0026] Compared with the prior art, the garment processing equipment and the garment processing equipment described in this utility model have the following beneficial effects:

[0027] By integrating the wiring area and component mounting areas into the garment processing equipment using a one-piece die-casting process, the internal structure of the garment processing equipment is effectively optimized. This reduces the space occupied by the wiring area and / or functional component mounting area, improves the moisture-proof and heat dissipation performance of the components, enhances the ease of maintenance of components within the wiring area and / or functional component mounting area, increases the efficiency of disassembly and maintenance, reduces disassembly and assembly costs, and minimizes resonance and noise during operation. Furthermore, it significantly reduces the number of parts, lowers manufacturing costs, simplifies production processes, and avoids resonance between the garment processing equipment body, wiring area, and circuit board box at high speeds, thus improving the operational stability of the garment processing equipment. Attached Figure Description

[0028] The accompanying drawings, which constitute a part of this utility model, are used to provide a further understanding of the utility model. The illustrative embodiments and descriptions of the utility model are used to explain the utility model and do not constitute an undue limitation of the utility model. In the drawings:

[0029] Figure 1 A schematic diagram of the integrated die-cast vibration damping body with integrated electronic control components;

[0030] Figure 2 This is a schematic diagram of the fuselage back panel structure;

[0031] Figure 3 This is a schematic diagram of the structure of one side panel of the fuselage.

[0032] Explanation of reference numerals in the attached drawings: 11. One side panel of the fuselage; 111. Front side panel; 1111. Upper end face; 1112. Middle end face; 1113. Lower end face; 12. Back panel of the fuselage; 121. Clearance groove; 122. First reinforcing groove; 123. Second reinforcing groove; 124. First reinforcing block; 125. Second reinforcing block; 13. Two side panels of the fuselage; 14. Shock-absorbing strip; 2. Cable routing area; 20. Cable routing groove; 21. 1. Cable routing base plate; 22. Cable routing side plate; 23. Conductor section; 24. Extension section; 25. Output line section; 26. Limiting component; 27. Notch; 3. Functional component mounting area; 31. Component mounting section; 311. Upper side plate; 312. Front side plate; 3121. Clearance opening; 313. Bottom side plate; 314. Functional component mounting cavity; 32. Conductor area; 33. Rib; 34. Connector; 4. Mounting cavity. Detailed Implementation

[0033] The inventive concepts of this disclosure will be described below using terminology commonly used by those skilled in the art to convey the essence of their work to others skilled in the art. However, these inventive concepts may be embodied in many different forms and should not be construed as limited to the embodiments described herein.

[0034] It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0035] In the description of this utility model, it should be understood that the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0036] The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0037] This embodiment is for clothing processing equipment. Similar to conventional clothing processing equipment, the overall structure consists of a body and an inner drum.

[0038] To address the problems of existing garment processing equipment where independently located wiring areas and / or functional component mounting areas occupy significant internal space, have poor moisture and heat dissipation performance, increase maintenance complexity, and generate resonance and additional noise, this embodiment proposes a garment processing equipment body and garment processing equipment. The body of the garment processing equipment includes a side panel 11, a back panel 12, two side panels 13, a wiring area 2, and a functional component mounting area 3. The side panel 11, back panel 12, and two side panels 13 are integrally die-cast, with the wiring area 2 and / or functional component mounting area 3 formed on any one or more of these side panels. The wiring area 2 accommodates the wiring harness, and the functional component mounting area 3 accommodates circuit boards or related functional components. By integrally die-casting the wiring area 2 and functional component mounting area 3 with the body, it facilitates interconnection with various components within the garment processing equipment and reduces resonance between components, thereby achieving a noise reduction effect. In this embodiment, the positions of the wiring area 2 and the functional component mounting area 3 on the machine body can be flexibly adjusted according to the actual situation, depending on the requirements.

[0039] Preferably, the wiring area 2 is located on the inner top of the machine body to facilitate neat wiring of the wire harness. The functional component mounting area 3 is located on the inner bottom of the machine body for the installation and fixation of the electronic control components.

[0040] By integrating the wiring area 2 and the circuit board box (i.e., the functional component mounting area 3) into the garment processing equipment using an integrated die-casting process, the structure of the internal components of the garment processing equipment can be effectively optimized by utilizing the surface of the wiring area 2 and / or the functional component mounting area 3. This reduces the space occupied by the wiring area 2 and / or the functional component mounting area 3 within the garment processing equipment, improves the moisture-proof and heat dissipation performance of the components, enhances the ease of maintenance of the components in the wiring area 2 and / or the functional component mounting area 3, improves the efficiency of disassembly, assembly, and repair of the garment processing equipment, reduces the disassembly and assembly costs, significantly reduces the number of parts, lowers the manufacturing cost of the garment processing equipment, simplifies the production process, and avoids resonance between the garment processing equipment body, wiring area 2, and circuit board box at high speeds, thus improving the operational stability of the garment processing equipment.

[0041] One side panel 11 of the garment body is smoothly and arc-connected to the second side panel 13 of the garment body via the back panel 12, forming a mounting cavity 4 between the one side panel 11, the back panel 12, and the second side panel 13. All components of the garment processing equipment are installed within the mounting cavity 4. Both the one side panel 11 and the second side panel 13 are vertically mounted on the back panel 12. Both the one side panel 11 and the second side panel 13 are integrally die-cast. The one side panel 11 and the second side panel 13 are positioned opposite each other. The rear side of the functional component mounting area 3 is connected to the back panel 12.

[0042] Preferably, the wiring areas 2 are respectively located at the inner top of one side panel 11 and / or the two side panels 13 of the fuselage. The functional component mounting areas 3 are respectively located at the inner bottom of one side panel 11 and / or the two side panels 13 of the fuselage, and the functional component mounting areas 3 are connected to the back panel 12 of the fuselage.

[0043] By integrally die-casting the side panel 11, back panel 12, and two side panels 13 of the machine body, the number of parts is reduced, installation efficiency is improved, and the overall structural strength and rigidity of the garment processing equipment are guaranteed, ensuring the overall structural stability of the machine body. Furthermore, by integrating the wiring area 2 and functional component installation area 3 onto the machine body, the complexity of installing different components is effectively reduced, and the physical protection of wire harnesses and circuit boards is greatly enhanced. The coordinated arrangement of the wiring area 2 and functional component installation area 3 helps to organize and manage the wiring inside the garment processing equipment, effectively preventing the risk of wire harness insulation layer damage, thus preventing serious safety issues such as short circuits and leakage between wire harnesses. It also facilitates circuit board installation, improves heat dissipation performance, avoids overheating from excessive wire harness stacking, and optimizes the internal spatial layout of the garment processing equipment, thereby facilitating the flexible arrangement of other components within the equipment.

[0044] The fuselage also includes shock-absorbing strips 14. At least a portion of the fuselage side panel 11 and / or the fuselage side panel 13 are provided with the shock-absorbing strips 14, which are arranged along the front-rear direction of the side panel 11 and / or the fuselage side panel 13. The shock-absorbing strips 14 are strip-shaped and have an outwardly concave and inwardly convex structure. There are 2n shock-absorbing strips 14, where n is a positive integer. The n shock-absorbing strips 14 are evenly distributed in a linear array within the areas where shock-absorbing strips 14 are required on the side panel 11 or the fuselage side panel 13. The n shock-absorbing strips 14 are arranged parallel to each other. The shock-absorbing strips 14 that overlap with the wiring area 2 and the functional component mounting area 3 are respectively attached to the wiring area 2 and the functional component mounting area 3.

[0045] By installing shock-absorbing strips 14 on one side panel 11 and the other side panel 13 of the machine body, the resonance effect during the operation of the garment processing equipment can be effectively reduced. These strips also act as reinforcing ribs, ensuring the structural strength of the one side panel 11 and the other side panel 13, and improving the overall structural strength of the garment processing equipment, thus also reducing noise. The corresponding placement of the shock-absorbing strips 14 on the one side panel 11 and the other side panel 13 not only reduces the resonance frequency on different sides but also works synergistically to avoid excessive noise generation, thereby improving the noise reduction effect.

[0046] The wiring area 2 includes a wiring base plate 21 and a wiring side plate 22. The top end of the wiring base plate 21 is connected to the bottom end of the wiring side plate 22. The wiring base plate 21 and the wiring side plate 22 form a wiring groove 20 with the inner side of any one of the following side plates: one side plate 11, one back plate 12, and one second side plate 13 of the machine body. This groove facilitates the wiring of the internal wiring of the garment processing equipment and limits the wiring harness. The wiring base plate 21 includes a bent portion located at the end of the wiring base plate 21 facing the back plate 12 of the machine body, which enhances the structural strength of the wiring base plate 21. The wiring side plate 22 is irregularly positioned on the top of the side of the wiring base plate 21 away from the side plate 11 and / or the second side plate 13 of the machine body. The wiring side plate 22 is perpendicular to the wiring base plate 21. The wiring side plate 22 is parallel to the side plate 11 and / or the second side plate 13 of the machine body. The cable tray 20 includes a conductor section 23, an extension section 24, and an output cable section 25. The conductor section 23 is connected to the output cable section 25 via the extension section 24. The end of the conductor section 23 away from the extension section 24 is located near the back panel 12 of the garment body. The end of the output cable section 25 away from the extension section 24 is located near the front panel of the garment body. The wiring harness inside the garment processing equipment is arranged in the tray cavity of the cable tray area 2. The distance between the cable tray base plate 21 and the top of the garment processing equipment is denoted as L1mm, and the vertical height of the garment body is denoted as L2mm. The value range of L1 / L2 is 0-37.5%. The width of the cable tray 20 is 0-150mm. The depth of the cable tray 20 is 0-200mm. Preferably, when L2 is 800, the value range of L1 is within 300. In this embodiment, the width of the cable tray 20 refers to the dimension of the cable tray 20 in the left-right direction. The depth of the cable tray 20 refers to the dimension of the cable tray 20 along the vertical direction.

[0047] The wiring base plate 21 and wiring side plate 22 within the wiring area 2 facilitate the integral die-casting process, enabling the wiring area 2 of the garment processing equipment to be seamlessly integrated with the machine body. This significantly reduces resonance between the wiring area 2 and the machine body, reduces noise, and minimizes the number of internal components, thereby lowering manufacturing costs. The partitioned arrangement of the lead wire section 23, extension section 24, and output wire section 25 enhances the neatness of the wire harness within the wiring area 2, ensuring stability during installation.

[0048] Furthermore, the height of the wiring side plate 22 corresponding to the lead wire portion 23, extension portion 24, and output wire portion 25 in the wiring groove 20 is equal to the groove depth of each of the lead wire portion 23, extension portion 24, and output wire portion 25. The front end height of the wiring side plate 22 corresponding to the lead wire portion 23 is greater than the rear end height; the wiring area 2 includes a notch 27. The notch 27 is located on the side of the wiring side plate 22 away from the back panel 12 of the machine body. The notch 27 and the wiring side plate 22 are smoothly connected; this is used to enable the wire harness to be connected to other equipment in the garment processing equipment without damage after passing through the wiring groove 20, reducing damage to the wire harness from straight edges, and also facilitating demolding of the wiring area 2 during the die casting process. Specifically, the height of the wiring side plate 22 corresponding to the lead wire portion 23 ≥ the height of the wiring side plate 22 corresponding to the output wire portion 25 > the height of the wiring side plate 22 corresponding to the extension portion 24. Furthermore, the length of the wiring base plate 21 corresponding to each of the conductor section 23, extension section 24, and output line section 25 is equal to the slot width of each of the conductor section 23, extension section 24, and output line section 25. Specifically, the length of the wiring side plate 22 corresponding to the conductor section 23 is equal to the length of the wiring side plate 22 corresponding to the output line section 25, which is also equal to the length of the wiring side plate 22 corresponding to the extension section 24. In this embodiment, height refers to the dimension of the component in the vertical direction, and length refers to the dimension of the component in the horizontal direction.

[0049] By designing different components within the wiring area 2, the overall structural strength of the wiring area 2 can be effectively improved. This also facilitates the die-casting process between the wiring area 2 and the machine body. The varying groove depths and internal cross-sections in different areas further enhance the ease of wiring harness assembly and disassembly within the wiring area 2. Furthermore, while maintaining the structural strength of the wiring area 2, this also reduces its cost and contributes to overall weight reduction for the machine body. Since the wiring area 2 and the machine body are integrally die-cast, the design of the bending section and the varying groove depths within the wiring groove 20 improve demolding efficiency after die-casting.

[0050] The wiring area 2 also includes a limiting member 26. The limiting member 26 is connected to the inner side of the wiring area 2; the top of the limiting member 26 is higher than the top of the wiring area 2. Here, height refers to the dimension along the vertical direction. The limiting member 26 serves to longitudinally limit the wire bundle, preventing excessive wire bundle from overflowing within the wiring area 2 and thus affecting the installation of other components within the garment processing equipment. There are m limiting members 26, where m is a positive integer. Preferably, m = 3, with two of the three limiting members 26 located inside the wiring side plate 22 corresponding to the conductor section 23, and the other three limiting members 26 located inside the wiring side plate 22 corresponding to the output line section 25. A certain gap exists between each of the three limiting members 26.

[0051] The setting of the limiting component 26 is beneficial to increasing the capacity of the wire harness in the wiring area 2, and also helps to limit and guide, thereby improving the efficiency of installing different groups of wire harnesses in the wiring area 2.

[0052] The functional component mounting area 3 is the mounting position for electronic control components or related functional components. The functional component mounting area 3 includes a component mounting section 31 and a wire area 32. The bottom end of the component mounting section 31 is connected to the top end of the wire area 32, and both the component mounting section 31 and the wire area 32 are located inside the machine body. Both the component mounting section 31 and the wire area 32 are integrally die-cast and located inside one side panel 11 and / or the two side panels 13 of the machine body. The component mounting section 31 is used to mount the circuit board or related functional components of the garment processing equipment. External circuitry of the circuit board is installed in the groove of the wire area 32 to facilitate connection between the circuit board and other electronic control components within the garment processing equipment. At least one wire area 32 is provided. Preferably, two wire areas 32 are provided, with the two wire areas 32 fitting together. This allows the external circuitry within the circuit board to be flexibly placed in different wire areas 32, making it easier to distinguish the function of different circuits and shortening the circuit length, thus saving on wiring costs.

[0053] The combination of component mounting section 31 and conductor area 32 improves the ease of circuit board installation and also helps protect the circuit board and its external circuits.

[0054] Specifically, the component mounting section 31 includes an upper side plate 311, a front side plate 312, and a bottom side plate 313. One end of the upper side plate 311 is connected to one end of the bottom side plate 313 via the front side plate 312. The other ends of the upper side plate 311 and the bottom side plate 313 are die-cast with the back panel 12 of the fuselage to form the component mounting section 31, which facilitates the installation of circuit boards. The component mounting section 31 is a closed frame structure. The upper side plate 311, the front side plate 312, and the bottom side plate 313 are all vertically arranged inside the side panel 11 and / or the second side panel 13 of the fuselage. The component mounting section 31, the back panel 12 of the fuselage, and the side panel 11 or the second side panel 13 of the fuselage form a functional component mounting cavity 314, which provides mounting space for circuit boards or related functional components.

[0055] The upper side plate 311 and the bottom side plate 313 are both rectangular plates. The length of the upper side plate 311 from left to right is greater than the length of the bottom side plate 313 from left to right; these plates serve to protect the circuit board. The width of the front side plate 312 remains constant from top to bottom, then gradually decreases, and then remains constant again.

[0056] Specifically, the front panel 312 includes a clearance opening 3121. The clearance opening 3121 is located at the bottom end of the front panel 312, and the clearance opening 3121 and the right side edge of the front panel 312 form a stepped structure. The clearance opening 3121 and the right side edge of the front panel 312 are smoothly connected by an arc. This facilitates the installation of circuit boards or related functional components and also facilitates maintenance.

[0057] The functional component mounting area 3 also includes raised ribs 33, which are located on the inner side of the component mounting section 31. Specifically, raised ribs 33 are provided on the inner side of the upper side plate 311, front side plate 312, bottom side plate 313, and back panel 12 corresponding to the location of the component mounting section 31. These ribs enhance the strength of the component mounting section 31 and provide multi-directional positioning for the installed circuit board or related functional components, effectively ensuring the overall structural stability of the circuit board and the component mounting section 31 after installation.

[0058] The arc-shaped design of the clearance opening 3121 in the front panel 312 effectively facilitates the installation of circuit board components and also facilitates subsequent maintenance of the circuit board. The arc-shaped clearance area effectively improves maintenance efficiency.

[0059] The functional component mounting area 3 also includes a connector 34. The connector 34 is located inside the functional component mounting cavity 314 by integral die-casting with the machine body. The outer wall of the end of the connector 34 away from the machine body connects to the circuit board or related functional component, thereby securing the circuit board or related functional component. At least one connector 34 is provided. The specific number of connectors 34 is determined according to requirements.

[0060] The side panel 11 of the fuselage includes a front side panel 111, which is located on the side of the side panel 11 away from the back panel 12 of the fuselage. The front side panel 111 is connected to the front panel of the fuselage. The front side panel 111 includes an upper end face 1111, a middle end face 1112, and a lower end face 1113. The upper end face 1111 is connected to the lower end face 1113 through the middle end face 1112. The upper end face 1111, the middle end face 1112, and the lower end face 1113 are integrally formed. The upper end face 1111, the middle end face 1112, and the lower end face 1113 are on the same plane. The thickness of the upper end face 1111 = the thickness of the lower end face 1113 > the thickness of the middle end face 1112. Here, the thickness refers to the length of the front side panel 111 in the left-right direction.

[0061] By varying the thickness of different sections on the front side (111), the overall strength of the machine body is effectively ensured, while also facilitating the installation of the internal drum of the garment processing equipment. This improves the ease of installation of internal components and reduces the space occupied by the machine body, contributing to a lightweight design. It also improves the efficiency of die-casting during the unibody die-casting process.

[0062] It should be noted that the structure of the two side panels 13 is similar to that of the one side panel 11. The difference lies in whether the wiring area 2 and the functional component mounting area 3 are installed. When both the wiring area 2 and the functional component mounting area 3 are installed on the one side panel 11, the two side panels 13, except for these two components, have the same structure as the one side panel 11.

[0063] The back panel 12 includes a clearance groove 121. The clearance groove 121 is located at the bottom of the back panel 12, serving two purposes: firstly, to enhance the strength of the back panel 12, and secondly, to provide clearance for the installation of internal piping in the garment processing equipment. The clearance groove 121 is strip-shaped. The clearance groove 121 has a convex-concave structure, meaning it is recessed from front to back.

[0064] The fuselage backplate 12 also includes a first reinforcing groove 122 and a second reinforcing groove 123, both of which are disposed on the fuselage backplate 12. The second reinforcing groove 123 is disposed within the first reinforcing groove 122. Both the first and second reinforcing grooves 122 and 123 have an outwardly convex and inwardly concave structure. The depth of the first reinforcing groove 122 is less than the depth of the second reinforcing groove 123. The fuselage backplate 12 also includes a first reinforcing block 124 and a second reinforcing block 125. Both the first and second reinforcing blocks 124 and 125 are disposed on the first reinforcing groove 122, and both are disposed at the top of the second reinforcing groove 123. Both the first and second reinforcing blocks 124 and 125 have an outwardly concave and inwardly convex structure. The first and second reinforcing blocks 124 and 125 are arranged parallel to each other, and there is a certain gap between them. A clearance groove 121 is disposed below the first reinforcing groove 122. The second reinforcing groove 123 is located at the center of the fuselage back plate 12.

[0065] The coordinated arrangement of the first reinforcing groove 122 and the second reinforcing groove 123, the first reinforcing block 124 and the second reinforcing block 125 not only facilitates the improvement of the strength of the back panel 12 of the machine body, but also helps to avoid interference with the installation of other components inside the garment processing equipment. Furthermore, it helps to reduce resonance within the machine body. The combination of multiple concave and convex structures effectively reduces noise and resonance, thereby improving user satisfaction and extending the service life of the garment processing equipment.

[0066] A garment processing device includes a body, which is mounted on the garment processing device. A circuit board or related functional components within the garment processing device are installed in a component mounting section 31. External wiring connected to the circuit board or related functional components extends through a conductor area 32 and then along the inner side of the body to the front or rear end of a wiring area 2 according to the desired wiring direction. Supported and organized by the wiring area 2, the external wiring or wire harness can connect to other components inside the garment processing device through the rear or front end of the wiring area 2, enabling electrical control of different components within the garment processing device. These other components include one or more of a temperature measuring component, a main control component, a motor, a sensor, a solenoid valve, and a drying device. The temperature measuring component is located within a mounting cavity 4. The device also includes a top plate, a front panel, and a top plate, forming the mounting cavity 4. If the device is a drum washing machine, it also includes a drum body located within the mounting cavity 4.

[0067] The integrated die-cast design of the main body, wiring area 2, and functional component installation area 3 effectively achieves a smooth connection between the three, thereby reducing the number of internal components and providing installation channels for wiring connected to circuit boards and other components. This improves the utilization of internal space and increases the efficiency of internal disassembly, assembly, and maintenance. It also helps reduce resonance between components, resulting in noise reduction. Furthermore, it helps lower equipment costs. In addition, the coordinated design of the front panel, top panel, and main body effectively enhances the ease of installation, facilitates maintenance and transportation, and improves the overall structural strength and operational stability of the equipment.

[0068] In this utility model, any garment processing device may include the type of body described in this embodiment. Based on the relevant structure and assembly relationship of the wiring area 2 and the functional component installation area 3 provided in this embodiment, the garment processing device also includes conventional components such as the body and inner drum; since these are all prior art, they will not be described in detail here.

[0069] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. The body of a garment processing device, characterized in that, It includes a side panel (11), a back panel (12), two side panels (13), a wiring area (2), and a functional component mounting area (3); after the side panel (11), the back panel (12), and the two side panels (13) are integrally die-cast, a wiring area (2) and / or a functional component mounting area (3) are formed on any one or more of its side panels; the wiring area (2) accommodates the wiring of the equipment harness, and the functional component mounting area (3) accommodates the circuit board or related functional components.

2. The body of the garment processing equipment according to claim 1, characterized in that, The fuselage also includes shock-absorbing strips (14); at least a portion of one side panel (11) and / or two side panels (13) of the fuselage are provided with the shock-absorbing strips (14), and the shock-absorbing strips (14) are arranged along the front-back direction of the one side panel (11) and / or two side panels (13) of the fuselage.

3. The body of the garment processing equipment according to claim 1, characterized in that, The wiring area (2) includes a wiring base plate (21) and a wiring side plate (22). The top of the wiring base plate (21) is connected to the bottom of the wiring side plate (22). The wiring base plate (21) and the wiring side plate (22) together with any one of the side plates of the machine body side plate (11), the machine body back plate (12), and the machine body second side plate (13) form a wiring groove (20) to facilitate the wiring of the internal circuit of the clothing processing equipment.

4. The body of the garment processing equipment according to claim 3, characterized in that, The distance between the wiring base plate (21) and the top of the garment processing equipment is denoted as L1mm, and the vertical height of the machine body is denoted as L2mm; the value range of L1 / L2 is 0-37.5%.

5. The body of the garment processing equipment according to claim 3, characterized in that, The width of the wiring trough (20) ranges from 0 to 150 mm.

6. The body of the garment processing equipment according to claim 3, characterized in that, The depth of the wiring trough (20) ranges from 0 to 200 mm.

7. The body of the garment processing equipment according to claim 3, characterized in that, The wiring trough (20) includes a conductor section (23), an extension section (24), and an output line section (25); the conductor section (23) is connected to the output line section (25) through the extension section (24); the wire harness inside the garment processing equipment is arranged in the trough cavity of the wiring area (2); the height of the wiring side plate (22) corresponding to the conductor section (23) is greater than or equal to the height of the wiring side plate (22) corresponding to the output line section (25) and greater than the height of the wiring side plate (22) corresponding to the extension section (24).

8. The body of the garment processing equipment according to claim 1, characterized in that, The wiring area (2) also includes a limiting member (26); the limiting member (26) is connected to the inner side of the wiring area (2); the top of the limiting member (26) is higher than the top of the wiring area (2).

9. The body of a garment processing device according to claim 1, characterized in that, The functional component installation area (3) includes a component installation part (31) and a wire area (32); the bottom end of the component installation part (31) is connected to the top end of the wire area (32), and both the component installation part (31) and the wire area (32) are located inside the body.

10. The body of a garment processing device according to claim 9, characterized in that, The functional component mounting area (3) also includes a rib (33), which is located on the inner side of the component mounting part (31).

11. A garment processing device, characterized in that, The body of a garment processing device according to any one of claims 1-10 is provided on the garment processing device.

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