Energy cabin body structure

Abstract

The utility model discloses a cabin body structure of an energy cabin. The cabin body structure comprises a load-bearing frame, a cabin body arranged on the periphery of the load-bearing frame and supporting legs providing supporting. The bearing frame comprises a first long cross beam located at the top and a second long cross beam located below the first long cross beam, and the first long cross beam and the second long cross beam are connected through a plurality of vertical beams arranged at intervals. Third long cross beams are symmetrically arranged below the two sides of the second long cross beam in parallel, and the second long cross beam and the third long cross beams on the two sides are connected through a plurality of oblique beams arranged at intervals; the cabin body comprises two symmetrically-arranged side panels with the upper ends connected to the two side faces of the first long cross beam, ridge-shaped bottom sealing plates arranged on the bottom faces of the second long cross beam and the two third long cross beams and two end plate assemblies arranged at the front end and the rear end of the bearing frame, and the upper ends of the supporting legs are connected with the third long cross beams. The cabin body structure of the energy cabin has the advantages of being novel in structure, free of condensed water accumulation and good in heat dissipation effect.

Description

Technical Field

[0001] This utility model relates to an energy chamber structure, specifically an energy chamber structure that provides energy for food purification equipment, belonging to the field of food purification technology. Background Technology

[0002] Existing food purification equipment on the market primarily uses its enclosure as a load-bearing carrier for single installed components, and is generally a simple rectangular structure with limited functionality and low space utilization. The applicant's prior patent 2024109612577 discloses a modular industrial food purification device, including a power supply module positioned above the purification tank. This functional module is housed within a rectangular energy chamber. The problems with this device are: First, the energy chamber contains numerous power supplies, cables, and other components, generating heat. Therefore, ensuring both the rational installation of each component and effective heat dissipation to reduce the temperature within the chamber and maintain a suitable working environment for the electrical components is a critical issue. Second, since the energy chamber operates above the purification tank, a low ambient temperature is required during food purification to maintain freshness. This leads to condensation within the chamber; however, the existing rectangular chamber design hinders the drainage of this condensate.

[0003] Based on the shortcomings of existing energy cabin structures, providing a multifunctional energy cabin structure with good heat dissipation and facilitating condensate drainage has become a goal pursued by those skilled in the art. Summary of the Invention

[0004] The purpose of this invention is to solve the problems of poor heat dissipation and difficulty in condensate drainage in existing energy cabin structures.

[0005] To achieve the above-mentioned objectives, the technical solution of this utility model is as follows: an energy cabin structure, characterized in that it includes a load-bearing frame, a box-shaped cabin disposed on the outer periphery of the load-bearing frame, and at least two pairs of support legs connected to both sides of the load-bearing frame; the load-bearing frame includes a first long crossbeam at the top, a second long crossbeam located below and parallel to the first long crossbeam, the first and second long crossbeams being connected by several spaced vertical beams; a third long crossbeam is symmetrically disposed diagonally below and parallel to the second long crossbeam on both sides, the second long crossbeam and the third long crossbeams on both sides being connected by several spaced diagonal beams; the cabin includes two symmetrical side panels with their upper ends connected to the two sides of the first long crossbeam and their lower ends extending to the outer sides of the two third long crossbeams, a ridge-shaped bottom sealing plate disposed on the bottom surface of the second long crossbeam and the two third long crossbeams, and two end plate assemblies disposed at the front and rear ends of the load-bearing frame; the upper ends of the support legs are connected to the third long crossbeams.

[0006] As a preferred embodiment, the side panel is composed of a first side plate located at the top and inclined downwards along both sides, and a second side plate vertically disposed at the free end of the first side plate. The two first side plates, which are symmetrically disposed with respect to the first long crossbeam, form a ridge-like top of the cabin.

[0007] As a preferred embodiment, the shape of the end plate assembly is adapted to the cross-sectional shape of the space enclosed by the side panel and the bottom sealing plate. The end plate assembly includes: a herringbone frame, which is a hollow structure forming a herringbone-shaped ventilation hole. The top of the herringbone frame is adapted to and connected to a first long crossbeam, the lower center of the herringbone frame is connected to a second long crossbeam, and the two ends of the lower part of the herringbone frame are adapted to and connected to third long crossbeams on both sides of the bottom. A heat dissipation guide plate adapted to the shape of the herringbone frame is provided on the outer end face of the herringbone frame, and the heat dissipation guide plate is provided with air guide holes. End decorative plates that seal the end of the cabin are provided on both sides of the herringbone frame.

[0008] As a preferred embodiment, a herringbone-shaped LED strip mounting plate is provided on the herringbone frame. The LED strip mounting plate is located on the inner side of the heat dissipation air guide plate, and three LED strips are provided on the LED strip mounting plate.

[0009] As a preferred embodiment, the side panel is composed of several side panel units, and the upper end of the first side panel of the side panel unit is connected to the first long crossbeam by a rotatable hinge, thereby the side panel unit forms an openable hatch.

[0010] As a preferred embodiment, mounting plates for mounting power devices are horizontally provided on both sides of the second long crossbeam.

[0011] Because this utility model adopts the above-mentioned technical solution, its load-bearing frame also uses four long crossbeams. These four long crossbeams are designed as follows: a first long crossbeam at the top center, a second long crossbeam below the first, and third long crossbeams symmetrically located below the second long crossbeam on both sides. The side panels on both sides of the cabin are symmetrically arranged between the first and third long crossbeams. The two bottom sealing plates between the second and third long crossbeams form a roof-like bottom, which facilitates the drainage of condensate. The condensate from the upper part flows from the first long crossbeam through the vertical beam to the second long crossbeam, and then through the inclined beam to the third long crossbeam. The condensate on the bottom sealing plate also flows along the inclined surface to the third long crossbeam, and is then completely led out of the cabin through the third long crossbeam. Therefore, the structural design of this utility model is novel and unique, effectively preventing condensate from remaining in the cabin and thus preventing damage to the electrical components inside. Ventilation holes on the end plate assemblies also facilitate ventilation and heat dissipation of the cabin.

[0012] Furthermore, this utility model designs the side panels as two parts. The first side panel is inclined downwards to both sides, and the second side panel is vertically positioned at the free end of the first side panel. The middle position of the first side panel (near the first long crossbeam) is higher, and the outer end is lower. Thus, the two side panels, symmetrically positioned with respect to the first long crossbeam, form a roof-like top, which facilitates the drainage of condensate. That is, the condensate at the top can flow not only through the vertical beam to the second crossbeam, but also through the first side panel to the second side panel, and then to the third long crossbeam, from where it is led out to the outside.

[0013] Furthermore, this utility model divides the side panel into several side panel units, and designs the connection between the first side panel and the first long crossbeam to be a hinge connection. The lower end of the side panel is freely set and is not connected to the third long crossbeam, so that the side panel unit can be rotated and opened. That is, the side panel unit forms several hatches. In other words, the side panel unit is both the side panel of the cabin and the hatch.

[0014] Furthermore, this utility model designs the end plate assembly with a central herringbone frame, which is a hollow structure that forms herringbone-shaped ventilation holes. A heat dissipation and air guiding mesh is set outside the herringbone frame. Therefore, the purpose of air guiding and heat dissipation of the cabin is achieved. At the same time, three light strips are set inside the herringbone frame. The light strips display the lighting effect through the heat dissipation and air guiding mesh. The herringbone-shaped light strips serve the purpose of indicating the working status and also have a good decorative effect, making the energy cabin more aesthetically pleasing.

[0015] In summary, this utility model features a novel structure and ingenious design. In addition to accommodating power sources, the top and bottom of the chamber are designed in a ridge shape, which effectively solves the problem of condensation accumulation in existing energy chambers, improves ventilation and heat dissipation, and adds a working status display design, making it more modern in design. Attached Figure Description

[0016] Figure 1 This is a perspective view of the energy cabin structure described in this utility model;

[0017] Figure 2 This is a front side view of the energy cabin structure described in this utility model;

[0018] Figure 3 This is a bottom view of the energy cabin structure described in this utility model;

[0019] Figure 4 yes Figure 2 AA section view;

[0020] Figure 5 This is a perspective view of the load-bearing frame and support legs assembly of the energy cabin described in this utility model;

[0021] Figure 6 This is a perspective view of the energy cabin described in this utility model without the side panels;

[0022] Figure 7 This is a perspective view of one side panel of the energy cabin structure described in this utility model in an open state;

[0023] Figure 8 This is an exploded perspective view of the end plate assembly in the energy cabin structure of this utility model.

[0024] Explanation of reference numerals in the attached drawings: 1. Cabin; 11. Side panel; 110. Side panel unit; 111. First side panel; 112. Second side panel; 113. Hinge; 13. Bottom sealing plate; 12. End plate assembly; 12. Ventilation hole; 120. Herringbone frame; 121. Light strip mounting plate; 122. Heat dissipation and air duct plate; 123. End decorative plate; 124. Light strip; 125. Top sealing plate; 126. Load-bearing frame; 2. First long crossbeam; 21. Second long crossbeam; 22. Third long crossbeam; 23. Vertical beam; 24. Diagonal beam; 25. Mounting plate; 26. Legs; 3. Detailed Implementation

[0025] The preferred embodiments of the present invention will be described in detail below with reference to the accompanying drawings, but these preferred embodiments should not be used to limit the scope of protection of the present invention.

[0026] See Figure 1-8The figure shows an energy cabin structure, which includes a load-bearing frame 2, a cabin body 1 and four support legs 3. The cabin body 1 surrounds the load-bearing frame 2 and is located on the outer periphery of the load-bearing frame 2, that is, the cabin body is box-shaped. The four support legs 3 are connected to the two sides of the load-bearing frame 2 to support the cabin body. The load-bearing frame 2 includes four long crossbeams, characterized in that the four long crossbeams are: a first long crossbeam 21 located at the top, a second long crossbeam 22 located below the first long crossbeam 21, the first long crossbeam 21 and the second long crossbeam 22 are connected by several spaced vertical beams 24, in this embodiment there are four vertical beams 24; a third long crossbeam 23 is provided diagonally below both sides of the second long crossbeam 22, the third long crossbeam 23 is arranged symmetrically parallel to the second long crossbeam 2, that is, the third long crossbeam 23 is located at a certain distance on both sides of the second long crossbeam 22, thus forming the width of the cabin. Importantly, the third long crossbeam 23 is also set lower than the second long crossbeam, so that the cross-section of the lower surface of the final cabin is herringbone-shaped, or ridge-shaped; the second long crossbeam 22 and the third long crossbeams 23 on both sides are connected by several spaced diagonal beams 25. In this embodiment, six diagonal beams 25 are provided between each third long crossbeam 23 and the second long crossbeam 22, and the number of vertical beams 24 and diagonal beams 25 can be increased or decreased as needed; cabin Body 1 includes two side panels 11, a bottom sealing plate 13, and two end plate assemblies 12. The two side panels 11 are symmetrically arranged on both sides of the first long crossbeam 21 and the third long crossbeam 23. The bottom sealing plate 13 is located at the bottom of the third long crossbeam 23 and the second long crossbeam 22. The two end plate assemblies 12 are located at the front and rear ends of the body. The side panels 11, the end plate assemblies 12, and the bottom sealing plate 13 form a relatively enclosed body 1. The upper end of the side panel 11 is connected to the side of the first long crossbeam 21, and the lower end of the side panel 11 is connected to the side of the first long crossbeam 21. Extending to the outer sides of the two third long crossbeams 23, it can contact or be opened and connected to the outer sides of the third long crossbeams 23; the bottom sealing plate 13 is located between the second long crossbeam 22 and the two third long crossbeams 23. Because the third long crossbeams 23 are lower than the second long crossbeams 22, the bottom sealing plate 13 forms a herringbone shape or a roof shape. The upper end of each pair of legs 3 is connected to the third long crossbeam 23 and is set in a shape that is narrower at the top and wider at the bottom. Ventilation holes 120 for ventilation and heat dissipation are provided on the end plate assembly 12. Since the bottom of the cabin is ridge-shaped, the condensate generated in the upper part can flow along the vertical beam to the second long crossbeam 22 and through the inclined beam 25 to the third crossbeam 23, and then be led out from the third long crossbeam 23 to the outside of the cabin, avoiding the condensate from remaining on the components inside the cabin and at the bottom of the cabin, which could cause problems such as circuit breaks and corrosion.

[0027] Furthermore, as a preferred embodiment, the side panel 11 comprises two parts: a first side panel 111 located at the top and inclined downwards to both sides, and a second side panel 112 vertically disposed at the free end of the first side panel 111. The first side panel 111 and the second side panel 112 are preferably formed by bending a single plate. The first side panel 111 is connected to the first long crossbeam 21 at a higher end and to the second side panel 112 at a lower end, thereby forming a ridge-shaped top of the cabin with the two first side panels 111 symmetrically disposed with respect to the first long crossbeam 21. This shape also facilitates the downward flow of condensate along the side panel 11 to the third long crossbeam 23, and then leads it out to the outside through the third long crossbeam 23. Thus, the shape of the cabin is a long box-shaped structure with a ridge-shaped top and bottom, and its space utilization is no less than that of a cuboid cabin. However, its advantage is that it facilitates the drainage of condensate, effectively avoiding the problem of condensate remaining on the electrical components and at the bottom of the cabin. It is understood that the side panel 11 in this embodiment is a preferred embodiment, and it can also be an arc-shaped plate. The two side panels 11 form an arched top with an arc shape, which is also conducive to the drainage of condensate.

[0028] Furthermore, for aesthetic purposes, a top sealing plate 126 is fastened onto the first long crossbeam 21.

[0029] See Figure 8 The shape of the end plate assembly 12 is adapted to the cross-sectional shape of the space enclosed by the side panel 11 and the bottom sealing plate 13. It includes: a herringbone frame 121, which is a hollow structure that forms a herringbone-shaped ventilation hole 120. The top of the herringbone frame 121 is adapted to and connected to the end of the first long crossbeam 21. The adaptation means that the width of the top of the herringbone frame 121 is adapted to the width of the end of the first long crossbeam 21. The end of the first long crossbeam 21 can be inserted into the top of the herringbone frame 121. The lower center of the herringbone frame 121 is connected to the end of the second long crossbeam 22. The two ends of the lower part of the herringbone frame 121 are adapted to and connected to the ends of the third long crossbeams 23 on both sides of the bottom. The term "adaptation" refers to the fact that the end of the third long crossbeam 23 can be inserted into the two ends of the lower part of the herringbone frame 121. A heat dissipation and air guiding mesh 123 with a matching shape is provided on the outer end face of the herringbone frame 121, and air guiding holes are provided on the heat dissipation and air guiding mesh 123. End decorative plates 124 that block the ends of the cabin are provided on both sides of the herringbone frame 121. The herringbone frame 121 provides ventilation holes 120 to facilitate heat dissipation of the cabin, and the heat dissipation and air guiding mesh 123 at the end of the herringbone frame 121 serves as a guide and decoration function.

[0030] Furthermore, a herringbone-shaped LED strip mounting plate 122 is provided on the herringbone frame 121. The shape of the LED strip mounting plate 122 is adapted to the herringbone frame 121 and it is located inside the herringbone frame 121. Three LED strips 125 are provided on the LED strip mounting plate 122, that is, the three LED strips 125 are located on the three straight segments of the LED strip mounting plate 122. Therefore, the herringbone frame 121 is provided on the end plate assembly 12, which serves two purposes: ventilation and heat dissipation, and installation of LED strips 125. This achieves both ventilation and decoration, and also serves as a display light, thus enhancing the aesthetic design.

[0031] Furthermore, the side panel 11 is composed of several side panel units 110. In this embodiment, each side panel 11 is composed of three side panel units 110, that is, the three side panel units 110 are arranged side by side. As a preferred option, the upper end of the first side plate 111 of each side panel unit 110 is connected to the first long crossbeam 21 by a rotatable hinge 113, and the lower end of the second side plate 112 is in a self-use state, contacting the third long crossbeam 23 or being locked to it by a door bolt. Thus, the side panel unit 110 can be rotated open by the hinge 113, that is, the side panel unit 110 forms an openable hatch.

[0032] Furthermore, to facilitate the installation of power supplies within the cabin, mounting plates 26 for installing power devices are horizontally provided on both sides of the second long crossbeam 22.

[0033] The above description is illustrative only and not restrictive. The present invention aims to provide an energy chamber structure that can provide installation space for the power supply of the purification components of a food purifier, effectively preventing the accumulation of condensate, corrosion and damage to the power supply, and improving the heat dissipation effect of the chamber. Those skilled in the art will understand that many modifications, variations or equivalents can be made without departing from the spirit and scope defined by the claims, such as changing the shape of the side panel, increasing or decreasing the number of side panel units 110, etc., but all of these will fall within the protection scope of the present invention.

Claims

1. An energy cabin structure, characterized in that: It includes a load-bearing frame (2), a box-shaped cabin (1) disposed on the outer periphery of the load-bearing frame (2), and at least two pairs of support legs (3) connected to both sides of the load-bearing frame (2); the load-bearing frame (2) includes a first long crossbeam (21) located at the top, a second long crossbeam (22) located below and parallel to the first long crossbeam (21), the first long crossbeam (21) and the second long crossbeam (22) being connected by several spaced vertical beams (24); a third long crossbeam (23) is symmetrically arranged diagonally below and parallel to the second long crossbeam (22), the second long crossbeam (22) and the two sides The third long crossbeam (23) is connected by several spaced diagonal beams (25); the cabin (1) includes two symmetrical side panels (11) with the upper end connected to the two sides of the first long crossbeam (21) and the lower end extending to the outer sides of the two third long crossbeams (23), a ridge-shaped bottom sealing plate (13) provided on the bottom surface of the second long crossbeam (22) and the two third long crossbeams (23), and two end plate assemblies (12) provided at the front and rear ends of the load-bearing frame (2). The end plate assembly (12) is provided with ventilation holes (120), and the upper end of the leg (3) is connected to the third long crossbeam (23).

2. The energy cabin structure according to claim 1, characterized in that: The side panel (11) consists of a first side plate (111) located at the top and inclined downward along both sides, and a second side plate (112) vertically arranged at the free end of the first side plate (111). The two first side plates (111) arranged symmetrically with respect to the first long crossbeam (21) form a ridge-shaped top of the cabin.

3. The energy cabin structure according to claim 2, characterized in that: The shape of the end plate assembly (12) is adapted to the cross-sectional shape of the space enclosed by the side panel (11) and the bottom sealing plate (13); the end plate assembly (12) includes: a herringbone frame (121), the herringbone frame (121) is a hollow structure, forming a herringbone-shaped ventilation hole (120), and the top of the herringbone frame (121) is adapted to and connected to the first long crossbeam (21), the lower center of the herringbone frame (121) is connected to the second long crossbeam (22), and the two ends of the lower part of the herringbone frame (121) are adapted to and connected to the third long crossbeam (23) on both sides of the bottom; a heat dissipation guide plate (123) adapted to the shape is provided on the outer end face of the herringbone frame (121), and a guide hole is provided on the heat dissipation guide plate (123); the two sides of the herringbone frame (121) are provided with end decorative plates (124) to block the end of the cabin (1).

4. The energy cabin structure according to claim 3, characterized in that: A herringbone-shaped light strip mounting plate (122) is provided on the herringbone frame (121). The light strip mounting plate (122) is located on the inside of the heat dissipation air guide plate (123). Three light strips (125) are provided on the light strip mounting plate (122).

5. The energy cabin structure according to any one of claims 1-4, characterized in that: The side panel (11) is composed of several side panel units (110), and the upper end of the first side panel (111) of the side panel unit (110) is connected to the first long crossbeam (21) by a rotatable hinge (113), so that the side panel unit (110) forms an openable hatch.

6. The energy cabin structure according to any one of claims 1-4, characterized in that: Mounting plates (26) for mounting power devices are provided horizontally on both sides of the second long crossbeam (22).

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