A mushroom harvesting, storing and transporting box
By designing a modular mushroom harvesting, storage, and transportation box, the problems of large footprint and inflexibility of traditional integrated containers are solved, achieving efficient space utilization and cost reduction, and adapting to different transportation and storage needs.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- HEBEI QIQIANG AGRI MASCH CO LTD
- Filing Date
- 2025-02-12
- Publication Date
- 2026-07-21
AI Technical Summary
Traditional mushroom storage containers have a one-piece structure, which results in low space utilization during storage and transportation, makes it difficult to adjust flexibly according to needs, increases transportation costs, and is not suitable for diverse usage scenarios.
Designed as a modular mushroom harvesting and storage box, it includes a base plate, a first side plate, and a second side plate. The box features a detachable planar structure achieved through connectors, allowing for flexible assembly and disassembly to adapt to different needs.
It improves space utilization, reduces transportation and storage costs, adapts to diverse usage scenarios, and enhances the efficiency and flexibility of transportation and storage.
Smart Images
Figure CN119660110B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of transport box technology, specifically to a mushroom harvesting and storage transport box. Background Technology
[0002] In the harvesting, storage, and transportation of mushrooms, traditional storage containers are mostly large plastic crates. These crates are usually one-piece structures, which present many inconveniences in practical applications. During storage, they require a large amount of warehouse space, especially in large-scale mushroom cultivation or when storage facilities are limited, resulting in low space utilization. Similarly, during transportation, their bulky and non-detachable structure prevents efficient use of transport vehicle space, increasing transportation costs. Furthermore, the fixed capacity of traditional plastic crates makes it difficult to flexibly adjust to different types and quantities of mushrooms, as well as specific transportation and storage needs. They cannot adequately meet diverse usage scenarios, such as providing suitable space solutions for the express delivery of small quantities of premium mushrooms or the bulk storage of large quantities of ordinary mushrooms. Summary of the Invention
[0003] This invention proposes a mushroom harvesting and storage box, which solves the problem of inconvenience in the use of integrated storage and transportation boxes in related technologies.
[0004] The technical solution of the present invention is as follows: A mushroom harvesting and storage box, comprising: Base plate; The first side plate has two first side plates, which are arranged parallel to each other on both sides of the base plate, and an installation space is formed between the two first side plates. The second side plate has two sides, which are arranged parallel to each other at both ends of the base plate. The two side plates are located within the installation space. The base plate, the first side plate, and the second side plate together form a receiving space for accommodating mushrooms. A connector, one end of which is rotatably and vertically mounted on the first side plate, and the other end of which is snapped onto the second side plate, is used to connect the first side plate and the second side plate.
[0005] As a further technical solution, the base plate has a first straight edge, a second straight edge, a third straight edge, and a fourth straight edge connected in sequence, the first straight edge, the second straight edge, the third straight edge, and the fourth straight edge forming a rectangular structure, and further includes: The first snap-fit component has several components. The first snap-fit component is rotatably disposed on the first straight edge and the second straight edge. Several third insertion holes are provided on the third straight edge and the fourth straight edge. The third insertion holes are located on the side end face of the base plate. After the first snap-fit component is rotated to a horizontal state, several base plates are sequentially snapped together through the first snap-fit component and the third insertion holes.
[0006] As a further technical solution, one end of the first side plate has several first insertion holes, and the first snap-fit member is used to insert into the first insertion holes. One end of the second side plate has several second insertion holes, and the first snap-fit member is used to insert into the second insertion holes. After the first snap-fit member is rotated to a vertical position, the first side plate is perpendicular to the base plate through the first snap-fit member and the first insertion holes. The second side plate is perpendicular to the base plate through the first snap-fit member and the second insertion holes. Several fourth insertion holes are also provided on the third straight edge and the fourth straight edge. The fourth insertion holes are located on the top surface of the base plate. The solution also includes: The second snap-fit component, having a plurality of them, is elliptically mounted on the other end of the second side plate and / or the first side plate. The second snap-fit component is used to insert into the fourth insertion hole. The plurality of first side plates and the plurality of second side plates are perpendicularly mounted to the base plate through the second snap-fit component and the fourth insertion hole. The plurality of first side plates, the plurality of second side plates, and the plurality of base plates together form the receiving space.
[0007] As a further technical solution, the second side plate is a telescopic plate.
[0008] As a further technical solution, the second side plate has a snap-fit protrusion on one side and a snap-fit groove on the other side, and the snap-fit protrusion of the second side plate is used to snap into the snap-fit groove of the adjacent second side plate.
[0009] As a further technical solution, the connector also includes: A first connecting unit is mounted on one end of the first side plate, which is both vertically and rotatably mounted. The second connecting unit is raised and rotated on one end of the first side plate. The first connecting unit and the second connecting unit are spaced apart. After the first snap-fit is inserted into the first socket, the first connecting unit and the second connecting unit are respectively used to snap-fit with the two snap-fit grooves. The third connecting unit is vertically and rotatably mounted on one end of the first side plate; The fourth connecting unit is raised and rotated on one end of the first side plate. The third connecting unit and the fourth connecting unit are spaced apart. After the second snap-fit member is snapped into the fourth insertion hole, the third connecting unit and the fourth connecting unit are respectively used to snap-fit with the snap-fit protrusion.
[0010] As a further technical solution, one end of the first side plate has two spaced first rotating holes, each with a first slot. The first connecting unit and the second connecting unit each have a first rotating part, a first connecting part, and a first engaging part. The first rotating part is rotatably disposed in the first rotating hole. After the first connecting part is engaged in the first slot, the first engaging part engages with the engaging groove. The other end of the first side plate has two spaced second rotating holes, each with a second slot. The third connecting unit and the fourth connecting unit each have a second rotating part, a second connecting part, and a second engaging part. The second rotating part is rotatably disposed in the second rotating hole. After the second connecting part is engaged in the second slot, the second engaging part engages with the engaging protrusion.
[0011] As a further technical solution, the first rotating hole also has a third slot, the first connecting unit has a first protrusion, the second connecting unit has a first groove, and after the first connecting part is inserted into the third slot, the first protrusion of the first connecting unit is inserted into the first groove of another adjacent second connecting unit. The second rotating hole also has a fourth slot, the third connecting unit has a second protrusion, and the fourth connecting unit has a second groove. After the second connecting part is inserted into the fourth slot, the second protrusion of the third connecting unit is inserted into the second groove of another adjacent fourth connecting unit.
[0012] As a further technical solution, the second side plate has a plurality of spaced-apart transverse sliding grooves and two spaced-apart vertical sliding grooves, both of which are connected to the transverse sliding grooves, and further includes: The shelf has several layers, and the layers slide into the horizontal groove through the vertical groove, and the layers are slidably disposed in the horizontal groove.
[0013] As a further technical solution, the layer plate has several snap-fit holes and further includes: The snap-fit posts are arranged in a plurality of horizontally spaced manner on the first side plate to form snap-fit groups. The snap-fit groups are arranged in a longitudinally spaced manner on the first side plate. Each snap-fit group corresponds to a horizontal sliding groove. The snap-fit posts are used to snap into the snap-fit holes. The first side plate is used to drive the shelf to slide synchronously.
[0014] The working principle and beneficial effects of this invention are as follows: In this invention, mushrooms are harvested in a large plastic basket, which takes up a lot of space during storage and transportation. This solution designs the plastic basket as a splicing structure, which allows the bottom plate, the first side plate and the second side plate to be disassembled during storage and transportation. Since the bottom plate, the first side plate and the second side plate are all planar structures, they can occupy less space during storage and transportation.
[0015] In the actual fabrication of this mushroom harvesting and storage box, the first side panel is first positioned perpendicular to the base plate, creating an installation space between the two side panels. Then, the second side panel is also positioned perpendicular to the base plate and within this installation space. Thus, the base plate, first side panels, and second side panels together form the storage space. For the connector, one end is mounted on the first side panel via a rotating and lifting mechanism, allowing the other end to engage with the second side panel, thereby connecting the first and second side panels and ensuring the stability of the entire storage box structure. During use, the mushrooms are placed within the storage space for harvesting and storage. When storage or transportation is required, the base plate, first side panels, and second side panels can be disassembled. Since they are all planar structures, this effectively reduces the space occupied.
[0016] This invention redesigns the traditional monolithic mushroom storage and transportation box into a modular structure, solving the problem of large plastic crates used in existing mushroom harvesting methods taking up too much space during storage and transportation. Each component can be disassembled for storage and transportation, and because they are all planar structures, they occupy less space, facilitating space utilization during mushroom harvesting, storage, and transportation, and improving the efficiency of logistics and warehousing. Attached Figure Description
[0017] The preferred embodiments will now be described in a clear and easy-to-understand manner, in conjunction with the accompanying drawings, to further explain the above-mentioned characteristics, technical features, advantages, and implementation methods of the present invention.
[0018] Figure 1 This is a schematic diagram of the unjoined structure of the present invention; Figure 2 This is a schematic diagram of the minimum assembly structure for accommodating space in this invention; Figure 3 This is a schematic diagram of the exploded structure of the present invention; Figure 4 This is a schematic diagram of the splicing structure of multiple first side plates of the present invention; Figure 5 for Figure 4 Enlarged view of point A; Figure 6 for Figure 5 Enlarged view of point B; Figure 7 for Figure 4 Enlarged view of point C; Figure 8 for Figure 7 Enlarged diagram of point D; Figure 9 This is a schematic diagram of the layered structure of the present invention.
[0019] In the diagram: 1. Base plate; 2. First side plate; 21. Installation space; 3. Second side plate; 31. Accommodation space; 4. Connector; 11. First straight edge; 12. Second straight edge; 13. Third straight edge; 14. Fourth straight edge; 5. First snap-fit connector; 15. Third insertion hole; 22. First insertion hole; 36. Second insertion hole; 16. Fourth insertion hole; 6. Second snap-fit connector; 32. Snap-fit protrusion; 33. Snap-fit groove; 41. First connecting unit; 42. Second connecting unit; 43. Third connecting unit; 44. Fourth connecting unit; 23. First rotating hole, 231, first slot, 411, first rotating part, 412, first connecting part, 413, first snap-fit part, 24, second rotating hole, 241, second slot, 431, second rotating part, 432, second connecting part, 433, second snap-fit part, 232, third slot, 414, first protrusion, 421, first groove, 242, fourth slot, 434, second protrusion, 441, second groove, 34, transverse slide, 35, vertical slide, 7, shelf, 71, snap-fit hole, 8, snap-fit post. Detailed Implementation
[0020] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the specific implementation methods of the present invention will be described below with reference to the accompanying drawings. Obviously, the accompanying drawings described below are merely some embodiments of the present invention. For those skilled in the art, they can be understood as further technical solutions without creative effort. In some drawings, components with the same structure or function are only schematically illustrated, or only one is marked. In this document, "a" not only means "only one," but can also mean "more than one," and "several" includes "two" and "more than two."
[0021] In this document, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.
[0022] Furthermore, in the description of this application, the terms "first," "second," etc., are used only to distinguish descriptions and should not be construed as indicating or implying relative importance.
[0023] Reference Figures 1-9 As the first embodiment of the present invention, a mushroom harvesting, storage and transportation box is proposed, including a base plate 1; two first side plates 2 are arranged parallel to each other on both sides of the base plate 1, forming an installation space 21 between the two first side plates 2; two second side plates 3 are arranged parallel to each other at both ends of the base plate 1, and the two second side plates 3 are located within the installation space 21. The base plate 1, the first side plates 2 and the second side plates 3 together form an accommodating space 31, which is used to accommodate mushrooms; one end of a connector 4 is rotatably and vertically mounted on the first side plate 2, and the other end is used to snap onto the second side plate 3. The connector 4 is used to connect the first side plate 2 and the second side plate 3.
[0024] In this embodiment, in the prior art, mushrooms are harvested and placed in a large plastic basket, which takes up a lot of space during storage and transportation. This solution designs the plastic basket as a splicing structure, so that the bottom plate 1, the first side plate 2 and the second side plate 3 can be disassembled during storage and transportation. Since the bottom plate 1, the first side plate 2 and the second side plate 3 are all planar structures, they can occupy less space during storage and transportation.
[0025] In the actual fabrication of this mushroom harvesting and storage box, the first side panel 2 is first made perpendicular to the base plate 1, thus forming an installation space 21 between the two first side panels 2. Next, the second side panel 3 is also made perpendicular to the base plate 1 and located within the installation space 21. Thus, the base plate 1, the first side panel 2, and the second side panel 3 together form a receiving space 31. For the connector 4, one end is mounted on the first side panel 2 by rotation and lifting, allowing the other end to engage with the second side panel 3, thereby connecting the first side panel 2 and the second side panel 3 and ensuring the stability of the entire storage box structure. During use, the mushrooms are placed within the receiving space 31 for harvesting and storage. When storage or transportation is required, the base plate 1, the first side panel 2, and the second side panel 3 can be disassembled. Since they are all planar structures, this effectively reduces the space occupied.
[0026] This invention redesigns the traditional monolithic mushroom storage and transportation box into a modular structure, solving the problem of large plastic crates used in existing mushroom harvesting methods taking up too much space during storage and transportation. The components of this invention can be disassembled for storage and transportation, and because they are all planar structures, they occupy less space, facilitating space utilization during mushroom harvesting, storage, and transportation, and improving the efficiency of logistics and warehousing.
[0027] Furthermore, the base plate 1 has a first straight edge 11, a second straight edge 12, a third straight edge 13, and a fourth straight edge 14 connected in sequence. The first straight edge 11, the second straight edge 12, the third straight edge 13, and the fourth straight edge 14 form a rectangular structure. It also includes a first snap-fit member 5. There are several first snap-fit members 5. The first snap-fit members 5 are rotatably disposed on the first straight edge 11 and the second straight edge 12. Several third insertion holes 15 are provided on the third straight edge 13 and the fourth straight edge 14. The third insertion holes 15 are located on the side end face of the base plate 1. After the first snap-fit member 5 is rotated to a horizontal state, several base plates 1 are snapped together in sequence through the first snap-fit member 5 and the third insertion holes 15. The first side plate 2 has several first insertion holes 22 at one end, and the first snap-fit member 5 is used to insert into the first insertion holes 22. The second side plate 3 has several second insertion holes 36 at one end, and the first snap-fit member 5 is used to insert into the second insertion holes 36. After the first snap-fit member 5 is rotated to a vertical position, the first side plate 2 is perpendicular to the base plate 1 through the first snap-fit member 5 and the first insertion holes 22. The second side plate 3 is perpendicular to the base plate 1 through the first snap-fit member 5 and the second insertion holes 36. Several fourth insertion holes 16 are also provided on the third straight edge 13 and the fourth straight edge 14. The fourth insertion holes 16 are located on the top surface of the base plate 1. The system also includes: The second snap-fit member 6 has several of them. The second snap-fit member 6 is elliptical and disposed on the other end of the second side plate 3 and / or the first side plate 2. The second snap-fit member 6 is used to insert into the fourth insertion hole 16. Several first side plates 2 and several second side plates 3 are vertically disposed with the base plate 1 through the second snap-fit member 6 and the fourth insertion hole 16. Several first side plates 2, several second side plates 3 and several base plates 1 together form a receiving space 31.
[0028] In this embodiment, to meet the needs of more users, the plastic basket is designed to be expandable and shrinkable. The minimum storage space 31 is formed by splicing a base plate 1, two first side plates 2, and two second side plates 3. To expand the storage space 31, two base plates 1, four first side plates 2, and two second side plates 3 can be spliced together, or two base plates 1, two first side plates 2, and four second side plates 3 can be spliced together, and so on. Buyers can use different splicing methods to create different storage spaces 31 to meet their needs. For example, they can splice together a larger storage space 31 to store harvested mushrooms, or they can splice together a smaller storage space 31 to hold mushrooms ready for delivery. The outside of the storage space 31 can be lined with a foam shell for insulation. To facilitate production, this embodiment designs all base plates 1, all first side plates 2, and all second side plates 3 with the same structure. At the factory, a base plate 1, a first side plate 2, and a second side plate 3 can be pre-assembled, but not tightly, to avoid affecting the relative rotation between the first side plate 2 or second side plate 3 and the base plate 1, thus accelerating the assembly efficiency for the buyer. During transportation, since the first snap-fit component 5 is rotatable, the first side plate 2, second side plate 3, and base plate 1 can be swung to a flat plane, reducing the footprint.
[0029] When manufacturing the base plate 1, it is made to have a rectangular structure formed by connecting a first straight edge 11, a second straight edge 12, a third straight edge 13, and a fourth straight edge 14. A rotatable first snap-fit member 5 is installed on the first straight edge 11 and the second straight edge 12. When installing the first side plate 2, the first snap-fit member 5 is rotated to a vertical position, and the first insertion hole 22 of the first side plate 2 is aligned with the first snap-fit member 5 and inserted, so that the first side plate 2 is perpendicular to the base plate 1. The installation of the second side plate 3 is done in the same way. When it is necessary to expand the accommodating space 31, the first snap-fit member 5 is rotated to a horizontal position, and multiple base plates 1 are sequentially snapped together through the first snap-fit member 5 and the third insertion hole 15. Therefore, the edges of adjacent base plates 1 that need to contact are designed with a structure corresponding to the first snap-fit member 5 and the third insertion hole 15, so that the first snap-fit member 5 can be inserted into the third insertion hole 15 to connect adjacent base plates 1. Meanwhile, a liftable second snap-fit member 6 is provided at the other end of the second side plate 3 and the first side plate 2. This allows the two first side plates 2, which are connected to the first straight edge 11 and the third straight edge 13 of the base plate 1, to be inverted vertically. This facilitates the insertion of the second snap-fit member 6 into the fourth insertion hole 16, and also facilitates the insertion of the first snap-fit member 5 into the first insertion hole 22. Therefore, when the first snap-fit member 5 is inserted into the first insertion hole 22, the second snap-fit member 6 is positioned above. The liftable design of the second snap-fit member 6 allows it to be lowered and hidden inside the first side plate 2, preventing scratches to workers or accidental breakage. The insertion method of the second side plate 3 into the base plate 1 is similar. Inserting the second snap-fit member 6 into the fourth insertion hole 16 allows multiple first side plates 2, second side plates 3, and the base plate 1 to collectively form a larger accommodating space 31. At the factory, one base plate 1, one first side plate 2, and one second side plate 3 can be pre-assembled for easy assembly by the buyer. During transportation, the first side plate 2, the second side plate 3, and the bottom plate 1 are swung to a flat state to reduce the footprint.
[0030] This structural design allows the modular plastic crate to meet more diverse usage needs, and the capacity can be expanded or reduced according to actual conditions. Different combinations can be achieved through simple operations such as rotating the first connecting piece 5 and raising or lowering the second connecting piece 6. All components have identical structures, facilitating production and factory setup, improving product versatility and flexibility, and reducing production and transportation costs.
[0031] Furthermore, the second side panel 3 is a telescopic panel.
[0032] In this embodiment, since the second side plate 3 is located within the installation space 21, when the two second side plates 3 are spliced together in sequence, a gap will be generated between the adjacent second side plates 3. The width of this gap is equal to the thickness of the first side plate 2. In order to strengthen the structure, this embodiment designs the second side plate 3 as a telescopic structure, and eliminates this gap by extending the second side plate 3.
[0033] Furthermore, one side of the second side plate 3 has a snap-fit protrusion 32 and the other side has a snap-fit groove 33. The snap-fit protrusion 32 of one second side plate 3 is used to snap into the snap-fit groove 33 of the adjacent second side plate 3.
[0034] In this embodiment, to facilitate the connection of adjacent second side plates 3, a snap-fit protrusion 32 is directly provided on one side of the second side plate 3, and a snap-fit groove 33 is carved out on the other side. Since the first snap-fit member 5 is in a vertical state when installing the second side plate 3, the second side plate 3 can be pressed down directly so that the second insertion hole 36 is inserted into the first snap-fit member 5. In this embodiment, the connection of adjacent second side plates 3 is also designed with the same installation method. During installation, simply align the snap-fit protrusion 32 with the snap-fit groove 33 and press the second side plate 3 down. The second side plate 3 can be snapped onto the adjacent second side plate 3, or the second insertion hole 36 can be inserted into the first snap-fit member 5, achieving two goals at once, reducing installation time, and eliminating the need for additional installation parts.
[0035] This design facilitates the connection of adjacent second side panels 3 without the need for additional installation parts, reducing installation time and costs. A simple pressing operation simultaneously connects the second side panel 3 to the first snap-fit component 5 and to adjacent second side panels 3, improving the assembly efficiency of the mushroom harvesting and storage box and facilitating large-scale production and use.
[0036] Furthermore, the connector 4 also includes a first connecting unit 41, which is raised and rotated on one end of the first side plate 2; a second connecting unit 42, which is raised and rotated on one end of the first side plate 2, with the first connecting unit 41 and the second connecting unit 42 spaced apart. After the first snap-fit 5 is snapped into the first insertion hole 22, the first connecting unit 41 and the second connecting unit 42 are respectively used to snap into the two snap-fit grooves 33; a third connecting unit 43, which is raised and rotated on one end of the first side plate 2; and a fourth connecting unit 44, which is raised and rotated on one end of the first side plate 2. The third connecting unit 43 and the fourth connecting unit 44 are spaced apart. After the second snap-fit 6 is snapped into the fourth insertion hole 16, the third connecting unit 43 and the fourth connecting unit 44 are respectively used to snap into the snap-fit protrusion 32. The first side plate 2 has two spaced first rotating holes 23 at one end. The first rotating holes 23 have first slots 231. The first connecting unit 41 and the second connecting unit 42 each have a first rotating part 411, a first connecting part 412 and a first engaging part 413. The first rotating part 411 is rotatably disposed in the first rotating hole 23. After the first connecting part 412 is engaged in the first slot 231, the first engaging part 413 engages with the engaging groove 33. The other end of the first side plate 2 has two spaced second rotating holes 24. The second rotating holes 24 have second slots 241. The third connecting unit 43 and the fourth connecting unit 44 each have a second rotating part 431, a second connecting part 432 and a second snap-fit part 433. The second rotating part 431 is rotatably disposed in the second rotating hole 24. After the second connecting part 432 is snapped into the second slot 241, the second snap-fit part 433 snaps into the snap-fit protrusion 32.
[0037] In this embodiment, one end of the first side plate 2 has two spaced first rotating holes 23, and a first slot 231 is provided in the first rotating hole 23. The first slot 231 is a slot. At the same time, the other end has two spaced second rotating holes 24, and a second slot 241 is provided in the second rotating hole 24. The second slot 241 is also a slot.
[0038] Both the first connecting unit 41 and the second connecting unit 42 have a first rotating part 411, a first connecting part 412, and a first snap-fit part 413. The first rotating part 411 is installed in the first rotating hole 23 at one end of the first side plate 2, so that it can rotate, and the first connecting part 412 is snapped into the first slot 231. When the first snap-fit part 5 is inserted into the first insertion hole 22 to complete the connection between the first side plate 2 and the bottom plate 1, the first snap-fit part 413 is exactly aligned with the snap-fit groove 33 of the second side plate 3 to achieve connection.
[0039] Similarly, the third connecting unit 43 and the fourth connecting unit 44 have a second rotating part 431, a second connecting part 432, and a second snap-fit part 433. The second rotating part 431 is installed in the second rotating hole 24 at the other end of the first side plate 2. Rotating the third connecting unit 43 and the fourth connecting unit 44 causes the second connecting part 432 to snap into the second snap-fit groove 241. Simultaneously, as the second snap-fit piece 6 is inserted into the fourth insertion hole 16, the second snap-fit part 433 aligns with the snap-fit protrusion 32 of the second side plate 3, ensuring a stable connection between the first side plate 2 and the second side plate 3. When assembling or disassembling the mushroom harvesting and storage box, the first connecting unit 41, the second connecting unit 42, the third connecting unit 43, and the fourth connecting unit 44 are rotated and raised or lowered according to the actual operating procedures to achieve quick and reliable connection or separation between the components.
[0040] The structural design of this connector 4 ensures a stable connection between the first side plate 2 and the second side plate 3. Through the synergistic action of the first connecting unit 41, the second connecting unit 42, the third connecting unit 43, and the fourth connecting unit 44 at different positions, the stress at the connection point can be effectively distributed, reducing the risk of loosening caused by factors such as bumps, vibrations, or pressure from mushroom stacking during transportation. This better protects the integrity of the mushrooms during harvesting, storage, and transportation, and reduces the damage rate of mushrooms caused by unstable box structure.
[0041] The lifting and rotating design of the first connecting unit 41, the second connecting unit 42, the third connecting unit 43, and the fourth connecting unit 44 improves the convenience and efficiency of assembly. This is especially beneficial in scenarios involving large-scale production or frequent use of the mushroom harvesting and storage box, significantly saving assembly time and labor costs. Furthermore, it allows for convenient and quick disassembly, maintenance, cleaning, or replacement of parts, facilitating long-term use and management of the equipment.
[0042] Furthermore, the first rotating hole 23 also has a third slot 232, the first connecting unit 41 has a first protrusion 414, and the second connecting unit 42 has a first groove 421. After the first connecting part 412 is inserted into the third slot 232, the first protrusion 414 of the first connecting unit 41 is inserted into the first groove 421 of another adjacent second connecting unit 42. The second rotating hole 24 also has a fourth slot 242, the third connecting unit 43 has a second protrusion 434, and the fourth connecting unit 44 has a second groove 441. After the second connecting part 432 is inserted into the fourth slot 242, the second protrusion 434 of the third connecting unit 43 is inserted into the second groove 441 of another adjacent fourth connecting unit 44.
[0043] In this embodiment, to connect adjacent first side plates 2, a third slot 232 is additionally machined for the existing first rotating hole 23 during the manufacturing of the first side plate 2. Simultaneously, a first protrusion 414 is formed on the first connecting unit 41, and a first groove 421 is machined on the second connecting unit 42. During the installation operation of the first side plate 2, by pressing down on the first side plate 2, the first side plate 2 and the second side plate 3 are engaged, and adjacent first side plates 2 can also be engaged with each other. The first protrusion 414 of the first connecting unit 41 aligns with the first groove 421 of the adjacent second connecting unit 42, causing the first protrusion 414 to engage within the first groove 421. Thus, an interlocking structure is formed between adjacent first connecting units 41 and second connecting units 42, further enhancing the stability and integrity of the connection.
[0044] Similarly, a fourth slot 242 is machined for the second rotating hole 24 at the other end of the first side plate 2. A second protrusion 434 is provided on the third connecting unit 43, and a second groove 441 is provided on the fourth connecting unit 44. When the second connecting part 432 is engaged with the fourth slot 242, the second protrusion 434 of the third connecting unit 43 is engaged with the second groove 441 of the adjacent fourth connecting unit 44. In actual use, this interlocking structure ensures the stability of the box structure.
[0045] This further improves the connection stability and reliability of connector 4. The interlocking of protrusions and grooves between adjacent connecting units creates a mutually restraining structure, effectively preventing displacement or loosening of the connecting units under external forces, thus significantly enhancing the strength of the connection between the first side plates 2. This effectively reduces the risk of mushroom damage due to deformation of the box structure or loose connections, improving the transportation quality and storage safety of the mushrooms.
[0046] Furthermore, the second side plate 3 has several spaced-apart transverse sliding grooves 34 and two spaced-apart vertical sliding grooves 35. Both vertical sliding grooves 35 communicate with the transverse sliding grooves 34. It also includes several shelf plates 7, which slide into the transverse sliding grooves 34 via the vertical sliding grooves 35. The shelf plates 7 are slidably disposed within the transverse sliding grooves 34. Each shelf plate 7 has several snap-fit holes 71 and several snap-fit posts 8. These snap-fit posts 8 are arranged transversely at intervals on the first side plate 2, forming snap-fit groups. These snap-fit groups are arranged longitudinally at intervals on the first side plate 2, each snap-fit group corresponding to a transverse sliding groove 34. The snap-fit posts 8 are used to snap into the snap-fit holes 71, and the first side plate 2 is used to drive the shelf plates 7 to slide synchronously.
[0047] In this embodiment, when manufacturing the second side plate 3, a horizontal sliding groove 34 and two vertical sliding grooves 35 communicating with the horizontal sliding groove 34 are machined. A shelf plate 7 is manufactured and has snap-fit holes 71 provided thereon. Snap-fit posts 8 are horizontally spaced and installed on the first side plate 2 to form snap-fit groups, which are then arranged vertically at intervals. During assembly, the shelf plate 7 is slid into the horizontal sliding groove 34 through the vertical sliding groove 35, causing the snap-fit posts 8 to snap into the snap-fit holes 71 of the shelf plate 7. When mushrooms need to be removed, if all of them need to be removed, first disassemble the first side plate 2 that is connected to the shelf 7 (lift the second connecting piece 6 upwards), then pull the first side plate 2, which will pull out several shelves 7 together. After pulling them out, tilt the storage box. If it is not necessary to remove all of them, the shelf 7 can be slid to separate the shelf 7 from the connecting post 8. Slide the sliding end of the shelf 7 to the vertical groove 35 position, pull the shelf 7 upwards, and a single shelf 7 can be removed. After the storage space 31 becomes larger, the shelves 7 also need to be spliced. The shelf 7 can be designed with protrusions and grooves. The protrusions slide on the shelf 7. When splicing is needed, pull out the protrusions and insert them into the grooves of the adjacent shelf 7.
[0048] This design facilitates the retrieval of mushrooms within the 31-cubic-meter storage space, improving the usability of the mushroom harvesting and storage box. Whether retrieving all or part of the mushrooms, the process is simple, avoiding the problem of mushrooms piling up at the bottom of the box and becoming difficult to access. This increases the efficiency of mushroom processing and reduces damage to the mushrooms during handling.
[0049] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.
Claims
1. A mushroom harvesting and storage box, characterized in that, include: Base plate (1); First side plate (2), there are two first side plates (2), the two first side plates (2) are arranged in parallel on both sides of the base plate (1), and an installation space (21) is formed between the two first side plates (2). The second side plate (3) has two sides, and the two sides are arranged in parallel at both ends of the base plate (1). The two sides are located in the installation space (21). The base plate (1), the first side plate (2) and the second side plate (3) together form a receiving space (31), which is used to receive mushrooms. A connector (4) is provided, with one end of which is rotatably and vertically mounted on the first side plate (2), and the other end of which is used to snap onto the second side plate (3). The connector (4) is used to connect the first side plate (2) and the second side plate (3). The connector (4) includes a first connecting unit (41), a second connecting unit (42), a third connecting unit (43), and a fourth connecting unit (44). The second side plate (3) has a snap-fit protrusion (32) on one side and a snap-fit groove (33) on the other side. The snap-fit protrusion (32) of the second side plate (3) is used to snap into the snap-fit groove (33) of the adjacent second side plate (3). The first side plate (2) has two spaced first rotating holes (23) at one end. The first rotating hole (23) has a first slot (231). The first connecting unit (41) and the second connecting unit (42) each have a first rotating part (411), a first connecting part (412) and a first snap-fit part (413). The first rotating part (411) is rotatably disposed in the first rotating hole (23). After the first connecting part (412) is snapped into the first slot (231), the first snap-fit part (413) snaps into the snap-fit groove (33). The other end of the first side plate (2) has two spaced second rotating holes (24), and the second rotating holes (24) have second slots (241). The third connecting unit (43) and the fourth connecting unit (44) each have a second rotating part (431), a second connecting part (432) and a second snap-fit part (433). The second rotating part (431) is rotatably disposed in the second rotating hole (24). After the second connecting part (432) is snapped into the second slot (241), the second snap-fit part (433) snaps into the snap-fit protrusion (32). The first rotating hole (23) also has a third slot (232), the first connecting unit (41) has a first protrusion (414), the second connecting unit (42) has a first groove (421), after the first connecting part (412) is inserted into the third slot (232), the first protrusion (414) of the first connecting unit (41) is inserted into the first groove (421) of another adjacent second connecting unit (42); The second rotating hole (24) also has a fourth slot (242), the third connecting unit (43) has a second protrusion (434), and the fourth connecting unit (44) has a second groove (441). After the second connecting part (432) is inserted into the fourth slot (242), the second protrusion (434) of the third connecting unit (43) is inserted into the second groove (441) of another adjacent fourth connecting unit (44).
2. The mushroom harvesting and storage box according to claim 1, characterized in that, The base plate (1) has a first straight edge (11), a second straight edge (12), a third straight edge (13), and a fourth straight edge (14) connected in sequence. The first straight edge (11), the second straight edge (12), the third straight edge (13), and the fourth straight edge (14) form a rectangular structure. It also includes: The first snap-fit component (5) has several of them. The first snap-fit component (5) is rotatably disposed on the first straight edge (11) and the second straight edge (12). The third straight edge (13) and the fourth straight edge (14) are each provided with several third insertion holes (15). The third insertion holes (15) are located on the side end face of the base plate (1). After the first snap-fit component (5) is rotated to a horizontal state, several base plates (1) are sequentially snapped together by the first snap-fit component (5) and the third insertion holes (15).
3. The mushroom harvesting and storage box according to claim 2, characterized in that, The first side plate (2) has several first insertion holes (22) at one end, and the first snap-fit member (5) is used to insert into the first insertion hole (22). The second side plate (3) has several second insertion holes (36) at one end, and the first snap-fit member (5) is used to insert into the second insertion hole (36). After the first snap-fit member (5) is rotated to a vertical position, the first side plate (2) is perpendicular to the bottom plate (1) through the first snap-fit member (5) and the first insertion hole (22). The second side plate (3) is perpendicular to the bottom plate (1) through the first snap-fit member (5) and the second insertion hole (36). Several fourth insertion holes (16) are also provided on the third straight edge (13) and the fourth straight edge (14). The fourth insertion holes (16) are located on the top surface of the bottom plate (1). The second side plate (3) also includes: The second snap-fit (6) has a plurality of them. The second snap-fit (6) is raised and lowered on the other end of the second side plate (3) and / or the first side plate (2). The second snap-fit (6) is used to insert into the fourth socket (16). The plurality of first side plates (2) and the plurality of second side plates (3) are vertically arranged with the base plate (1) through the second snap-fit (6) and the fourth socket (16). The plurality of first side plates (2), the plurality of second side plates (3) and the plurality of base plates (1) together form the receiving space (31).
4. The mushroom harvesting and storage box according to claim 1, characterized in that, The second side plate (3) is a telescopic plate.
5. A mushroom harvesting and storage box according to claim 3, characterized in that, The first connecting unit (41) is raised and rotated on one end of the first side plate (2); The second connecting unit (42) is raised and rotated on the other end of the first side plate (2). The first connecting unit (41) and the second connecting unit (42) are spaced apart. After the first snap-fit member (5) is snapped into the first insertion hole (22), the first connecting unit (41) and the second connecting unit (42) are respectively used to snap into the two snap-fit grooves (33). The third connecting unit (43) is raised and rotated on one end of the first side plate (2); The fourth connecting unit (44) is raised and rotated on the other end of the first side plate (2). The third connecting unit (43) and the fourth connecting unit (44) are spaced apart. After the second snap-fit member (6) is snapped into the fourth insertion hole (16), the third connecting unit (43) and the fourth connecting unit (44) are respectively used to snap-fit with the snap-fit protrusion (32).
6. A mushroom harvesting and storage box according to claim 1, characterized in that, The second side plate (3) has a plurality of spaced transverse sliding grooves (34) and two spaced vertical sliding grooves (35), both of which are connected to the transverse sliding grooves (34), and further includes: The shelf (7) has a plurality of shelves (7), which slide into the transverse groove (34) through the vertical groove (35), and the shelf (7) is slidably disposed in the transverse groove (34).
7. A mushroom harvesting and storage box according to claim 6, characterized in that, The layer (7) has a plurality of snap-fit holes (71) and further includes: The snap-fit posts (8) are a plurality of each, and the plurality of snap-fit posts (8) are arranged laterally at intervals on the first side plate (2) to form snap-fit groups. The snap-fit groups are arranged longitudinally at intervals on the first side plate (2). The snap-fit groups correspond one-to-one with the transverse sliding grooves (34). The snap-fit posts (8) are used to snap into the snap-fit holes (71). The first side plate (2) is used to drive the layer plate (7) to slide synchronously.