Built-in anti-seismic high-hardness corrugated carton

Abstract

The utility model discloses a built-in shock-resistant high-hardness corrugated carton, which belongs to the technical field of corrugated cartons and comprises a double-layer corrugated board, a carton folding cover and triangular support rods. Through cooperative use of the components, the built-in anti-seismic high-strength corrugated carton can have high structural strength in the use process and can bear certain pressure, and through hexagonal rubber filling blocks, the built-in anti-seismic high-strength corrugated carton can have certain anti-seismic buffering performance; under the action of the hexagonal rubber filling blocks, when the built-in shock-resistant high-strength corrugated carton is scratched by sharp objects, a certain buffering effect can be achieved, so that objects in the built-in shock-resistant high-strength corrugated carton are prevented from being directly damaged by the sharp objects; therefore, the use efficiency and the stability of the built-in shock-resistant high-strength corrugated carton are effectively improved.

Description

Technical Field

[0001] The utility model belongs to the technical field of corrugated cartons, and specifically relates to a high-hardness corrugated carton with built-in earthquake resistance. Background Technique

[0002] A corrugated carton is made of corrugated paper through die-cutting, indentation, box nailing or gluing. Corrugated cartons are a widely used packaging product, and their usage has always been the first among various packaging products, including calcium plastic corrugated cartons. For more than half a century, corrugated cartons have gradually replaced transportation packaging containers such as wooden boxes with their superior performance and good processing performance, becoming the main force in transportation packaging. In addition to protecting goods, facilitating storage and transportation, they can also play a role in beautifying and promoting goods. Corrugated cartons are green environmental protection products, which are beneficial to environmental protection and more conducive to loading, unloading and transportation;

[0003] The existing corrugated cartons have a relatively ordinary structure and a relatively single internal structure. During use, the overall carton does not have good compressive performance, and the carton will deform under pressure during subsequent stacking. At the same time, the existing corrugated cartons do not have earthquake resistance and buffering performance and stable structural strength, and cannot well protect the objects inside the carton when scratched by sharp objects, resulting in the use efficiency and stability of corrugated cartons not being improved. Content of the Utility Model

[0004] Aiming at the problems that the existing corrugated cartons have a relatively ordinary structure and a relatively single internal structure, the overall carton does not have good compressive performance during use, the carton will deform under pressure during subsequent stacking, and the existing corrugated cartons do not have earthquake resistance and buffering performance and stable structural strength, and cannot well protect the objects inside the carton when scratched by sharp objects, resulting in the use efficiency and stability of corrugated cartons not being improved, the utility model provides a high-hardness corrugated carton with built-in earthquake resistance to solve the problems raised in the background technique.

[0005] To solve the above problems, the utility model adopts the following technical solutions.

[0006] A high-hardness corrugated carton with built-in earthquake resistance, including a high-strength corrugated carton with built-in earthquake resistance. The high-strength corrugated carton with built-in earthquake resistance includes a double-layer corrugated board, a carton folding cover and triangular support rods. The double-layer corrugated board and the carton folding cover are fixedly connected. The triangular support rods are fixedly connected inside the double-layer corrugated board. The double-layer corrugated board includes corrugated board one, corrugated board two, Oxford cloth and hexagonal rubber filling blocks. The Oxford cloth and the hexagonal rubber filling blocks are fixedly connected between corrugated board one and corrugated board two.

[0007] Preferably, triangular blocks are provided at the four corners inside the double-layer corrugated cardboard. There are two upper and lower triangular blocks. The triangular support rods are arranged between the two triangular blocks and fixedly connected between the two triangular blocks. The whole formed by connecting the triangular blocks and the triangular support rods is fixedly connected to the four corners inside the double-layer corrugated cardboard.

[0008] Preferably, the double-layer corrugated cardboard is composed of a double-layer structure of corrugated cardboard one and corrugated cardboard two. Corrugated structure blocks are provided inside both corrugated cardboard one and corrugated cardboard two, and the corrugated structure blocks are fixedly connected inside corrugated cardboard one and corrugated cardboard two. Corrugated cardboard one and corrugated cardboard two are symmetrically arranged and fixedly connected between them.

[0009] Preferably, the Oxford cloth is arranged inside corrugated cardboard one and corrugated cardboard two, and the Oxford cloth is fixedly connected inside corrugated cardboard one and corrugated cardboard two.

[0010] Preferably, an anti-seismic isolation layer is formed between adjacent corrugated structure blocks between corrugated cardboard one and corrugated cardboard two. The hexagonal rubber filling blocks are arranged inside the anti-seismic isolation layer between corrugated cardboard one and corrugated cardboard two, and the hexagonal rubber filling blocks are fixedly filled inside the anti-seismic isolation layer between corrugated cardboard one and corrugated cardboard two.

[0011] Preferably, the carton folding cover is arranged at the upper end of the double-layer corrugated cardboard, and the carton folding cover is fixedly connected to the upper end of the double-layer corrugated cardboard. Beneficial effects

[0012] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0013] For the above-mentioned high-hardness corrugated carton with built-in anti-seismic function, through the combined use of components such as the double-layer corrugated cardboard, triangular blocks, triangular support rods, Oxford cloth, anti-seismic isolation layer and hexagonal rubber filling blocks, the high-strength corrugated carton with built-in anti-seismic function can have strong structural strength during use and can withstand a certain amount of pressure. And through the hexagonal rubber filling blocks, the high-strength corrugated carton with built-in anti-seismic function can have a certain anti-seismic buffering performance. Under the action of the hexagonal rubber filling blocks, when the high-strength corrugated carton with built-in anti-seismic function is stabbed by a sharp object, it can play a certain buffering role to avoid the sharp object directly damaging the objects inside the high-strength corrugated carton with built-in anti-seismic function, thereby effectively improving the use efficiency and stability of the high-strength corrugated carton with built-in anti-seismic function. Description of the drawings

[0014] Figure 1 It is a structural schematic diagram of the high-strength corrugated carton with built-in anti-seismic function in the present utility model;

[0015] Figure 2 This is a structural sectional view of a high-strength corrugated cardboard box with built-in earthquake resistance in the present utility model;

[0016] Figure 3 This is a schematic structural view of a double-layer corrugated cardboard in the present utility model.

[0017] The corresponding relationship between the reference numerals and component names in the figure is as follows:

[0018] In the figure: 100, a high-strength corrugated cardboard box with built-in earthquake resistance; 1, a double-layer corrugated cardboard; 2, a cardboard folding cover; 3, a triangular block; 4, a triangular support rod; 5, a first corrugated cardboard; 6, a second corrugated cardboard; 7, a corrugated structure block; 8, Oxford cloth; 9, an earthquake-resistant interlayer; 10, a hexagonal rubber filling block. Specific embodiments

[0019] The present utility model will be further described below in conjunction with specific utility models. Embodiment

[0020] As Figures 1 to 3 shown, it is a schematic structural view of a high-hardness corrugated cardboard box with built-in earthquake resistance in a preferred embodiment of the present utility model. The high-strength corrugated cardboard box 100 with built-in earthquake resistance in this embodiment includes a double-layer corrugated cardboard 1, a cardboard folding cover 2, and a triangular support rod 4. The double-layer corrugated cardboard 1 and the cardboard folding cover 2 are fixedly connected. The triangular support rod 4 is fixedly connected inside the double-layer corrugated cardboard 1. The double-layer corrugated cardboard 1 includes a first corrugated cardboard 5, a second corrugated cardboard 6, Oxford cloth 8, and a hexagonal rubber filling block 10. The Oxford cloth 8 and the hexagonal rubber filling block 10 are fixedly connected between the first corrugated cardboard 5 and the second corrugated cardboard 6.

[0021] The cardboard folding cover 2 is arranged at the upper end of the double-layer corrugated cardboard 1. The cardboard folding cover 2 is fixedly connected to the upper end of the double-layer corrugated cardboard 1 for facilitating packaging during the use of the high-strength corrugated cardboard box 100 with built-in earthquake resistance.

[0022] Two triangular blocks 3 are arranged at the four corners inside the double-layer corrugated cardboard 1. There are two upper and lower triangular blocks 3. The triangular support rod 4 is arranged between the two triangular blocks 3. The triangular support rod 4 is fixedly connected between the two triangular blocks 3. The whole formed by connecting the triangular blocks 3 and the triangular support rod 4 is fixedly connected at the four corners inside the double-layer corrugated cardboard 1 for improving the overall structural strength of the high-strength corrugated cardboard box 100 with built-in earthquake resistance during its use and enabling it to withstand a certain amount of pressure during use.

[0023] The described double-layer corrugated board 1 is composed of a double-layer structure of corrugated board one 5 and corrugated board two 6. Corrugated structure blocks 7 are arranged inside both the corrugated board one 5 and the corrugated board two 6. The corrugated structure blocks 7 are fixedly connected inside the corrugated board one 5 and the corrugated board two 6. The corrugated board one 5 and the corrugated board two 6 are symmetrically arranged and fixedly connected between them, which can improve the thickness and structural strength of the double-layer corrugated board 1 during the use of the high-strength corrugated carton 100 with built-in earthquake resistance.

[0024] The described Oxford cloth 8 is arranged inside the corrugated board one 5 and the corrugated board two 6. The Oxford cloth 8 is fixedly connected inside the corrugated board one 5 and the corrugated board two 6, which can enable the double-layer corrugated board 1 to have a certain scratch resistance during the use of the high-strength corrugated carton 100 with built-in earthquake resistance. The Oxford cloth 8 can play a certain buffering role to avoid sharp objects from damaging the objects inside the high-strength corrugated carton 100 with built-in earthquake resistance.

[0025] An earthquake-resistant isolation layer 9 is formed between the adjacent corrugated structure blocks 7 of the corrugated board one 5 and the corrugated board two 6. The hexagonal rubber filling block 10 is arranged inside the earthquake-resistant isolation layer 9 between the corrugated board one 5 and the corrugated board two 6. The hexagonal rubber filling block 10 is fixedly filled inside the earthquake-resistant isolation layer 9 between the corrugated board one 5 and the corrugated board two 6, which can enable the high-strength corrugated carton 100 with built-in earthquake resistance to have a certain earthquake resistance ability and also have a certain structural stability during the use of the high-strength corrugated carton 100 with built-in earthquake resistance.

[0026] In this embodiment, when the high-strength corrugated carton 100 with built-in earthquake resistance needs to be used, the object to be loaded is placed inside the high-strength corrugated carton 100 with built-in earthquake resistance, and then the carton folding cover 2 is sealed. When the high-strength corrugated carton 100 with built-in earthquake resistance is in use, the triangular blocks 3 in the double-layer corrugated board 1 can make the high-strength corrugated carton 100 with built-in earthquake resistance have better support and structural stability as a whole, making the high-strength corrugated carton 100 with built-in earthquake resistance very pressure-resistant. At the same time, the Oxford cloth 8 between the corrugated board one 5 and the corrugated board two 6 that make up the double-layer corrugated board 1 can endow the high-strength corrugated carton 100 with built-in earthquake resistance with certain earthquake resistance and buffering performance. When the high-strength corrugated carton 100 with built-in earthquake resistance is scratched by a sharp object during use, the Oxford cloth 8 inside it can play a certain buffering role to prevent the sharp object from directly damaging the object inside the high-strength corrugated carton 100 with built-in earthquake resistance. The structure of the utility model is simple and easy to use. By the combined use of components such as the double-layer corrugated board 1, triangular blocks 3, triangular support rods 4, Oxford cloth 8, earthquake-resistant interlayer 9, and hexagonal rubber filling blocks 10, the high-strength corrugated carton 100 with built-in earthquake resistance can have strong structural strength and can withstand a certain amount of pressure during use. And through the hexagonal rubber filling blocks 10, the high-strength corrugated carton 100 with built-in earthquake resistance can have certain earthquake resistance and buffering performance. Under the action of the hexagonal rubber filling blocks 10, when the high-strength corrugated carton 100 with built-in earthquake resistance is scratched by a sharp object, it can play a certain buffering role to prevent the sharp object from directly damaging the object inside the high-strength corrugated carton 100 with built-in earthquake resistance, thereby effectively improving the use efficiency and stability of the high-strength corrugated carton 100 with built-in earthquake resistance.

[0027] The above content further elaborates on the present utility model in combination with specific implementation manners. It cannot be determined that the specific implementation of the present utility model is only limited to these descriptions. For those of ordinary skill in the technical field to which the present utility model belongs, without departing from the concept of the present utility model, several simple deductions or substitutions can still be made, which should all be regarded as belonging to the protection scope determined by the claims submitted for the present utility model.

Claims

1. A high-hardness corrugated cardboard box for internal earthquake resistance, including a high-strength corrugated cardboard box (100) for internal earthquake resistance, Characterized in that: The high-strength corrugated cardboard box (100) for internal earthquake resistance includes a double-layer corrugated cardboard (1), a cardboard folding cover (2), and a triangular support rod (4). The double-layer corrugated cardboard (1) and the cardboard folding cover (2) are fixedly connected. The triangular support rod (4) is fixedly connected inside the double-layer corrugated cardboard (1). The double-layer corrugated cardboard (1) includes a corrugated cardboard one (5), a corrugated cardboard two (6), an Oxford cloth (8), and a hexagonal rubber filling block (10). The Oxford cloth (8) and the hexagonal rubber filling block (10) are fixedly connected between the corrugated cardboard one (5) and the corrugated cardboard two (6).

2. The high-hardness corrugated cardboard box for internal earthquake resistance according to claim 1, characterized in that: Triangular blocks (3) are arranged at the four corners inside the double-layer corrugated cardboard (1). There are two upper and lower triangular blocks (3). The triangular support rod (4) is arranged between the two triangular blocks (3). The triangular support rod (4) is fixedly connected between the two triangular blocks (3). The whole formed by connecting the triangular blocks (3) and the triangular support rod (4) is fixedly connected at the four corners inside the double-layer corrugated cardboard (1).

3. A high-hardness corrugated cardboard box for internal earthquake resistance according to claim 1, characterized in that: The double-layer corrugated cardboard (1) is composed of a double-layer structure of a corrugated cardboard one (5) and a corrugated cardboard two (6). Corrugated structure blocks (7) are arranged inside both the corrugated cardboard one (5) and the corrugated cardboard two (6). The corrugated structure blocks (7) are fixedly connected inside the corrugated cardboard one (5) and the corrugated cardboard two (6). The corrugated cardboard one (5) and the corrugated cardboard two (6) are symmetrically arranged and fixedly connected between them.

4. A high-hardness corrugated cardboard box for internal earthquake resistance according to claim 3, characterized in that: The Oxford cloth (8) is arranged inside the corrugated cardboard one (5) and the corrugated cardboard two (6). The Oxford cloth (8) is fixedly connected inside the corrugated cardboard one (5) and the corrugated cardboard two (6).

5. A high-hardness corrugated cardboard box for internal earthquake resistance according to claim 4, characterized in that: An earthquake-resistant isolation layer (9) is formed between adjacent corrugated structure blocks (7) between the corrugated cardboard one (5) and the corrugated cardboard two (6). The hexagonal rubber filling block (10) is arranged inside the earthquake-resistant isolation layer (9) between the corrugated cardboard one (5) and the corrugated cardboard two (6). The hexagonal rubber filling block (10) is fixedly filled inside the earthquake-resistant isolation layer (9) between the corrugated cardboard one (5) and the corrugated cardboard two (6).

6. The high-hardness corrugated cardboard box for internal earthquake resistance according to claim 1, characterized in that: The cardboard folding cover (2) is arranged at the upper end of the double-layer corrugated cardboard (1). The cardboard folding cover (2) is fixedly connected at the upper end of the double-layer corrugated cardboard (1).

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