Adaptable multi-size bottle base

Abstract

The utility model discloses a kind of buffer pedestals of adapting multi-size bottle type in packaging technical field, including the abutment base body of outer ring side and outer packaging box, the inner cavity of bottle body is formed by the retraction of base body central position, the above-mentioned base body includes center piece and the plurality of side face stop posts enclosed in the side of center piece, the upper side of center piece and the inner side of plurality of side face stop posts form the above-mentioned inner cavity, any above-mentioned side face stop post outer side is all with outer packaging box abutment, any above-mentioned side face stop post and center piece between are equipped with telescopic belt. The relative position between plurality of side face stop posts is changed by plurality of telescopic members, and then the size value of the inner cavity of base body is changed, so that buffer pedestal can be suitable for more models of bottle body.

Description

Technical Field

[0001] This utility model relates to the field of packaging technology, and in particular to a cushioning base that is adaptable to bottle shapes of various sizes. Background Technology

[0002] A cushioning base is a component placed between the product and its outer packaging to secure and buffer the product, reducing damage during transportation. With the rapid improvement of living standards, people's demand for a sense of ritual and aesthetics is increasing. The packaging of the same product may be adjusted for various holidays and events, and sometimes multiple different packages are produced and launched simultaneously to meet the needs of different aesthetic tastes. Although different products can use the same packaging box, the space between the product and the inner wall of the box will vary in size, causing the product to wobble inside the box.

[0003] Chinese patent application CN 216735459U, entitled "A Novel Bottle Fixing Base," describes a bottle fixing base that uses a bottle connector that matches and locks into the concave bottom of the bottle. The bottle connector securely connects to the bottle, while simultaneously slidingly connecting to the cavity of the fixing base. This allows the bottle to be quickly and securely placed in the base, ensuring greater stability and reliability. However, this design only works for bottles of the same size, requiring custom-made bases for each bottle shape. This results in poor versatility, necessitating factories to stock various models of bases, leading to significant inventory costs. Furthermore, if a particular bottle style is discontinued, the remaining bases become unusable, causing unnecessary losses. Conversely, without stock, large orders cannot be quickly packaged and shipped. Utility Model Content

[0004] To overcome the above-mentioned shortcomings of the prior art, the technical problem to be solved by this utility model is: how to make the buffer base adaptable to more types of wine bottles.

[0005] The technical solution adopted by this utility model to solve its technical problem is: A cushioning base adaptable to multiple bottle sizes includes a base body whose outer ring side abuts against the outer packaging box. The center of the base body is recessed to form an inner cavity for placing the bottle. The base body includes a central component and multiple side posts surrounding the side of the central component. The upper side of the central component and the inner side of the multiple side posts form the inner cavity. The outer side of any of the side posts abuts against the outer packaging box. An elastic band is provided between any of the side posts and the central component.

[0006] Furthermore, the aforementioned telescopic belt has creases along its central axis, and the distances from the creases to the two sides of the telescopic belt are equal.

[0007] Furthermore, when the base body is not in operation, the cross-section of the telescopic belt is semi-circular.

[0008] Furthermore, there are four side pillars, which are right triangular pyramids. The side of the right triangular pyramid closest to the inner cavity is used to fit against the bottle body. The planes of the two sides of the right triangular pyramid away from the inner cavity intersect perpendicularly, and the side edges of the right triangular pyramid have rounded corners.

[0009] Furthermore, the side posts are spaced apart from each other.

[0010] Furthermore, the aforementioned side stop is a hollow structure, and the bottom edge of the side of the side stop near the inner cavity is connected to a first reinforcing rim, which is connected to the aforementioned telescopic belt.

[0011] Furthermore, the aforementioned central component protrudes upward to form a central platform, and the upper side of the central platform is in contact with the bottom surface of the bottle.

[0012] Furthermore, a second reinforcing edging is connected to the bottom edge of the aforementioned central platform ring side, and the second reinforcing edging is fixedly connected to the aforementioned telescopic belt.

[0013] Furthermore, the upper center area of ​​the aforementioned side retaining post is recessed downwards to form a reinforcing groove.

[0014] Furthermore, the side of the aforementioned side stop post near the aforementioned inner cavity is recessed to form a clearance groove. The beneficial effects of this utility model are: The cushioning base has multiple side posts surrounding the central component. The outer surfaces of the side posts fit the outer packaging box, and the inner surfaces of the side posts form an inner cavity. Each side post is connected to the central component by a telescopic strap. By changing the relative positions of the side posts one-to-one through multiple telescopic components, the inner cavity size of the base body can be changed, making the cushioning base suitable for more bottle models. Attached Figure Description

[0015] Figure 1 This is a structural view of the base body in the buffer base that is adapted to multiple bottle sizes according to this utility model; Figure 2 This is a cross-sectional view of the base body in the buffer base adapted to multiple bottle sizes of this utility model; Figure 3 This is one of the structural views of the buffer base of this utility model, which is adapted to multiple bottle shapes, in the working state; Figure 4 yes Figure 3 A cross-sectional view along the JJ direction; Figure 5 This is the second structural view of the buffer base of this utility model, which is adapted to multiple bottle sizes, in the working state; Figure 6 yes Figure 5 A cross-sectional view along the LL direction; Figure 7 This is the third structural view of the buffer base of this utility model, which is adapted to multiple bottle sizes, in the working state; Figure 8 yes Figure 7 A cross-sectional view along the NN direction; The markings in the diagram are as follows: 1-outer packaging box, 2-bottle body, 3-base body, 4-inner cavity, 5-center component, 6-side support post, 7-telescopic belt, 8-crease, 9-rounded corner structure, 10-straight triangular pyramid, 11-center platform, 12-first reinforcing rim, 13-second reinforcing rim, 14-reinforcing groove, 15-relief groove. Detailed Implementation

[0016] The present invention will be further described below with reference to the accompanying drawings.

[0017] like Figures 1-8 As shown, the cushioning base, adaptable to multiple bottle sizes, includes a base body 3 whose outer ring abuts against the outer packaging box 1. The center of the base body 3 is recessed to form an inner cavity 4 for placing the bottle 2. The base body 3 includes a central component 5 and multiple side support posts 6 surrounding the central component 5. The upper side of the central component 5 and the inner sides of the multiple side support posts 6 form the inner cavity 4. The outer side of any of the side support posts 6 abuts against the outer packaging box 1. An elastic band 7 is provided between each of the side support posts 6 and the central component 5. At least two side support posts 6 are required, and adjustments can be made according to actual needs. The central component 5 and multiple side support columns 6 are integrally molded structures. Meanwhile, the base body 3 can be made of paper-plastic (in a broad sense, it refers to various industrial packaging, tableware, agricultural packaging, masks, decorative wall panels and other three-dimensional products made from raw materials such as pulp and straw fiber through a series of processes such as pulping, injection (or suction, scooping), molding, shaping (or shaping), trimming, sorting, disinfection and packaging) or thermoforming (thermoforming is a plastic processing technology that heats flat hard plastic sheets to soften them, then uses vacuum adsorption to adhere them to the surface of a mold, and then cools them to form a solid shape). Both paper-plastic and thermoforming have the characteristics of softness and adaptability, which is what the base body 3 needs.

[0018] like Figures 3-8 As shown, where Figure 3 After the bottle body 2 is packaged, the elastic band 7 is compressed, and the diameter of the bottle body 2 is Da; Figure 5 After bottle 2 is packaged and the elastic band 7 is functioning normally, the diameter of bottle 2 is D; where... Figure 7The diagram shows the bottle body 2 after packaging, with the stretch strap 7 stretched. The diameter of the bottle body 2 is D+a. This corresponds to the three sizes of bottle body 2 shown in the three diagrams above. When packaging bottle body 2, first select a suitable outer packaging box 1, then place the base body 3 inside the outer packaging box 1. There are two scenarios during placement. The first scenario is as follows: Figure 7 In the initial state of the telescopic strap 7, the base body 3 can be directly placed into the outer packaging box 1 and directly reaches the bottom of the inner side of the outer packaging box 1. Then, the person directly inserts the bottle 2 into the inner cavity 4 of the base body at the bottom of the outer packaging box 1. As the bottle 2 enters the inner cavity 4, the side abutments move towards the inner wall of the outer packaging box 1, and the telescopic strap 7 is stretched. After the bottle 2 is installed, the inner sides of the multiple side abutments are in contact with the outer side of the bottle 2, and the outer sides of the multiple side abutments are in contact with the inner wall of the outer packaging box 1. The second situation is as follows, such as Figure 3 Or such as Figure 5When the telescopic belt 7 is in its initial state, the outer dimension of the base body 3 is greater than or equal to the inner dimension of the outer packaging box 1. The base body 3 cannot be directly placed into the outer packaging box 1. Personnel can apply external force to the outer side of the side support posts 6 to push the side support posts 6 towards the central axis of the central component 5. The telescopic belt 7 retracts, the relative positional relationship of the side support posts changes, the size of the inner cavity 4 becomes smaller, and the outer dimension of the base body 3 formed by multiple sides abutting also becomes smaller, making it easier for the base body 3 to be placed into the outer packaging box 1. Once the base body 3 is inside the outer packaging box 1, the force applied to the outer side of the multiple side support posts 6 is removed, and the multiple side support posts 6 move outward under the drive of their corresponding retracting belts. The outer side of the side support posts 6 fits against the inner wall of the outer packaging box 1. At this time, the telescopic belt 7 stops retracting, the size of the inner cavity 4 is fixed, and then it can be moved along the outer packaging box. The base body 3 is pushed along the axis of box 1, causing its bottom to align with the bottom of the outer packaging box 1. Once the base body 3 and outer packaging box 1 are installed, the bottle 2 is placed inside the outer packaging box 1, with its lower side inserted into the inner cavity 4 of the base body 3. As the bottle 2 enters the inner cavity 4, the outer wall of the bottle 2 slightly presses the side abutments against the inner wall of the outer packaging box 1 (this pressing usually originates from dimensional deviations in the bottle 2, side abutments, or outer packaging box 1, and is not excessive. When the dimensions of all components are perfectly matched, this slight pressing force may not be present). At this point, the inner surfaces of the multiple side abutments are more firmly attached to the outer surface of the bottle 2, and the outer surfaces of the multiple side abutments are attached to the outer packaging box 1. Finally, the lid of the outer packaging box 1 is fastened, completing the packaging of the bottle 2. In this design, multiple side baffles 6 are provided on the ring side of the central component 5, and a telescopic belt 7 is provided between the side baffles 6 and the central component 5, so that the positional relationship between the multiple side baffles 6 becomes movable and telescopic, thereby changing the size of the inner cavity 4 formed by the multiple side baffles 6. So that the buffer base can be adapted to more different models (different sizes) of bottles 2 without changing the outer packaging box 1, thereby reducing the inventory cost without affecting the order volume.

[0019] The aforementioned telescopic belt 7 has creases 8 along its central axis, and the distances from the creases 8 to both sides of the telescopic belt 7 are equal. The cross-section of the aforementioned telescopic belt 7 is triangular. In this design, the contraction of the telescopic belt 7 requires less effort.

[0020] When the base body 3 is not in operation, the cross-section of the telescopic belt 7 is semi-circular. In this design, the telescopic belt 7 achieves a certain degree of telescopic effect, while reducing the probability of damage compared to a design where the cross-section of the telescopic belt 7 is triangular.

[0021] The aforementioned side support posts 6 consist of four right triangular pyramids 10. One side of the right triangular pyramid 10 closest to the inner cavity 4 is used to fit against the bottle body 2. The two sides of the right triangular pyramid 10 furthest from the inner cavity 4 intersect perpendicularly. The side edges of the right triangular pyramid 10 have rounded corners 9. This design is suitable for cases where the outer packaging box 1 is a cuboid. The two mutually perpendicular outer sides of the right triangular pyramid 10 fit against the inner wall of the outer packaging box 1. In this design, the triangular pyramid can precisely fit the four corners of the box, and the structure of the triangular pyramid is relatively stable. It can be used to fix the bottle body 2 around its perimeter and also provides lateral cushioning protection for the bottle body 2. The rounded corners 9 on the side edges reduce the probability of scratching installers during installation of the base body 3, and also prevent sharp side edges from scratching the outer packaging box 1.

[0022] Any two side support posts 6 are spaced apart. This design saves material on the base body 3, reducing costs. Preferably, multiple side support posts 6 are spaced evenly. This design is suitable when the outer packaging box 1 is a regular polygon, ensuring even force distribution on the side support posts.

[0023] The aforementioned side support post 6 has a hollow structure. A first reinforcing rim 12 is connected to the bottom edge of the side of the side support post 6 closest to the inner cavity 4. This first reinforcing rim 12 is connected to the aforementioned telescopic belt 7. The addition of the first reinforcing rim 12 increases the contact area between the side support post 6 and the bottom surface of the outer packaging box 1, reducing the pressure transmitted from the base body 3 to the outer packaging box 1. It also enhances the structural strength of the side support post, reducing the probability of it collapsing.

[0024] Preferably, the aforementioned central component 5 protrudes upward to form a central platform 11, and the upper side of the central platform 11 is in contact with the bottom surface of the bottle body 2. The central platform 11 is a hollow structure, and its upper side is in close contact with the bottom surface of the bottle body 2, which can provide a buffering and protective function for the bottom surface of the bottle body 2.

[0025] A second reinforcing rim 13 is connected to the bottom edge of the central platform 11 on its circumferential side, and the second reinforcing rim 13 is fixedly connected to the telescopic belt 7. The second reinforcing rim 13 enhances the compressive strength of the central platform 11, enabling it to better cushion the bottom of the bottle 2.

[0026] The upper center area of ​​the aforementioned side retaining post 6 is recessed downward to form a reinforcing groove 14. The addition of the reinforcing groove 14 can improve the strength of the side retaining post 6 and reduce the probability of it being crushed.

[0027] The side of the aforementioned side retainer 6 near the aforementioned inner cavity 4 is recessed to form a relief groove 15. The relief groove 15 facilitates the placement and removal of the bottle body 2, and can also enhance the strength of the side retainer to a certain extent.

[0028] In summary, the embodiments of this application propose a buffer base that is adaptable to multiple bottle sizes. The base body 3 is changed to a central component 5, multiple telescopic straps 7 and multiple side abutments. The side abutments and telescopic straps 7 are arranged correspondingly. By changing the relative position between the side abutments through the telescopic straps 7, the inner cavity 4 of the base body 3 is changed, so that the buffer base can be adapted to multiple bottle types, thereby reducing the inventory cost.

Claims

1. A cushioning base adaptable to multiple bottle sizes, comprising a base body (3) whose outer ring side abuts against the outer packaging box (1), wherein the center of the base body (3) is recessed to form an inner cavity (4) for placing the bottle (2), characterized in that: The base body (3) includes a central component (5) and a plurality of side posts (6) surrounding the side of the central component (5). The upper side of the central component (5) and the inner side of the plurality of side posts (6) form the inner cavity (4). The outer side of any side post (6) abuts against the outer packaging box (1). A telescopic belt (7) is provided between any side post (6) and the central component (5).

2. The buffer base adaptable to multiple bottle sizes as described in claim 1, characterized in that: The telescopic belt (7) has creases (8) along its central axis, and the distances of the creases (8) from the two sides of the telescopic belt (7) are equal.

3. The buffer base adaptable to multiple bottle sizes as described in claim 1, characterized in that: When the base body (3) is not in operation, the cross-section of the telescopic belt (7) is semi-circular.

4. The buffer base adaptable to multiple bottle sizes as described in claim 1, characterized in that: The number of side baffles (6) is four. The side baffles (6) are straight triangular pyramids (10). The side of the straight triangular pyramid (10) close to the inner cavity (4) is used to fit with the bottle body (2). The planes of the two sides of the straight triangular pyramid (10) away from the inner cavity (4) intersect perpendicularly. The side edges of the straight triangular pyramid (10) are rounded corner structures (9).

5. The buffer base adaptable to multiple bottle sizes as described in claim 4, characterized in that: Any two side retaining posts (6) are spaced apart.

6. The buffer base adaptable to multiple bottle sizes as described in claim 1, characterized in that: The side stop (6) is a hollow structure. The bottom edge of the side of the side stop (6) near the inner cavity (4) is connected to a first reinforcing rim (12), and the first reinforcing rim (12) is connected to the telescopic belt (7).

7. The buffer base adaptable to multiple bottle sizes as described in claim 1, characterized in that: The central component (5) protrudes upward to form a central platform (11), and the upper side of the central platform (11) is used to fit against the bottom surface of the bottle body (2).

8. The buffer base adaptable to multiple bottle sizes as described in claim 7, characterized in that: The bottom edge of the central platform (11) is connected to a second reinforcing rim (13), which is fixedly connected to the telescopic belt (7).

9. The buffer base adaptable to multiple bottle sizes as described in claim 1, characterized in that: The upper end face of the side retainer (6) is recessed in the center area to form a reinforcing groove (14).

10. The buffer base adaptable to multiple bottle sizes as described in claim 1, characterized in that: The side stop (6) is recessed on one side near the inner cavity (4) to form a relief groove (15).

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