KR102311244B1 - Pack object layered bonding system assigned variable data zone for preventing pack object from being arbitrarily moved - Google Patents

Abstract

In a case of the present invention, disclosed is a technical idea which comprises: a compressing layer unit provided to a front side of a plurality of pack objects to restrict the pack objects into a single assembly while insertion power is mutually applied to the pack objects; and a bonding layer unit selectively provide on a back side of the compressing layer unit to bond the assembly of the plurality of objects on the compressing layer unit.

Description

TECHNICAL FIELD [0002] Pack object layered bonding system assigned variable data zone for preventing pack object from being arbitrarily moved}

The present invention relates to a stacking system for constituting an aggregate of pack objects, that is, a pack object, and bonding the aggregate to prevent arbitrary movement. A bonding lamination system with a variable data area allocated so that a data area is allocated so that the bonding lamination system generates a mutually pulling input between the pack objects, but a selective non-bonding section is formed in a portion matching the mutual bonding area is a technical field related to

Recently, plastic packaging materials and aluminum materials have been widely used as packaging materials for food and pharmaceutical products. Among them, polyethylene (PE), polypropylene (PP), polyethylene terephthalate (PET), and polystyrene (PS) are representative plastic materials. As an aluminum material, aluminum foil (AF) is widely used in food packaging in the form of a flexible packaging film. In general, PE is widely used in food packaging because it has excellent water vapor barrier properties, is chemically stable, has high impact strength and is flexible, so it is easy to process. PP has properties similar to PE, but has better transparency, printability, and heat resistance than PE. Because of these properties, it is used as a transparent packaging material for retort foods, and is used for packaging ramen, bread, and confectionery by using moisture-proof and scratch-resistance. PET is chemically stable and has high transparency, strength, cold resistance, and heat resistance, so it is used for retort food and frozen food. It is also used as a packaging material for foods with strong odors such as spices because of its good fragrance barrier properties. PS is a colorless and transparent thermoplastic resin, and has the advantage of being inexpensive and easy to process. Using foaming PS using foaming agent, it is made into container noodles, egg containers, plates, and cold storage containers, and high-impact PS containing rubber materials is used for container packaging of dairy products. Aluminum foil (AF) is light, has strong heat and cold resistance, and has strong light blocking and blocking properties, so it is used for storing food.

"Promotional strips for bundled products (Registration No. 10-2026585, Patent Document 1)" exists.

In the case of the invention according to Patent Document 1, it relates to a promotional belt for a bundle of planned products. According to Patent Document 1, when packaging products sold in bundles, using a strap made of eco-friendly paper, a plurality of milk carton-shaped products are bundled, and vinyl or chemical products made of synthetic resins such as conventional tapes It is possible to minimize the use of plastic bags, replacing the plastic bag-type packaging material used to package products sold in bundles with eco-friendly paper straps, and at the same time minimizing the use of paper when manufacturing the straps to reduce the production cost. can be saved, and the shelf life described on the top of the milk carton can be exposed through a through-hole in the center of the body part of the strap, and a handle can be formed by using the foldable handle formed on the front and rear surfaces of the body part, or promotional stationery A corner advertisement unit or an upper advertisement unit capable of writing a promotional text may be provided, and a corner advertisement unit or an upper advertisement unit capable of writing a plurality of bundled products can be more firmly fixed on a promotional belt for bundled products. it's about

In addition, there is a "tape adhesive device for bundling packs (Registration No. 10-0834927, Patent Document 2)".

In the case of the invention according to Patent Document 2, when it is desired to bundle the pack, it relates to a tape adhesive device for bundling a pack that adheres the tape to both sides of the pack and cuts it by the quantity to be packaged, and for this purpose, the supplied pack A pair of screws with repeated peaks and valleys are installed on both sides of the sorting conveyor in a row, and the pack is supported on the stepped surface formed between the peaks and valleys and moves closely in the straight direction of the screw. A plurality of packs transported by a sorting conveyor and quantified by a screw are continuously transported in a package unit by a package conveyor equipped with a stopper on the upper side, and a tape presser rotating on both sides of the package conveyor removes the tape from the tape roll. The tape is continuously guided to a series of packs that are supplied and transferred in the rotational direction, and guided by a chain that rotates repeatedly at the same speed and in the same direction as the conveyor on both sides of the package conveyor and guides into the arch-shaped guider groove with a return point. It relates to a tape bonding device for pack bundles that cuts the tape with a cutter that reciprocates in the direction of travel and the transverse direction of the chain.

In the case of the conventional packaging technology, in the repackaging of packs, boxes, cases, PET bottles, etc., a technical idea for separate packaging has been constituted, but this is completely prohibited by environmental-related government regulations.

In addition, in packaging bundles, etc., those in the form of wrapping tape around the surface of a pack, box, case, PET bottle, etc. cannot be called a technology, but also damage the quality of the surface of the product or use excessive adhesive force to an unnecessary degree. Due to this, not only is it difficult to separate the product, but also a cutter or the like is used in the separation process between them, causing a risk of safety accidents and even damage to the product.

Registration No. 10-2026585 Registration No. 10-0834927

The bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention has been devised to solve the conventional problems as described above, and presents the following problems to be solved.

First, the aggregate of pack objects is bundled into a single mass without mobilizing a separate packaging product.

Second, in the state of aggregation of pack objects, individual pack objects are fixed without arbitrary movement.

Third, it is possible to arbitrarily separate the pack object aggregates individually, but prevent damage to the packaging of these individual pack objects.

Fourth, do not use a separate tool to separate the pack object assembly.

The problems to be solved of the present invention are not limited to those mentioned above, and other problems not mentioned will be clearly understood by those skilled in the art from the following description.

The bonding stacking system to which the variable data area is allocated for the prevention of arbitrary movement of the pack object assembly according to the present invention has the following problem solving means for the above problem to be solved.

In the case of a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, the pack is provided in front of a plurality of pack objects, and the pack object is in a state in which a pull input is applied to each other. a compression layer unit for constraining an object into a single aggregate; and a bonding layer part selectively provided on the rear surface of the compression layer part to adhere the aggregate of the plurality of objects to the compression layer part.

In the bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, the compression layer unit may include a first variable data area corresponding to an area in which the plurality of pack objects are in contact with each other. It may be characterized in that it comprises a.

In the case of the bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, the bonding layer part is selectively removed from the first variable data area, so that the plurality of pack objects are mutually It may be characterized in that it includes an eliminating unit for preventing mutual bonding of the contacted regions.

In the case of the bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, the compression layer part is formed along the first variable data area, and the depth of the compression layer part ( depth) may be characterized by further comprising a partial slit portion selectively penetrating.

In the case of a bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, the compression layer part is arbitrarily divided by a user along the partial slit part, the plurality of pack objects It may be characterized in that each is selectively separated.

In the case of the bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of the pack object assembly according to the present invention, it is formed in the virtual outline provided on the front surface of the compression layer part, and the wavelength band of the incident electromagnetic wave is selectively selected. It may be characterized by further comprising a dissun layer that absorbs or reflects.

In the case of a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, a covering layer part that selectively covers the front surface of the compression layer part to prevent arbitrary division of the covering layer part ; and a sticky layer portion formed on a rear surface of the covering layer portion and configured to adhere the covering layer portion on a front surface of the compression layer portion.

In the case of the bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, a second variable data area selectively formed at the edge of the covering layer and the covering layer is provided. It may be characterized by including.

In the case of the bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, the sticky layer part is selectively removed from the second variable data area, and is separated from the back surface of the covering layer part It may be characterized in that it includes a variable bending region forming a non-adhesive section.

The bonding stacking system to which the variable data area is allocated for preventing arbitrary movement of the pack object assembly according to the present invention having the above configuration provides the following effects.

First, mutual input is applied and fixed to the pack object aggregate, thereby preventing arbitrary movement of these individual pack objects.

Second, by allocating a variable data area to the contact portion of the pack object aggregate, arbitrary bonding between pack objects is prevented.

Third, a partial slit part is arbitrarily created in the variable data area of the pack object assembly, so that the pack object can be selectively separated from each other without the user using a tool.

Effects of the present invention are not limited to those mentioned above, and other effects not mentioned will be clearly understood by those skilled in the art from the following description.

1 is a front view illustrating that an input input is applied to an aggregate of pack objects for applying a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of an aggregate of pack objects according to an embodiment of the present invention.
FIG. 2 is a front view and a partial view showing that a pull input is applied to a group of pack objects for applying a bonding stacking system to which a variable data area is allocated, for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention; FIG. is an enlarged view.
3 is a side view illustrating that a compression layer unit is applied to a pack object assembly in a bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention.
4 is a side view of a compression layer unit and a bonding layer unit of a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention.
FIG. 5 is a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention. It is a side view and a front view.
6 shows the compression layer part, the bonding layer part, and the dissun layer part of the bonding stacking system to which the variable data area is allocated for the prevention of arbitrary movement of the pack object assembly according to an embodiment of the present invention. It is a side view showing the applied.
7 is a side view illustrating a stacking structure of a covering layer part in a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention.
8 is a side view illustrating stacking a covering layer part on a compression layer part in a bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention.
9 is a case in which the covering layer part is laminated on the compression layer part according to the bonding lamination system to which the variable data area is allocated for the prevention of arbitrary movement of the pack object assembly according to an embodiment of the present invention is applied to the pack object assembly. It is a side view shown.
10 is a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object aggregate according to an embodiment of the present invention is arranged in the center of the front of the pack object according to the top, bottom, left, and right stacking of the pack object; One example.
11 is an example illustrating another form of a partial slit portion on a compression layer portion in a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention.
12 is an example illustrating that a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly is formed by winding around a pack object according to an embodiment of the present invention.

The bonding lamination system to which the variable data area is allocated for the prevention of arbitrary movement of the pack object assembly according to the present invention can have various changes and can have various embodiments, specific embodiments are illustrated in the drawings and detailed description to be explained in detail. However, this is not intended to limit the present invention to a specific embodiment, it should be understood to include all modifications, equivalents and substitutes included in the spirit and scope of the present invention.

1 is a front view illustrating that an input input is applied to a group of pack objects for applying a bonding stacking system to which a variable data area is allocated, for preventing arbitrary movement of a group of pack objects according to an embodiment of the present invention. 2 is a front view and a partial view showing that a pull input is applied to a group of pack objects for applying a bonding stacking system to which a variable data area is allocated, for preventing arbitrary movement of a pack object group according to an embodiment of the present invention; is an enlarged view. 3 is a side view illustrating that a compression layer unit is applied to a pack object assembly in a bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention. 4 is a side view of a compression layer unit and a bonding layer unit of a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention. 5 is a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention It is a side view and a front view. 6 is a view showing the compression layer part, the bonding layer part, and the dissun layer part of the bonding stacking system to which the variable data area is allocated for the prevention of arbitrary movement of the pack object assembly according to an embodiment of the present invention. It is a side view showing the application. 7 is a side view illustrating a stacking structure of a covering layer part in a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention. 8 is a side view illustrating stacking a covering layer part on a compression layer part in a bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention. 9 is a case in which the covering layer part is laminated on the compression layer part according to the bonding lamination system to which the variable data area is allocated for the prevention of arbitrary movement of the pack object assembly according to an embodiment of the present invention is applied to the pack object assembly It is a side view shown. 10 is a bonding lamination system to which a variable data area is allocated for preventing arbitrary movement of a pack object aggregate according to an embodiment of the present invention is disposed in the center of the front of the pack object according to the stacking of the pack objects One example. 11 is an example illustrating another form of a partial slit portion on a compression layer portion in a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to an embodiment of the present invention. 12 is an example illustrating that a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly is formed by winding around a pack object according to an embodiment of the present invention.

In the case of a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object aggregate according to the present invention, as shown in FIG. 1, an aggregate of pack objects 1 is constituted, and the pack object ( 1) In the state in which the mutual input (f) is generated, the technical idea of binding them is disclosed.

The pack object 1 may have a shape of a hexahedron or a polyhedron, and it is made in the form of a pack, and it is premised that a plurality of products and articles are accommodated or packaged in a pack inside the pack.

The outer surface of the pack object 1 may be made of a material such as vinyl, synthetic resin, PET, or PP, and the inside of the pack object 1 may be filled with a certain amount of air or other gas together with the product.

As shown in FIG. 2 , the plurality of pack objects 1 are arranged so that one surface is in contact with each other, and in this state, the technical idea of binding as shown in FIG. 3 is disclosed in a state in which a mutual pulling input is generated.

As shown in Figure 2, a plurality of pack objects (1) may be arranged so that both sides thereof face each other, the width of the pack object (1) may correspond to 2L, half of this width, that is, L is a plurality of pack objects (1) facing each other to form an assembly, and in a state in which a forced pulling force is applied, the width is reduced by a certain distance, that is, L-L', so that the pack object (1) inside gas or air A certain amount of expansion force is used.

In the case of a bonding stacking system to which a variable data area is allocated for preventing arbitrary movement of a pack object assembly according to the present invention, as shown in FIGS. 3 and 4 , a compression layer unit 110 and a bonding layer It may include a (bonding layer) unit 120 .

First, as described above, the compression layer unit 110 performs a body function that binds the plurality of pack objects 1 to each other in a state in which a compressing force (F) is applied to each other.

In addition, in the case of the bonding layer unit 120 , it is selectively provided on the rear surface of the compression layer unit 110 , and is configured to bond the aggregate of a plurality of objects 1 to the compression layer unit 110 .

More preferably, as shown in FIGS. 3 and 4 , the compression layer unit 110 preferably includes the first variable data area 111 .

The first variable data area 111 corresponds to an area corresponding to an area in which a plurality of pack objects 1 are in contact with each other, and this area corresponds to the degree of mutual restraint of the pack object 1 and thus the pack object 1 . Due to the curvature on the corner portion of , and the pack object 1 joined laterally, the front surface of the pack object 1 can be variably set according to the degree to which they are spaced apart from each other.

As will be described later, the variable data area 111 prevents the bonding layer unit 120 from being present, thereby preventing a potential for arbitrary adhesion between the pack objects 1 in a restrained state. .

4 , the bonding layer unit 120 may include an eliminating unit 121 .

In the case of the eliminating unit 121 , as a section matching the first variable data area 111 , it is selectively removed through a cutter 2 , etc., so that a plurality of pack objects 1 are in contact with each other. This prevents the bonding phenomenon between each other.

As shown in FIG. 4 , a non-adhesive area part 113 may be selectively processed on the lower surface of the bonding layer part 120 .

Through this, in the bonding layer unit 120 , the eliminating unit 121 or the non-adhesive area unit 113 forms a step by a predetermined thickness with the thickness of the existing bonding layer unit 120 , while the pack object 1 ), a region that is not bonded to may be selectively present.

4 , 5 and 6 , the compression layer unit 110 may further include a partial slit unit 112 .

The partial slit unit 112 is formed along the length direction of the first variable data area 111 in the first variable data area 111 and selectively penetrates the depth of the compression layer unit 110 . am.

The partial slit part 112 may penetrate a predetermined depth from the surface of the compression layer part 110 through the cutter 2 or the like, and may have a thinner thickness than the general compression layer part 110 .

In addition, the partial slit portion 112 through the cutter (2) or the like through the compression layer portion 110 by a point unit or by a length of about 0.x mm to 1mm, the opening and the section that does not can be formed repeatedly. may be

Accordingly, when the compression layer unit 110 is arbitrarily divided by the user along the partial slit unit 112 , the plurality of pack objects 1 may be selectively separated from each other.

As shown in FIG. 5 , in the case of the bonding stacking system to which the variable data area is allocated to prevent arbitrary movement of the pack object assembly according to the present invention, a discern layer unit 130 may be further included. have.

In the case of the dissipation layer unit 130 , it is formed in the virtual outline 131 provided on the front surface of the compression layer unit 110 to selectively absorb or reflect a wavelength band of an incident electromagnetic wave.

The virtual outline 131 refers to a line that is not visually observed on the surface of the compression layer unit 110 , but the outline is consequently revealed along with the formation of the dis line layer unit 130 .

The virtual outline 131 may appear as an outline of one printed layer formed by spraying the dis line layer unit 110 in the form of particles with a nozzle (not shown). 130) can be arbitrarily formed virtually through the programmed code for the formation of course. Although it is illustrated in the form of a rectangle in FIG. 5, of course, it may appear variably in the form of characters, figures, or the like.

In the case of the bonding stacking system to which the variable data area is allocated for preventing arbitrary movement of the pack object assembly according to the present invention, as shown in FIGS. 7 to 9, a covering layer unit 210 and a sticky layer ( A sticky layer) unit 220 may be further included.

In the case of the covering layer unit 210 , it is configured to selectively cover the front surface of the compression layer unit 110 to prevent arbitrary division of the covering layer unit 210 .

As described above, the compression layer unit 110 can be arbitrarily divided by the user by the partial slit unit 112. When the covering layer unit 210 is seated on the compression layer unit 110, The compression layer unit 110 is no longer arbitrarily divided by the user.

In the case of the sticky layer part 220 , it is formed on the rear surface of the covering layer part 210 , and is configured such that the covering layer part 210 is adhered to the front surface of the compression layer part 110 .

As described above, the compression layer unit 110 is a configuration in which the aggregate of the pack object 1 is adhered, whereas the covering layer unit 210 adheres to the compression layer unit 110, that is, arbitrarily removable. It is configured to be detachable a plurality of times so that it is possible. Of course, the covering layer unit 210 may be discarded once the user removes it.

As described above, the covering layer unit 210 may be arbitrarily removed from the front surface of the compression layer unit 110 . In this case, in the process of the user selectively removing only the covering layer unit 210, the compression layer unit 110 and the pack object ( 1) By forming the bonding force to be stronger, the compression layer unit 110 does not arbitrarily detach when the covering layer unit 210 is arbitrarily removed.

The covering layer unit 210 includes a second variable data area 211 selectively formed at an edge of the covering layer unit 210 as shown in FIG. 7 .

In the case of the second variable data area 211 , a user's grip is provided for arbitrary removal of the covering layer unit 210 , and functions to facilitate arbitrary removal by the user.

Accordingly, as shown in FIGS. 8 and 9 , the sticky layer part 220 may further include a variable bending region 221 .

As described above, the variable bending area 221 is selectively removed from the second variable data area 211 to form a non-adhesive section with the back surface of the covering layer part 210 .

The scope of the present invention is determined by the matters described in the claims, and parentheses used in the claims are not described for selective limitation, but are used for clear components, and descriptions in parentheses are also interpreted as essential components. should be

L: half range
L': Compressed range
1: Pack object
2: Cutter
110: compression layer unit
111: first variable data area
112: partial slit portion
113: non-adhesive area portion
120: bonding layer portion
121: eliminating unit
130: Dissun layer portion
131: virtual outline
210: covering layer part
211: second variable data area
220: sticky layer part
221: variable bending area

Claims (9)

a compression layer unit provided in front of a plurality of pack objects to bind the pack objects into a single aggregate in a state in which an input input is applied between the pack objects; and
and a bonding layer portion selectively provided on the rear surface of the compression layer portion to adhere the aggregate of the plurality of objects to the compression layer portion.
According to claim 1, wherein the compression layer portion,
and a first variable data area selectively corresponding to an area in which the plurality of pack objects are in contact with each other.
According to claim 2, wherein the compression layer portion,
The bonding lamination system according to claim 1, further comprising a partial slit formed along the first variable data area and selectively penetrating a depth of the compression layer.
According to claim 3, The compression layer portion,
When the user divides arbitrarily along the partial slit portion, the bonding stacking system, characterized in that the plurality of pack objects are selectively separated from each other.
The method of claim 2, wherein the system comprises:
Formed in a virtual out line provided in the compression layer portion, the bonding lamination system, characterized in that it further comprises a dis-line layer portion that selectively absorbs or reflects a wavelength band of an incident electromagnetic wave.
4. The method of claim 3, wherein the system comprises:
a covering layer part selectively covering the front surface of the compression layer part to prevent arbitrary division of the compression layer part; and
The bonding lamination system, characterized in that it further comprises a sticky layer portion formed on the rear surface of the covering layer portion, so that the covering layer portion is adhered to the front surface of the compression layer portion.
The method of claim 6, wherein the covering layer portion,
The bonding lamination system, characterized in that the adhesive force acting on the lower sticky layer part and the compression layer part at the bottom of the covering layer part is formed to be different from the adhesive force acting on the compression layer part and the pack object on the upper part.
7. The method of claim 6, wherein the system comprises:
Formed in the virtual outline provided in the covering layer portion, the bonding lamination system, characterized in that it further comprises a dis-wire layer portion that selectively absorbs or reflects a wavelength band of an incident electromagnetic wave.
According to claim 2, wherein the bonding layer portion,
Forming a predetermined step different from the thickness of the bonding layer portion, characterized in that selectively forming a section in which the adhesive strength of the bonding layer portion is partially different, the bonding lamination system.

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