KR102104819B1 - Container bag with antistatic function - Google Patents

Abstract

The present invention provides a container bag with an antistatic function which can suppress static electricity in an accommodation space while accommodating powder. The container bag with an antistatic function comprises: a container body including a side plate unit being made of a fiber material to form a housing-type accommodation space and forming a side of the accommodation space, an upper plate unit coupled to the upper end of the side plate unit to form the upper surface of the accommodation space and form an injection pipe unit to inject contents thereinto, and a lower plate unit coupled to the lower end of the side plate unit to form the bottom surface of the accommodation space and form a discharge pipe unit to discharge contents; a lifting loop fixed on the side plate unit making up the container body to provide a lifting portion of the container; a plurality of one-way conductive yarns woven at equal intervals on the side plate unit, the upper plate unit, the injection pipe unit, the lower plate unit, and the discharge pipe unit making up the container body to provide a moving path of electric charges, and extended only in one direction; and a conduction unit to allow the one-way conductive yarns to conduct electricity and allow the side plate unit, the upper plate unit, the injection pipe unit, the lower plate unit, and the discharge pipe unit to conduct electricity.

Description

Container bag with antistatic function {CONTAINER BAG WITH ANTISTATIC FUNCTION}

Embodiments disclosed herein relates to a container bag having an antistatic function, and relates to a container bag having an antistatic function capable of suppressing the generation of static electricity in a receiving space while receiving powder.

In general, the container bag (container bag) is also called a flexible intermediate bulk container (FIBC), a big bag (bulk), bulk bag (bulk), for storing and transporting and storing powders such as grains or synthetic resin materials As a bag, a flexible material is used to facilitate the storage and extraction of the powder.

When such a container bag contains a material vulnerable to static electricity, sparks are generated while being easily charged during transportation, and thus a safety accident such as dust explosion may occur.

In order to prevent an accident caused by the above-described charging, a technology capable of preventing the charging has been developed by arranging a conductive seal on a wall forming the container bag.

As one of the conventional container bags, there is a technology that allows conductive yarns to be all energized through a lattice structure by arranging the conductive yarns on the walls of the bag in a lattice form.

In the container bag of the lattice structure according to the prior art, conductive yarns can be easily energized to each other, but there is a problem in that manufacturing costs increase because the conductive yarns must be provided in the horizontal and vertical directions of each wall.

In addition, the container bag according to the prior art is attached to the conductive film along the edges forming the connecting portion between the walls in order to conduct the conductive seals of the walls to each other.

Here, the conductive film is expensive as it is made of a carbon material or a metal material having a predetermined width, and when attached to the entire edge of the container bag, there is a problem of increasing the manufacturing cost of the product.

Looking at the flexible container disclosed in Korean Patent Application Publication No. 10-2002-0083152, which is related to the prior art document, a conductive filament is provided on the body, and a conductive band-shaped body is attached to the entire edge of the body in the circumferential direction. There is a problem that the cost increases.

On the other hand, a label must be attached to the container bag, and such a label must also be manufactured to meet the conductive standards to satisfy the test criteria of the container bag.

To this end, the existing label was made of a conductive film made of a special material, or printed with electronic ink on a non-conductive film.

However, when the label is made of a conductive film made of a special material, there is a problem that it takes a high cost, and when the label is produced by printing with an electronic ink on a non-conductive film, the printing process of the electronic ink is cumbersome and difficult, which requires a lot of production time. There is this.

Therefore, a technique for solving the above-described problems is needed.

On the other hand, the above-mentioned background technology is the technical information acquired by the inventor for the derivation of the present invention or acquired in the derivation process of the present invention, and is not necessarily a known technology disclosed to the general public before filing the present invention. .

Embodiments disclosed in the present specification can prevent charging by arranging a conductive wire providing a movement path of electric charges in the container body, and in particular, can conduct conductive wires smoothly while forming the conductive wire in only one direction, not a lattice structure. The purpose is to present a container bag having an antistatic function.

In particular, the embodiments disclosed herein have an object to provide a container bag having an antistatic function capable of energizing conductive yarns of the container body without attaching a conductive film to the entire edge of the container body.

 In addition, the embodiments disclosed herein are intended to present a container bag having an antistatic function that can be provided with a label that meets a conductive criterion at low cost.

As a technical means for achieving the above-described technical problem, according to an embodiment of a container bag having an antistatic function, it is formed of a fiber material to form a housing-shaped receiving space, and a side plate portion forming a side surface of the receiving space, It is coupled to the upper end of the side plate portion forming the upper surface of the receiving space while forming the upper portion of the receiving space, the lower plate is coupled to the lower side of the side plate portion to form a bottom surface of the receiving space, the discharge pipe portion is discharged contents are formed A container body including parts; A lifting ring fixed to the side plate constituting the container body to provide a lifting portion of the container; The side plate portion, the top plate portion, the injection pipe portion, the bottom plate portion and the discharge pipe portion constituting the container body are woven at equal intervals while providing a plurality of movement paths of electric charges existing in the receiving space, but in one direction. One-way conductor that extends only; And it may include a conductive portion for energizing the side plate portion, the top plate portion, the injection pipe portion, the lower plate portion and the discharge pipe portion constituting the container body while energizing the one-way conductive.

In addition, as a technical means for achieving the above-described technical problem, the energizing portion is woven along the connecting portion of the top plate portion and the injection pipe portion, and is woven in a form crossing one-way conductors of the injection pipe portion so that the injection pipe portion An injection tube through which one-way conductors of the upper plate part corresponding to the diameter and one-way conductors of the injection tube part are energized; As it is woven along the connection portion of the lower plate portion and the discharge pipe portion, it is woven in a form that crosses the one-way conductive portions of the discharge pipe portion, and is unidirectional conductors of the lower plate portion corresponding to the diameter of the discharge pipe portion and one-way conductors of the discharge pipe portion Discharge through warrior to energize; One-way conductors and the discharge of the upper plate portion which is provided in the form of an angle on the connecting portion of the upper plate portion and the side plate portion forming the vertex of the receiving space, and the connecting portion of the lower plate portion and the side plate portion, respectively, located on the outer side of the injection pipe portion An angle-conducting film that energizes the one-way conductive parts of the lower plate part located on the outer side of the tube part with the one-way conductive parts of the side plate part, respectively; And it may include a side plate conduction that connects each of the adjacent angle conduction films of the angle conduction film while conducting the one-way conduction of the side plate portion with the angle conduction film.

Further, as a technical means for achieving the above-described technical problem, the angle-conducting film may be connected to the one-way conductor located at the outermost of the one-way conductors of the upper plate portion corresponding to the diameter of the injection pipe portion.

In addition, as a technical means for achieving the above-described technical problem, the energizing portion, while forming a fixed portion of the lifting ring is connected to each of the angle energizing film, each additional energizing film to expand the energizing range of the angle energizing film further It can contain.

In addition, as a technical means for achieving the above-described technical problem, the energizing portion is woven along the connecting portion of the top plate portion and the injection pipe portion, and is woven in a form crossing one-way conductors of the injection pipe portion so that the injection pipe portion An injection tube through which one-way conductors of the upper plate part corresponding to the diameter and one-way conductors of the injection tube part are energized; As it is woven along the connection portion of the lower plate portion and the discharge pipe portion, it is woven in a form that crosses the one-way conductive portions of the discharge pipe portion, and is unidirectional conductors of the lower plate portion corresponding to the diameter of the discharge pipe portion and one-way conductors of the discharge pipe portion Discharge through warrior to energize; A corner energizing film which is respectively provided on a corner forming a connecting portion of the upper plate portion and the side plate portion and a corner forming a connecting portion of the lower plate portion and the side plate portion to energize the one-way conductors corresponding to a length; A side plate energizing member which connects one of the edge energizing films adjacent to each other among the edge energizing films and energizes the one-way conductive parts of the side plate part with the edge energizing film; A top plate conduction yarn that is woven into the top plate portion and connects the corner energizing films while traversing the one-way conductors of the top plate portion; And it may be woven to the lower plate portion includes a lower plate through the transverse one-way conductors of the lower plate portion to connect the corner conductive films.

In addition, as a technical means for achieving the above-described technical problem, the upper plate and the lower plate, the upper plate and the lower plate are respectively woven into the upper plate portion and the lower plate portion while forming any one of a shape of a rhombus, a circle, a square, and a polygon. Each of the corner energizing films adjacent to each other may be connected.

In addition, as a technical means for achieving the above-described technical problem, the one-way conductor may be formed only in the longitudinal direction based on the side plate portion.

In addition, as a technical means for achieving the above-described technical problem, a container bag having an antistatic function is attached to one surface of the container body to provide a printing surface, and the conductive label is woven at equal intervals while forming a plurality of one-way conductors. ; And attaching the conductive label to one surface of the container body, while being woven on one surface of the container body in a form that crosses the one-way conductors of the conductive label, one-way conductors of one surface of the container body and one-way conductors of the conductive label. A conductive sewing thread that conducts electricity may be further included.

According to the above-described problem solving means, since the conductive wires provided in the side plate portion, the top plate portion, the injection pipe portion, the bottom plate portion, and the discharge pipe portion constituting the container body are provided in only one direction and can be energized through the energizing portion, compared with the grid structure of the conductive wire. It is possible to present a container bag having an antistatic function capable of significantly lowering the manufacturing cost of a product.

In particular, according to the above-described problem solving means, the angle energizing film constituting the energizing part is provided only at the apex of the container body, so that the one-way conductors can be energized through the configuration of the injecting through-transmission, the discharge through-transfer and the side plate through It is possible to present a container bag having an antistatic function capable of significantly reducing the consumption of the energizing film when manufacturing the product.

In addition, according to the above-described problem solving means, when the additional energizing film provided on the fixing portion of the lifting ring is connected to the angle energizing film, the range of the energizing of the angle energizing film is extended, thereby providing an antistatic function that enables more stable grounding. Container bag to have can be presented.

In addition, according to the above-described problem solving means, when the energizing portion is composed of a corner energizing film and connected through side plate conducting and upper plate conducting and lower panel energizing, the one-way conductors can be energized while the energizing film is provided only on a corner of the container body. It is possible to present a container bag having an antistatic function.

In addition, according to the above-described problem solving means, a container bag having an antistatic function capable of saving consumption of an electrician by presenting a short-distance connection of an edge conductive film through various forms of an upper plate and a lower plate is provided. You can.

In addition, according to the above-described problem solving means, the conductive label can be energized with the container bag by attaching the conductive label with one-way conductive conductive thread, so that the container bag has an antistatic function that can meet the conductive test standards at low cost. Can be presented.

Effects obtained in the disclosed embodiments are not limited to the above-mentioned effects, and other effects not mentioned are apparent to those skilled in the art to which the embodiments disclosed from the following description belong. It can be understood.

1 is a perspective view showing a container bag having an antistatic function according to an embodiment.
2 is a bottom perspective view showing a container bag having an antistatic function according to an embodiment.
3 is a plan view showing a container bag having an antistatic function according to an embodiment.
4 is a perspective view showing a container bag having an antistatic function according to another embodiment.
5 is a bottom perspective view showing a container bag having an antistatic function according to another embodiment.
6 is a plan view showing a container bag having an antistatic function according to another embodiment.
7 is a perspective view showing a container bag having an antistatic function with a conductive label attached.

Hereinafter, various embodiments will be described in detail with reference to the accompanying drawings. The embodiments described below may be embodied in various different forms. In order to more clearly describe the features of the embodiments, detailed descriptions of the matters well known to those skilled in the art to which the following embodiments pertain are omitted. In the drawings, parts irrelevant to the description of the embodiments are omitted, and like reference numerals are assigned to similar parts throughout the specification.

Throughout the specification, when a configuration is said to be "connected" to another configuration, this includes not only a case of being 'directly connected', but also a case of being connected with another configuration in between. In addition, when a configuration is said to "include" a configuration, this means that unless otherwise stated, other configurations may be excluded and other configurations may be further included.

1 is a perspective view showing a container bag having an antistatic function according to an embodiment, FIG. 2 is a bottom perspective view showing a container bag having an antistatic function according to an embodiment, and FIG. 3 is an electrification according to an embodiment It is a top view showing a container bag having a preventive function. In addition, Figure 4 is a perspective view showing a container bag having an antistatic function according to another embodiment, Figure 5 is a bottom perspective view showing a container bag having an antistatic function according to another embodiment, Figure 6 is another embodiment It is a plan view showing a container bag having an antistatic function. In addition, Figure 7 is a perspective view showing a container bag having an antistatic function with a conductive label attached.

A container bag having an antistatic function according to an embodiment includes a container body 100, a lifting hook 200, a one-way conductor 300, and an energizing part 400 as shown in FIGS. 1 and 2. Can be configured.

The container body 100 is a component that receives contents for transportation or storage.

Here, the contents accommodated in the container body 100 are small in unit particles such as chemicals, minerals, grains, plastics, cement, etc., but need to move a large amount at a time. It may be a substance.

The container body 100 may be formed of a housing-like receiving space while being woven from natural or synthetic fiber materials, and more specifically, to the side plate portion 110, the top plate portion 120, and the bottom plate portion 140. It can be fixed to each other to form a housing-shaped receiving space.

The side plate portion 110 forms a side surface of the accommodation space and is provided in a quantity corresponding to the shape of the accommodation space and can be fixed to each other.

For example, as shown in FIG. 1, when the container body 100 forms an accommodating space of a rectangular parallelepiped, as shown in FIG. 1, four side plates 110 are fixed to each other to form a side surface of the accommodating space.

These side plate portions 110 may be prevented from leaking the contents of the receiving space to the outside by applying a coating layer on the inner side or the outer side.

Here, the side plate portions 110 and the upper plate portion 120 and the lower plate portion 140, which will be described later, may be connected while being fixed to each other by, for example, sewing, and more specifically, after forming a seam allowance at each end of each plate, By being sewn with a sewing thread while the seam allowances are in contact with each other, each plate can be fixed while being connected.

In addition, the side plate portions 110 and the top plate portion 120 and the bottom plate portion 140, which will be described later, may be fixed while being connected in any manner known in the container bag field.

Meanwhile, a conductive cord yarn may be added to the sewing portion of the container body 100 according to the contents. The conductive cord yarn can be prevented from leaking the contents to the sewing part, for example, when the powder is accommodated in the container body 100 while being added in a padding form to the sewing part.

The upper plate portion 120 forms an upper surface of the receiving space, and is fixed to the upper end of the side plate portion 110 and a tubular injection tube portion 130 for introducing contents into the receiving space may be provided at the center.

The upper plate portion 120 may be formed of the same material as the side plate portion 110, and the inner or outer coating layer may be applied to prevent the contents of the receiving space from leaking to the outside.

Here, the injection tube portion 130 may be formed of the same material as the top plate portion 120 and fixed to the center of the top plate portion 120, or may be formed of a material having flexibility than the top plate portion 120.

In addition, the injection tube 130 is provided with a non-illustrated drawstring to shield the accommodation space while the opening is tightened by the user.

The lower plate 140 forms a bottom surface of the receiving space as shown in FIG. 2, and is fixed at the lower end of the side plate 110 and is a tubular discharge pipe for discharging contents contained in the receiving space to the outside ( 150) may be provided in the center.

The lower plate portion 140 may be formed of the same material as the side plate portion 110, and the inner or outer coating layer may be applied to prevent the contents of the receiving space from flowing out.

The discharge pipe portion 150 may be formed of the same material as the lower plate portion 140 and fixed to the center of the lower plate portion 140, or may be formed of a material having flexibility than the lower plate portion 140.

In addition, the discharge pipe portion 150 is provided with a drawstring not shown can be opened or closed by the user to shield the receiving space or discharge the contents of the receiving space to the outside.

The lifting hook 200 is a component that provides a lifting portion for the transfer of the container body 100 by an external device such as a crane.

The lifting hook 200 may be formed in a belt shape having a higher rigidity than the container body 100, it is composed of a plurality of both ends can be fixed to the upper end of the container body 100.

Specifically, the lifting ring 200 may be fixed to the vertex portion of the container body 100, as shown in Figure 1, both ends are fixed to each side plate portion 110 adjacent to each other at the vertex portion, the ring shape Can be achieved.

The one-way conductor 300 is a component that prevents sparking due to static electricity by providing a path for electric charges existing in the receiving space of the container body 100 to prevent charging.

Here, the one-way conductive 300 may be formed of, for example, a conductive metal material, or may be composed of synthetic fibers having conductivity.

The one-way conductive 300 is a plurality of side plates 110, top plate 120, injection pipe 130, bottom plate 140 and discharge pipe 150 constituting the container body 100, respectively, etc. It can be woven at intervals to provide a path of charge transfer.

Here, the one-way conductive 300 may be formed to extend only in one direction, not a lattice structure as shown in FIGS. 1 and 2.

That is, the one-way conductive 300 may be formed to extend only in the vertical direction based on the side plate 110, and the one-way conductive 300 formed on the upper plate 120 and the lower plate 140 may face each other. A pair of side plate portions 110 may be formed to extend in a direction corresponding to the one-way conductor 300 formed on a pair of side plate portions 110.

In addition, the one-way conductors 300 formed in the injection pipe portion 130 and the discharge pipe portion 150 may be disposed at equal intervals while being extended in the horizontal direction.

The energizing part 400 is a side plate part 110, an upper plate part 120, an injection pipe part 130, a lower plate part 140, and a discharge pipe part constituting the container body 100 by energizing the one-way conductors 300. 150) is a component that prevents electrification by energizing.

For example, the energizing part 400 may be configured to include an injection through-transfer 410, an exhaust through-transfer 420, an angle through-film 430, and a side plate through-440 as shown in FIGS. 1 and 2. You can.

The injection through-transfer 410 is a component that energizes a portion of the one-way conductive 300 formed in the upper plate portion 120 at the same time, and simultaneously energizes the one-way conductive 300 formed in the injection pipe 130.

Specifically, the injection through-transfer 410 is made of a conductive metal material or synthetic fiber and is woven along the connecting portion of the top plate 120 and the injection tube 130, while the one-way conductive 300 of the injection tube 130 It can be woven in a transverse fashion. Accordingly, the injection through-transfer 410 conducts the one-way conductive 300 of the top plate 120 corresponding to the diameter of the injection-tube portion 130 to each other, and the one-way conductive 300 of the top plate 120 One-way conductive 300 of the injection tube 130 may be energized.

The discharge through-transfer 420 is a component that energizes a portion of the one-way conductive 300 formed in the lower plate 140 at the same time as it conducts electricity with the one-way conductive 300 formed in the discharge pipe 150.

Specifically, the discharge through-transfer 420 is made of a conductive metal material or synthetic fiber and is woven along the connecting portion of the lower plate 140 and the discharge pipe 150, while the one-way conductive 300 of the discharge pipe 150 It can be woven in the form of crossing them. Accordingly, the discharge through-transfer 420, the one-way conductive 300 of the lower plate portion 140 corresponding to the diameter of the discharge pipe portion 150, as well as energizing each other, one-way conductive plate 300 of the lower plate 140 ) Can be energized with the one-way conductors 300 of the discharge pipe part 150.

The angle-conducting film 430 simultaneously energizes the one-way conductors 300 located on the outer side of the injection pipe part 130 and the one-way conductors 300 located on the outer side of the discharge pipe part 130 at the same time while energizing each other. It is a component that energizes the one-way conductors 300 of 110).

Specifically, the angle-conducting film 430 may be formed of a conductive carbon material or a metal material film to form a ground portion of the container body 100, and a receiving space, that is, a side plate forming a vertex of the container body 100. Each of the connection portion of the 110 and the upper plate portion 120 and the connecting portion of the side plate portion 110 and the lower plate portion 140 may be attached in an angle form.

That is, the angle-conducting film 430 is formed in a film form having a predetermined width and attached to each apex portion of the container body 100 to discharge and discharge the one-way conductors 300 located at the outer portion of the injection tube 130. The one-way conductors 300 located on the outer side of the tube 130 may be energized to each other. At the same time, the angle-conducting film 430 includes one-way conductors 300 located on the outer side of the injection pipe unit 130 and one-way conductors 300 located on the outer side of the discharge pipe unit 130 of the side plate portion 110. One-way conductors 300 can be energized.

Here, the angle-conducting film 430, as shown in Figure 3, the one-way conductor 300 located on the outermost of the one-way conductor 300 of the upper plate portion 120 corresponding to the diameter of the injection tube 130, 300 It can be connected with.

Accordingly, the one-way conductors 300 formed on the upper plate portion 120 may be energized through the angle-conducting film 430 and the injection through-transfer 410.

Of course, the angle conduction film 430 is connected to the one-way conductor 300 located at the outermost of the one-way conductors 300 of the lower plate 140 corresponding to the diameter of the discharge pipe 150, thereby lowering the lower portion ( The one-way conductors 300 formed in 140) may be energized together with the discharge through-transfer 420.

The side plate conductive 440 is a component that communicates the one-way conductive 300 of the side plate 110 with each other and the one-way conductive 300 of the side plate 110 with the angle-conducting film 430.

The side plate conduction 440 may be made of a conductive metal material or synthetic fiber, and is woven to the side plate 110 to connect the adjacent side angle conduction films 430 among the angle conduction films 430 to each other. All of the one-way conductors 300 of 110 may be energized.

That is, the one-way conductors 300 of the side plate 110 may be energized to each other via the side-plate conduction 440 and the angle conduction film 430, and the one-way conductors 300 of the top plate 120 are injected The through-transfer 410 and the angle through film 430 may be energized. In addition, the one-way conductive 300 of the lower plate 140 may be energized through the discharge through-transfer 420 and the angle through-film 430.

In sum, the one-way conductors 300 formed on the container body 100 can be energized through the angle-conducting film 430, the injection through-transfer 410, and the discharge through-transfer 420.

Meanwhile, the energizing part 400 according to an embodiment may further include an additional energizing film 450 as shown in FIG. 1.

The additional energizing film 450 may be connected to the angle energizing film 430 while forming a fixed portion of the lifting ring 200 described above, thereby extending the energizing range of the angle energizing film 430.

The additional energizing film 450 may expand the ground area by expanding the energizing range of the angle energizing film 430.

On the other hand, the energizing part 400, as shown in Figures 4 and 6, the injection through-transfer 410, the discharge through-transfer 420, the corner energizing film 460, the side plate energizing 440, the top plate energizing ( 470) and the lower panel transmission 480.

Here, since the injection through-transfer 410 and the discharge through-transfer 420 are the same as described above, a detailed description thereof will be omitted.

The corner energizing film 460 is provided at each corner portion of the container body 100, and may be formed of a film having a conductive material to have a predetermined length, and may be formed of a top plate portion 120 and a side plate portion 110. Each of the corners constituting the connecting portion and the corners constituting the connecting portion of the lower plate portion 140 and the side plate portion 110 may be attached.

The corner energizing film 460 may be formed to have a predetermined width and length to provide a grounding portion while energizing the one-way conductors 300 corresponding to the length.

The side plate conductive 440 is a component that communicates the one-way conductive 300 of the side plate 110 with each other and the one-way conductive 300 of the side plate 110 with the edge conductive film 460.

The side plate conductive 440 may be made of a conductive metal material or synthetic fiber, and is woven into the side plate 110 to connect the adjacent edge conductive films 460 among the edge conductive films 460 to the side plates. All of the one-way conductors 300 of 110 may be energized.

The top plate conducting wire 470 is a component that connects the one-way conductive wires 300 of the top plate portion 120 to the edge conducting film 460 to conduct electricity.

Specifically, the top plate conductive 470 may be made of a conductive metal material or synthetic fiber, and connects the edge conductive films 460 adjacent to each other while traversing the one-way conductive plates 300 formed on the top plate 120. By doing so, the one-way conductors 300 of the top plate 120 can be energized.

The lower plate conductive 480 is a component that connects the one-way conductive 300 of the lower plate 140 to the edge conductive film 460 to conduct electricity.

Specifically, the lower plate conductive 480 may be made of a conductive metal material or synthetic fiber, and cross the one-way conductive plates 300 formed on the lower plate 140 while adjoining the edge conductive films 460 adjacent to each other. By connecting, the one-way conductors 300 of the lower plate 140 may be energized.

In sum, the one-way conductors 300 of the side plate portion 110 may be energized to each other by the side plate conducting wire 440 and the edge conducting film 460, and the one-way conductive wires 300 of the top plate portion 120 may be top plates. While being energized with each other by the energizing yarn 470 and the corner energizing film 460, the one-way conductive 300 of the injection tube 130 may be energized by the injection tube passing through 410, and the lower plate 140 may The one-way conductors 300 may be energized with the one-way conductors 300 of the discharge pipe 150 by the discharge through-transfer 420 while being energized with each other by the lower plate conducting 480 and the corner energizing film 460. .

Accordingly, the one-way conductors 300 of the injection pipe portion 130, the discharge pipe portion 150, the side plate portion 110, the top plate portion 120, and the bottom plate portion 140 are all energized through the edge energizing film 460. You can.

Here, the upper plate conduction 470 and the lower plate conduction 480 form one of a rhombus shape, a circular shape, a square shape, or a polygonal shape, as shown in FIG. 6, and the corner energization films 460 neighbor each other. The film 460 may be connected.

At this time, when the upper plate conduction 470 and the lower plate conduction 480 are formed in a rhombus shape, material can be saved by connecting the corner energizing film 460 at the shortest distance. The connection area with the corner energizing film 460 is expanded, so that it can be connected more stably.

Meanwhile, the container bag having an antistatic function according to an embodiment may further include a conductive label 500 and a conductive sewing thread 550 as illustrated in FIG. 7.

The conductive label 500 is a component attached to one surface of the container body 100 to provide a printing surface for labeling.

Specifically, the conductive label 500 may be made of non-conductive fibers of natural or synthetic fibers, and may be manufactured to a size that meets the test criteria of the container bag to provide a printing surface for labeling.

The conductive label 500 may have conductivity by weaving a plurality of one-way conductive 510s having conductivity at equal intervals.

Conductive sewing thread 550 while the conductive label 500 is attached to one surface of the container body 100, the conductive label 500, the one-way conductive 510 of the container body 100, the one-way conductive 300 of the electrical conduction It is a building block.

Specifically, the conductive sewing thread 550 may be formed of a conductive metal material or synthetic fiber, and may be fixed by sewing the conductive label 500 on one surface of the container body 100.

The conductive sewing thread 550 is woven on one surface of the container body 100 in the form of traversing the one-way conductors of the conductive label 500 so that the one-way conductors 510 of the conductive label 500 of the container body 100 One-way conductors 300 can be energized.

For example, the conductive sewing thread 550, when the conductive label 300 is attached to the top of the side plate portion 110 of the container body 100, as shown in Figure 7, to achieve the same as the above-described side plate conductive 440. It might be.

Meanwhile, the container bag having an antistatic function according to an embodiment may further include a conductive pocket 600 and a pocket sewing thread 650 as illustrated in FIG. 7.

The conductive pocket 600 is attached to one surface of the container body 100, for example, a label indicating the type or characteristics of the content may be inserted.

Specifically, the conductive pocket 600 may be made of non-conductive fibers of natural or synthetic fibers, and may be made of a size that satisfies the test criteria of the container bag to provide a space for inserting a marker.

The conductive pocket 600 may have conductivity by weaving a plurality of one-way conductive 610s having conductivity at equal intervals.

The pocket sewing thread 650 attaches the conductive pocket 600 to one surface of the container body 100 and energizes the one-way conductors 610 of the conductive pocket 600 with the one-way conductors 300 of the container body 100. It is a building block.

Specifically, the pocket sewing thread 650 may be formed of a conductive metal material or synthetic fiber, and may be fixed by sewing the conductive pocket 600 on one surface of the container body 100.

The pocket sewing thread 650 is woven on one surface of the container body 100 in the form of traversing the one-way conductive 610 of the conductive pocket 600 so that the one-way conductive 610 of the conductive pocket 600 is the container body ( 100) can be energized with one-way conductors (300).

A container bag having an antistatic function according to an embodiment including the above components may be used to transport or store contents in powder form.

At this time, the user closes the discharge pipe part 150 through a not shown drawstring and then injects the contents through the injection pipe part 130 into the container body 100 and then closes the injection pipe part 130 through the drawstring. Transport or store.

Here, the electric charge generated in the receiving space of the container body 100 by the contents can be prevented from being sparked while being conducted through the one-way conductors 300 and the energizing part 400.

As described above, the container bag having an antistatic function according to an embodiment is provided with a conductive yarn 300 provided in the container body 100 only in one direction, so that the conductive bag can be energized through the conductive portion 400. Compared to the lattice structure, the manufacturing cost of the product can be significantly lowered, and in particular, the one-way conduction while the angle-conducting film 430 and the corner-conducting film 460 constituting the energizing part 400 are provided only on a part of the container body 100. Since 300 can be energized, it is possible to significantly reduce the consumption of the energizing film when manufacturing the product.

The above-described embodiments are for illustration only, and those skilled in the art to which the above-described embodiments belong can easily be modified into other specific forms without changing the technical idea or essential characteristics of the above-described embodiments. You will understand. Therefore, it should be understood that the above-described embodiments are illustrative in all respects and not restrictive. For example, each component described as a single type may be implemented in a distributed manner, and similarly, components described as distributed may be implemented in a combined form.

The scope to be protected through the present specification is indicated by the claims, which will be described later, rather than the detailed description, and should be interpreted to include all modified or modified forms derived from the meaning and scope of the claims and equivalent concepts thereof. .

100: container body
110: side plate portion 120: top plate portion
130: injection tube 140: lower plate
150: discharge pipe
200: lifting hook
300: One-way challenge
400: energizing part
410: injection through 420: discharge through warrior
430: Angle energizing film 440: Side plate energizing
450: Additional energizing film 460: Corner energizing film
470: Top plate traditional 480: Bottom plate traditional
500: conductive label
510: one-way conductor 550: conductive sewing thread
600: conductive pocket
610: One-way challenge 650: Pocket sewing machine

Claims (8)

It is formed of a fibrous material to form a housing-shaped receiving space, and a side plate portion forming a side surface of the receiving space, and a top plate portion coupled to an upper end of the side plate portion to form an upper surface of the receiving space and an injection pipe portion into which contents are injected. , A container body including a lower plate portion coupled to a lower end of the side plate portion to form a bottom surface of the accommodation space and a discharge pipe portion through which contents are discharged;
A lifting ring fixed to the side plate constituting the container body to provide a lifting portion of the container;
The side plate portion, the top plate portion, the injection pipe portion, the bottom plate portion and the discharge pipe portion constituting the container body are woven at equal intervals while providing a plurality of movement paths of electric charges existing in the receiving space, but in one direction. One-way conductor that extends only; And
The side plate portion, the top plate portion, the injection pipe portion, the lower plate portion and the discharge portion for energizing the discharge pipe portion constituting the container body while energizing the one-way conductors,
The energizing part,
While woven along the connecting portion of the top plate portion and the injection pipe portion, the one-way conductors of the top plate portion and the one-way conductors of the injection pipe portion corresponding to the diameter of the injection pipe portion are woven in a form crossing the one-way conductive portions of the injection pipe portion Injecting transmissive warrior to energize;
As it is woven along the connection portion of the lower plate portion and the discharge pipe portion, it is woven in a form that crosses the one-way conductive portions of the discharge pipe portion, and is unidirectional conductors of the lower plate portion corresponding to the diameter of the discharge pipe portion and one-way conductors of the discharge pipe portion Discharge through warrior to energize;
Each of the upper plate portion forming the vertex of the receiving space and the connecting portion of the side plate portion and the connecting portion of the lower plate portion and the side plate portion are provided in an angle form to form a spaced apart from each other, each of which forms an angled cross-section, and the upper plate portion. The circumferential circumferential surfaces of the side plate portion and the lower plate portion and the circumferential circumferential surfaces of the side plate portion are attached to the outer circumferential surfaces of the top plate portion, and the unidirectional conductors of the lower plate portion located outside the discharge pipe portion An angle-conducting film that energizes the one-way conductors of the side plate, respectively; And
A container bag having an antistatic function comprising a side plate conducting member that connects one side conduction conductors of the side plate portion with the angle conducting film while connecting the angle conducting films adjacent to each other among the angle conducting films.
delete According to claim 1,
The angle pass film,
A container bag having an antistatic function connected to the one-way conductor located at the outermost of the one-way conductors of the upper plate portion corresponding to the diameter of the injection tube portion.
According to claim 1,
The energizing part,
A container bag having an antistatic function, further comprising an additional energizing film that is connected to the angle conducting film and extends an energizing range of the angle conducting film while forming a fixed portion of the lifting ring.
It is formed of a fibrous material to form a housing-shaped receiving space, and a side plate portion forming a side surface of the receiving space, and a top plate portion coupled to an upper end of the side plate portion to form an upper surface of the receiving space and an injection pipe portion into which contents are injected. , A container body including a lower plate portion coupled to a lower end of the side plate portion to form a bottom surface of the accommodation space and a discharge pipe portion through which contents are discharged;
A lifting ring fixed to the side plate constituting the container body to provide a lifting portion of the container;
The side plate portion, the top plate portion, the injection pipe portion, the bottom plate portion and the discharge pipe portion constituting the container body are woven at equal intervals while providing a plurality of movement paths of electric charges existing in the receiving space, but in one direction. One-way conductor that extends only; And
The side plate portion, the top plate portion, the injection pipe portion, the lower plate portion and the discharge portion for energizing the discharge pipe portion constituting the container body while energizing the one-way conductors,
The energizing part,
While woven along the connecting portion of the top plate portion and the injection pipe portion, the one-way conductors of the top plate portion and the one-way conductors of the injection pipe portion corresponding to the diameter of the injection pipe portion are woven in a form crossing the one-way conductive portions of the injection pipe portion Injecting transmissive warrior to energize;
As it is woven along the connection portion of the lower plate portion and the discharge pipe portion, it is woven in a form that crosses the one-way conductive portions of the discharge pipe portion, and is unidirectional conductors of the lower plate portion corresponding to the diameter of the discharge pipe portion and one-way conductors of the discharge pipe portion Discharge through warrior to energize;
Each of the corners forming the connecting portion of the upper plate portion and the side plate portion and each of the corners forming the connecting portion of the lower plate portion and the side plate portion are respectively provided to form a spaced apart from each other, each forming an angled cross-section. A corner energizing film attached to the outer circumferential surface of the upper plate portion and the side plate portion and the outer circumferential surfaces of the lower plate portion and the side plate portion to energize the one-way conductive wires corresponding to a length;
A side plate energizing member which connects one of the edge energizing films adjacent to each other among the edge energizing films and energizes the one-way conductive parts of the side plate part with the edge energizing film;
A top plate conduction yarn that is woven into the top plate portion and connects the corner energizing films while traversing the one-way conductors of the top plate portion; And
A container bag having an antistatic function, which includes a lower plate conductive yarn that is woven into the lower plate portion and crosses the one-way conductive wires of the lower plate portion to connect the corner conductive films.
The method of claim 5,
The top plate and the bottom plate,
A container bag having an antistatic function, which is woven into the upper plate portion and the lower plate portion to form one of a rhombus, circular, square, and polygonal shape, and connects adjacent edge conductive films to each other among the edge conductive films.
According to any one of claims 1, 3 to 6,
The one-way conductor,
A container bag having an antistatic function formed only in a vertical direction based on the side plate portion.
The method of claim 1 or 5,
A conductive label attached to one surface of the container body to provide a printing surface, and the unidirectional conductive yarns are woven at equal intervals while forming a plurality; And
While attaching the conductive label to one surface of the container body, while being woven on one surface of the container body in a form traversing the one-way conductors of the conductive label, one-way conductors of one surface of the container body and one-way conductors of the conductive label Container bag having an antistatic function further comprising a conductive sewing thread to energize.

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