TW201815636A - Packaging body - Google Patents

Abstract

This packaging body 1 comprises: a first housing area 11 and a second housing area 12 that house a plurality of substances; and connection paths 21, 22 along which the substances can flow and which connect the first housing area 11 and the second housing area 12 to each other. The first housing area 11 and the second housing area 12 are configured so as expand/contract in response to external pressure and such that the substances flow along the connection paths 21, 22 in accordance with the expansion/contraction of the first housing area 11 and the second housing area 12. In addition, the connection paths are configured so as to cause gas to micro-bubble in liquid when a substance is flowing therethrough. A discharge passage is also provided that connects to the internal space of at least either the first housing area or the second housing area and has a discharge port that discharges a substance from said internal space.

Description

   Package   

The present invention relates to a package, and particularly to a package capable of mixing substances to be stored.

Nanobubbles are microbubbles with a nanometer size (for example, a particle diameter of 1000 nm or less) existing in a solvent such as water, and have significantly different properties than ordinary bubbles. For example, nano-bubbles are expected to have beneficial effects on the human body, such as growth-promoting effects, antioxidant effects, and bactericidal effects.

Furthermore, it is being discussed that the above-mentioned properties of nano-bubbles are used to make nano-bubbles in various solvents. For example, a nano-bubble is contained in a human body by including a nano-bubble in a solvent for forming a cosmetic liquid, a detergent, a medicine, a beverage, or the like.

    [Leading technical literature] [Patent literature]    

[Patent Document 1] Japanese Patent Laid-Open No. 2016-120919

On the other hand, nano-bubbles exist as micro-bubbles in the solvent, so the amount of dissolution in the solvent may decrease over time. Therefore, for example, there is a problem that, even if it is desired to ingest nanobubbles in the body, it is difficult to efficiently ingest the nanobubbles because of the short dissolution period of the nanobubbles in the solvent and the low amount of dissolution.

Here, Patent Document 1 discloses a packaging bag for stably holding a liquid containing a certain component. This packaging bag has an aluminum layer, and is structured so that light-shielding properties, water-barrier properties, and air-tightness can be ensured, and a liquid containing a certain component can be stored for a long period of time.

However, even in the packaging bag as described above, if the state in which the solvent contains nano-bubbles continues, the nano-bubbles may decrease. That is, it is difficult to stably maintain a mixed state of a mixture of a liquid and a gas. Therefore, there arises a problem that it is difficult to obtain a solvent having a large amount of dissolved nano-bubbles as needed.

In addition, it is not limited to nano-bubbles, and when a mixture of a plurality of substances is contained in the packaging bag, it may be difficult to maintain the mixed state of the mixture stably. Therefore, there arises a problem that it is difficult to obtain a mixture maintained in a mixed state as necessary.

In addition, if the mixture maintained in the mixed state is discharged from the packaging bag, it is difficult to maintain the mixed state. Thus, if the packaging bag is opened and taken out once, the mixed state is maintained for the immediately used amount of the mixture, but the mixed state is not maintained for the amount of the mixture not used immediately. Therefore, it is necessary to discharge an appropriate amount of the mixture from the packaging bag according to the use of the mixture.

Based on the foregoing, it is an object of the present invention to provide a package that can solve the above-mentioned problem, that is, that it is difficult to obtain a mixture of a plurality of substances in an appropriate amount while maintaining a desired mixing state.

A package according to an aspect of the present invention includes a first storage region portion and a second storage region portion having an internal space for storing a plurality of substances, and a communication path through which the substances can flow, so that the first An internal space of a storage area portion and an internal space of the second storage area portion are communicated with each other, and the first storage area portion and the second storage area portion are configured such that an internal space is reduced / expanded according to external pressure, The substance is configured to circulate in the communication path in accordance with the reduction / enlargement of the internal space of the first storage region portion and the second storage region portion. At least one of the substances is a gas, and at least one of the substances is capable of flowing. In the liquid containing gas bubbles, the communication path is configured to generate minute bubbles in the gas when the substance circulates, and further includes a discharge path, the discharge path, the first storage region portion, and the second The internal space of at least one of the storage area portions communicates with each other, and has a discharge port through which the substance is discharged from the internal space. Outlet passage can vary from state to state is blocked opening.

According to the above configuration, the first storage area portion is first pressed from the outside to apply pressure, and the internal space of the first storage area portion is reduced. The substance stored in the internal space of the first storage area portion is communicated with the second storage area portion via the communication path. The internal space circulates, and accordingly, the internal space of the second storage area portion is enlarged. Thereafter, the second storage region portion is pressed from the outside to apply pressure, and the internal space of the second storage region portion is reduced. The substance stored in the internal space of the second storage region portion flows into the internal space of the first storage region portion via the communication path. Accordingly, the internal space of the first storage region portion is enlarged. By repeating such an operation, a plurality of substances flowing between the first storage region portion and the second storage region portion via the communication path are mixed, and a mixture can be generated in the package. As a result, it is possible to obtain the mixture in a state just after being mixed. In addition, in the case where the contained substances are liquid and gas, the liquid and gas are mixed, and when passing through the communication path, the gas generates fine bubbles in the liquid. Thereby, a liquid containing fine bubbles can be obtained.

It also includes at least one of a first storage area portion and a second storage area portion. The discharge passage of the discharge passage is changed from a blocked state to an open state, so that the discharge and discharge can be maintained while maintaining a mixed state. Use the appropriate amount of the mixture.

Moreover, the said packaging body is comprised so that the convex part may be provided in the inner wall surface of the said communication path. In addition, the package is configured such that the communication path is provided with a hole forming member having a plurality of holes through which the substance can flow. In addition, the package is configured such that a plurality of holes formed in the hole forming member provided in the communication path are formed through a gap between a plurality of polygonal shaped objects arranged in the communication path. This makes it possible to efficiently generate fine bubbles in the gas in the liquid.

In addition, the package is configured to include a plurality of the discharge channels, and by opening the discharge ports of any one or more of the discharge channels, it is possible to change to a plurality of states in which the discharge amount of the substance from the discharge channels is different. .

In addition, the package may be configured such that the discharge port of the discharge path can be blocked from the state where the outer periphery forming portion forming the body part of the package is blocked, and the outer channel forming portion is cut to the discharge port of the discharge path. The state of the opening is changed, and the outer periphery forming portion is cut at different cutting positions, so that the state can be changed to a plurality of states with different discharge amounts of the substance from the discharge path.

In addition, the package is configured to include a plurality of the discharge passages, and change from a state in which the discharge ports of the plurality of discharge passages are all blocked to a plurality of states in which the number of openings of the discharge ports is different.

In addition, the package is configured to be able to be blocked from a discharge port of the discharge path in an outer periphery forming portion of a member forming the package body itself, and cut off the outer periphery forming portion to the discharge port of the discharge channel. The state of the opening is changed, and by cutting the outer periphery forming portion at different cutting positions, it is possible to change to a plurality of states having different numbers of openings in the discharge port.

In addition, the package is configured to include a discharge passage at one end of a predetermined number of the discharge passages that communicates with the internal space of the first storage region portion, and a rule that communicates with the internal space of the second storage region portion. The number of the discharge passages at the other end of the discharge passage is different from the number of the discharge passages at the one end of the discharge passage and the other end of the discharge passage. The cutting portion of the portion is different from the cutting portion of the outer periphery forming portion in order to open the discharge passage at the other end.

In addition, the package is configured to include a plurality of the discharge passages communicating with an internal space of at least one of the first storage area portion and the second storage area portion, and at least one of the plurality of discharge passages is more than the other Is formed longer by cutting the outer periphery forming portion at a first cutting portion to open at least one of the discharge passages longer than the other of the plurality of discharge passages, A second cutting portion having a different cutting portion cuts the outer periphery forming portion and opens a plurality of the discharge passages.

Moreover, the said packaging body is comprised so that the notch part which defines the cutting position of the said cutting location may be formed in the outer edge of the said packaging body with respect to the said different cutting locations.

In addition, the packaging body is configured by bonding a part of two sheet bodies having flexibility, and forming an internal space of the first storage area portion and the second space between the two sheet bodies. The internal space of the storage area portion, the communication path, and the discharge path, and the discharge port of the discharge path is closed by the two sheet bodies being bonded together, and is configured such that the two Each sheet body is bonded to an outer periphery forming portion formed around the first storage region portion and / or the second storage region portion, and a discharge port of the discharge path is opened.

With the above-mentioned configuration, the package can be cut at different cutting positions, etc., and can be changed to a plurality of states having different numbers of openings in the discharge path and a discharge amount of the substance. Thus, an appropriate amount of the mixture can be discharged according to the application while maintaining the mixed state by a simple operation.

In addition, the packaging body is configured such that a plurality of the communication paths are provided between the first storage region portion and the second storage region portion.

In addition, the packaging body is configured such that at least one of the communication paths is configured so that a substance flows from an internal space of the first storage region portion to an internal space of the second storage region portion, and at least one other is configured such that a substance flows from The internal space of the second storage area portion flows into the internal space of the first storage area portion.

In addition, the packaging body is configured such that at least one of the communication paths is configured such that a width of a passage is narrowed from an internal space of the first storage region portion to an internal space of the second storage region portion, and at least one other configuration is such that The width of the passage narrows from the internal space of the second storage area portion to the internal space of the first storage area portion.

According to the above configuration, by providing a plurality of communication paths, it is possible to increase the amount of a substance flowing between the first storage region portion and the second storage region portion. Moreover, it is comprised by setting the direction in which the substance of a communication path flows, and it can circulate efficiently and mix a substance. As a result, a mixture can be obtained efficiently.

In addition, the package is configured to further include one or more other storage area portions having an internal space for storing the substance, and the storage area portion is further connected to the internal space of the first storage area portion via a communication path and / Alternatively, the internal space of the second storage region portion communicates.

According to the said structure, it also has a multi-storage area part, and can store different substances in advance in different area parts. Then, an arbitrary region is pressed from the outside to apply pressure, and the substances are mixed as described above. Thus, a mixture in which more kinds of substances are mixed in a mixed state is obtained.

In addition, a packaging body according to another aspect of the present invention is configured to include a first storage area portion, a second storage area portion, and a third storage area portion, each of which has an internal space for storing a plurality of substances, a first communication path, and a first There are two communication paths through which the substance can circulate, the first communication path communicates the internal space of the first storage region portion and the internal space of the third storage region portion with each other, and the second communication path enables The internal space of the second storage area portion and the internal space of the third storage area portion are communicated with each other, and the first storage area portion and the second storage area portion are configured such that the internal space is reduced in accordance with external pressure. / Enlargement, the substance circulates through the first communication path and the second communication path in accordance with the reduction / enlargement of the internal space of the first storage region portion and the second storage region portion.

Furthermore, the package is configured such that at least one of the substances is a gas, and at least one of the substances is a liquid capable of containing gas bubbles. In this case, the first communication path and the second communication path circulate as the substance. Sometimes the gas causes tiny bubbles in the liquid.

According to the package structured above, since the substance flows through the third storage region portion through the communication path between the first storage region portion and the second storage region portion, it is possible to generate a liquid containing a mixture of a plurality of types of substances and fine bubbles.

In addition, the substance mixing and discharging method of another aspect of the present invention alternately presses from the outside the first storage region portion and the second storage region that store at least one substance that is at least one gas and at least another substance that is a liquid capable of containing gas bubbles in the internal space. A region section that alternately reduces / enlarges the internal space of the first storage region section and the internal space of the second storage region section, so that the substance and the internal space of the first storage region section and the second The internal space of the storage area portion communicates with a communication path that communicates with each other. The communication path causes the gas to generate micro bubbles in the liquid, and has communication with at least one of the first storage area portion and the second storage area portion. The discharge port, which has a discharge passage that discharges the substance from the internal space, changes from a blocked state to an opened state.

Further, in the above-mentioned substance mixing and discharging method, the state is such that the discharge ports from a plurality of the discharge paths are all blocked, and the number of openings to the discharge ports or the discharge amount of the substances from the discharge paths are different. Multiple status changes.

In the above-mentioned mixed substance discharge method, the discharge port from the discharge path is blocked in the outer periphery forming portion of the member forming the packaging body, and the outer periphery forming portion is cut to the The state in which the discharge port is opened is changed, and the outer periphery forming portion is cut at different cutting positions, thereby changing a plurality of states in which the number of openings to the discharge port or the discharge amount of the substance from the discharge path is different. .

According to the above-mentioned substance mixing and discharging method, since the substance flows through the communication path between the first storage region portion and the second storage region portion, it is possible to generate a liquid containing a mixture of a plurality of substances and fine bubbles. In addition, the state changes from a state in which the discharge port of the discharge path is blocked to a state of opening, and an appropriate amount of the mixture according to the application can be discharged while maintaining a mixed state.

The present invention is configured as described above, and can obtain an appropriate amount of a mixture of a plurality of substances while maintaining a desired mixing state.

11‧‧‧pack

12‧‧‧ the first storage area

14‧‧‧Second storage area

15‧‧‧ middle area

21a‧‧‧ convex

21b‧‧‧ porous body

24, 25‧‧‧ Link Road

30, 37a‧‧‧cap

31 ~ 37‧‧‧Exhaust path

41 ~ 46‧‧‧ gap

41a ~ 46a‧‧‧ Cut off part

FIG. 1 is a diagram showing a configuration of a package according to a first embodiment of the present invention.

FIG. 2 is a diagram showing a state when the package disclosed in FIG. 1 is used.

FIG. 3 is a view showing a state when the package disclosed in FIG. 1 is used.

FIG. 4 is a diagram illustrating a configuration example of a communication path of the package disclosed in FIG. 1.

FIG. 5 is a diagram showing a state during use of the package disclosed in FIG. 1.

FIG. 6 is a view showing a modified example of the package of the present invention.

FIG. 7 is a diagram showing a state when the package disclosed in FIG. 6 is used.

FIG. 8 is a view showing a state when the package disclosed in FIG. 6 is used.

FIG. 9 is a view showing a modified example of the package of the present invention.

FIG. 10 is a diagram showing a modified example of the package of the present invention.

FIG. 11 is a diagram showing a modified example of the package of the present invention.

FIG. 12 is a diagram showing a modified example of the package of the present invention.

FIG. 13 is a diagram showing a modified example of the package of the present invention.

    <Embodiment 1>    

A first embodiment of the present invention will be described with reference to FIGS. 1 to 4. FIG. 1 is a diagram showing a configuration of a package, and FIGS. 2 to 3 are diagrams showing a state when the package is used. FIG. 4 is a diagram showing a configuration example of a communication path of a package.

FIG. 1 shows an example of the configuration of a package 1 according to this embodiment. FIG. 1 (a) is a plan view of the packaging body 1, and FIG. 1 (b) is a sectional view of the packaging body 1 which is sectioned at an arbitrary position (a position where the communication path 21 is formed) in the vertical direction of FIG. 1 (a).

The package 1 according to the present embodiment is configured to be partially bonded together in a state where two sheet bodies are stacked. The sheet body may be made of any material such as polyethylene and aluminum.

Specifically, the packaging body 1 is configured such that two storage area portions 11, 12, two communication paths 21, 22, and a plurality of discharges are formed between the two sheet bodies in an outline shown by a broken line in FIG. 1 (a). The space of the passages 31, 32, and the other parts fit. That is, as shown in the cross-sectional view of FIG. 1 (b), the package body 1 includes two stacked sheet bodies that not only constitute the two storage area sections 11 and 12, the two communication paths 21, 22, and the plurality of discharge paths 31, 32. Fit on other parts. In addition, the portions where the two sheet bodies are bonded to each other are, for example, thermocompression bonded by a thermocompression sealer, but may be bonded by any method.

The two storage area sections 11 and 12 include a first storage area section 11 and a second storage area section 12. Liquid and gas are stored in the internal space of the storage area portions 11 and 12. For example, the liquid is a makeup liquid and the gas is hydrogen. Here, the liquid and the gas may be initially stored separately, for example, if the cosmetic liquid is stored in the internal space of the first storage region 11 and the hydrogen is stored in the internal space of the second storage region 12, or the liquid and gas may be mixed It is accommodated in each storage area part 11 and 12 in a state. In addition, as the substance stored in the internal space of each of the storage area portions 11, 12, liquids and gases may be mentioned, but different types of liquids or gases may be used, which may be colloidal solutions or gels, or may be called It is a powdery solid. These substances are fluid substances that can flow through the communication paths 21 and 22 as described later.

The two communication paths 21 and 22 are passages that communicate between the internal space of the first storage area portion 11 and the internal space of the second storage area portion 12. Therefore, the communication paths 21 and 22 can circulate a plurality of kinds of substances stored in the respective storage region portions 11 and 12 between the respective storage region portions 11 and 12. Among them, the communication paths 21 and 22 define a flow direction of a substance. For example, the communication path 22 is configured such that the width of the passage is narrowed from the internal space of the first storage area portion 11 to the internal space of the second storage area portion 12. Therefore, the communication path 22 functions as a valve, and is configured such that a substance flows from the first storage region portion 11 to the second storage region portion 12. On the other hand, the communication path 21 is configured such that the width of the passage is narrowed from the internal space of the second storage area portion 12 to the internal space of the first storage area portion 11. Therefore, the communication path 21 functions as a valve, and is configured such that a substance flows from the second storage region portion 12 to the first storage region portion 11. However, the flow direction of the communication paths 21 and 22 may not be specified.

Here, since the internal space of the first storage area portion 11 and the second storage area portion 12 is a space formed between two sheet bodies having flexibility, the internal space is configured to self-respond to the pressure from the outside. Shrink or expand. For example, as shown by the arrow in FIG. 2 (b), when the first storage region portion 11 is pressed from the outside to apply pressure, the internal space of the first storage region portion 11 is reduced. In this way, as shown by the arrow in FIG. 2 (a), the substance in the first storage region portion 11 flows through the communication path 22 and flows into the second storage region portion 12. Accordingly, the internal space of the second storage region portion 12 accordingly. expand. Thereafter, as shown by the arrow in FIG. 3 (b), if the second storage region portion 12 is pressed from the outside to apply pressure, the internal space of the second storage region portion 12 is reduced. In this way, as shown by the arrow in FIG. 3 (b), the substance stored in the second storage region portion 12 flows into the first storage region portion 11 through the communication path 21, and accordingly, the internal space of the first storage region portion 11 is enlarged. .

At this time, each of the communication paths 21 and 22 is configured to generate minute bubbles in the gas in the liquid when a substance flows. For example, the width of the passages of the communication passages 21 and 22 is made extremely small in the inflow portion that flows into the storage area portion on the downstream side, so that when the substance mixed with the liquid and the gas flows, the gas in the liquid generates fine bubbles.

The communication paths 21 and 22 may have a configuration shown in FIG. 4. For example, as shown in FIG. 4 (a), a convex portion 21 a may be provided on the inner wall surface of the communication path 21. In this manner, a substance made of a mixture of a liquid and a gas is allowed to flow through the communication path 21 provided with the convex portion 21a, thereby making it possible to generate fine bubbles in the gas in the liquid. Here, the generated micro-bubbles are preferably, for example, a nanometer size having a particle diameter of 1,000 nm or less. The communication path 22 also has the same configuration.

In addition, for example, as shown in the grid portion of FIG. 4 (b), the porous body 21 b (hole-forming member) may be filled in the communication path 21. The porous body 21b is made of, for example, a cotton-like fiber material, and has a plurality of holes. A substance mixed with a liquid and a gas passes through the plurality of holes, and the gas in the liquid generates minute bubbles. The size of the hole is preferably, for example, 1 mm or less in diameter. In addition, the plurality of holes may be formed, for example, as described later in the honeycomb structure, by covering a plurality of polygonal shaped objects in the communication path 22 with a gap between the polygonal shaped objects. In this way, it is possible to further miniaturize the bubble size efficiently.

In the above configuration, as shown in FIGS. 2 and 3, by repeatedly repeatedly pressing the first storage area portion 11 and the second storage area portion 12 from the outside, the internal space of the first storage area portion 11 and the second storage area The internal space of the section 12 is alternately reduced / expanded. In this way, the liquid and gas mixture stored in the internal space of the first storage area portion 11 and the internal space of the second storage area portion 12 repeatedly flows through the communication channels 21 and 22, and the liquid flowing through the communication channels 21 and 22 The gas in the mixture with the gas generates fine bubbles in the liquid. As a result, a liquid containing a gas containing minute bubbles can be generated, and the mixture can be obtained by opening the package.

In addition, in the case where different substances are not mixed before being mixed and are stored in the two storage area portions 11 and 12, a different material may be stored in each of the storage area portions 11 and 12 with a clip or the like. Each communication path 21, 22 is clamped. When the substance mixing is required, the states of the clamp communication channels 21 and 22 may be released, and the substance mixing may be performed as described above. The method of blocking the communication paths 21 and 22 may be any method.

Here, the results of an experiment in which fine bubbles are generated in a liquid using the package 1 described above are shown. In the experiment, the size and number of micro bubbles generated in the liquid were investigated by video analysis. As a result, it was observed that 2 to 1.4 billion bubbles per 1 cm ^{3 of the} liquid were nano bubbles of 1 to 1000 nm. When an ordinary bubble generating device is used, only about 30 to 50 million micro bubbles are generated per 1 cm ^{3 of the} liquid. In contrast, in the package 1 of the present invention, a liquid having a larger dissolution amount of nano bubbles can be generated. .

In addition, as shown in FIG. 1, the packaging body 1 forms a plurality of discharge passages 31 and 32 between two sheet bodies. Specifically, the discharge paths 31 and 32 are formed in an outer periphery forming portion that forms the outer periphery of the sheet body for forming the packaging body 1 itself. In the example shown in FIG. 1, first, the internal space communicates with the first storage area portion 11, and three predetermined lengths are formed on the outer peripheral side opposite to the first storage area portion 11 and the second storage area portion 12 side. Of the exhaust passage 31 at one end. In addition, the internal space of the second storage area portion 12 communicates with each other, and an exhaust passage 32 having a predetermined length at the other end is formed on the outer peripheral side of the second storage area portion 12 opposite to the first storage area portion 11 side. . As described above, the number of exhaust passages 31 at one end and the exhaust passage 32 at the other end constituting the respective discharge passages themselves are different. Among them, the discharge passage 31 at one end and the discharge passage 32 at the other end may be configured to have the same number of discharge passages.

Each of the above-mentioned discharge passages 31 and 32 has a predetermined length, and the discharge port at the end opposite to the side of each of the storage area portions 11 and 12 communicating with each other is in a state of being blocked by the outer peripheral formation portion of the package 1. That is, the discharge openings of the respective discharge passages 31 and 32 are blocked by the two sheet bodies constituting the packaging body 1 being bonded together. Although the respective discharge passages 31 and 32 are set to the same thickness as shown in the figure, the thicknesses may be different from each other.

In addition, corresponding to the above-mentioned discharge passages 31 and 32, cutting portions 41a and 42a of the outer periphery forming portion of the package body 1 forming the discharge passages 31 and 32 are set, and cutouts 41 and 42 defining the cutting portions are formed in the package body 1. Outer edge. For example, in correspondence with the discharge passage 31 at one end, a cutting portion 41 a such as to cut the three discharge passages 31 is set, and a notch 41 is formed as a cutout of the cutting portion 41 a and is easily cut. In addition, in correspondence with the other discharge passages 32, a cutting portion 42a such as to cut one discharge passage 32 is set, and a notch 42 is formed as a cutout of the cutting portion 42a and easily cut.

When the liquid containing the fine bubbles generated in the package 1 is used as described above, the discharge ports of the discharge passages 31 and 32 are opened to discharge the liquid. At this time, the cutting position of the packaging body 1 is changed according to the amount of the liquid to be used. For example, when the amount of one discharge is to be reduced, as shown in FIG. 5 (a), a cutout 42 on the other discharge passage 32 side including one discharge passage is cut off, and the other end discharge passage 32 is cut off. Drain the opening. On the other hand, when the amount of one discharge is to be increased, as shown in FIG. 5 (b), the cutout 41 on the side of the discharge path 31 including one end of the three discharge paths is cut off, and the discharge constituting one end is cut off. All of the three discharge paths 31 of the passages 31 are opened to discharge.

As described above, in the package 1 of the present invention, the number of openings in the discharge passage can be changed by modifying the cut portion of the outer peripheral formation portion. For example, in the example of FIG. 5, the state in which one discharge passage 32 is open and the state in which three discharge passages 31 are open can change. As a result, only a required amount of the liquid containing the microbubbles just generated can be obtained, and a liquid with a large amount of dissolved microbubbles can be obtained.

Further, for example, by mixing a makeup liquid and hydrogen, a cosmetic having a large amount of dissolved hydrogen gas bubbles can be obtained, and the discharge passages 31 and 32 can be opened in order to discharge an amount corresponding to a portion to be coated. In addition, the packaging body of the present invention may be used for mixing any substance. For example, liquids such as detergents, medicines, and beverages, and gases such as oxygen and hydrogen can be used. Thereby, it is possible to obtain a mixture containing nano bubbles of oxygen and hydrogen immediately after generation, and by using this mixture, it is possible to expect beneficial effects on the human body and other organisms, such as the growth promotion effect of nano bubbles, the antioxidant effect, and the sterilization effect. . The mixed substances may be liquids or gases. This makes it possible to obtain only an appropriate amount of the effective mixture just produced.

In addition, in the above, by changing the number of the discharge passages 31 and 32 respectively located for each cutting part, the discharge amount of the liquid containing microbubbles can be changed, but the thickness of the discharge passages 31 and 32 can also be changed. Degrees to change the discharge. For example, in the example of FIG. 5, three discharge passages 31 as one end and one discharge passage 32 as the other end are provided, but one or the same number of discharge passages 31 and 32 may also be formed on one end or the same number. The side has a thicker discharge passage than the other end side. Even so, the discharge amount can be changed in a state where the discharge passage 31 at one end is opened and a state where the discharge passage 32 at the other end is opened.

Next, another configuration example of the package 1 will be described with reference to FIGS. 6 to 8. In this example, the formation positions of the above-mentioned exhaust passages are different.

First, in the example of FIG. 6 (a), three discharge passages 33 and 34 communicating with the internal space of the first storage area portion 11 are formed. Furthermore, among the three exhaust passages, one central exhaust passage 34 is formed longer than the other. In other words, the two discharge passages 33 at both ends are formed shorter than the central discharge passage 34.

Further, corresponding to the above-mentioned discharge passages 33 and 34, the cutting portions 43a and 44a of the outer periphery forming portion of the package 1 forming the discharge passages 33 and 34 are set, and the cutouts 43 and 44 of the cutting portion are defined in the package body 1. The outer edge is formed. For example, in response to the length of the central discharge passage 34 formed longer than the others, only the discharge passage 34 is cut, and the cut portion 44a (the first cut portion) is set to form a cutout of the cut portion 44a. Easy cut 44. In addition, in accordance with the length of the two short discharge passages 33, a cut portion 43a (second cut portion) that cuts off the two discharge passages 33 and the central discharge passage 34 is set as a cutout of the cut portion 43a A notch 43 is easily formed.

When the liquid containing the minute air bubbles generated in the package 1 is used as described above, the discharge ports of the discharge passages 33 and 34 are opened to discharge the liquid. At this time, the cutting position of the packaging body 1 is changed according to the amount of the liquid to be used. For example, when the amount of one discharge is to be reduced, as shown in FIG. 7 (a), a cutout 44 corresponding to one long discharge path 34 is cut off, and only one discharge path 34 is cut off to discharge. The exit is opened. On the other hand, when the discharge amount is to be increased once, as shown in FIG. 8 (a), the cutouts 43 corresponding to the short discharge paths 33 are cut off, and all the discharge paths 33 and 34 are cut off. The discharge ports of all the discharge channels 33 and 34 are opened.

In this way, in the package 1 of the present invention, the number of openings in the discharge passage can be changed by changing the cutting position of the outer periphery forming portion. For example, in the example of FIG. 6 (a), the state in which the discharge passages 34 of one book are opened and the state in which the discharge passages 33 and 34 of three books are opened can be changed. As a result, only a required amount of the liquid containing the minute bubbles generated can be obtained, and thus a liquid with a large amount of dissolved micro bubbles can be obtained.

In addition, FIG. 6 (b) is a different example of the shape around the discharge passages 33 and 34 from FIG. 6 (a). That is, in FIG. 6 (b), the portions where the discharge passages 33 and 34 are formed are formed so as to protrude from the periphery of the first storage region portion 11 to the outside. In addition, cutouts 43 and 44 that serve as cutouts 43a and 44a corresponding to the discharge passages 33 and 34 having different lengths are formed on the outer edges of the protruding portions in the same manner as described above. These notches 43 and 44 are cut as shown in FIGS. 7 (b) and 8 (b), respectively, whereby the state in which one discharge passage 34 is opened and the state in which three discharge passages 33 and 34 are opened change.

In addition, in the example of FIG. 6 described above, the case where three discharge passages 33 and 34 are formed and only one long discharge passage 34 is formed, but the number of the drainage passages 33 and 34 is not limited to the above. For example, a plurality of longer drainage channels 34 may be formed in addition to the other.

A modification of the present invention will be described with reference to FIGS. 9 to 13. First, although not shown, the package 1 of the present invention is not limited to two communication paths as shown in FIG. 1 and the like, and includes a plurality of communication paths.

The package 1 further includes a plurality of storage area portions. For example, although not shown, a third storage region portion may be provided in addition to the first storage region portion 11 and the second storage region portion 12. Accompanying this, there may be provided a communication path through which the substance flows from the third storage region portion to the first storage region portion 11 and a communication path through which the substance flows from the first storage region portion 11 to the third storage region portion. In addition, depending on the situation, a communication path may be provided between the second storage region portion and the third storage region portion.

Further, different materials may be stored in each of the storage region portions in advance. For example, the liquid may be stored in the first storage region, and different gases may be stored in the second storage region and the third storage region. In the configuration described above, the contents of the respective storage region portions can be mixed by repeatedly pressing the respective storage region portions.

In addition, the above description has exemplified a configuration in which a plurality of communication paths are provided between a pair of storage region portions. However, although the package 1 of the present invention is not shown, it may be between a pair of storage region portions 11 and 12. There is only one communication path. In this configuration, a substance can be circulated between the storage region portions 11 and 12 via the communication path 25, and it is possible to mix substances or to make gas bubbles contained in a liquid.

In this case, the communication path may be filled with a honeycomb structure, for example. Specifically, a polygonal shape such as a plurality of hexagonal shapes is covered in the communication path so that the gap material of these polygonal shapes circulates, and the communication path may also be constituted. In addition, the polygonal shaped object in the communication path may be formed by, for example, thermocompression-bonding the two sheet bodies forming the packaging body 1 into a polygon, or covered with a polygonal shaped object.

Here, in the above description, it has been exemplified that the outer shape of the packaging body 1 is rectangular, and the two storage region portions 11 and 12 are respectively formed into rectangular shapes. However, the shape of the packaging body 1 and the storage region portions 11 and 12 may be arbitrary. shape. For example, the outer shape may be a heart shape, a diamond shape, or an oval shape as shown in FIG. 9. At this time, the storage area portions 11 and 12 may have a shape in which the outer shape of the packaging body 1 itself is roughly bisected.

In the example shown in FIG. 9, the outer shape is a heart shape, and each of the storage area portions 11 and 12 is a shape formed by dividing the heart shape into two parts at the right and left in the center. Then, a cutting portion 45 a near the front end of the cutting discharge path 35 is set, and a notch 45 is formed as a cutout of the cutting portion 45 a. The cutouts 45 are cut as shown in FIG. 9 (b), respectively, so that the discharge passage 35 is opened.

The first storage region portion 11 and the second storage region portion 12 of the package 1 of the present invention are not limited to the same shape. For example, as shown in FIG. 10 (a), the shape of each of the storage region parts 11 and 12 may be different, such as the outer shape of the package 1 is rectangular, the first storage region part 11 is a quadrangle, and the second storage region part 12 is a triangle. . The front end portion of the triangular second storage area portion 12 is extended to form two discharge passages 36. Correspondingly, a cutting portion 46 a near the front end of the cutting discharge passage 36 is set, and a cutout 46 is formed as a cutout of the cutting portion 46 a. By cutting the notch 46 as shown in FIG. 10 (b), the discharge passage 36 is opened.

Furthermore, in the example of FIG. 10, the shape of the first storage region portion 11 and the second storage region portion 12 are symmetrically line-folded on the center line C, thereby becoming the first storage region portion as shown in FIG. 10 (c). 11 and the half of the 2nd storage area part 12 overlap. Therefore, it is easy to press the first storage region portion 11 and the second storage region portion 12, and it is easy to discharge the liquid from the discharge passage 36. Further, by folding as shown in FIG. 10 (c), the strength of the packaging body 1 itself can be increased, and the soil can be inserted into the soil or the like from the discharge port of the discharge passage 36. Thereby, it can be utilized in the process of providing a nutrient for a plant.

In addition, in the above, the case where two sheets of sheet bodies are laminated to constitute the packaging body 1 has been exemplified, but the packaging body 1 may have any structure. For example, each of the storage area portions may be configured by a container, and the communication path may be configured by a tube or a through hole. As another example of the structure of the package body 1, the package body 1 of the structure shown in FIG. 11 is demonstrated. In the package 1 shown in the figure, two storage region portions 11 and 12 having a substantially cylindrical shape having flexibility and an internal space are connected via an intermediate region 14 formed by a narrower outer shape than these storage region portions 11 and 12. . In addition, the intermediate region 14 is bonded to the outer surface member of the packaging body 1 at the central portion 14a, and the central portion 14a is blocked. Thereby, a space formed between the central portion 14a and the outer surface located around the central portion 14a becomes a communication path 28 in which the internal spaces of the first storage region portion 11 and the second storage region portion 12 communicate. The communication path 28 is formed to be extremely small in the same manner as described above. Therefore, when a liquid flows, fine bubbles are generated in the gas in the liquid. In addition, the front end of the first storage area portion 11 is formed with a discharge passage opening outside, and a discharge port as an open end is blocked by the cover 30. The communication path 28 is not limited to the above-mentioned configuration. For example, the first storage region portion 11 and the second storage region portion 12 may be connected via an intermediate member, and a communication path in which the first storage region portion 11 and the second storage region portion 12 communicate with each other may be formed in the intermediate member.

In the package 1 configured as described above, by alternately holding the first storage region portion 11, the second storage region portion 12, and the like, a gas-containing liquid in each of the storage region portions 11 and 12 flows through the communication path 28. As a result, as described above, a liquid containing fine bubbles can be generated. Further, by removing the cover 30 and opening the discharge port of the discharge passage, a liquid containing fine bubbles can be discharged. For example, when the liquid is a liquid fertilizer for plant cultivation, the liquid fertilizer containing fine air bubbles can be provided to the plant by piercing the package 1 shown in FIG. 11 into the soil of a pot or a cultivation box from the discharge port side.

In addition, as shown in FIG. 12, the packaging body 1 of the present invention may be formed of each of the storage region portions 11 and 12 and a communication path 23 communicating therebetween by an elastic member such as rubber. In the example of FIG. 12, the inside of the communication path 23 has a honeycomb structure. Further, in the example of FIG. 12, a discharge passage 37 communicating with the inside of the second storage area portion 12 is formed, and a cover 37 a is provided at a discharge port which is an open end of the discharge passage 37. With this configuration, the respective storage area portions 11 and 12 are pressed by alternately stepping on hands and feet, and the like, and a liquid containing a large number of fine bubbles can be generated. The liquid produced in such a large amount can be used, for example, as a pesticide.

In the above description, the case where the two storage area sections 11 and 12 are directly communicated is illustrated. However, as shown in FIG. 13, an intermediate storage area may be provided between the first storage area section 11 and the second storage area section 12. Department 15. In addition, it includes one or more first communication paths 24 to communicate the first storage region portion 11 and the intermediate storage region portion 15 and one or more second communication paths 25 to connect the second storage region portion 12 and the intermediate storage portion. The area section 15 communicates. A discharge passage communicating with any one of the storage area portions 11, 12, and 15 is also formed. In this configuration, by pressing only the first storage region portion 11 and the second storage region portion 12 at both ends, a substance can be caused to circulate through the communication paths 24 and 25 through the intermediate storage region portion 15, and minute bubbles can be generated more efficiently. . In addition, by discharging the liquid containing microbubbles from the discharge path, a required amount of liquid can be discharged.

The invention of the present application has been described above with reference to the above-mentioned embodiments and the like, but the invention of the present application is not limited to the above-mentioned embodiments. Various changes that can be understood by those skilled in the art can be made to the configuration and details of the invention of the present application within the scope of the invention of the present application.

In addition, the present invention is based on a patent application with an application number of 2016-204042 filed in Japan on October 18, 2016; and an application number of 2017-080429 filed in Japan on April 14, 2017 The patent applications enjoyed the benefits of these priority claims, and the contents recorded in these patent applications are all included in the description of this case.

Claims (12)

    A packaging body includes: a first storage region portion and a second storage region portion having an internal space for storing a plurality of substances; and a communication path through which the substances can circulate so that the internal space of the first storage region portion It communicates with the internal space of the said 2nd storage area part, The said 1st storage area part and the said 2nd storage area part are comprised so that an internal space may shrink / expand according to the pressure from the outside, and it is comprised as the said substance At least one of the substances is a gas, and at least the other is a liquid capable of containing gas bubbles, according to the reduction / enlargement of the internal space of the first storage area portion and the second storage area portion. The communication path is configured to generate fine bubbles in the liquid when the substance is circulated, and further includes a discharge path, the discharge path, and at least one of the first storage region portion and the second storage region portion. The internal space is connected to each other, and has a discharge port through which the substance is discharged, and is configured to be able to discharge through the discharge path. Blocked state changes to the opened state.         The package according to claim 1, wherein the package includes a plurality of the discharge channels and is configured to be capable of discharging the substance from the discharge channels by opening a discharge port of any one or more of the discharge channels. The amount varies between multiple states.         The package according to claim 2, wherein the package is configured to be able to be blocked from the discharge port of the discharge path in the outer periphery forming portion of the member forming the package itself, and the outer periphery forming portion is cut to A state in which a discharge port of the discharge passage is opened is changed, and the outer periphery forming portion is cut at different cutting locations so as to be able to change to a plurality of states in which a discharge amount of the substance from the discharge passage is different.         The package according to claim 1, wherein the package includes a plurality of the discharge channels, and is configured to be able to be blocked from all the discharge ports of the plurality of the discharge channels, and the number of openings to the discharge ports is different. Status changes.         The package according to claim 4, wherein the package is configured to be able to be blocked from the discharge port of the discharge path at the outer periphery forming portion of the member forming the package body, and the outer periphery forming portion is cut to the A state in which a discharge port of the discharge passage is opened is changed, and is configured to be able to change to a plurality of states in which the number of openings to the discharge port is different by cutting the outer periphery forming portion at different cutting locations.         The package according to claim 5, further comprising a discharge passage at one end of a predetermined number of the discharge passages communicated with the internal space of the first storage area portion, and the internal space of the second storage area portion A predetermined number of the discharge passages at the other end of the discharge passage that are communicated are different in the number of the discharge passages for the discharge passage at the one end and the discharge passage at the other end, and are cut for the discharge passage opening at the one end. The cutting portion that cuts the outer periphery forming portion is different from the cutting portion that cuts the outer periphery forming portion for the discharge passage opening at the other end.         The package according to claim 5, further comprising a plurality of the discharge channels communicating with an internal space of at least one of the first storage region portion and the second storage region portion, and a plurality of the discharge channels At least one of them is formed longer than the other, and is configured to open at least one of the plurality of discharge passages that is formed longer than the other by opening the peripheral formation portion at a first cutting portion, By cutting the outer periphery forming portion at a second cutting portion different from the first cutting portion, all of the plurality of the discharge passages are opened.         The package according to claim 3, 5, 6, or 7, wherein, for each of the different cutting locations, a notch portion defining a cutting position of the cutting location is formed on an outer edge of the packaging body .         According to the packaging body according to any one of claims 1 to 8, a part of two sheet bodies having flexibility is bonded together, and the first storage region portion is formed between the two sheet bodies. The internal space, the internal space of the second storage area portion, the communication path, and the discharge path, and the discharge port of the discharge path is in a state of being blocked by the two sheet bodies being bonded together, and constitutes In order to cut off the peripheral forming portion formed by bonding the two sheet bodies to the first storage area portion and / or the second storage area portion, a discharge port of the discharge passage is opened.         A method for mixing and discharging substances, in which first and second storage region portions storing at least one substance that is at least one gas and at least another substance that is a liquid capable of containing gas bubbles are alternately reduced in an internal space and are alternately reduced / Enlarge the internal space of the first storage area portion and the internal space of the second storage area portion, thereby allowing the substance to be in the internal space of the first storage area portion and the The internal communication space communicates with each other through a communication path, so that gas generates fine bubbles in the liquid in the communication path, and changes the discharge port of the discharge path from a blocked state to an opened state. The discharge path and the first An internal space of at least one of the storage area portion and the second storage area portion communicates with each other, and has the discharge port through which the substance is discharged from the internal space.         The mixed substance discharge method according to claim 10, wherein the number of openings to the discharge port or the discharge of the substance from the discharge path is from a state in which the discharge ports of the plurality of discharge paths are all blocked. Multiple state changes with varying amounts.         The method for mixing and discharging a substance according to claim 11, wherein starting from a state in which a discharge port of the discharge path is blocked at an outer periphery forming portion of a component forming the packaging body itself, the outer periphery forming portion is cut to the The state in which the discharge port of the discharge passage is opened is changed, and the outer periphery forming portion is cut at different cutting locations, whereby the number of openings to the discharge port or the discharge amount of the substance from the discharge passage are different. Multiple status changes.