JP4889624B2 - Railway rail support pad - Google Patents

Description

  The present invention relates to a railroad rail support pad that is interposed between a rail and a rail support in a railroad track and supports the rail.

  As a conventional rail rail support pad of this type, as disclosed in Patent Document 1, for example, a pad interposed between a rail and a rail support body, that is, a corner of a bag body has fluidity and room temperature curing. The bag body has an inlet for injecting the resin, and an exhaust port is provided in the bag body at a position diagonal to the inlet, and when the resin is injected into the bag body from the inlet port, the air in the bag body There is known a railroad rail support pad which is discharged from the exhaust port and excess resin in the bag body is also discharged from the exhaust port.

This railroad rail support pad is generally mounted on a rail support body, and a rubber pad is mounted on the rail support body so as to receive a rail mounted on the rubber pad. . Railway rail support pads and rubber pads are arranged at appropriate intervals in the length direction of the rail, and the bag-like rail support pads are sandwiched between the rail support and the rubber pads. The rail is placed on the rubber pad, and the adhesion of the rail to the rail support is adjusted by the resin injected into the bag-like railroad rail support pad.
JP 2004-84467 A

  In the railroad rail support pad disclosed in Patent Document 1, the work of injecting resin into the bag body from the injection port must be performed on site, and there is a problem that the work is troublesome. In addition, there has been a problem that the periphery is soiled when the resin is injected into the bag body from the injection port and when the excess resin in the bag body is discharged from the exhaust port.

  The object of the present invention is to solve such a problem, and it is not necessary to inject resin at the site, and there is no contamination of the surroundings by the resin at the site, and the operation at the site can be easily performed. In order to do so, the outer bag in which the first reaction solution as the main agent and the second reaction solution as the curing agent are separately put in the inner bag made of a synthetic resin sheet, and the outer bag A rail rail support pad provided with a secondary bag that is provided so as to communicate with and can be separated from the outer bag, and is configured such that the first reaction solution and the second reaction solution are mixed by an external pressure from the outer bag. For railroad rail support that prevents the flow path from being blocked by residual heat when the outer bag and the secondary bag are integrally heat-sealed so that the width of the flow path constituting the communication portion of the outer bag and the sub-bag is reduced. To provide a pad.

  The rail-rail support pad according to claim 1 of the present invention is made using a synthetic resin sheet as a material, and the first reaction solution as the main agent and the second reaction solution as the curing agent are separately contained therein. An outer bag to be put in, and a sub-bag which is provided so as to communicate with the outer bag and can be separated from the outer bag, so that the first reaction solution and the second reaction solution are mixed by the external pressure from the outer bag. A rail rail support pad configured as described above, which is characterized in that a release agent is interposed in a flow path that constitutes a communication portion between the outer bag and the auxiliary bag.

  As described above, the rail rail support pad of the present invention can be cured by mixing the first reaction solution and the second reaction solution in the outer bag by applying an external pressure from the outer bag. The surplus of the compound of the first reaction solution and the second reaction solution can be guided to the side bag, and this side bag can be easily removed from the outer bag. There is no need to carry out the work, and there is no contamination of the surrounding area due to the resin at the work site. In addition, when the outer bag and the auxiliary bag are integrally heat-sealed so that the width of the flow path constituting the communication portion of the outer bag and the auxiliary bag becomes narrow, residual heat is applied to the material of the bag constituting the flow path portion. Even if the material of the bag is softened, the release agent is interposed in the flow path that forms the communication part between the outer bag and the auxiliary bag, so that the flow path is surely prevented from being blocked by the residual heat of the heat seal. be able to.

Embodiments of the present invention will be specifically described below with reference to the drawings.
First, the first embodiment shown in FIG. 1 to FIG. 10 will be described. 1 is an outer bag, 2 is the same size as the inside of the outer bag 1 and is stored in the outer bag 1. The inner bag 3 is a second inner bag which is smaller than the first inner bag 2 and is also housed in the outer bag 1, and these outer bag 1, first inner bag 2 and second inner bag 3. Is made using a synthetic resin sheet as a material.

  The outer bag 1 and the first and second inner bags 2 and 3 are each formed in a four-sided seal, each having a rectangular planar shape, specifically a rectangular shape, when placed on a table or the like. And among these outer bag 1, first and second inner bags 2 and 3, outer bag 1 is made of a film material whose inner layer is a low melting point, for example, polyethylene, and the outer layer is a film material having a higher melting point than the inner layer, For example, the outer bag 1 is made of a general sheet material made of nylon, and heat-sealed the inner layers of the four sides of the two sheet materials 1A and 1B.

  The first and second inner bags 2 and 3 are basically composed of a film material having a low melting point, and the outer layer is composed of a film material having a higher melting point than the inner layer, like the outer bag 1. Although it is made of a sheet material, the film material constituting the inner layer 4 is a blend of linear low density polyethylene and polybutene-1, and the linear low density polyethylene has a density of 0.915. Those in the range of ˜0.950 are used, and the blend ratio of the linear low density polyethylene and polybutene-1 is set to be in the range of 70:30 to 98: 2. And when making the said 1st and 2nd inner bags 2 and 3 by heat sealing using the film material formed by blending this linear low density polyethylene and polybutene-1, the flow direction (arrow A direction) of a film It was found that there is a difference in the seal strength between the heat seal portion in the vertical (X) direction and the heat seal portion in the (Y) direction parallel to the film flow direction (arrow A direction). That is, the strength in the width direction facing the film flow direction (arrow A direction) in the vertical (X) direction is perpendicular to the film flow direction (arrow A direction) in the parallel (Y) direction. It tends to be weaker than the strength in the width direction. This is for the following reason. The resin that is the material of the inner layer 4 of the first and second inner bags 2 and 3 is a blend of linear low-density polyethylene and polybutene-1, and the inner layer made of this blended film material. When laminating 4 and the outer layer 5 made of nylon or polyethylene terephthalate, the processing speed acts to show uniaxial orientation between the linear low density polyethylene and the polybutene-1. That is, a linear low density polyethylene resin and a polybutene-1 resin are irregularly arranged. This state is shown in FIG. 4, in which 6 is a linear low density polyethylene resin, and 7 is a polybutene-1 resin. In this way, when the inner layer 4 has uniaxial orientation, in order to make the inner bag 2 and 3 of the four-side seal, when the film material of the two-layer structure is overlapped and the periphery thereof is heat-sealed, As shown in FIG. 5, 6 parts of linear low density polyethylene resin and 6 parts of linear low density polyethylene resin, 7 parts of polybutene-1 resin and 7 parts of polybutene-1 resin, linear low density polyethylene 6 parts of the resin and 7 parts of the resin of polybutene-1 can be combined to face each other. At this time, 6 parts of linear low density polyethylene resin, 6 parts of linear low density polyethylene resin, 7 parts of polybutene-1 and 7 parts of polybutene-1 are heat-sealed with the same kind of resins. Therefore, the heat seal strength within the range of the characteristics of the resin can be obtained. However, since different types of resins face each other in the portion where 6 parts of the linear low density polyethylene resin and 7 parts of the polybutene-1 face each other, the heat seal strength with individual characteristics does not appear. Such a state is mixed on the heat seal surface. Depending on the uniaxial orientation and the heat sealing characteristics by the combination of the three patterns, and the heat sealing direction, the following phenomenon occurs.

  The combination of the three patterns is irregular at the sealing edge in the width direction facing the film flow direction (arrow A direction) in the heat seal portion in the direction (X) perpendicular to the film flow direction (arrow A direction). Appears (see FIG. 6). On the other hand, the three patterns are formed on the sealing edge in the width direction that is perpendicular to the film flow direction (arrow A direction) in the heat seal portion in the (Y) direction parallel to the film flow direction (arrow A direction). One of the combinations appears (see FIG. 7).

  It is a well-known fact that when measuring the heat seal strength, the seal width and strength of the object are in a proportional relationship, and the wider the width, the higher the strength. In the width direction facing the film flow direction (arrow A direction) of the heat seal portion perpendicular (X) to the film flow direction (arrow A direction), there is no combination of the three patterns at the seal edge. A combination of 6 parts of linear low density polyethylene resin, 6 parts of linear low density polyethylene resin, 7 parts of polybutene-1 and 7 parts of polybutene-1 due to appearance in the regulations Occupies less than 100% of the seal width, and the presence of a combination of 6 parts of linear low density polyethylene resin and 7 parts of polybutene-1 at the seal edge reduces the heat seal strength. In the width direction perpendicular to the film flow direction (arrow A direction) of the heat seal portion in the (Y) direction parallel to the film flow direction (arrow A direction), sealing is performed because the molecules are uniaxially oriented. When a combination of 6 parts of a linear low density polyethylene resin and 6 parts of a linear low density polyethylene resin comes out at the edge, a combination of 7 parts of polybutene-1 resin and 7 parts of polybutene-1 resin In some cases, a combination of 6 parts of a linear low density polyethylene resin and 7 parts of a polybutene-1 resin may appear. Compared with the sealing strength in the width direction facing the film flow direction (arrow A direction) in the heat seal portion perpendicular (X) to the film flow direction (arrow A direction), linear low density polyethylene resin When a combination of 6 parts and 6 parts of a linear low density polyethylene resin comes out, or when a combination of 7 parts of polybutene-1 resin and 7 parts of polybutene-1 comes out, the strength is strong and linear When a combination of 6 parts of low-density polyethylene resin and 7 parts of polybutene-1 is present, the strength is weak. However, the seal strength looks at the strength of the seal edge. If a combination of 6 parts of linear low density polyethylene resin and 7 parts of polybutene-1 is present, the strength is weak and peeling occurs. If the next 6 parts of linear linear low density polyethylene resin and 6 parts of linear low density polyethylene resin or 7 parts of polybutene-1 resin and 7 parts of polybutene-1 are produced The seal strength is increased. When viewed in total, the sealing strength in the width direction perpendicular to the film flow direction (arrow A direction) in the heat seal portion parallel (Y) direction to the film flow direction (arrow A direction) is the film flow direction. It becomes stronger than the sealing strength in the width direction facing the film flow direction (arrow A direction) in the heat seal portion in the vertical (X) direction with respect to (arrow A direction). In order to express such characteristics, as described above, the linear low density polyethylene as the material of the inner layer 4 is preferably one having a density in the range of 0.915 to 0.950. The blend ratio of density polyethylene and polybutene-1 is preferably in the range of 70:30 to 98: 2. Outside these ranges, the seal strength in the width direction facing the film flow direction (arrow A direction) in the heat seal portion perpendicular to the film flow direction (arrow A direction) and the film flow direction. A clear difference is made between the seal strength in the width direction perpendicular to the film flow direction (arrow A direction) in the heat seal portion in the parallel (Y) direction with respect to (arrow A direction). Is difficult to achieve.

  In the present embodiment, by utilizing the above-described properties, the two-layer film materials are overlapped and the periphery thereof is heat-sealed, whereby the four-side sealed rectangular first and second inner bags are sealed. 2 and 3 at that time, the width (X) direction perpendicular to the film flow direction (arrow A direction), that is, the width facing the film flow direction (arrow A direction) of the heat seal portion 8 on the short side. The seal strength in the direction is parallel (Y) to the film flow direction (arrow A direction), that is, the seal strength in the width direction facing the film flow direction (arrow A direction) of the heat seal portion 9 on the long side. Further, the seal portion is configured to peel from the width direction of the heat seal portion 8 on the short side side due to an increase in internal pressure of the first and second inner bags 2 and 3. More specifically, the widthwise dimension of one heat seal portion 8 on the short side so that the seal portion peels quickly from the width direction of one heat seal portion 8 among the heat seal portions 8 facing each other on the short side. Is shorter than the dimension in the width direction of the other heat seal portion 8 on the short side.

  In short, the external pressure is applied to the first and second inner bags 2 and 3 by forming a portion having a narrow heat seal width at an appropriate location in one heat seal portion 8 of the heat seal portions 8 facing each other on the short side. By applying (pressing and pressurizing force) and increasing the internal pressure, the narrow part of the heat seal width can be peeled off quickly and opened.

  The first inner bag 2 made as described above contains the first reaction solution as the main agent from one side of the opening of the first inner bag 2 so that the first inner bag 2 is sealed. The second inner bag 3 is closed inside the second inner bag 3 with the second reaction solution stored as a curing agent from one side of the opening of the second inner bag 3, and the second inner bag 3 is closed in a sealed state. . The first inner bag 2 in which the first reaction solution as the main agent is put and the second inner bag 3 in which the second reaction solution as the hardener is put are outer bags from the opening 1 side of the outer bag 1. 1 and at the same time, in the outer bag 1, a single glass fiber cloth 10 having the same size as the inner size of the outer bag 1 is placed along one side of the inner bag 2. The opening 1 side of the outer bag 1 is closed in a sealed state. In addition, the outer bag 1 is integrally provided so that the auxiliary bag 11 for removing the excess of the compound of the first reaction solution and the second reaction solution, which are the contents at the time of use, communicates with one end corner portion. It has been. In the embodiment shown in the drawings, the auxiliary bag 11 is continuously formed so that one side extends straight from the long side of the outer bag 1. And in the flow path 12 which comprises the communication part of the said outer bag 1 and the subbag 11, the peeling agent 13 is interposed beforehand before forming the outer bag 1 and the subbag 11 by heat sealing integrally. . Specifically, the release agent 13 is applied to the inner surface of one sheet material 1A out of the two front and back sheet materials 1A and 1B constituting the outer bag 1 and the auxiliary bag 11. The outlet of the flow path 12, that is, the inlet on the side of the auxiliary bag 11 is simply sealed and closed, and the seal portion 14 a is configured to be peeled off by the internal pressure from the outer bag 1 side. As described above, the release agent 13 is interposed in the flow path 12 in the communication portion between the outer bag 1 and the sub bag 11, so that the width of the flow channel 12 in the communication portion between the outer bag 1 and the sub bag 11 is narrow. Even when the outer bag 1 and the sub-bag 11 are integrally heat-sealed so that the sheet material 1A, 1B constituting the flow path 12 portion is overheated and the sheet materials 1A, 1B soften, the flow path Since the release agent 13 is interposed in 12, the passage 12 can be reliably prevented from being blocked by the residual heat of the heat seal. As the release agent 13, a silicon-based, aqueous-based or solvent-based release agent is used. Further, the sub bag 11 is formed with a plurality of partition spaces 15 that are partitioned by a seal portion 14b that is easily peeled off by an internal pressure, like the seal portion 14a.

  A first inner bag 2 containing a first reaction solution as a main agent and a second inner bag 3 containing a second reaction solution as a curing agent are placed in an outer bag 1. As shown in FIGS. 10 and 11, a rail rail support pad 16 shown in FIG. 10 is placed on a concrete or wooden sleeper-like rail support body 17, on which a rubber pad 18 is placed. A rail 19 placed on a pad 18 made of metal is received. Specifically, when the rail rail support pad 16 is placed on the rail support body 17, the rail 19 is in a floating state, and external pressure is applied to the rail rail support pad 16 so that the first and second inner bags 2 and 3 are placed. A portion having a narrow heat seal width is peeled and opened to mix the first reaction solution and the second reaction solution, which are the contents, in the outer bag 1, and the rail rail support pad 16 is attached to the rail support body. 17 on top. Then, a rubber pad 18 is placed on the rail support pad 16, and the rail 19 is lowered onto the rubber pad 18 through a U-shaped iron plate 20 to a predetermined height. Conclude. The U-shaped iron plate 20 is set on the rubber pad 18 along the long side of the rail rail support pad 16. When the rail 19 is placed on the U-shaped iron plate 20, the rail-rail support pad 16 is strongly pressed, and the unnecessary portion of the compound of the first reaction solution and the second reaction solution is used as an extra portion. 12 flows into the side of the auxiliary bag 11. At that time, the seal portion 14a is opened by the pressure applied to the seal portion 14a via the flow path 12 due to unnecessary components of the first reaction solution and the second reaction solution, and the first reaction solution and the second reaction solution An unnecessary portion of the compound with the reaction solution enters the partition space 15 at a position closest to the flow path 12, and a seal portion 14 b between the partition space 15 and the next partition space 15 adjacent to the partition space 15 is opened by an internal pressure. Unnecessary components of the compounds of the first reaction solution and the second reaction solution enter the next partition space 15, and in this manner, the compounds of the first reaction solution and the second reaction solution are contained in the plurality of partition spaces 15. Unnecessary components enter and unnecessary components of the compounds of the first reaction solution and the second reaction solution are removed from the outer bag 1. Thereafter, after confirming that the compound of the first reaction solution and the second reaction solution in the rail rail support pad 16 has been cured, the auxiliary bag 11 is separated from the outer bag 1 with a scissors or a cutter. . That is, between the rail support body 17 and the rail 19 via the rubber pad 18 depending on the thickness of the cured body of the compound of the first reaction solution and the second reaction solution in the rail support pad 16. Adhesive force is adjusted, and unnecessary components of the compounds of the first reaction solution and the second reaction solution are stored in the auxiliary bag 11 and separated from the outer bag 1. In addition, the compound of the said 1st reaction solution and the 2nd reaction solution comes to wrap the glass fiber cloth 10, and the intensity | strength of the hardening body of this compound will improve.

  By the way, the first reaction solution as the main agent housed in the first inner bag 2 is specifically a compound containing an epoxy group, a compound containing an isocyanate group, an unsaturated dibasic acid (glycol and anhydrous A compound of maleic acid, fumaric acid, etc., a compound of acrylic acid or acrylate, a compound containing a silanol group, a compound containing an amino group, and the like as a curing agent stored in the second inner bag 3 Specific examples of the second reaction solution include compounds such as polyamines, acid anhydrides and polyphenols, compounds containing hydroxyl groups, compounds such as peroxides, compounds containing isocyanate groups, and compounds such as formaldehyde. Then, a second reaction solution that matches the first reaction solution stored in the first inner bag 2 is stored in the second inner bag 3, for example, the first inner bag 2. When a compound containing an epoxy group is used as the first reaction solution stored in the container, a compound such as polyamine, acid anhydride, or polyphenol is used as the second reaction solution stored in the second inner bag 3. When a compound containing an isocyanate group is used as the first reaction solution, a compound containing a hydroxyl group is used as the second reaction solution, and an unsaturated dibasic acid (glycol and maleic anhydride, When a compound such as fumaric acid) or a compound such as acrylic acid or acrylate is used, a compound such as a peroxide is used as the second reaction solution, and a compound containing a silanol group is used as the first reaction solution. A compound containing an isocyanate group is used as the second reaction solution, and a compound such as formaldehyde is used as the second reaction solution when a compound containing an amino group is used as the first reaction solution, A combination of the first reaction solution as the main agent stored in the first inner bag 2 and the second reaction solution as the curing agent stored in the second inner bag 3 is appropriately selected. It is. In short, it is sufficient if the first reaction solution as the main agent and the second reaction solution as the curing agent are mixed and resinized and cured.

  Note that the ratio of the amount of the first reaction solution as the main agent and the amount of the second reaction solution as the curing agent varies depending on the type of the reaction solution, and the first inner bag 2 and the second reaction solution correspond to the amount used. The size of the inner bag 3 is determined.

  The sealing portions 14a and 14b are sealed using a sealing agent that does not spontaneously dissolve by the compound of the first reaction solution and the second reaction solution that are the contents, and the sealing agent is a synthetic rubber-based adhesive. It is appropriately selected from among adhesives, natural rubber adhesives, acrylic adhesives, part coat sealants, hot melt resins and the like. In addition, you may make it seal easily using an easy peel tape instead of using these sealing agents.

  Next, a second embodiment shown in FIG. 12 will be described. In the first embodiment, the first inner bag 2 in which the first reaction solution as the main agent is accommodated in the outer bag 1; A second inner bag 3 containing a second reaction solution as a curing agent is placed. In the second embodiment, the first reaction solution or curing agent as a main agent is contained in the outer bag 1. The second reaction solution is stored directly, and only one inner bag 21 storing the second reaction solution as the curing agent or the first reaction solution as the main agent is stored in the outer bag 1. I have to. Similarly to the first and second inner bags 2 and 3 of the first embodiment, the inner bag 21 used in the second embodiment can be opened by external pressure. The other configuration is the same as that of the first embodiment, and a release agent 13 is interposed in the flow path 12 in the communication portion between the outer bag 1 and the auxiliary bag 11.

  Although two embodiments have been described above, an inner bag containing a curing accelerator may be stored in the outer bag 1 as necessary. This inner bag can also be opened by external pressure in the same manner as the first and second inner bags 2 and 3 of the first embodiment. Moreover, you may put a hardening accelerator directly in the outer bag 1 in 1st Embodiment.

  Furthermore, as a method of opening the inner bag by external pressure, in addition to the method using linear low density polyethylene and polybutene-1 as described above, a part of the seal constituting the inner bag is weakened in strength. There is a method of opening the weak part by an external pressure, and it is not limited to using linear low density polyethylene and polybutene-1.

  Next, a third embodiment shown in FIG. 13 will be described. This third embodiment is formed by the seal portion 14b and the seal portion 14b of the auxiliary bag 11 described in the first embodiment. A sealed portion 22 that is simply sealed is formed in the center of the partition space 15 in the same manner as the seal portion 14b, and the compound of the first reaction solution and the second reaction solution from the outer bag 1 is formed. The unnecessary portion of the compound of the first reaction solution and the second reaction solution flows into the partition space 15 by being gradually opened from the central portion of the seal portion 14b and the seal portion 22 by the internal pressure due to the unnecessary portion. Also in the third embodiment, the release agent 13 is interposed in the flow path 12 in the communication portion between the outer bag 1 and the auxiliary bag 11. Other configurations are the same as those in the first embodiment or the second embodiment.

  Next, a fourth embodiment shown in FIG. 14 will be described. In the fourth embodiment, the auxiliary bag 11 is provided so as to protrude from the outer bag 1 so as to be parallel to the long side of the outer bag 1. It is. Also in the fourth embodiment, a plurality of partition spaces 15 are formed in the auxiliary bag 11 by the seal portion 14b. However, as in the third embodiment, the seal portion 14b and the seal portion 14b You may make it form the seal part 22 sealed easily in the center part in the formed partition space 15. FIG. Also in the fourth embodiment, the release agent 13 is interposed in the flow path 12 in the communication portion between the outer bag 1 and the sub-bag 11. Other configurations are the same as those in the first embodiment or the second embodiment.

  Next, a fifth embodiment shown in FIG. 15 will be described. In the fifth embodiment, the auxiliary bag 11 is provided so as to protrude from the corner portion of one end of the outer bag 1 at a right angle. Also in the fifth embodiment, a plurality of partition spaces 15 are formed in the auxiliary bag 11 by the seal portion 14b. However, as in the third embodiment, the seal portion 14b and the seal portion 14b You may make it form the seal part 22 sealed easily in the center part in the formed partition space 15. FIG. Also in the fifth embodiment, the release agent 13 is interposed in the flow path 12 in the communication portion between the outer bag 1 and the sub bag 11. Other configurations are the same as those in the first embodiment or the second embodiment.

  In these third to fifth embodiments, unnecessary components of the compounds of the first reaction solution and the second reaction solution enter the plurality of partition spaces 15 so that the first reaction solution and the second reaction solution are extracted from the outer bag 1. After the unnecessary portion of the compound with the reaction solution is removed, it is confirmed that the curing of the compound with the first reaction solution and the second reaction solution in the rail 16 is not completed. The bag 11 is separated from the outer bag 1 with a scissors or a cutter.

  Further, in the third to fifth embodiments, the first reaction solution as the main agent or the second reaction solution as the curing agent is directly stored in the outer bag 1 as in the second embodiment. Only one inner bag in which the second reaction solution as the curing agent or the first reaction solution as the main agent is stored may be stored in the outer bag 1.

It is a disassembled perspective view of the outer bag, the 1st inner bag, the 2nd inner bag, and the glass fiber cloth which comprise the railroad rail support pad in the 1st Embodiment of this invention. (A) is a plan view of the first inner bag, (B) is a plan view of the second inner bag. It is an expanded sectional view of the 1st and 2nd inner bag. It is explanatory drawing which shows the orientation of the resin. It is explanatory drawing which shows the combined state of the resin part of the linear low density polyethylene in the same heat seal part, and the resin part of polybutene-1. It is a principal part enlarged view of the seal edge of the heat seal part of the short side. It is a principal part enlarged view of the seal edge of the heat seal part of the same long side. It is ZZ expanded sectional drawing of FIG. It is a perspective view of the railroad rail support pad. It is a perspective view which shows the use condition of the railroad rail support pad. It is a front view which shows the use condition of the railroad rail support pad. It is a disassembled perspective view of the outer bag, inner bag, and glass fiber cloth which comprise the railroad rail support pad in the 2nd Embodiment of this invention. It is a top view of the rail-rail support pad in the 3rd Embodiment of this invention. It is a top view of the railroad rail support pad in the 4th embodiment of the present invention. It is a top view of the railroad rail support pad in the 5th embodiment of the present invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Outer bag 1A, 1B Sheet material 2 First inner bag 3 Second inner bag 4 Inner layer 5 Outer layer 6 Resin of linear low density polyethylene 7 Resin of polybutene-1 8 Heat seal part on short side 9 Long side Side heat seal part 10 Glass fiber cloth 11 Sub bag 12 Flow path 13 Release agent 14a, 14b Seal part 15 Partition space 16 Rail rail support pad 17 Rail support body 18 Rubber pad 19 Rail 20 U-shaped iron plate 21 Inner bag 22 Seal part

Claims (1)

An outer bag made of a synthetic resin sheet as a material, in which a first reaction solution as a main agent and a second reaction solution as a curing agent are separately placed, is provided to communicate with the outer bag. A rail rail support pad configured to mix the first reaction solution and the second reaction solution by an external pressure from the outer bag, the auxiliary bag being separable from the outer bag, A rail-rail support pad, wherein a release agent is interposed in a flow path that constitutes a communicating portion of a sub-bag.

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