JP2002193328A - Packaging and kneading system for fluid material for use in construction, apparatus and material therefor - Google Patents

Abstract

PROBLEM TO BE SOLVED: To eliminate inconveniences in filling and taking out a fluid material for use in construction, packing with the material filled, shipment, transportation and storage while making use of the advantage that a container is difficult to support itself to simply and economically perform a kneading operation at a construction site. SOLUTION: The container A which is difficult to support itself is received and supported in a support frame B, and the container A received and supported in the support frame B is filled with a fluid material for use in construction. The container A is lidded and also received in a corrugated fiberboard box C together with the frame B, and the box C is lidded. The box C is shipped, transported and stored in this state. In construction, the container A is taken out of the box C and the frame B and received in a kneading container D. Paddles of an installed-type kneader or a handy kneader are inserted into the container A in the container D to knead the fluid material.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a packaging and kneading system for powdery, granular, liquid or viscous fluid materials for construction, such as sealing materials, various paints, etc., and equipment thereof. .

[Prior art]

[0002] The above-mentioned building fluid material is filled in a self-supporting container made of paper or soft synthetic resin or a self-supporting container made of metal or hard synthetic resin, packed, shipped, transported or stored. There are various types in which the required kneading is performed using a dedicated kneading container made of metal or hard synthetic resin.

[0003]

The difficult-to-self-support container made of paper or soft synthetic resin is literally difficult to be self-supporting, so that the material is filled or unloaded as compared with a self-supporting container made of metal or hard synthetic resin. In addition, it is also inconvenient to pack, ship, transport or store the material in a filled state.

[0004] However, self-contained containers are relatively expensive, and must be recovered after use by once crushing or in a bulky state. When incinerated or provided for recycling, it has the drawback of generating harmful substances such as dioxin, whereas the non-self-supporting containers are relatively inexpensive and can be collected in a bulky state such as easily folded after use. Further, when incinerated or provided for recycling, harmful substances such as dioxin are hardly generated, which is advantageous as a container.

[0005] A dedicated kneading container is used repeatedly for putting the material therein and kneading the material with a paddle of a known stationary kneader or a handy kneader. Therefore, when adding new material, it is necessary to clean it each time so that there is no remaining different material or material in a semi-cured state, which is troublesome and workability Is extremely bad.
If the disposable paper box is internally used to avoid these problems, the washing operation is not required, but this time, the cost of the disposable paper box is increased and the economy is uneconomical.

Accordingly, the present invention provides an inconvenient method for filling or unloading the material while taking advantage of the advantage of the hardly self-supporting container.
An object of the present invention is to eliminate the inconvenience of packing, shipping, transporting, and storing in a filled state, and to make it possible to easily and economically perform a kneading operation at a construction site.

[0007]

SUMMARY OF THE INVENTION A packaging and kneading system for a building fluid material according to the present invention accommodates and supports a hardly self-supporting container A in a support frame B. The self-contained container A is filled with a building fluid material, the hardly self-contained container A is closed, and the supporting frame B is stored in a cardboard box C, and the cardboard box C is closed. At the time of shipping, transportation, storage, and construction, the container A is taken out of the cardboard box C and the supporting frame B, and the kneading container D is removed.
And a paddle of an installation-type kneader or a handy-type kneader is inserted into the difficult-to-stand-alone container A in the kneading container D to knead the building fluid material. In this case, it is desirable to store the hardly autonomous container A in the kneading container D without rotating relative to each other.

Further, the packaging and kneading system for a building fluid material according to the present invention accommodates and supports a hardly self-supporting container E in a support frame F, and stores and supports the hardly autonomous container E in the support frame F. Is filled with a building fluid material, the hard-standing container E is closed, and the supporting frame F is stored in a cardboard box G, and the cardboard box G is closed. Then, when constructing, the difficult-to-self-support container E together with the support frame F,
Take it out of the cardboard box G, put it in the kneading container D,
It is characterized in that a paddle of an installation type kneader or a handy type kneader is inserted into a difficult self-supporting container E supported by a support frame F in the kneading container D to knead the building fluid material. . In this case, it is desirable that the support frame F that stores and supports the hardly self-supporting container E be stored in the kneading container D without rotating relative to each other.

The equipment for packaging and kneading fluid material for construction according to the present invention has an annular downward recess 4 outside the upper surface opening 1 of a bottomed cylinder a, and an outer periphery of the bottomed cylinder a. Are formed on the surface at required intervals, and the upper opening 1 is closed by a cover plate 8; a hard-standing container A; and a bottomed cylinder of the hard-standing container A A window window 9 is provided at a position opposite to a self-standing cylindrical body b having a size capable of inserting and storing the body a.
9, a cardboard box C for accommodating the difficult-to-self-support container A together with the support frame B, and provided at a position close to and below the peripheral edge 12 of the upper surface opening 11 of the bottomed cylindrical body d. A kneading container D having both ends of a handle 14 rotatably supported by the shaft supporting portions 13 and 13 and vertically long grooves 15... Provided at required intervals on the inner peripheral surface of the bottomed cylindrical body d; The storage and support of the non-self-supporting container A in the support frame B is performed in a state where the above-mentioned annular downward recess 4 is put on the lip 10 of the upper surface opening of the latter, and The state in which A does not relatively rotate with respect to the kneading container D is performed by the engagement between the above-mentioned vertically long ridges 7... And the above-mentioned vertically long concave grooves 15. .

[0010] The packaging and kneading system equipment for a building fluid material according to the present invention comprises an annular downward recess 2 outside the upper surface opening 20 of the bottomed cylinder e.
3 and a hardly self-supporting container E in which an outer peripheral annular piece 26 is formed so as to protrude from an outer periphery of a lower end of the bottomed cylindrical body e so as to close the upper surface opening 20 with a cover plate 27; The window hole 2 is provided at a position opposite to the self-standing cylinder f formed to have a size capable of fitting and storing the bottomed cylinder e of the difficult self-standing container E.
8 and 28, and window openings 28 and 2
8 project outwardly from the lower side edge, and furthermore, the lower surface opening is adjusted to a required diameter such that the peripheral edge portion 30 is mounted on the outer peripheral annular piece 26 of the bottomed cylindrical body e. A set supporting frame F; a cardboard box G for accommodating the difficult-to-self-support container E together with the supporting frame F; and a shaft support provided at a position close to and below the peripheral edge 12 of the upper surface opening 11 of the bottomed cylindrical body d. A kneading container D having pivotally rotatably supporting both ends of a handle 14 and opening to the peripheral edge 12 to form upward notches 19; The storage support in the support frame F is performed by the above-mentioned annular downward recessed portion 23 by the peripheral edge portion 29 of the upper surface opening of the latter.
And the peripheral edge 30 of the lower end of the latter is mounted on the outer peripheral annular piece 26, and the non-autonomous container E and the support frame F do not rotate relative to the kneading container D. The state is that the outward projecting piece 2 of the support frame F is
8 ′ and 28 ′ are connected to the above-mentioned cutouts 19,
19 to be performed.

[0011]

DESCRIPTION OF THE PREFERRED EMBODIMENTS One embodiment of the present invention will be described with reference to FIGS. A is a difficult self-supporting container integrally formed of a thin-layer soft synthetic resin, and its configuration is as follows. Although the thickness of the hard-to-self-support container A is emphasized in the drawing, it is actually difficult to make the self-support independently literally, especially when the material is full, the peripheral surface of the container A is inflated. It is a thin layer.

The reference numeral a designates a bottomed cylindrical body made of a thin-layer soft synthetic resin and having a flat circular shape, which gradually increases in diameter from the lower side to the upper side. Part 3
Are continuously formed, thereby forming an annular downward recess 4 outside the upper surface opening 1. Reference numerals 5 and 5 denote downward cutouts provided at positions opposing the hanging part 3, and reference numerals 6 and 6 denote horizontal elongated holes provided at positions facing the hanging part 3. 7 ...
Is a vertically elongated ridge continuously formed at an interval of 90 degrees on the outer peripheral surface of the bottomed cylindrical body a, and a protruding piece 7 'extends at the lower end thereof.

Reference numeral 8 denotes a circular cover plate made of a thin-layer soft synthetic resin, which is fitted into the upper surface opening 1 after filling the material into the bottomed cylindrical body a and welding the periphery thereof with a high-frequency welder or the like.
If a circular cutting thread along the welded portion is embedded in the cover plate 8 or a circular cutout groove is provided along the welded portion instead of embedding the cutout thread, It is convenient to open the lid. Further, the cover plate 8 may be provided with a detachable entrance with a cap.

B is a support frame formed of cardboard or corrugated cardboard, which is a bottomed cylindrical body a
The window holes 9, 9 are formed at opposing positions on the diameter line of a flat circular, bottomless self-standing cylinder b formed in a size that can be easily inserted and stored.

<Filling of Materials> A hardly-autonomous container A having the above structure
In order to fill the bottomed cylindrical body a with the building fluid material, first, the bottomed cylindrical body a is inserted and housed in the free-standing cylindrical body b of the support frame B, whereby the hardly autonomous container A (The bottomed cylinder a) is supported by the support frame B (self-standing cylinder b). In this case, the circular edge 10 of the self-standing cylinder b is inserted into the annular downward recess 4 of the bottomed cylinder a, in other words, the outer peripheral flange 2 of the bottomed cylinder a is inserted into the edge 10. The hanging part 3 is fitted so as to cover it (FIG. 4).

Then, the bottomed cylindrical body a is filled with a building fluid material, for example, a sealing material from the upper surface opening 1 to the eighth to ninth minutes of its capacity. Thereafter, the lid plate 8 is welded as described above to close the upper opening 1 (FIG. 4). Thus, the difficult-to-self-support container A can be easily carried by grasping the supporting window B with the fingers in the window holes 9 of the supporting frame B.

<Packing> Furthermore, for shipping, transportation and storage, it is appropriate to store and pack in a known cardboard box. A cardboard box C of an appropriate required size is prepared, and the hard-free standing container A supported by the support frame B as described above is stored together with the support frame B, and a closed lid package is provided. I do.

<Shipping, transportation and storage> According to this cardboard box package, the non-self-supporting container A is double protected by the cardboard box C and the support frame B, and has improved resistance to external impacts and the like. At the same time, it can be stacked in multiple stages per se, which is convenient for shipping, transportation and storage.

Next, D is a self-supporting kneading container integrally formed of a hard synthetic resin, and its structure is as follows. d is a relatively thick hard synthetic resin cylindrical cylinder with a flat bottom, which gradually increases in diameter from the lower side to the upper side, and has a peripheral edge 12 which is rounded outward from the upper surface opening 11. Both ends of the handle 14 are rotatably supported on the shaft supporting portions 13 provided at the lowermost position.

Reference numerals 15... Denote vertically elongated grooves provided at 90-degree intervals on the inner peripheral surface of the bottomed cylindrical body d.
Are annular portions formed continuously with the vertically concave grooves 15 and the skirts of the thick portions 16 so that the vertically elongated grooves 15 are formed.・ The lower end of the engagement recess 18
... Reference numerals 19, 19 denote upward cutouts formed in the peripheral edge 12 at positions continuous with the upper ends of the two vertically long concave grooves 15, 15 facing each other.

<Kneading> As described above, the material to be shipped, transported, and stored as a cardboard box package, for example,
The two-part sealing material is kneaded using the above-mentioned kneading container D when it is used on site. To do so, the difficult-to-self-support container A is taken out of the cardboard box C together with the support frame B, and then the support frame B is removed and placed in the kneading container D. In this case, the vertically protruding ridge 7 of the difficult-to-self-support container A
.. Correspond to the vertically elongated grooves 15 of the kneading container D, and the former protruding pieces 7 ′ are engaged with the latter engaging recesses 18. Downward notches 5 and 5 are fitted to the latter shaft supports 13 and 13. As a result, the difficult-to-independent container A and the kneading container D are brought into an engaged state,
It becomes an integrated state without relative rotation.

Therefore, the kneading container D containing the hardly self-supporting container A is mounted on a known stationary kneader and its paddle or the paddle of a known handy kneader is also opened. The material is kneaded according to the customary practice. In order to open the lid and insert the paddle into the hard-standing container A, the lid plate 8 is
It is convenient to make it easy to open the lid using the above-mentioned thread for cutting or the groove for cutting. However, the lid plate 8 may be appropriately cut with a cutter and opened.

<Construction> After the above-mentioned kneading, the difficult-independent container A is transported together with the kneading container D to the actual construction site, and the kneading material is taken out from the difficult-independent container A and directly subjected to required construction. The kneading material is transferred to a tool or a jig suitable for the work, and the work is performed.

The present invention is not limited to the above embodiment. Hereinafter, modified examples of the difficult-to-self-support container and the support frame will be described with reference to FIGS.

E is a hard-to-stand container made of a soft synthetic resin and has the following structure. “e” is a cylindrical cylinder with a flat bottom made of a thin layer of soft synthetic resin, which gradually increases in diameter from the lower side to the upper side, and a hanging part 22 is integrated with the outer periphery of the peripheral part 21 of the upper surface opening 20. Thus, an annular downward recess 23 is formed outside the upper surface opening 1. Reference numerals 24, 24 denote downward cutouts provided at positions opposing the hanging part 22, 25, 25 similarly horizontal elongated holes provided at positions opposing the hanging part 22, and 26 projecting from the outer periphery of the lower end of the bottomed cylindrical body e. It is an outer peripheral annular piece formed.

Reference numeral 27 denotes a circular lid plate made of a thin-layer soft synthetic resin which is fitted into the upper surface opening 20 after the above-mentioned bottomed cylindrical body e is filled with the material, and whose peripheral edge is welded with a high-frequency welder or the like. . If a circular cutting thread along the welded portion is embedded in the cover plate 27 or a circular cutout groove is provided along the welded portion instead of embedding the cutout thread, It is convenient to open the lid, and the lid plate 27
As in the case of the difficult-to-self-support container A, the container A may be provided with a detachable access port with a cap.

F is a supporting frame formed of cardboard or corrugated cardboard.
The hand-held window hole 2 is provided at a position opposite to a diameter line of a flat circular, bottomless self-standing cylinder f formed in a size that can be easily inserted and stored.
8 and 28, and window openings 28 and 2
8, outwardly projecting pieces 28 ′, 28 ′ are provided so as to project from the lower edge. Moreover, the free-standing cylindrical body f has a top opening with a required diameter such that its peripheral edge 29 fits into the downwardly recessed recesses 23, 23 of the bottomed cylindrical body e, and its bottom opening has a peripheral edge 30. The diameter of the bottom cylindrical body e is set to a required diameter on the outer peripheral annular piece 26.

<Filling of materials>
In order to fill the bottomed cylindrical body e with the building fluid material, first, the bottomed cylindrical body e is inserted and housed in the self-standing cylinder f of the support frame F, and thereby, the hardly self-supporting container E The (bottomed cylinder e) is supported by the support frame F (free-standing cylinder f). For example, when the peripheral portion 21 and the hanging portion 22 are erected upward, and the support frame F (self-standing cylinder f) is placed on the difficult self-supporting container E (bottomed cylinder e) from above, Part 21 and hanging part 2
2 is returned to the original state, whereby the support frame F (self-standing cylinder f) fits its peripheral edge 29 into the downwardly recessed recesses 23, 23 of the difficult self-standing container E (bottomed cylinder e). In addition, the peripheral edge 30 of the lower end opening is placed on the outer peripheral annular piece 26 of the hard-to-self-support container E (bottomed cylindrical body e) (FIG. 14).

Then, the hardly self-supporting container E (bottomed cylinder e)
Next, a building fluid material, for example, a sealing material is filled from the upper opening to the eighth to ninth minutes of the capacity. Thereafter, the lid plate 27 is welded as described above to close the upper opening (FIG. 14). In this way, the hard-to-self-support container E can be easily carried by hooking and grasping the hand-held window holes 28 of the support frame F with fingers.

<Packing> Further, for shipping, transportation, storage, etc., it is appropriate to store and pack in a known cardboard box. A cardboard box G of an appropriate required size is prepared, and the hard-standing container E supported on the support frame F as described above is stored together with the support frame F together with a closed lid package. (FIG. 14).

<Shipping / Transportation / Storage> According to this cardboard box package, the non-self-supporting container E is double protected by the cardboard box G and the support frame F, and has improved resistance to external impacts and the like. In addition, since it can be stacked in multiple stages, it is convenient for shipping, transportation, and storage.

<Kneading> As described above, the material, which was shipped, transported, and stored as a cardboard box package, for example, a two-part sealing material, is used for kneading as described above. It is kneaded using the container D. For this purpose, the difficult-to-self-support container E is taken out of the cardboard box G together with the support frame F, and is put into the kneading container D as it is. In this case, the outwardly projecting pieces 28 ', 28' of the support frame F
Into the upward notches 19, 19 of the kneading container D, and if necessary, forcibly pull the hanging portion 22 of the inconsistent container E outwardly so that the downward notches 24, 24 are kneaded. D is fitted to the shaft supporting portions 13, 13. As a result, the difficult-to-independent container E and the kneading container D are brought into an engaged state,
It becomes an integrated state without relative rotation.

Then, the kneading container D containing the hardly self-supporting container E is mounted on a known stationary kneader and the paddle or the paddle of the known handy kneader is also opened. Is inserted into the difficult-to-stand container E, and the material is kneaded in accordance with the customary practice. In order to open the lid and insert the paddle into the non-self-supporting container E, the lid plate 27 is required.
It is convenient to make it easy to open the lid using the above-described thread for cutting or the groove, but it is also possible to cut the lid plate 27 appropriately with a cutter and open the lid.

<Construction> After the above kneading, the difficult-to-self-support container E is transported to the actual construction site together with the kneading container D, and the kneading material is taken out from the difficult-to-self-sustain container E and the required construction is directly performed. The kneading material is transferred to a tool or a jig suitable for the work, and the work is performed.

Further, the present invention is not limited to the above-described embodiments and modifications, and various modifications as described below are possible.

First, the material of the non-self-supporting containers A and E is made of various papers (laminated paper, waterproof paper, etc.) in addition to the soft synthetic resin.
Alternatively, the material of the support frames B and F may be waterproof paper provided with a required thickness and being self-supporting, in addition to cardboard and cardboard.

Second, the support frames B and F may have bottoms.

Third, the non-self-supporting containers A and E and the supporting frames B and F mesh with the bottom plates of the bottomed cylinders a and e and the bottom plates provided on the self-standing cylinders b and f, respectively. Providing a convex portion and a concave portion to prevent relative rotation also by meshing them improves the integrity of the hardly self-supporting containers A and E and the support frames B and F.

Fourth, in the difficult-to-self-support containers A and E, the hanging parts 3 and 22 of the bottomed cylinders a and e are suspended long to the same position as the lower ends of the bottomed cylinders a and e. By adopting a configuration in which the support frames B and F (self-supporting cylinders b and f) are fitted therebetween, the protection of the hard-to-self-support containers A and E (bottomed cylinders a and e) can be further enhanced.

[0040]

As is clear from the above description,
ADVANTAGE OF THE INVENTION According to this invention, filling, shipping transport, and storage of a building fluid material using a non-self-supporting container can be performed without particular problems, and kneading of the material can be performed by using a conventional disposable paper container. Since it can be performed without using it and without performing a troublesome operation such as cleaning the kneading container every time a new material is added, it is efficient and economical.

Further, according to the present invention, the kneading container is repeatedly used as before, but the self-supporting container and the support frame can be provided at low cost because of their materials, and after use, they are not bulky. And no harmful substances such as dioxin are generated during incineration.

That is, according to the present invention, it is possible to eliminate the inconvenience of filling or unloading the material and the inconvenience of packing, shipping, transporting and storing in the filled state while making use of the advantage of the hardly self-supporting container. The kneading operation on site can be performed easily and economically, and it is an epoch-making as a packaging and kneading system or equipment for a building fluid material.

[Brief description of the drawings]

FIG. 1 is a perspective view of a difficult self-supporting container according to an embodiment of the present invention.

FIG. 2 is a cross-sectional view of the difficult-to-self-support container, which is shown together with a lid plate.

FIG. 3 is a perspective view of a support frame according to one embodiment of the present invention.

FIG. 4 is a cross-sectional view of a main part in a state where the difficult-to-self-support container is supported by a support frame, and the whole is put in a cardboard box and closed.

FIG. 5 is a perspective view of the cardboard box.

FIG. 6 is a perspective view of a kneading container.

FIG. 7 is a plan view of the kneading container.

FIG. 8 is a sectional view of a main part of the kneading container.

FIG. 9 is a cross-sectional view of a main part of the kneading container in a state in which a difficult-to-self-support container is placed.

FIG. 10 is a perspective view of a modified example of the hardly self-supporting container.

FIG. 11 is a cross-sectional view of a modified example of the difficult-to-self-support container.

FIG. 12 is a perspective view of a modification of the support frame.

FIG. 13 is a sectional view of a main part of the support frame.

FIG. 14 is a cross-sectional view of a main part in a state in which the difficult-to-self-support container according to the modification is supported by the support frame according to the modification, and the whole is put into a cardboard box and closed.

FIG. 15 is a cross-sectional view of a main part of the same hard-to-stand container in the kneading container of FIGS. 6 to 8;

[Explanation of symbols]

 A Self-sustainable container B Support frame C Cardboard box D Kneading container E Self-sustainable container F Support frame G Cardboard box a Bottomed cylinder b Free-standing cylinder d Bottomed cylinder e Bottomed cylinder f Free-standing cylinder Body 1 Upper surface opening 4 Annular downward recess 7 Vertically elongated ridge 8 Cover plate 9 Handle window hole 10 Edge 11 Upper surface opening 12 Peripheral edge 13 Shaft support 14 Handle 15 Vertical concave groove 19 Upward cutout 20 Upper surface opening 23 Annular downward recess 26 Outer peripheral piece 27 Cover plate 28 Hand window hole 28 'Outward projecting piece 29 Peripheral part 30 Peripheral part

Claims (6)

[Claims] An inconsistent container A is stored and supported in a supporting frame B, and the inconvenient container A accommodated and supported in the supporting frame B is filled with a building fluid material. Is closed and the support frame B is stored in the cardboard box C together with
The cardboard box C is closed, shipped and transported and stored in that state, and in construction, the difficult-to-self-support container A is taken out of the cardboard box C and the supporting frame B and stored in the kneading container D. A packaging and kneading system for a building fluid material, wherein a paddle of an installation type kneader or a handy type kneader is inserted into a difficult-to-stand container A in a container D to knead the building fluid material. 2. The packaging and kneading system for a building fluid material according to claim 1, wherein the hardly autonomous container A is accommodated in the kneading container D without rotating relative to each other. 3. A hardly self-sustained container E is housed and supported in a support frame F, and the hardly autonomous container E housed and supported by the support frame F is filled with a building fluid material. Is closed and the support frame F is stored in the cardboard box G together with the support frame F.
The cardboard box G is closed and shipped and transported and stored in that state. At the time of construction, the self-sustainable container E together with the support frame F is taken out of the cardboard box G, stored in a kneading container D, and kneaded. For building, characterized in that a paddle of an installation-type kneader or a handy-type kneader is inserted into a hard-to-stand container E supported by a support frame F in a container D, and a building fluid material is kneaded. Fluid material packaging and kneading system. 4. A support frame F for accommodating and supporting a non-self-supporting container E.
4. The packaging and kneading system for a building fluid material according to claim 3, wherein the container is stored in the kneading container D without rotating relative to each other. 5. An annular downward recess 4 is formed outside the upper surface opening 1 of the bottomed cylindrical body a, and vertically long ridges 7 are formed on the outer peripheral surface of the bottomed cylindrical body a at required intervals. A self-supporting container A which is molded and has the upper opening 1 closed by a cover plate 8 and a self-standing cylinder formed to have a size capable of inserting and storing a bottomed cylindrical body a of the hard self-supporting container A At the position facing the body b, the window holes 9, 9
, A cardboard box C for accommodating the difficult-to-self-support container A together with the support frame B, and a shaft provided at a position close to and below the peripheral edge 12 of the upper surface opening 11 of the bottomed cylindrical body d. Both ends of the handle 14 are rotatably supported on the supports 13, 13, and the kneading container D is provided with vertically elongated grooves 15... At required intervals on the inner peripheral surface of the bottomed cylindrical body d. The storage support of the non-self-supporting container A in the support frame B is performed in a state where the former annular downward recess 4 is placed over the lip 10 of the upper surface opening of the latter. Kneading container D
The state in which it does not rotate relative to
.. And the latter longitudinally elongated grooves 15... Are used for packaging and kneading system equipment for building fluid materials. 6. An annular downward recess 23 is formed outside the upper surface opening 20 of the bottomed cylindrical body e, and an outer peripheral annular piece 26 is formed by projecting around the lower end of the bottomed cylindrical body e. Opposing positions of a hard-standing container E having an opening 20 closed by a lid plate 27 and a free-standing cylinder f formed to have a size that can receive and store a bottomed cylindrical body e of the hard-standing container E. Window window 28,
In addition to the opening of the opening 28, outwardly projecting pieces 28 ', 28' protrude from the lower side edges of the window holes 28, 28, and the lower surface opening is formed. A supporting frame F set to a required diameter mounted on the outer peripheral piece 26; a cardboard box G accommodating the difficult-to-self-support container E together with the supporting frame F; and an upper surface opening 11 of the bottomed cylindrical body d A kneading method in which both ends of a handle 14 are rotatably supported on pivots 13, 13 provided at a position close to the lower side of the peripheral edge 12, and upward opening notches 19, 19 are formed by opening the peripheral edge 12. The supporting and supporting of the difficult-to-self-support container E in the support frame F is performed by covering the annular downward recess 23 of the former on the peripheral portion 29 of the upper surface opening of the latter, and the outer peripheral annular piece of the former. The lower edge 26 is mounted on the peripheral edge 30 of the latter. When no relative rotation with respect to the kneading container D of neutrality containers E and support frame F is, the outward protrusion 28 of the support frame F ',
28. A packaging and kneading system equipment for a building fluid material, wherein 28 'is engaged with the upward cutouts 19 of the kneading container D.