DE202019102771U1 - Containers for residential, work or transport purposes - Google Patents

Abstract

Container for living, working or transport purposes, in particular a modular container / container module, having at least one floor assembly (1) and at least one ceiling assembly (2), the floor assembly (1) and the ceiling assembly (2) via container supports (3, 3 ') , 3 ", 3"") can be connected to one another,
characterized,
that the floor assembly (1) and the ceiling assembly (2) are each designed identically, such an assembly having at least one plate element (5a, 5b) with an inside and an outside,
that the plate element (5a, 5b) of the floor assembly (1) and the ceiling assembly (2) at its corners are ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'', 4b ''') are assigned,
that the plate element (5a, 5b) is made of a composite material and is delimited to the edges of the container by frame elements (6) of the assembly, and that the frame elements (6) and the ISO container corners (4a, 4a ', 4a'', 4a ''', 4b, 4b', 4b '', 4b ''') of the floor assembly (1) and the ceiling assembly (2) together with the container supports (3, 3', 3 ", 3"') Form support frames along the outer edges of the container.

Description

The invention relates to a container for living, working or transport purposes, in particular a modular container, having at least one floor assembly and a ceiling assembly, the floor assembly and the ceiling assembly being connectable to one another via container supports.

Such containers are used in a variety of ways as large-capacity containers, with these mostly being standardized and having uniform dimensions and connecting means. Common designs are, for example, 20-foot containers or 40-foot containers, which are welded together from sheet steel and have so-called ISO container corners at their corners, which enable the containers to be stacked and locked with one another and with lifting or transport equipment.

If the containers are required not only for simple transport, but also as living or working space, there are usually additional equipment features, such as windows, sanitary facilities, insulation against cold or heat, heating, air conditioning, which are in the walls, floor or ceiling of the container are integrated. In addition, residential containers can often be connected to one another in a modular manner in order to assemble larger container buildings from several containers.

The known containers welded together from sheet steel have the disadvantage that, on the one hand, they have a relatively high weight and, on the other hand, cannot be dismantled for transport to a place of use and thus have a large transport volume. In order to reduce the weight of a container, for example, according to DE 10 2010 032 309 A1 such containers are designed whose floor, ceiling and walls are to be formed from composite materials and / or fiber-reinforced plastics that are glued together. However, such a construction neglects the high loads that regularly occur during handling, especially loading, of the container, especially at the ISO container corners, which can lead to faster wear and tear of the corner in the case of composite materials or fiber-reinforced plastics.

The fact that the standard sheet steel containers usually cannot be dismantled means that their modular use is also restricted, for example as container buildings. This applies in particular to the replacement of individual parts, e.g. B. wall elements, with changed use, new composting of individual container modules of a container building or damage.

The object of the invention is to provide a container, in particular a modular container, which, on the one hand, has a low weight with a high load capacity and stability, in particular is made of lightweight construction, and, on the other hand, can be constructed and used in a versatile manner.

This object is achieved with a container with the features of claim 1. Further developments and advantageous configurations are given in the subordinate claims.

The container for living, working or transport purposes, in particular the modular container, comprising at least one floor assembly and at least one ceiling assembly, wherein the floor assembly and the ceiling assembly can be connected to one another via container supports, is characterized according to the invention in that the floor assembly and the ceiling assembly each are designed identically, such an assembly having at least one plate element with an inner side and an outer side, that the plate element of the floor assembly and the ceiling assembly are each assigned to ISO container corners at its corners, that the plate element is made of a composite material and to edges of the container is limited by frame elements of the assembly, and that the frame elements and the ISO container corners of the floor assembly and the ceiling assembly together with the container supports form a support frame along outer edges of the container.

The combination of the plate elements made of a composite material and the support frame formed by frame elements and container supports ensures that the container has sufficient stability for various uses and at the same time has a low weight. The container according to the invention or the parts of the container thus have a low weight for transport purposes, in particular a lower total weight with the same payload as conventional containers, in particular ISO containers.

Another advantage of the containers according to the invention consists in their construction from as many identical basic parts as possible, which can be produced inexpensively in large numbers. In addition to these few basic parts, which are the container supports and the same assemblies for the ceiling assembly and the floor assembly, interchangeable side walls also enable a wide range of equipment options, in particular for residential containers or container buildings. However, the basic structure of the container from its basic parts always remains the same.

In order for the ceiling assembly and the floor assembly to ensure adequate stability of the container for high loads, a further development provides that the frame elements or the ISO container corners or the frame elements and the ISO container corners are made of a metallic material. The plate element of the respective assembly, that is to say the ceiling assembly and the floor assembly, is then completely enclosed, in particular framed, by a metallic framework at its edge. In particular, the edge of the respective plate element is particularly torsion-resistant and also insensitive to impacts.

Additional stability of the container can be given in a further embodiment in that the frame elements have bevels, kinks or folds running in the longitudinal direction. These folds, kinks or folds lead to a further stiffening of the frame elements, in particular if they are made of a metallic material.

In order to achieve the lowest possible weight of the container, it is provided according to another further development that the container supports are made of a composite material. A preferred material, in particular composite material, for the container supports is GRP with resin. Another preferred material, in particular a composite material, for the container supports is a plastic matrix made of epoxy resin ceramic, also referred to as ceramic casting, which can be used as an alternative to GRP. The container supports made of the epoxy resin ceramic also meet future fire protection regulations ( A1 , A2 ).

Since the container supports have a metallic support structure, in particular a steel support structure, in addition to the composite material, the entire support frame along all edges of the container is advantageously made from metallic materials. The support frame can thus absorb loads equally in all directions and give stability to the container or a container building constructed from the containers according to the invention.

To connect the container supports to the ceiling assembly and to the floor assembly, the container supports can have end profiles made of folded metal sheets, in particular from a folded sheet metal at each end, which can be connected, in particular screwed, to mounting surfaces of the ISO container corners. For this purpose, the mounting surfaces of the ISO container corners and the edge plates can each have matching mounting points, in particular bores, so that a detachable connection that can be dismantled for transport is provided. Floor assembly, ceiling assembly, container supports and optionally side walls can thus be transported compactly to a place of use, especially when used as a work or living container.

The mounting surfaces of a container support are advantageously each formed on mutually facing sections of an ISO container corner of the floor assembly and an ISO container corner of the ceiling assembly. The mutually facing sections of the ISO container corners with the mounting surfaces are accordingly formed on an upper side of the floor assembly and on an underside of the ceiling assembly. A container support, especially vertically aligned container support when the container is used as intended, is then arranged between an ISO container corner of the floor assembly and an ISO container corner of the ceiling assembly and connected to the respective mounting surfaces.

In order to be able to ensure a steady drainage of rainwater, particularly in the case of container buildings that have been erected for a long time, the frame elements and the ISO container corners together advantageously form a rain drain or rainwater drain. Water that has accumulated on the ceiling assembly or under the floor assembly of the container can be optimally drained away.

In a further embodiment of the rain drain, the ISO container corners can have at least one recess on the sides facing the frame elements, which recess forms a passage for water or rainwater. This first recess enables water that has accumulated on the ceiling assembly to be drained away from the ceiling assembly, in particular to flow off to the ISO container corners. In a further embodiment, this recess is arranged in relation to an outer surface of the plate element in such a way that the recess is attached flush to the outer surface.

Via at least one further recess in the ISO container corners on at least one outside of the container, in particular at least one side surface of the container or the ISO container corner, with a connection being formed between the recesses of an ISO container corner, the water, in particular the rainwater, then led to the outside.

In addition to or as an alternative to the drainage of the water or rainwater to the outside via a single ISO container corner, in particular the ceiling assembly, the ISO container corners can have at least one further recess, which is arranged in the respective mounting surface of the ISO container corner. Via a connecting pipe of the respective container support or a connecting pipe assigned to the recesses in the mounting surfaces opposite ISO container corners, water that collects on the ceiling assembly can also be guided to an ISO container corner of the floor assembly and flow out near the floor.

In order to prevent the ISO container corners from breaking out, for example when the container is lifted, a further development provides that at least one weld-on plate is assigned to the ISO container corners, which extends from the respective ISO container corner in the direction of the plate element. The weld plate of the ISO container corners results in a much larger, in particular many times larger, connecting surface between the ISO container corner and the plate element of the floor assembly or the ceiling assembly than in a construction without a weld plate. The ISO container corner and the plate element are thus optimally connected to one another.

A particularly favorable arrangement of the weld-on plate results when it is aligned parallel to the respective plate element of the ceiling assembly or the floor assembly. The weld plate thus extends in the planar plane of the plate element, i. parallel to the floor or ceiling of the container. In the case of a square or rectangular plate element with four ISO container corners, each of the ISO container corners can then theoretically have a weld-on plate which is up to a quarter of the area of the plate element.

For a sufficiently firm connection between the plate element and the ISO container corner of a container with standard dimensions, the weld plate advantageously has dimensions between 300 mm and 600 mm edge length, in particular between 350 mm and 500 mm edge length. The thickness of the weld-on plate is significantly less than its area dimensions, in particular the thickness of the weld-on plate is less than 5 mm.

In addition to or instead of the weld plate aligned parallel to the respective plate element, according to an advantageous embodiment, two weld plates can extend from the ISO container corners along the edges of the container and be aligned parallel to the side walls of the container. These weld-on plates have the same function as the weld-on plate aligned parallel to the plate element and are only arranged rotated by an angle of 90 ° to this weld-on plate aligned parallel to the plate element. In a further embodiment, the weld-on plates aligned along the edges of the container have a thickness of less than 5 mm and a length of up to 600 mm, in particular up to 500 mm. The width of the weld-on plates parallel to the side walls of the container advantageously corresponds to half the height of the ISO container corners.

The combination of the aforementioned weld-on plates on an ISO container corner is particularly advantageous, since this results in synergy effects that lead to an overall greater stability of the connection between the ISO container corner and the plate element compared to the respective individual weld-on plates. The ISO container corner is then anchored in three planes, each arranged at right angles to one another, with welding plates in the plate element or connected to it.

According to an advantageous embodiment, the weld-on plate, which is aligned parallel to the floor or ceiling, has a surface which is more than twice as large as the surface of the other two weld-on plates.

To ensure that the weld plate or weld plates are optimally aligned with the plate element, a further development of the invention provides that the at least one weld plate is flush with the mounting surface of the ISO container corner with a side surface or an edge. The mounting surface of the ISO container corners can furthermore be arranged approximately centrally to an upper side and to a lower side or centrally to an outside and to an inside of the respective plate element.

A large number of connecting openings in the at least one weld plate can also ensure that undercuts are formed between the respective weld plate and the plate element, which lead to strong interlocking of the components with one another. According to a preferred embodiment, the connecting openings have a diameter of 7 mm in order to ensure that material of the material of the plate element penetrates into the connecting openings during manufacture.

According to a development, the plate element itself is an at least two-layer composite material with an outer layer and an inner layer. The combination of two or more layers enables a combination of different properties in a simple manner. For example, the outer layer can be attached in a simple manner Weather conditions must be adapted, while the inner layer can bring about positive properties for an interior climate of the container. At least two layers with different materials also make it possible in a simple manner for a metal-free plate element to be self-supporting and to have the load-bearing capacity and stability required, in particular, for transport.

Possible materials for the self-supporting plate elements can be a combination of a cover layer made of GRP with resin and an intermediate layer made of polyurethane foam, PVC (FST) foam self-extinguishing according to the category B1 or a plastic matrix made of epoxy resin ceramic (also known as Keraguss).

According to a further development, the weld-on plate, which is aligned parallel to the respective plate element of the ceiling assembly or the floor assembly, can be arranged between layers of the plate element. The weld plate is then advantageously completely surrounded by the plate element. Forces occurring at the ISO container corner, for example when loading the container, are thus introduced into the plate element on all sides of the weld-on plate.

As an alternative to between two plies or layers of the plate element, the weld-on plate can also be completely surrounded by a layer or layer of the plate element. Furthermore, several cover layers or several intermediate layers or several cover layers and several intermediate layers can form a plate element.

According to a development, the inner layer at the edges of the plate element can have smaller dimensions than the outer layer. At the edges of the plate elements, the plate elements then have an offset into which a side wall can be inserted. An inserted side wall of the container then rests, at least in sections, both with its underside and with its inside on the respective floor assembly and at least in sections both with its top and with its inside on the ceiling assembly, so that the side walls are securely accommodated and held . The side walls and floor assembly or ceiling assembly then rest against one another, at least in sections, with two side surfaces each.

According to a further development, the inner layer and outer layer of the plate element can also be formed from a single, for example foamed material, the foamed material then having a corresponding offset or a corresponding step at the edges.

Since the inner layer at the edges of the plate element has smaller dimensions than the outer layer by a thickness of side walls, inserted side walls and the edges of the respective outer layer of the plate element can be flush with the outside.

In a further embodiment, the offset between the inner layer and the outer layer at the edges of the plate element can be up to the width of the ISO container corners, in particular it can be designed to correspond to the width of the ISO container corners.

According to a further development of the invention, the frame elements then have a step that represents a mount for side walls to be inserted and corresponds to the offset between the inner layer and the outer layer of the plate element. The frame elements thus advantageously rest against the entire surface of the inner layer and the outer layer against the plate elements at the edges of the plate elements. The frame elements thus represent a termination of the plate element even in the case of a plate element with an offset at its edge and encompass this completely, i.e. all around, especially together with the ISO container corners. The frame elements, in particular metallic frame elements, which are even more stiff and stable compared to the plate element, enable the side walls of the container to be inserted in a particularly secure and precisely fitting manner.

If several containers are combined to form a container building, gaps, in particular gaps resulting from the offset of the plate elements at their edges, can be compensated and leveled by means of fillers.

• 1: eine perspektivische Darstellung eines erfindungsgemäßen Containers;
• 2: eine perspektivische Darstellung einer Bodenbaugruppe des erfindungsgemäßen Containers gemäß 1;
• 3: eine perspektivische Darstellung einer Deckenbaugruppe des erfindungsgemäßen Containers gemäß 1;
• 4: ein Querschnitt durch den erfindungsgemäßen Container gemäß 1;
• 5: eine Detailansicht des Querschnitts durch den erfindungsgemäßen Container gemäß 4;
• 6: eine perspektivische Darstellung einer ISO-Containerecke des erfindungsgemäßen Containers gemäß 1; und
• 7: eine perspektivische Darstellung einer Containerstütze des erfindungsgemäßen Containers gemäß 1.

An embodiment of the invention, from which further features essential to the invention can result, is shown in the figures of the drawing. Show it:

• 1 : a perspective view of a container according to the invention;
• 2 : a perspective view of a base assembly of the container according to the invention according to FIG 1 ;
• 3 : a perspective view of a ceiling assembly of the container according to the invention according to FIG 1 ;
• 4th : a cross section through the container according to the invention according to 1 ;
• 5 : a detailed view of the cross section through the container according to the invention according to FIG 4th ;
• 6th : a perspective view of an ISO container corner of the container according to the invention according to FIG 1 ; and
• 7th : a perspective view of a container support of the container according to the invention according to FIG 1 .

In 1 a container according to the invention is shown, which consists of a floor assembly 1 , a ceiling assembly 2 as well as four container supports 3 , 3 ' , 3 '' , 3 ''' is composed. The floor assembly 1 and the ceiling assembly 2 are identical to each other. Both the bottom assembly 1 as well as the ceiling assembly 2 each have four ISO container corners 4a , 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' on. The respective ISO container corners arranged diagonally to one another 4a , 4a '' , 4b , 4b '' or. 4a ' , 4a ''' , 4b ', 4b ''' one of the assemblies are identical to one another, while the adjacent ISO container corners 4a , 4a ' , 4a '' , 4a ''' the bottom assembly 1 and the adjacent ISO container corners 4b , 4b ' , 4b '' , 4b ''' the ceiling assembly 2 are formed mirror-inverted to each other. Each of the container supports 3 , 3 ' , 3 '' , 3 ''' is with an ISO container corner 4a , 4a ' , 4a '' , 4a ''' the bottom assembly 1 and with an ISO container corner 4b , 4b ' , 4b '' , 4b ''' the ceiling assembly 2 connected. That of a container support 3 , 3 ' , 3 '' , 3 ''' assigned ISO container corners 4a , 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' are each mirror-inverted to one another.

Next to the ISO container corners 4a , 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' assign the bottom assembly 1 and the ceiling assembly 2 each a flat plate element 5a , 5b on. The ISO container corners 4a , 4a ' , 4a '' , 4a ''' the bottom assembly 1 and the ISO container corners 4b , 4b ' , 4b '' , 4b ''' the ceiling assembly 2 are each one corner of the plate element 5a or the plate element 5b assigned and form together with frame elements 6th one the plate element 5a or the plate element 5b edging edging.

From the illustration only the base assembly 1 in 2 and only the ceiling assembly 2 in 3 further details of the identical assemblies become clear. Same parts are in 2 and 3 as in the other figures of the drawing with the same reference numerals as in 1 Mistake. The floor assembly 1 and the ceiling assembly 2 each have an inside and an outside. While the bottom assembly 1 with the inside shown is the ceiling assembly 2 with the outside shown, so that from the synopsis the 2 and 3 the entire structure of the floor assembly 1 and the ceiling assembly 2 becomes clear. To the 2 and 3 are accordingly only those from the 2 and 3 apparent features explained.

In particular from 2 it can be seen that the frame elements 6th one level each 7th have, the frame elements 6th inside towards the center of the panel element 5a are edged. That through the frame elements 6th limited plate element 5a accordingly has smaller dimensions on the inside than on the outside. Next is off 2 it can be seen that the ISO container corners 4a , 4a ' , 4a '' , 4a ''' one mounting surface each on the inside 8th for the container supports 3 , 3 ' , 3 '' , 3 ''' exhibit. Each of the mounting surfaces 8th has three assembly points for connecting ISO container corners 4a , 4a ' , 4a '' , 4a ''' and the container support 3 , 3 ' , 3 '' , 3 ''' on. The mounting surfaces 8th the container supports 3 , 3 ' , 3 '' , 3 ''' at the same time form a plane opposite which the inside part of the plate element 5a protrudes with the smaller dimensions compared to the outer part to an interior of the container. The outside part of the plate element 5a however, closes together with the frame elements 6th flush with the side surfaces of the ISO container corners 4a , 4a ' , 4a '' , 4a ''' from.

The side surfaces of the ISO container corners 4a , 4a ' , 4a '' , 4a ''' are aligned parallel to possible side walls of the container. Corresponding side walls can, depending on a use of the container, in those on the plate elements 5a and 5b through the frame elements 6th formed gradation 7th can be used. In particular, the side walls are so graded 7th can be used so that these are flush with the side surfaces of the ISO container corners 4a , 4a ' , 4a '' , 4a ''' and side surfaces of the frame elements 6th as well as side surfaces of the container supports 3 , 3 ' , 3 '' , 3 ''' close to the outside.

The view of the ceiling assembly 2 according to 3 shows the configuration of the outside of the ceiling assembly 2 and the bottom assembly 1 . On the outside of the ceiling assembly 2 forms the plate element 5b with its outside a ground plane. Opposite that by the plate element 5b Both the ISO container corners stand on the ground level 4b , 4b ' , 4b '' , 4b ''' as well as the frame elements 6th with an edge section 9 to the outside or above if used as intended. The edge sections 9 the frame elements 6th are thereby through part of the side surface of the frame elements 6th formed, in particular by the part of the side surface of the frame elements 6th formed above the base plane of the plate element 5b protrudes. This part of the side face of the frame elements 6th is towards the center of the plate element 5b folded, with between the side face of the frame element 6th and folded section 6 ' of the frame element 6th an angle less than 45 ° is formed and the folded section 6 ' with an end section, in particular one that is folded again End section, flat on the base plane of the plate element 5b rests.

The ISO container corners 4b , 4b ' , 4b '' , 4b ''' are modified compared to standard ISO container corners to the effect that they have a locking safety opening 10 and various recesses 11 , 12th exhibit. The locking safety opening 10 is required for handling the container using cranes or reach stackers and the recesses on the outer side surfaces 11 are also required to connect several containers to one another, for example to form a container building. In addition to standard ISO container corners, the ISO container corners according to the invention have 4b , 4b ' , 4b '' , 4b ''' the recesses 12th on the plate element 5b facing side surfaces. Any ISO container corner according to the invention 4b , 4b ' , 4b '' , 4b ''' has two of the recesses 12th on. On each of the plate elements 5b facing side surface is thus a recess 12th intended.

Next are how out 2 can be seen, the recesses 13 at the through the mounting surfaces 8th formed inside of the ISO container corners 4a , 4a ' , 4a '' , 4a ''' , 4b , 4b ', 4b '' , 4b ''' the respective assembly formed. The recesses 12th , 13 form together with the recesses 11 and the locking security openings 10 a rainwater runoff. Between the recesses 13 can support a rainwater runoff inside the container 3 , 3 ' , 3 '' , 3 ''' or a drain pipe (not shown) within the container supports 3 , 3 ' , 3 '' , 3 ''' be provided.

From the cross section according to 4th is mainly the structure of the plate elements 5a , 5b with the graduation 7th refer to. The inside part of the plate elements 5a , 5b is due to an inner layer 14th and the outside part of the plate members 5a , 5b by an outer layer 15th each of a material, in particular a composite material, is formed, the layers 14th , 15th one level each 7th assigned.

Next is 4th it can be seen that the edge sections 9 compared to the base plane of the plate elements 5a , 5b a lower height than the ISO container corners 4a , 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' have, the container on level ground thus on the ISO container corners 4a , 4a ' , 4a '' , 4a ''' gets up. It can also be seen that the container supports 3 , 3 ' , 3 '' , 3 ''' have a maximum width that is greater than the width of the ISO container corners 4a , 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' .

The circled area in 4th is again in detail in 5 shown, which shows a corner of a container. It is opposite 4th in particular the position of the frame element 6th , which deals with the graduation 7th of the two locations 14th , 15th of the plate element 5b hugs clearly. In addition, the fold of the frame element 6th clearly on the outside.

The 6th shows an example of one of the two versions of the ISO container corners 4a , 4a '' , 4b , 4b "or 4a ' , 4a ''' , 4b ' , 4b ''' the ISO container corner 4a . The ISO container corner 4a has the locking safety opening 10 as well as the various recesses 11 , 12th , 13 on. From the previous ones 1 to 5 not removable, are on the ISO container corner 4a attached weld-on plates 16 , 17th , 18th . The welding plates 16 , 17th , 18th are in the previous 1 to 5 showing the finished floor assembly 1 or ceiling assembly 2 show within the respective plate element 5a , 5b arranged or by the frame elements 6th covered.

A first weld plate 16 of all ISO container corners 4a , 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b '''extends in its two-dimensional extent parallel to the top and the bottom of the respective plate element 5a , 5b towards the middle of the respective plate element 5a , 5b . This weld plate 16 is with a surface in a plane with the mounting surface 8th arranged. Next has the weld-on plate 16 a surface that is more than twice as large as the surface of the other two weld-on plates 10 , 18th .

The two weld-on plates 17th , 18th are at right angles to the weld plate 16 and arranged at right angles to each other, so that the weld plates 16 , 17th , 18th are arranged in a total of three levels. The welding plates 17th , 18th extend parallel to the side surfaces or side walls of the container and each have an upper edge flush with the mounting surface 8th arranged. Next have the weld-on plates 17th , 18th a height that is half the height of the respective ISO container corner 4a corresponds. In particular, the weld-on plates 17th , 18th in an outermost edge area of the respective plate element 5a , 5b arranged or on the outside of the respective plate element 5a , 5b attached, in particular such that the weld-on plates 17th , 18th between plate element 5a , 5b and frame element 6th are arranged.

The other ISO container corners 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' are either with the ISO container corner 4a identical or mirror-inverted arranged welding plates 16 , 17th , 18th on.

In 7th is an example of the mutually identical container supports 3 , 3 ' , 3 '' , 3 ''' the container support 3 shown. The container support 3 has a inner support structure 19th as well as an external cladding 20th on, which are each over the entire length of the container support 3 extend. At the ends of the container support 3 are each folded sheets 21st , 21 ' arranged with the support structure 19th are screwed or welded. Each of the folded plates 21st , 21 ' forms a mounting surface 22nd off, with the mounting surfaces 22nd Mounting points for connection to one of the mounting surfaces 8th the ISO container corners 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' exhibit. The mounting surfaces point further 22nd a recess 23 on, which in particular in connection with a drain pipe together with the recesses 13 the ISO container corners 4a ' , 4a '' , 4a ''' , 4b , 4b ' , 4b '' , 4b ''' a rain runoff within the container support 3 can train.

All of the features mentioned in the above description and in the claims can be combined in any selection with the features of the independent claim. The disclosure of the invention is therefore not limited to the combinations of features described or claimed; rather, all combinations of features that make sense within the scope of the invention are to be regarded as disclosed.

QUOTES INCLUDED IN THE DESCRIPTION

This list of the documents listed by the applicant was generated automatically and is included solely for the better information of the reader. The list is not part of the German patent or utility model application. The DPMA assumes no liability for any errors or omissions.

Patent literature cited

• DE 102010032309 A1 [0004]

Claims (16)

Container for living, working or transport purposes, in particular a modular container / container module, having at least one floor assembly (1) and at least one ceiling assembly (2), the floor assembly (1) and the ceiling assembly (2) via container supports (3, 3 ') , 3 ", 3"") are connectable to one another, characterized in that the floor assembly (1) and the ceiling assembly (2) are each designed identically, such an assembly having at least one plate element (5a, 5b) with an inside and an outer side that the plate element (5a, 5b) of the floor assembly (1) and the ceiling assembly (2) at its corners each ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b '', 4b ''') are assigned that the plate element (5a, 5b) is made of a composite material and is limited to the edges of the container by frame elements (6) of the assembly, and that the frame elements (6) and the ISO -Container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') the floor assembly (1) and the ceiling assembly (2) together with the container supports (3, 3 ', 3 ", 3"') form a support frame along the outer edges of the container. Container after Claim 1 , characterized in that the frame elements (6) or the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') or the frame elements (6) and the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') are made of a metallic material. Container after one of the Claims 1 or 2 , characterized in that the container supports (3, 3 ', 3 ", 3"') are made of a composite material. Container after one of the Claims 1 to 3 , characterized in that the container supports (3, 3 ', 3 ", 3"') have a metallic support structure, in particular a steel support structure. Container after one of the Claims 1 to 4th , characterized in that the container supports (3, 3 ', 3'',3''') have end profiles made of folded sheets (21, 21 '), in particular from each end of a folded sheet (21, 21'), which with mounting surfaces (8) the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') can be connected, in particular screwed. Container after Claim 5 , characterized in that frame elements (6) and the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') form a rain drain. Container after Claim 6 , characterized in that the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') have at least one recess on the sides facing the frame elements (6) (12) which forms a passage for water or rainwater. Container after Claim 7 , characterized in that the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') on at least one outer side of the container have at least one further recess (11 ), with a connection being formed between the recesses (11, 12) of an ISO container corner (4a, 4a ', 4a ", 4a"', 4b, 4b ', 4b ", 4b"'). Container after Claim 8 , characterized in that the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') are assigned at least one weld plate (16, 17, 18) , which extends from the respective ISO container corner (4a, 4a ', 4a ", 4a"", 4b, 4b", 4b ", 4b"") towards the plate element (5a, 5b). Container after Claim 9 , characterized in that at least one weld plate (16) is aligned parallel to the respective plate element (5a, 5b) of the ceiling assembly (2) or the floor assembly (1). Container after one of the Claims 9 or 10 , characterized in that two welding plates (17, 18) starting from the ISO container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') extend along edges of the container and are aligned parallel to the side walls of the container. Container after one of the Claims 9 to 11 , characterized in that the at least one welding plate (16, 17, 18) with a side surface or an edge flush with the mounting surface (8) of the ISO container corner (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b'''). Container after one of the Claims 1 to 12th , characterized in that the plate element (5a, 5b) is a two-layer composite material with an outer layer (15) and an inner layer (14), both layers (14, 15) of the frame elements (6) arranged on the edge and the ISO -Container corners (4a, 4a ', 4a'',4a''', 4b, 4b ', 4b'',4b''') are bordered. Container after Claim 13 , characterized in that the weld plate (16) aligned parallel to the respective plate element (5a, 5b) of the ceiling assembly (2) or the floor assembly (1) is arranged between the outer layer (15) and the inner layer (14). Container after one of the Claims 13 or 14th , characterized in that the inner layer (14) at the edges of the plate element (5a, 5b) has smaller dimensions than the outer layer (15), in particular has smaller dimensions than the outer layer (15) by a thickness of side walls. Container after Claim 15 , characterized in that the frame elements (6) have a step that represents a socket for side walls to be inserted.

Images