DE102018105112A1 - Foldable transport container - Google Patents

Abstract

The present invention relates to a method for providing a thermally insulating transport container (1) at the location of intended use.

Description

The present invention relates to a method for providing a thermally insulating transport container at the location of its use and in particular an inflatable transport container.

Double-walled transport containers are known from the prior art, in which a cavity between the two walls can receive an insulating material, so that the transport container has thermally insulating properties.

The hitherto known systems for thermally insulating transport containers can either be completely manufactured at a central production site for transport containers or assembled decentrally via plug-in and folding system. The central production of the thermally insulating transport container has the disadvantage that a finished transport container occupies a large volume and must be transported costly to its first filling place. Decentralized plug-in and folding systems can be transported in folded state to their filling and unfolded and put together there. The disadvantage here is a high cost and time required at the site of filling for the installation of the transport container.

The object of the invention is to provide a method that overcomes the disadvantages of the prior art, in particular allows a space-saving and efficient transport of an empty, thermally insulating transport container and a simple and efficient deployment of the transport container at the place of filling.

According to the invention, this object is achieved by a method for providing a thermally insulating transport container or connectable parts thereof at the intended use, comprising the following steps: a) providing a transport container in a folded state, wherein the transport container has an inner wall surrounding a variable transport volume and a the inner wall enclosing the outer wall, wherein by a variable distance between the inner wall and the outer wall, a variable insulating volume hervorufbar, wherein between the outer and inner wall, the maximum distance is defined by connecting elements in at least two spatial directions; b) increasing the insulating volume and the transport volume by unfolding the transport container; c) blowing an insulating material into the insulating volume through an inflow opening, wherein the insulating volume is filled with insulating material until a sufficiently large transport volume is kept in shape to receive the transported goods to be transported and a sufficiently large insulating volume is kept in shape to given transport conditions for a planned transport time to keep the cargo in a designated temperature range; as an insulating material, a plurality of small-sized solids are blown by means of a gaseous transport stream; and the outer wall and / or the inner wall of the transport container has at least one outlet opening or wall regions permeable to the gas of the transport stream, through which the gas of the transport stream can escape from the insulating volume.

In this case, the unfolding of the transport container, step b, simultaneously with and triggered by the inflow of the insulating material, step c), take place in one step.

In one embodiment, the transport stream is admixed with a hardener and / or a binder which combines with the insulating material and in the insulating volume connects the plurality of solids to one or more larger bodies.

In a further embodiment, the inner walls, the outer walls and / or the insulating material are fed to a recycling process for the at least partial recycling of the materials used to produce the container in a further step d) after transporting a transportable goods to be transported.

In one embodiment, cellulose-based material is used as the insulating material and / or as the base material for the inner and / or outer wall.

In a further embodiment, at least one of the method steps is carried out only at the place where the transport container is filled with a transported goods.

The object is achieved remotely by a thermally insulating transport container or connectable parts thereof and for use in the method according to the invention, wherein the transport container comprises an inner wall and an outer wall, wherein the inner wall encloses a transport volume and between the outer wall and inner wall an insulating volume is enclosed, wherein the inner wall is connected to the outer wall via connecting elements, wherein the connecting elements against the inner wall and against the outer wall are bent and wherein individual, mutually angled walls of the outer and inner wall are bent against each other, wherein the transport container further comprises an inflow opening, via which the insulating volume between the outer and the inner wall is filled with an insulating material, wherein in a filled state of the insulating volume, the insulating volume is filled with insulating material and the transport container a dimensionally stable transport volume and having a defined insulating volume and wherein in an unfilled state of the insulating volume, the walls and connecting elements of the transport container are bent against each other so that the transport volume and the insulating volume are smaller than in the filled state of the insulating volume wherein the outer wall and / or the inner wall of the transport container Has at least one outlet opening or permeable to the gas of the transport stream wall areas through which the gas of the transport stream can escape from the insulating volume.

In one embodiment, the inner wall encloses the transport volume of four or five sides and wherein at least one cover is provided, via which a fifth and / or sixth side of the transport volume is thermally insulating lockable.

In a further embodiment, the connecting elements are cables, tapes, tapers, walls or webs.

In one embodiment, the transport container is comprised of a plurality of segments, each segment having an insulating volume (I) sealed with respect to the insulating material, opposite to the other segment (s), each segment having an inflow opening over which the segment engages Insulating material is filled.

According to the inventive method, a thermally insulating transport container is inflated at the place of filling with an insulating material. The thermally insulating transport container consists of an outer and an inner wall which together form an insulating volume. In the insulating volume, the insulating material is inflatable via an inlet opening. Between the inner and the outer wall connecting elements are preferably provided, which may be located completely within the insulating volume. The fasteners contribute to the dimensional stability of the transport container. The transport container can preferably be deployed by a simple Aufziehbewegung and then filled with the insulating material or be deployed directly by the inflation with the insulating material. Due to the unfolding, a transport volume which can be enclosed by at least four sides, preferably of at least five sides, of the inner wall is formed. By filling the insulating with insulating material dimensional stability of the transport volume and a dimensionally stable outer shape of the transport container can be caused. For this purpose, the insulating volume can be filled with a pressure which is greater than the ambient pressure, so that the connecting elements are subjected to train. By tensile stressed on fasteners, the position of the inner wall relative to the outer wall can be defined in the deployed state. Thus, the thickness of the insulating material or the insulating volume can be defined. To fill the insulating volume, a transport stream is used. The transport stream can be purely gaseous.

After filling the insulating volume with insulating material, the inlet opening can be closed.

The advantage of the method described is that the transport container can be transported in the folded state to the place of its use / provision / filling and can be quickly and easily brought into the desired transport form by means of inflation.

The insulating volume can also be divided into several segments. The segments may be connected to each other via passages so that they can be filled via a common inlet opening. Alternatively, each segment may have its own inlet port. Particularly preferred, each wall forms its own segment. A common cuboid transport container thus has four segments for the side walls, and possibly a ground segment and a lid segment. It is possible that all segments are materially connected to each other or all or some segments, in one embodiment, all or some walls are not materially connected to each other. In this case, the segments / walls can be connected together at the place of filling.

For this purpose, force and / or positive connection methods can be used. Preferably, the segments can be glued together. For this purpose, prefabricated adhesive strips may be provided at the edges of the segments. It is also possible that the transport container consists of a combination of cohesively interconnected segments and separate segments. For example, the segments of the lateral walls can be materially connected to one another and the cover and / or the base plate can be designed as a separate component. The position of the individual side walls to each other can be fixed over the bottom plate and / or the cover plate. The bottom and / or the cover plate can each also be inflatable or transported as a finished component. If the side walls of the transport container have at least one side edge against which two side walls abut one another, this connection can also be made via the fixing by means of the top and / or bottom plate. For this purpose, the lid and / or bottom plate have a groove into which the side walls are inserted. Alternatively, the lid and / or bottom plate may have a projection that can grip around the side walls.

Thus, the individual segments or walls of the transport container are thermally sealed together in the unfolded state, the edges of the individual segments or walls can be designed as chamfers. Preferably, each edge of a segment on a 45 ° chamfer, which rests in the deployed state of the transport container to a 45 ° chamfer of another segment. For a better thermal sealing effect may continue to have compliant materials on the chamfers. For example, sealing lips can be attached to the chamfers (for example made of rubber) or the chamfers can have a roughened surface, so that a cellulose surface-based material has a slightly yielding surface which has an increased sealing effect.

In a preferred embodiment of the invention, solids are used as the insulating material. The solid must for this purpose have a shape which is suitable to be blown through the inlet opening of the transport container. Preferably, the insulating volume, which is filled via an inlet opening, a concave space, further preferably it encloses at least three, four or five sides of the transport volume. In this case, the solids can be distributed by means of a single transport stream through a single inlet opening in all sides of the insulating volume, so that the insulating volume is completely filled with insulating material. The insulating material may be dusty or granular or present as powder, particles or granules. Other forms of solids can be used.

Preferably, an insulating material is used which is recyclable and / or compostable and at the same time has a low weight, good thermal insulation properties and high mechanical stability. Such a material may comprise cellulose, at least one natural, starch-free binder and optionally at least one aggregate, the material having a cellulose content of at least 50% by weight, based on the total weight of the material. As cellulose paperboard, paper, in particular waste paper or predominantly cellulose plant materials or paper dust can be used.

Binders which can also be used are binders which require a trigger for activating the binding properties. Furthermore, insulating materials can be used for filling, which already contain a binder. In particular, starch-based binders can be activated via a moist, warm air stream. In this case, insulating material can be used, which is starchy anyway and thus already has a binder.

It is also conceivable that the insulating volume from the outset, ie z. B. already in the production plant is filled with an insulating material. In this embodiment, the insulating material is inflatable via a trigger. That is, by the action of a particular physical release on the insulating material, this increases its volume. Heat or moisture may preferably serve as a trigger here.

In one embodiment, the transport container has at least one outlet opening or one or more wall regions which are permeable to the transport gas. Through the outlet opening / the permeable walls not necessary for isolation gas can escape from the insulating. An outlet opening / a gas-permeable wall area is preferably located as far as possible from the inlet opening with respect to the distance covered by the transport stream in the insulating volume.

Especially cellulose-based walls, but also other textile walls can be gas-permeable anyway. Alternatively or additionally, at certain points screens or the like can be used as an outlet opening, which allow the gas to flow outward, but retain the insulating material. The sieve can be used as a separate component or caused by perforation (ie by piercing) of the wall.

In order to achieve a nationwide high insulation effect in all wall areas, all areas of the insulating volume are preferably energized uniformly with insulating material. For this purpose, the inlet opening and outlet opening for a gas flow for filling the transport container in the flow direction are preferably as far apart as possible. In addition, preferably sharp edges, stagnation points and undercuts and other geometries that adversely affect a uniform flow of the insulating avoided.

The use of solids as insulating material offers the advantage of a very cost-effective insulating material and a high dimensional stability. The dimensional stability and the load capacity of the transport container can be further increased by means of binders or hardeners. The use of biodegradable insulating material allows for easy Recycling after using the transport container.

In one embodiment, the insulating material can be drained from the transport container after use of the transport container for transporting a cargo. This allows a refolding of the transport container, so that it can be transported to save space in a further empty transport and so flexible reusable.

The transport container may have a discharge opening for removing the insulating material from the insulating volume.

The transport container can be supplied to a recycling process after its last use. It is particularly advantageous if insulating material and inner and outer walls are made of the same recyclable or similar recyclable materials. In particular, cellulose-based material, in particular paper-based material, can be used as the recyclable material. In order to allow a good folding of the transport container, the connecting elements can be pressure-compliant (that is, only absorb tensile forces, but no pressure or shear forces) and the individual walls of the inner and outer walls can be pivoted against each other. Preferably, the connecting elements ropes, tapes, tapers, walls or webs. The connecting elements can be arranged in the insulating volume such that they can be flowed around by a supplied transport stream and the entrained insulating material or have openings through which the transport stream can flow with the insulating material.

The inner wall of the transport container can enclose the transport volume of four or five sides. The remaining one or two sides of the transport volume may be covered by a lid. The lid is either pivotally attached to the walls of the transport container attached to this or designed as a separate component. The lid may also be inflatable or already obtained in the factory production sufficient insulation and transported as a finished component even in a vacuum. Preferably, the transport container is a cuboid. The transport volume can also be cuboid. A cuboid outer shape of the transport container allows efficient and flexible use of storage space.

Depending on the area of application, the transport boxes can have different geometries and dimensions. However, the containers are preferably designed in the geometries and dimensions that are standard in the respective field of application. This allows easy compatibility with existing transport containers. The wall thickness is preferably dependent on the application. It depends in particular on the temperature of the goods to be transported, the environmental conditions and the duration of the transport. In most applications (for food transport), a wall thickness between 2 and 10 cm can be assumed.

For ease of stacking the transport container lid and / or floor panels may have projections that can engage in recesses, which are embedded in the respective adjacent ceiling and / or floor panel. It is also possible that a ceiling and / or bottom plate serves as a cover plate for a lower transport container and at the same time as a bottom plate for an upper transport container.

In an alternative embodiment, the inner and / or outer walls may be made of a textile material. For shaping the transport container bars can be attached to the edges of the walls in addition.

All embodiments may consist of separately deployable and inflatable segments. The segments can be materially connected to each other and each have its own inlet opening for inflating the segment. Alternatively, the segments can be separately executed components, which can be assembled via a force and / or positive connection. In this way, the size of the transport volume of the transport container is variable.

• 1 zeigt einen erfindungsgemäßen Transportbehälter in einer perspektivischen Darstellung;
• 2 zeigt eine Detailansicht eines erfindungsgemäßen Transportbehälters im Querschnitt;
• 3 zeigt einen weiteren Querschnitt des Transportbehälters aus 2;
• 4a ist ein Schnitt einer perspektivischen Darstellung eines erfindungsgemäßen Transportbehälters im entfalteten Zustand;
• 4b zeigt den Transportbehälter aus 4a während des Faltprozesses;
• 5a zeigt eine Frontansicht eines Deckels für den Transportbehälter;
• 5b zeigt eine perspektivische Darstellung des Deckels aus 5a;
• 6a zeigt eine Querschnittsansicht eines erfindungsgemäßen Deckels und Transportbehälters;
• 6b zeigt eine alternative Querschnittansicht eines erfindungsgemäßen Deckels und Transportbehälters;
• 7 zeigt die Faltlinien eines gerafften Verbindungselementes;
• 8 zeigt ein Beispiel für Faltlinien in einem unterhalb entfalteten Transportbehälter/-wand;
• 8a zeigt einen zusammengefalteten Transportbehälter oder eine Transportbehälterwand, undig. 8c zeigt ein Beispiel für Faltlinien einer/-es entfalteten Transportbehälterwand.

For textile walls unfolded segments can be lashed together on straps and so the transport container can be kept in a stable form, even if not all segments are inflated.

• 1 shows a transport container according to the invention in a perspective view;
• 2 shows a detailed view of a transport container according to the invention in cross section;
• 3 shows a further cross section of the transport container 2 ;
• 4a is a section of a perspective view of a transport container according to the invention in the unfolded state;
• 4b shows the transport container 4a during the folding process;
• 5a shows a front view of a lid for the transport container;
• 5b shows a perspective view of the lid 5a ;
• 6a shows a cross-sectional view of a lid and transport container according to the invention;
• 6b shows an alternative cross-sectional view of a lid and transport container according to the invention;
• 7 shows the fold lines of a shirred connecting element;
• 8th shows an example of fold lines in a underneath unfolded transport container / wall;
• 8a shows a folded transport container or a transport container wall, undig. Figure 8c shows an example of fold lines of a deployed transport container wall.

The 1 to 7 show a transport container for insertion in a method according to the invention for providing a transport container at the place of use. In 1 is a transport container 1 shown having an inner wall 3 and an outer wall 2 includes. The inner wall 3 is with the outer wall 2 by means of five connecting elements 4 connected. The transport container is shown in a deployed state, so that a transport volume T inside the inner wall 3 ready to receive a cargo. The inner wall 3 is from the outer wall 2 spaced at a distance d. This results in an insulating volume I between the outer and the inner wall 2 . 3 , The insulating volume I is filled with an insulating material, not shown. The connecting elements 4 are shown in this case as steppes, but can also be for example webs, walls, bands or ropes. In the outer wall 2 is an inlet opening 5 provided, via which the insulating material in the insulating I can be filled. The entire transport container 1 has a coherent insulation volume I and so can through a single inlet opening 5 be filled. On the side opposite the inlet opening of the transport container 1 is an outlet opening 6 provided, which is traversed by a transport gas, but not by the insulating material.

If the fasteners 4 are designed as webs, as in 2 , can holes 7 in the jetties 4 be provided to allow the insulating material optimally in the insulating volume I can distribute.

The connecting elements 4 are preferably foldable or bendable with respect to the inner wall 3 and the outer wall 2 , as in 3 shown. Since also mutually angled walls of the outer and inner wall 2 . 3 can be folded against each other, it is advantageous at the transition points between two mutually angled walls no fasteners 4 to provide, as in 2 shown.

In the 4a and 4b is a sectional view of a transport container according to the invention 1 with webs as connecting elements 4 shown. 4a shows the transport container 1 in unfolded condition, with all webs 4 are arranged parallel to each other. This allows a simple folding of the transport container 1 in a folding direction orthogonal to the longitudinal orientation of the webs. 4b shows the transport container 1 during the folding process in the folding direction.

For closing the transport container 1 can a lid 8th be provided, over which an opening 9 in the transport container 1 can be closed Preferably, the lid 8th a paragraph 8b on, on the base plate 8a of the lid 8th The paragraph is formed 8b closes when closing the opening 9 with the lid 8th either with the inner wall 3 or with the outer wall 2 from.

To prevent a wall of the outer and / or inner wall must be kinked (against itself must be folded) to the transport container 1 It is possible that one or two sides of the transport container 1 with removable or hinged lid 8th be formed. Be two sides by removable or hinged lid 8th formed, the two sides are preferably opposite. The 6a and 6b put covers 8th in such an embodiment, both the transport volume T as well as the insulating volume I can conclude. This is indicated by the lid 8th several circumferential seals 108 . 10b on, of which at least one seal 10a with the inner wall 3 and at least one seal 10b with the outer wall 2 concludes. Will the insulation volume I over a lid 8th sealed, it is necessary to transport the container 1 in a first step to equip the transported goods, then the transport container with the lid 8th close and only then the insulating volume I to fill with the insulating material.

In one embodiment of the invention, the transport container 1 Walls of the inner and / or outer wall 2,3 and / or fasteners 4 on, which lie with their main expansion surface so to the folding direction that a folding of the transport container 1 only by buckling the corresponding wall and / or the corresponding connecting element 4 is possible. The 7 . 8a and 8b show a possibility such a wall or such a connection element 4 embody. In the embodiment shown, the corresponding walls or connecting elements 4 gathered and / or have prefabricated fold lines 11 , In this case, the walls or connecting elements 4 along the fold line 11 lower strength and can be folded in a buckling direction. In particular, the connecting elements 4 , as in 7 shown, a variety of corresponding fold lines 11 have, which run parallel to each other. By a slight gathering of the corresponding connecting elements 4 the folding is facilitated and the direction of bending determined 7 illustrated connecting element 4 in this case serves the inner wall 3 so with the outer wall 2 to connect that to the insulating volume I is completed to the outside.

In the 8th and 9 Examples are illustrated how a transport container according to the invention can be unfolded or folded. In the 8a to 8c is exemplified the process of unfolding a body. This procedure can be applied both to entire transport containers as well as to individual walls of the transport container. In the illustrated method, two opposing walls of the body remain unfolded while the orthogonal walls are folded into each other. In the 8a to 8c For example, the unfolded walls are exemplary of the outer wall 2 and the inner wall 3 referred to illustrate how individual walls of the transport container can be foldable. Of the folded walls of the body, two opposing walls are folded inwards and two opposing walls are folded outwards. For this purpose, the walls each have a fold line which extends circumferentially around the foldable walls and centrally between the unfolded walls 2 . 3 is arranged. At the location where the fold lines of two adjacent walls of the body meet, further fold lines are necessary to compensate for a gap created by folding along the above-described fold line at that location between the adjacent walls. The additional fold lines form a triangular shape, so that a part of the outwardly folded wall is also foldable inwards, as in 8b shown.

Will the in the 8a to 8c used folding technique used for individual walls, the walls can be connected to each other either after unfolding or be already connected to each other at certain edges. In addition, the individual walls may have 45 ° phases to better seal with the adjacent walls.

If the fold shown is used to fold or unfold an entire transport container, the inner wall is preferably already in the outer wall prior to deployment and the fold lines and walls of the inner wall are parallel to the fold and walls of the outer wall. In 9 is another example of a possible folding shown. The illustrated folding blank serves to produce a rectangular transport container. In the deployed state, the transport container is essentially a flat, cross-shaped surface. Along the fold edges 11 the blank can be folded up. The individual side walls or the lid and the floor each have an outer wall 2 and an inner wall 3 on, over the intermediate walls 12 connected to each other. The intermediate walls each form a 45 ° phase to the plane of extent of the respective wall. This occurs when folding the transport container along the fold lines 11 between the side lines or the bottom and the cover element, a thermally insulating sealing surface. The partitions 12 that form the thermally insulating sealing surface adjoin either a fold line 11 or, in the unfolded state, to the free space. In particular, the surfaces that border in the unfolded state of the free space may be equipped with adhesive elements to hold the transport container in the folded state in the form. Also to the fold lines 11 bordering partitions 12 can have corresponding adhesive elements. The adhesive elements may be formed by double-sided adhesive tape, adhesive tapes, two component adhesives, heat activated adhesives or moisture activatable adhesives. The partitions 12 of the lid 8th can be excluded from the adhesive elements, so that the lid is easy to open and close even in the unfolded state. The individual walls can also be like in 8th be shown foldable.

In a further embodiment, that is the lid 8th opposite wall of the inner wall 3 and the outer wall 2 each only at one edge with the rest of the inner and outer walls 2 . 3 hinged. The corresponding pivotable wall is hinged along the pivotable edge to a folding of the transport container 1 to allow and along the pivoting edge hinged and fastened via plug-in elements with the rest of the wall on at least one further edge to the inner wall 3 and the outer wall 2 to close in the deployed state, and then to allow inflation or to fill the insulating volume with insulating material.

The features of the invention disclosed in the foregoing description as well as in the claims may be essential both individually and in any combination for the realization of the invention in its various embodiments.

Claims (10)

Method for providing a thermally insulating transport container (1) at the location of the intended use, comprising the following steps: a) providing a transport container (1) or connectable parts thereof in a folded state, wherein the transport container (1) has a variable volume (1) enclosing inner wall (3) and an inner wall (3) enclosing the outer wall (2), wherein a variable insulating volume (I) can be produced by a variable distance (d) between the inner wall (3) and the outer wall (2), wherein between outer and inner walls (2, 3) the maximum distance (d) through connecting elements (4) is defined in at least two spatial directions; b) increasing the insulating volume (I) and the transport volume (T) by unfolding the transport container (1); c) blowing an insulating material in the insulating volume (I) through an inflow opening (5), wherein the insulating volume (I) is filled with insulating material until a sufficiently large transport volume (T) is held in shape to receive the transported goods to be transported and a sufficiently large insulating volume (I) is kept in shape in order to keep the cargo in a designated temperature range under given transport conditions for a planned transport time; as an insulating material, a plurality of small-sized solids are blown by means of a gaseous transport stream; and the outer wall (2) and / or the inner wall (3) of the transport container (1) has at least one outlet opening (6) and / or wall regions permeable to the gas of the transport stream, through which the gas of the transport stream from the insulating volume (I) can escape. Method for providing a thermally insulating transport container (1) or connectable parts thereof Claim 1 , characterized in that the deployment of the transport container, step b, simultaneously with and triggered by the inflow of the insulating material, step c), takes place in one step. Method for providing a thermally insulating transport container (1) or connectable parts thereof according to one of Claims 1 or 2 wherein the transport stream is admixed with a hardener and / or a binder which connects to the insulating material and in the insulating volume connects the plurality of solids to one or more larger bodies. Method for providing a thermally insulating transport container (1) or connectable parts thereof according to one of the preceding claims, wherein in a further step d) after transport of a transportable goods to be transported, the inner walls (3), the outer walls (2) and / or the insulating material (I) a recycling process, for at least partially recycling the materials used to produce the container supplied. Method for providing a thermally insulating transport container (1) or connectable parts thereof according to one of the preceding claims, wherein cellulose-based material is used as insulating material and / or as base material for the inner and / or outer wall. Method for providing a thermally insulating transport container (1) or connectable parts thereof according to one of the preceding claims, wherein at least one of the method steps is performed only at the place where the transport container is filled with a transported material. Thermally insulating transport container (1) for use in any of the methods of Claims 1 to 6 wherein the transport container (1) comprises an inner wall (3) and an outer wall (2), wherein the inner wall (3) encloses a transport volume (T) and between the outer wall (2) and inner wall (3) an insulating volume (I) is enclosed, wherein the inner wall (3) with the outer wall (2) via connecting elements (4) is connected, wherein the connecting elements (4) relative to the inner wall (3) and against the outer wall (2) bent and wherein individual, mutually angled walls of the outer and inner walls (2, 3) are bent against each other or separable from each other, wherein the transport container (1) further comprises an inflow opening (5) via which the insulating volume (I) between the outer and the inner wall (2, 3) can be filled with an insulating material, wherein in a filled state of the insulating volume, the insulating volume (I) is filled with insulating material and the transport container is a formstabi les transport volume (T) and a defined insulating volume (I) and wherein in an unfilled state of the insulating volume (I) the walls and connecting elements (4) of the transport container (1) are bent against each other so that the transport volume (T) and the insulating volume (I) are smaller than in the filled state of the insulating volume (I) wherein the outer wall (2) and / or the inner wall (3) of the transport container (1) at least one outlet opening (6) and / or for the gas of Transport flow permeable wall areas, through which the gas of the transport stream from the insulating volume (I) can escape. Transport container (1) after Claim 7 , wherein the inner wall (3) encloses the transport volume (T) of four or five sides and wherein at least one cover (8) is provided, over which a fifth and / or sixth side of the transport volume (T) is thermally insulating lockable. Transport container (1) according to one of Claims 7 or 8th , wherein the connecting elements (4) are ropes, bands, tapers, walls or webs. Transport container (1) according to one of Claims 7 to 9 wherein the transport container (1) consists of several segments, each segment having an insulating volume (1) which is sealed relative to the insulating material (s) to the other segment (s), each segment having an inflow opening (5), over which the segment can be filled with insulating material.

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