Packing unit system, installation method, and use thereof

Abstract

The invention relates to a modular packing unit system (1) comprising a packing unit module (2) which comprises a rotatable packing unit (100) for filling bulk material into bags and a pre-silo (2), said pre-silo (3) being arranged over the packing unit (100). The packing unit (100) and the pre-silo (3) are received in a silo-type housing (4), wherein the housing (4) comprises a supporting structure (5) made of profiled elements (6). In the method for installing such a modular packing unit system (1), the following steps are carried out: - providing a foundation (25); - providing a housing (4) which comprises at least one supporting structure (5) made of profiled elements (6); - erecting a packing unit (100); and - installing a pre-silo (3) above the packing unit (100). The use is characterized by the use of standard sea containers (24) for a modular packing unit system (1).

Description

[0001] Packing system, method of installation and use

[0002] Description

[0003] The present invention relates to a packing system, in particular a modular packing system comprising at least one packing module and at least one pre-silo. The packing module comprises at least one rotatable packing system for filling bulk material into bags. The pre-silo is arranged above the packing system so that the bulk material can be fed to the packing system in a suitable manner. The present invention also relates to a method for installing such a packing system and a specific use for such a packing system.

[0004] Packing systems are used in many areas to fill products, for example bulk materials such as cement, into bags.

[0005] Particularly when filling bags of cement, relatively large systems are generally required in order to ensure sufficient capacity and to accommodate all of the necessary system components. Silos are particularly needed for intermediate storage of the cement to be filled. Other components, such as automated bag loading for rotating packing systems and further bag processing such as closing, cleaning and loading, also generally require a relatively large amount of space. In conventional systems, traditional plant buildings are erected for this purpose. This, in addition to the effort required for building construction, initially requires complex preparation of the building site and, in particular, the full-surface provision of a foundation structure, such as a floor slab, and therefore project-specific engineering, usually for all parts of the building, at least the statics.

[0006] This results in an enormous amount of time and money being spent, as well as a considerable amount of material, until the system is ready for operation.

[0007] The object of the present invention is therefore to provide a packing system or a packing system that is simpler in design and can preferably be constructed more quickly and flexibly. In particular, a more sustainable construction method is also possible.

[0008] This object is achieved by a packaging system having the features of claim 1, by a method having the features of claim 17, and by a use having the features of claim 22. Preferred developments of the invention are the subject of the subclaims. Further advantages and features of the present invention will become apparent from the general description and the description of the exemplary embodiment.

[0009] The modular packing system according to the invention comprises at least one packing module comprising at least one rotatable packing system for filling bulk material into bags and at least one pre-silo, wherein the pre-silo is arranged above the packing system. The packing system and the pre-silo are accommodated in a silo-like housing, wherein the housing comprises a supporting structure made of profile elements. The packing module thus provided is also referred to as a process tower according to the application, wherein the packing system module or the process tower can interact with or be connected to other system modules depending on their design.

[0010] Within the packaging system module or process tower, various levels can be incorporated or provided. For example, the packaging system can be located on one level.

[0011] The packaging system according to the invention offers many advantages. A significant advantage is that it provides a highly flexible, modular packaging system that can be assembled and disassembled relatively quickly and flexibly thanks to the special type of enclosure, particularly due to the significantly reduced material requirements.

[0012] Depending on the design, the entire system can even be highly transportable, which also offers significant advantages in terms of sustainability. For example, the modular packing system can be assembled at specific locations as needed, then dismantled and reassembled at a different location.

[0013] The modular packing system or packing module or process tower, which dispenses with solid housings and instead relies on a supporting structure made of profile elements, can be installed particularly quickly. Depending on the design, prefabricated elements can be assembled, for example, with just a few crane lifts. Conventional steel construction or the like is delivered in individual parts for the supporting structure or load-bearing structure, depending on the application, and assembled on-site in individual steps. The housing preferably comprises at least one outer skin, which is attached to the profile elements. The housing provides a packing module that is at least partially closed, or a process tower that is at least partially enclosed, so that the packing system and the pre-silo are particularly weatherproof and preferably also otherwise securely enclosed.

[0014] Particularly preferably, the outer skin is provided, at least in sections, by panels attached to the profile elements. Such panels can be provided, for example, by conventionally constructed panels made of sheet metal, another metal, or even plastic, or a mixture thereof. However, the use of stable foils or the like is also conceivable and expedient. In particular, sandwich panels, general cladding, sheet metal as such, or trapezoidal sheet metal can also be understood or used as panels. The use of wood-based materials or other natural materials is also advantageous depending on the application.

[0015] In expedient embodiments, the base area of ​​the supporting structure is adapted to the dimensions of the packing system. It is particularly preferred that the supporting structure, the base area, or the floor plan be adapted as closely as possible to the packing system or the footprint of the packing system. In particular, the base area is also adapted to the pre-silo or to the dimensions of the pre-silo, or the design of the pre-silo is adapted to the enclosure.

[0016] In advantageous designs, the base area of ​​the enclosure is polygonal and preferably octagonal. Depending on the configuration, other base areas or cross-sections are also possible. For example, depending on the design, a round or rounded, oval, triangular, square, pentagonal, or polygonal configuration is also possible. In particular, the most optimal and thus space-saving adaptation to the size or footprint of the packaging system is always preferred.

[0017] Preferably, the outer shell of the enclosure provides a safety device for the packing system. In particular, in appropriate designs, the enclosure blocks off the working area of ​​the packing system or delimits a safety zone of the packing system from persons. This ensures safe operation.

[0018] Particularly preferably, the outer skin of the enclosure provides the housing of the pre-silo, at least in sections. Thus, in particular, the enclosure can provide, at least in the upper region, a substantially cylindrical region in front of the hopper of the pre-silo. Depending on the design, the remainder of the pre-silo, in particular also the hopper region, can be constructed analogously to the design of the enclosure of the packing system module. Thus, the hopper-shaped configuration can also be created using profiles to which panels or the like are attached to produce the hopper enclosure.

[0019] The modular packing system preferably comprises, in addition to the packing system module, at least one further system module, wherein at least one bucket elevator or at least one vertical conveyor, at least one silo, at least one bag loading device, at least one bag removal device, at least one bag cleaning device, at least one dust extraction device, at least one compressor device, at least one office module, at least one bag storage device and / or at least one loading device can be provided as a further system module. A bucket elevator, for example, is preferably attached to the outside of the packing system module and can thus, for example, convey bulk material from an adjacent silo into the preliminary silo. An office module provides, in particular, an office space optionally with office furniture, wherein such an office module can preferably be provided in the form of an office container.

[0020] In expedient embodiments, at least one further system module, which comprises at least the bag loading device, the bag removal device, the bag cleaning device, the dust removal device, the compressor device, the office module, and / or the bag storage device, comprises at least one standardized housing.

[0021] The standardized housing is preferably provided by at least one standard shipping container, in which the components or system parts are preferably accommodated, pre-assembled, or installed. This makes it possible to provide a module in a simple and cost-effective manner that is also easy to transport. Depending on the design, many components or additional components can then be pre-installed in a shipping container, and the hollow spaces can be used for additional (loose) material during transport to the construction site.

[0022] Preferably, at least two system modules are assembled in standard sea containers to form a so-called container city. Containers can be assembled to form a container city using appropriate, preferably standardized, cutouts in the container walls. These cutouts can be used for connection points, windows, doors, other passages, or the like. Preferably, the cutouts in the container walls are initially only marked out and can be easily cut out during assembly according to the relevant specifications. Since sea containers require maritime approval, no changes may be made to them initially. Depending on the transport route, the necessary cutouts may only be made after the containers have been set up at the intended location.When dismantling the system and transporting it to another location, this requirement may also need to be taken into account depending on the type and route of transport, as the sea containers may only be transported in their original state. However, relocation by land, train, truck, or usually also by inland waterway is generally possible.

[0023] Preferably, at least one further system module, which comprises the at least one silo, comprises at least one housing, which comprises at least one supporting structure made of profile elements, wherein at least one outer skin is received on the profile elements. In principle, this further system module is constructed in the same way or in a similar way to the packing system module, namely in the form of a support structure with an outer skin attached to it. The outer skin is provided, for example, by panels, as already described above for the packing system module.

[0024] Particularly preferably, at least one further system module comprising the loading device is provided with at least a roof. In particular, a tent-like roof construction can be expediently used so that no fixed enclosure needs to be provided for the loading device. In preferred embodiments, the packing system module is designed to be transportable. This tent-like roof construction can preferably be covered with a solar film or the like and used to generate electricity. In particular, such a packing system module can be supplied in modular form or can be provided so that it is easy to install and / or uninstall. In particular, a packing system module can be dismantled into individual module parts and reassembled at a different location. Depending on the embodiment, however, complete dismantling of the packing system module can also be provided or be expedient.Preferably, at least one additional system module is designed to be transportable. Thus, system modules provided in standard housings, for example, in standard sea containers, can be easily transported to another location and reassembled.

[0025] In advantageous further developments, at least one foundation is provided at least beneath the packing plant module and / or beneath another plant module. Due to the lighter profile construction or steel construction, smaller foundations can be provided than would otherwise be necessary. This also makes it possible to deliver prefabricated foundations, which can then preferably be delivered to another location with the entire plant. When prefabricated foundations are provided, no setting time is required on site until full load-bearing capacity is reached. This also significantly reduces assembly times.

[0026] In particular, foundation slabs of a predetermined thickness can be used, which can be transported to the appropriate location by truck or semi-trailer.

[0027] The method according to the invention for installing a modular packing system, as described above, is characterized by the following steps: At least one foundation is provided. An enclosure is provided consisting of a supporting structure made of profile elements. The packing system is set up, and a pre-silo is mounted above the packing system.

[0028] The above-mentioned steps can be carried out in an appropriate order and / or in parallel.

[0029] The method according to the invention also offers the advantages already described for the modular packaging system. Depending on the design, there is sometimes considerable time savings during installation, since prefabricated elements are used, which can be assembled, for example, with just a few crane lifts.

[0030] The design according to the invention also makes it possible to provide a particularly sustainable packaging system, since the profile construction requires considerably less material.

[0031] Preferably, at least one outer skin is attached to the profile elements. This attachment of the outer skin can also be carried out in parallel with or after the installation of the stud path or the supporting structure.

[0032] Particularly preferably, at least one additional system module is installed. The additional system module is mounted, in particular, next to and / or on the packing system module. Thus, in particular, a system module can be used which is, for example, integrated into a standard sea container and is preferably pre-assembled (plug and play).

[0033] In practical designs, the packing system is later uninstalled in order to be reinstalled, particularly at another location.

[0034] Preferably, parts of the enclosure are preassembled. This allows for work to be carried out in stages, depending on the design, so that, for example, the upper part of the process tower can be completely preassembled on the ground.

[0035] The invention also provides for the use of standard sea containers for a modular packaging system. Various system modules can be provided in standard sea containers, which can then be assembled, for example, like a container city, depending on the application, to construct a process line. Further advantages and features of the present invention will become apparent from the exemplary embodiment, which is explained below with reference to the accompanying figures.

[0036] The figures show:

[0037] Fig. 1 is a purely schematic representation of an embodiment of a packaging system according to the invention in a perspective view;

[0038] Fig. 2 is a purely schematic representation of an embodiment of a packaging system according to the invention in another perspective view;

[0039] Fig. 3 is a purely schematic representation of an embodiment of a packaging system according to the invention in a next perspective view;

[0040] Fig. 4 is a purely schematic representation of an embodiment of a packaging system according to the invention in a further perspective view;

[0041] Fig. 5 is a purely schematic representation of an embodiment of a packaging system according to the invention in a plan view;

[0042] Fig. 6 is a purely schematic representation of an embodiment of a packaging system according to the invention in a sectional side view; Fig. 7 is a purely schematic representation of an embodiment of a packaging system according to the invention in a sectional side view;

[0043] Fig. 8 is a purely schematic representation of an embodiment of a packaging system according to the invention in a sectional side view;

[0044] Fig. 9 is a purely schematic representation of an embodiment of a packaging system according to the invention in a sectional side view; and

[0045] Fig. 10 is a purely schematic representation of an embodiment of a packaging system according to the invention in a sectional plan view.

[0046] Figures 1-10 show, purely schematically, an embodiment of a modular packaging system 1 according to the invention in various views.

[0047] Figures 1-4 show perspective views from different directions of the packaging system 1 according to the invention.

[0048] It can be seen that in the embodiment shown here, a packing system module 1 with an octagonal base is provided, which is also referred to here as the process tower 25. The packing system module 2 comprises the pre-silo 3, which is concealed by the housing 4 in the perspective views, and the rotating packing system 100.

[0049] Attached or fastened to the packing system module 2 is a bucket elevator 13, which represents a further system module 12 and, in the exemplary embodiment shown here, conveys bulk material from a silo 14 arranged adjacent to it from bottom to top into the process storm 25 or the packing system module 2 or the pre-silo 3. The silos 14 provided next to the bucket elevator 13 are not shown here. The product to be packaged can also be delivered loose by silo truck or ship.

[0050] Furthermore, various standardized housings 23 are provided, in which additional system modules 12 are arranged. In the exemplary embodiment shown here, the standardized housings 12 are provided by standard sea containers 24.

[0051] In the process storm 25, bulk material is filled into bags, which are then conveyed via the sea containers 24 arranged as a container city to the loading facility 22, which in the embodiment shown here can be accessed in parallel by two trucks 200.

[0052] To enable the operating personnel and the equipment in the sea containers 24 to be connected to one another, appropriate openings or cutouts can be made in the walls of the sea containers 24. These openings can be pre-marked at the appropriate locations so that they can be created quickly and easily during construction of the container city. For container transport, it may be necessary under certain circumstances not to provide the cutouts in the walls yet, since, depending on national regulations for the transport of sea containers, these must remain in their original, certified form.

[0053] Furthermore, it can be seen that a platform 26 is provided and that a staircase 27 is arranged around the process tower to reach different levels. Figure 5 shows a purely schematic plan view of the exemplary embodiment of a modular packaging system 1 according to the invention according to the previously shown figures.

[0054] In the view shown, it can be seen that the packing system module 2 or the process tower 25 has an essentially octagonal base area 9. A polygonal design of the base area 9 of the packing system module 2 offers many advantages. As explained in more detail in the following figures, the packing system module 2 is provided by means of a supporting structure 5 made of profile elements 6, to which panels 8 are attached as an outer skin 7. This provides a closed or enclosed packing system module 2 in which the pre-silo 3 and the packing system 100 can be arranged. A polygonal basic shape or base area 9 is relatively easy to achieve using the profile elements 6 in order to form the most space-saving enclosure 4 around the packing system 100 and the pre-silo 3. In general, it is also conceivable to attach the panels within the profile structure. This creates a smooth inner surface, particularly in the area of ​​the silo.Panels attached from the inside are therefore also to be understood as outer skin.

[0055] It is advantageous that the housing 4 of the packing system module 2 is constructed as compactly as possible around the packing system 100 or the pre-silo 300, so that the smallest possible footprint 9 is provided for the packing system module 2. This allows the creation of a process tower 25 that is as slim and compact as possible. This saves material, and the process tower can also be transported to another location, either completely or divided into a few parts, if necessary, to be reassembled there. In particular, depending on the design, work can also be carried out in sections, so that, for example, the upper part of the process tower can be completely pre-assembled on the ground.

[0056] Figure 6 shows a purely schematic sectional side view of the exemplary embodiment of a packaging system 1 according to the invention. It is indicated here purely schematically that one or more silos 14 can be arranged next to the bucket elevator 13, in which silos the bulk material is stored prior to transport via the bucket elevator 13 to the pre-silo 3.

[0057] In the sectional view shown, a panel 8 of the outer skin 7 of the housing 4 of the packing system module 2 is not shown, so that the view of the rotating packing system 100 is clear.

[0058] In the illustrated embodiment, the panels 8, which are provided here by metal sheets, represent a safety device 10 of the packing system 100. The enclosure 4 is constructed so tightly around the packing system 100 that the outer skin 7 delimits the working area of ​​the packing system 100 and thus prevents users from accidentally approaching too close to the rotating packing system 100 during operation of the packing system 100 or from falling outward while handling the protective casing during maintenance. Furthermore, Figure 6 shows a compressor that can be used for various applications as required.

[0059] Figure 7 shows an enlarged section of the process tower 25 or the packaging system module 2 and the adjacent additional system modules 12, which are housed in sea containers 24, from Figure 6. The sea containers 24 represent standardized housings 23.

[0060] Furthermore, the packing system 100 can be seen here, which is designed here as a rotating packing system 100. Also visible is the bag-loading device 15, which, in the embodiment shown here, automatically shoots valve bags onto the rotating packing system 100.

[0061] Furthermore, it can be seen that an office module 20 is provided, which here is also provided by a sea container 24 and includes office furniture.

[0062] In the illustration shown, the individual panels 8 can be clearly seen, which are attached to the profile elements 6 of the supporting structure 5 and thus form an outer skin 7.

[0063] In the embodiment shown here, the panels 8 are formed from sheet metal. Depending on the design, the panels can also be made of a different material and / or comprise a different material and / or, for example, be made continuously. For example, it is also possible to cover the finished supporting structure 5 with a sturdy film, which can then also be a single piece if necessary.

[0064] In Figure 7, possible separations 33 or separation points of the supporting structure 5 are shown purely as examples, if, for example, assembly in sections is planned or if parts of the process tower 25 are pre-assembled on the floor and then placed in their entirety.

[0065] Figures 9 and 8 show a sectional view and an enlarged view of the packing system 1, wherein it can again be seen that, in addition to the packing system module 2, further system modules 12 are provided which are connected to the packing system module 2 or an adjacent system module 12. In the exemplary embodiment shown here, a large part of the outer skin 7 is not shown, so that a relatively large view of the process storm 25 or the system packing system module 2 is clear. Thus, on one level, the rotating packing system 100 can be seen, which in the exemplary embodiment shown here comprises a plurality of filling nozzles 101 distributed over the circumference, and the pre-silo 3 arranged above it.

[0066] In the illustrated embodiment, the hopper 28 of the pre-silo 3 is provided as a separate component. The remaining, essentially cylindrical part of the housing 11 of the pre-silo 3 above the hopper 28 is provided in the illustrated embodiment by the outer skin 7 of the enclosure 4 of the packing system module 2. This also allows a particularly tight construction to be achieved. Furthermore, a separate housing 11 is superfluous for a large part of the pre-silo 3.

[0067] In the illustration shown, various system modules 12 are shown as examples. In the exemplary embodiment shown here, the modular packing system 1 comprises a bag cleaning unit 17 followed by a bag removal unit 16, which feeds the filled and cleaned bags to the loading device 22. Here, too, it can be seen that two trucks can drive into the tent-like loading device 22 in parallel and are then loaded from two loading modules 29 without pallets.

[0068] Depending on the design, a palletizing device can also be connected to the bag removal device 16, which palletizes the filled bags, whereby the filled pallets can then be fed to the loading device 22.

[0069] Furthermore, a dust extraction device 18 with a filter 32 and a compressor device 19 are provided. Furthermore, Figure 8 shows that the inventive design eliminates the need for large or full-surface foundations, so that, as indicated here, relatively small foundations 30 are sufficient, which can even be prefabricated depending on the design of the packing system 1, so that setting times do not unnecessarily hinder the construction of the system.

[0070] For the sea containers 24, foundations 30 are only necessary or practical, if at all, on the front sides. However, in Figure 8, an additional foundation 30 is provided below a decoupling frame 36 for the checkweigher 37, so that the scale 37 can operate vibration-free. Thus, only properly filled bags are conveyed via the bag removal conveyor 16 to the loading device 22.

[0071] In the illustrated embodiment, broken or incorrectly filled bags can be removed from the process via a bag discharge 38. The bags can then be fed, for example, to a bag shredder 39, and the bulk material is separated via a separating screen 40 and returned to the filling process via return flour screws 35.

[0072] Figure 8 also shows return flour collection funnels 31, which feed bulk material escaping during the filling process and when closing the bags back into the filling process via the return flour screws 35.

[0073] A foreign body sieve 34 is provided above the pre-silo 3.

[0074] Figure 10 is a purely schematic sectional top view of the packing system 1 according to the invention. In the embodiment shown, the view is of the packing system 100 with the individual filling nozzles 101. Furthermore, a system module 12 in a sea container 24 can be seen, which here contains the bag loading device 15. Also visible in this view are the bag removal device 16 with the bag cleaning device 17. The bag storage area 21, or part of it, can also be seen.

[0075] List of reference symbols

[0076] 1 packing system 31 return meal collects richter

[0077] 2 packing module 32 filters

[0078] 3 Pre-silo 33 Separation

[0079] 4 Housing 34 Foreign body sieve

[0080] 5 supporting structure 35 back flour augers

[0081] 6 profile element 36 decoupling scaffold

[0082] 7 Outer skin 37 Checkweigher

[0083] 8 Panel 38 Sackaus Locking

[0084] 9 Base area 39 Bag shredding

[0085] 10 Safety device 40 Separating sieve

[0086] 11 Housing 100 Packing system

[0087] 12 System module 101 filling nozzle

[0088] 13 bucket elevators / 200 trucks

[0089] Vertical conveyor

[0090] 14 silos

[0091] 15 Bag insertion device

[0092] 16 Bag removal

[0093] 17 Bag cleaning

[0094] 18 Dust extraction system

[0095] 19 Compress it so reinrich ung

[0096] 20 office modules

[0097] 21 sack storage

[0098] 22 Loading device

[0099] 23 standardized housing

[0100] 24 sea containers

[0101] 25 Process storm

[0102] 26 Platform

[0103] 27 Stairs

[0104] 28 funnels

[0105] 29 Loading module

[0106] 30 Foundation

Claims

Claims:

1. Modular packaging system (1) comprising at least one packaging module (2) comprising at least one rotatable packaging system (100) for filling bulk material into bags and at least one pre-silo (2) , wherein the pre-silo (3) is arranged above the packaging system (100), characterized in that the packaging system (100) and the pre-silo (3) are housed in a silo-like enclosure (4) wherein the enclosure (4) comprises a supporting structure (5) made of profile elements (6).

2. Modular packaging system (1) according to claim 1, wherein the enclosure (4) comprises at least one outer skin (7) which is received on the profile elements (6).

3. Modular packaging system (1) according to the preceding claim, wherein the outer skin (7) is provided at least sectionally by at least one panel (8) mounted on the profile elements (6).

4. Modular packaging system (1) according to one of the preceding claims, wherein the base area (9) of the supporting structure (5) is adapted to the dimensions of the packaging system (100).

5. Modular packaging system (1) according to the preceding claim, wherein the base (8) of the enclosure (5) is polygonal and preferably octagonal.

6. Modular packaging system (1) according to any one of the preceding claims 2 to 5, wherein the outer skin (7) of the enclosure (4) provides a safety device (10) of the packaging system (100).

7. Modular packaging system (1) according to any one of the preceding claims 2 to 6, wherein the outer skin (7) the enclosure (4) provides at least partially the housing (11) of the pre-silo (3). Modular packaging system (1) according to one of the preceding claims, comprising at least one further system module (12) comprising at least one bucket elevator (13) and / or another vertical conveyor (13), at least one silo (14), at least one bag loading device (15), at least one bag discharge device (16), at least one bag cleaning device (17), at least one dust extraction device (18) , comprising at least one compressor unit (19) , at least one office module (20) , at least one bag storage unit (21) and / or at least one loading unit (22). Modular packaging system (1) according to the preceding claim, wherein at least one further system module (12) comprising the bag mounting unit (15) , the bag removal unit (16) , the bag cleaning unit (17) , the dust removal unit (18) , the compressor unit (19), the office module (20) and / or the (21) comprise at least one standardized housing (23). Modular packing system (1) according to the preceding claim, wherein the standardized housing (23) is provided by at least one standard shipping container (24). Modular packing system (1) according to the preceding claim, wherein at least two system modules (12) are assembled in standard shipping containers (25) as a container city. Modular packing system (1) according to any one of the preceding claims 8 to 11, wherein at least one further system module (12) comprises the at least one silo (14) and at least one enclosure (4) comprising at least one supporting structure (5) made of profile elements. (6) comprising, wherein at least one outer skin (7) is mounted on the profile elements (5). Modular packaging system (1) according to any one of the preceding claims 8 to 12, wherein at least one further system module (12) comprising the loading device (22) is provided in a covered manner. Modular packaging system (1) according to any one of the preceding claims, wherein the at least one packaging system module (2) is designed to be transportable. Modular packaging system (1) according to any one of the preceding claims, wherein at least one further system module (12) is designed to be transportable. Modular packaging system (1) according to any one of the preceding claims, wherein at least one foundation (25) is provided below the packaging system module (2) and / or at least one further system module (12). Method for installing a modular packaging system (1) according to any one of the preceding claims, characterized by the following steps: - optional provision of a foundation (25) ; - Providing an enclosure (4) comprising at least one load-bearing structure (5) made of profile elements (6) ; - Setting up a packaging system (100) ; - Assembly of a pre-silo (3) above the packing system (100). Method according to the preceding claim, characterized by attaching an outer skin (7) to the profile elements (6). Method according to one of the two preceding claims, characterized by installing at least one further system module (12). Method according to one of the three preceding claims, characterized by pre-assembling parts of the enclosure (4). Method according to one of the four preceding claims, characterized by dismantling the packing system (1) • Use of standard sea containers (24) for a modular packing system (1).

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