EP2336458B1 - Round container for germinating or kiln-drying malt - Google Patents

Description

I. Field of application

The invention relates to a method for producing a round container as well as a round container suitable for this purpose, that is to say a container with a planure which is actually round in plan view, or is approximated by a polygon.

II. Technical background

In particular, in a malting process stages such as germination and Darren are performed in round containers, the structure of which is adapted to the respective process step.

Such round containers were previously made either of concrete or steel in the form of a tank.

Round container, which are made of concrete, have the disadvantage that their concrete construction consuming and often difficult in the required precision, in particular the roundness and the diameter can be produced.

The steel containers, which are constructed similar to a tank for storing liquids, are composed of a plurality of circular segments, and are set in the construction in multiple layers on each other and welded together.

To achieve sufficient stability, a plurality of stiffening elements and braces along the circumference on the circular segments must be additionally mounted in the known steel round containers.

The well-known round containers made of steel also has the disadvantage that they are usually composed of large wall elements to keep the cost of the joining work low, but therefore can be transported only consuming. After setting up and welding a complete layer, circular segments are placed on the first layer in a second layer and welded to each other and to the first layer.

Before setting up the first layer before placing additional layers and before placing a gutter ring for connecting a roof to the round container, the circular segments are leveled to each other in the production process of the steel tank, whereby a considerable overhead in the assembly is required.

Both in the concrete as well as in the tanks of the round containers, receptacles for respective interior fittings have to be created on the ready-made round container after setting up directly on the wall.

This additional complex intermediate step, which must be carried out under high precision requirements, required a considerable additional expenditure and thus increases the production costs.

From the German Utility Model G90 02 366 a method for producing a round container is known in which a round container is composed of segments in the circumferential direction, each having the height of a floor of the round container. There is no tolerance compensation in the circumferential direction between the segments.

The individual segments are also not independent units, but inner planking and outer struts are separate parts, which via bolts and slots (s. Fig. 4 and related description) heights are bolted together.

It can be seen that the butt joints of Innenbeplankung just do not match the outer struts. Also, assembling the segments only by screwing is therefore not possible there.

Accordingly, the finished round container shows no tolerance compensating lining sheet.

Furthermore, from the DD 281 849 A5 a circular container is known, which is composed of individual segments in the circumferential direction and a tolerance compensation is operated only in the form that contracted at a looming gap between the last and first segment of the container, so its diameter is reduced (page 3, center) ,

Also the US 2 395 685 shows a circular container composed of segments, in which the wall is staggered on the one hand in the amount of several segments staggered and all segments are welded together without a tolerance compensation in the circumferential direction in the context of the invention.

Furthermore, it is from the WO 01/36314 A2 known to produce a round container from circumferentially successive profiles, in which between all profiles lining plates in the form of the packaging element 19 are arranged.

The problem with the finished round container to achieve a precisely defined predetermined diameter, in particular by using only a few feed sheets at a few connection points between the profiles, is not addressed there.

III. Presentation of the invention a) Technical task

It is therefore an object of the invention to provide a method for producing a round container, as well as a suitable round container and a round container fügbares wall segment, the fast construction of the round container with great independence from the accuracy of

Preliminary work, despite the attainability of a high final accuracy, allows, as well as a simple transport of the items to the site.

b) Solution of the task

This object is achieved by a method according to claim 1 and a round container according to claim 10. Further embodiments emerge from the subclaims.

An inventive round container is constructed from a variety of set up on a wall wall profiles that are connected to each other and to the ground and ensure the stability of the round container without further bracing. The round container is replaced by the established wall profiles along the preferably circular circumference a cylinder-like shape.

In one embodiment of the invention, the wall profiles on the circular container limiting planar inner surfaces, which in the plan view of the round container this is polygonal approximated a circle.

Embodiments of the invention are also conceivable in which the inner surfaces of the cross-sectional shape of the wall profiles are curved in the plan view of the container and are part of a circular arc.

Furthermore, embodiments of the invention are conceivable in which the inner surfaces of the wall profiles have a plurality of planar surfaces at an angle to each other, which form a polygon in plan view of an erected wall profile, which is constant over the length of the wall profile and approximates the perimeter of the round container is.

The wall profiles have a width which is suitable for allowing the wall profiles to be easily transported on the one hand to the site of the round container, the deviation in shape from a circular area is sufficiently small and at the same time the width of the wall profiles is wide enough, so that the effort for joining the variety of wall profiles is not too big.

The wall profiles preferably have a length which corresponds to the wall height of the round container, that is to say the height of the lateral surface bounding the round container. Thus, the height of the round container is determined by the choice of the length of the wall profiles.

It is in the nature of the invention that the plurality of wall profiles are placed one after the other along the circumference of the wall of the round container and connected in succession. It has proven to be advantageous that when installing the wall profiles, the wall profiles are bolted to the subfloor and the adjacent wall profiles only.

To produce the round container according to the invention, the following procedure is particularly advantageous: Before starting to set up the wall profiles, a center of the round container to be created is determined by being marked on the ground and being physically manifested. For physical manifestation of the center, a retaining dowel may be embedded in the ground to which auxiliary devices may later be mounted.

Around the center, a circumferential line is created in the desired radius of the round container, which marks the course of the inner wall of the future round container, which results from the inner surfaces of the plurality of wall profiles.

In the following step, the perimeter line is divided into segments and the segments are marked with segment markers. Preferably, the segment marks are distributed at equal intervals on the circumference of the circumferential line and mark a desired arc section to be covered by a defined number of the wall profiles forming the wall.

The first wall profile is set up such that the rear end of the wall profile is arranged at a starting point, from which a circular segment has also been measured and the wall profile follows from the starting point of the circumferential line. Then the wall profile is attached to the ground, in particular screwed. The second wall profile is placed with its rear end adjacent to the front end of the first wall profile and arranged following the circumferential line. Then the second wall profile with the first wall profile and attached to the ground. The subsequent wall profiles are arranged in the same way with their respective rear ends adjacent to the front ends of the last set up wall profile, aligned along the circumferential line and fixed in each case with the last set up wall profile and on the ground.

The wall profiles thus form a lateral surface with a polygonal base surface which approximates the peripheral line.

During the erection of the wall profiles, an undersize along the circumferential line is measured in an advantageous embodiment of the invention after a defined number of wall profiles along the circumference of the future round container, which corresponds to the deviation of the front end of the last established wall profile of the segment marking at the end of the segment.

The measured undersize is then compared to a predefined undersize threshold, and in the case of a larger undersize compared to the undersize threshold, a shim is applied to the end of the last wall profile. The lining sheet has z. B. a height corresponding to the height of the wall profiles and a thickness that substantially corresponds to the value of the undersize threshold value.

For this purpose, the width of the wall profiles is carried out in an undersize, i. the width of the wall profiles is insignificantly smaller than the width which was assumed for the calculation of the desired arc section and for determining the position of the segment marking for the specific number of wall profiles.

This means that the small undersize of each wall profile ensures an undersize according to a defined number of wall profiles, which is determined in each case at the end of a circle segment by checking the end of the last wall profile with the position of the segment marking.

If the undersize is smaller than the undersize threshold value or no undersize is measured, a further series of the defined number of wall profiles is attached directly to the last end of the defined number of wall profiles, wherein after the construction of the second series, the undersize of the front end of last wall profile of the second series is again determined in relation to the position of the associated segment marking, compared with the undersized threshold value and optionally compensated or reduced by inserting a lining sheet.

Thus, depending on the manufacturing and joining accuracy between the wall profiles for a previously not specified number of series of wall profiles a lining sheet is inserted at the end of a series.

In a further embodiment of the invention, the wall profiles are made so that they are made specifically for the radius of the later round container. Preferably, the wall profiles of profiles that are substantially C-shaped in cross-section, composed, in the mounted state, the open sides of the C-profiles facing outward.

The C-profiles consist essentially of a center leg, which forms the inner wall of the round container, and a first and second side legs, which are folded at the two ends of the middle leg relative to this.

The wall profiles are connected to the side legs of the C-profiles with the adjacent wall profiles. To adjust the wall profiles to the radius of the future round container, the side legs of the wall profiles forming C-profiles are folded relative to the center leg so that according to the later radius of the round container, the legs of adjacent wall profiles can be connected adjacent to each other. So especially with a kink angle of just over 90 °. In this way it is possible to create a stable, easy to construct construction for a round container.

Furthermore, manufacturing methods of the round container are conceivable in which wall profiles of one and the same design are used for round containers of different diameters. For this purpose, the wall profiles are positioned in the desired mounting angle to each other and in the case that in the mounting bracket, a first side legs of a first wall profile is not flat against the side legs of a second wall profile, which is to be connected to the first wall profile, abuts before screwing spacer elements between the first and second wall profile are introduced, in particular at the outer end of the side legs.

In the production of the round container, it is advantageous if several wall profiles are joined together to form a wall segment, before these are set up and connected to the ground. A defined number of wall profiles is connected prior to setting up a wall segment by these are screwed lying in a segmental shape.

A segmental shape for joining a wall segment of individual wall profiles preferably has the curvature of the circumferential line of the round container, so that the wall profiles already rest on the segment shape in the assembly position. It is advantageous if the wall profiles rest on the segment shape so that the outside of the wall profiles rests on the segment shape and the inner surface of the wall segments for the attachment of an inner lining facing upwards and thus is completely exposed accessible.

An inner lining of a wall segment preferably consists of a plurality of preferably made of stainless steel inner plates, which are secured by welding in particular along its circumference of the wall segment forming wall profiles. It is advantageous if this step is carried out as long as the wall segment is in the segment shape.

It is also advantageous if the inner plates, which are joined to an inner lining, are attached in a scale-like overlapping manner to the wall segment and thus welded in the circumferential direction at the rear end on the previous inner plate and at the front end on the wall profile.

When a wall segment is assembled from a defined number of wall profiles, it is advantageous if the inner lining projects beyond one end of the wall segment in the circumferential direction. This ensures that, when joining a first wall segment with a second wall segment, the inner lining of the first wall segment overlaps the inner lining of the second wall segment in a scaly manner. By overlapping the inner linings is achieved in an advantageous manner that the inner linings of both wall segments are connected to each other by a weld along the overlapping end of the inner lining of the first wall segment without major unevenness at the joint.

For a simple and precise attachment of the internals, which are connected by means of carriers with the wall profiles, it is advantageous if the wall profiles already have holes in the production, which are positioned exactly for receiving the support of the inner internals. After attaching the inner lining to the wall segments or wall profiles, the mounting holes in the wall profiles, which are prefabricated for receiving the carrier and thus the inner internals, extending in alignment through the inner lining, so the supports for the internal installations can be fastened by screwing through the wall profile and through the interior lining.

Alternatively, it is possible that the support for the internal installations are welded to the wall profiles. For this purpose, a recess in the region of a receptacle for a support on the wall element is created in the inner lining, so that the carrier is directly adjacent to the inner surface of the wall element through the recess in the inner lining. After the application of the carrier this is preferably pre-positioned in the position to be mounted by a screw which acts through the prefabricated receiving the wall profile on the carrier. Subsequently, the carrier is welded at its end adjacent to the inner surface of the wall profile end with the wall profile.

The recess in the inner lining preferably has a shape and size which ensures that on the one hand the free end of the carrier for performing the welding work is sufficiently accessible and on the other hand no unnecessarily large opening in the inner lining is formed.

In the production of the wall profiles already required for holding the carrier of the internal fixtures shots, in particular holes, are incorporated into the corresponding wall profiles. In this case, depending on the design of the round container, the receptacles, in particular holes, incorporated in the required number, size and the desired position in the wall profiles.

When setting up the wall profiles wall profiles, which have a receptacle for a carrier, placed at predetermined positions. The positions of the wall profiles with a receptacle are determined by the position of the male carrier.

An inventive round container can thus have along the circumference wall profiles with different receptacles for the support of the internal installations or wall profiles without recordings.

In embodiments of the invention in which a carrier is bolted to the wall profiles and not welded, the end of the carrier adjacent the inner lining is sealed along its contour by means of a weld between the carrier and the inner lining. This prevents liquids or solids from escaping from the interior of the round container at the connections between the supports and the wall profiles.

In one embodiment of the invention, the wall profiles are made of stainless steel. Thus, it is possible in this embodiment to dispense with a separate inner lining. In order to ensure a dense and with the least possible unevenness demarcation of the inner region of the round container through the wall profiles, the joining edges between each two screwed together wall profiles are additionally welded in this embodiment of the invention.

To ensure the most level and the same height of the wall profiles along the circumference of the round container, it is advantageous to compensate for unevenness of the soil by leveling before installing the wall segments by the wall segments or the wall profiles are leveled to a predetermined height, z. B. by documents of spacers under the wall profiles.

After completion of the peripheral surface of a round container, a gutter ring is usually placed on the upper annular end of all wall profiles for attaching a dome roof.

Depending on the application, it is necessary that the round container has an adapted to the Einsatzweck outer lining.

In the embodiment with C-shaped profiles as wall profiles, it is advantageous if an outer panel is attached to the outside of the wall profiles by a support bar is attached to the outside of the wall profiles.

For this purpose, the side legs of the C-shaped wall profiles are folded over at their free ends again, so that they cover the open outer side of the C-profile partially. Support bars are inserted between the two folded free-end fine legs of the C-profile, wherein the support bars are mounted in relation to the free distance horizontally between the two free-standing legs of the C-profile with undersize of the free legs.

After attaching the support bar to the wall profiles cover plates are mounted upright standing on the support bars as an outer shell for the round container. As cover plates in particular trapezoidal sheets are suitable.

The resulting gaps between the wall profiles, the support bars and the covering surfaces are preferably to fill depending on the application of the round container with insulation materials to thermally insulate the interior of the round container from the environment.

c) embodiments

Fig. 1:

eine perspektivische Darstellung eines Rundbehälters gemäß der Erfindung,

Fig. 2:

eine Detailansicht einer Verbindung zwischen zwei Wandprofilen,

Fig.3:

eine Seitenansicht eines auf einer Segmentform aufliegenden Wandsegments,

Fig. 4:

eine Draufsicht auf den Untergrund des Rundbehälters und

Fig. 5:

eine perspektivische Ansicht der Außenverkleidung des Rundbehälters.

Embodiments according to the invention are described in more detail below by way of example. Show it:

Fig. 1:

a perspective view of a round container according to the invention,

Fig. 2:

a detailed view of a connection between two wall profiles,

Figure 3:

a side view of resting on a segment shape wall segment,

4:

a plan view of the underground of the round container and

Fig. 5:

a perspective view of the outer lining of the round container.

The Indian FIG. 1 shown circular container 1 is composed essentially of a plurality of upright wall profiles 2, which forms a circular container limiting lateral surface, and the dome roof 21 placed thereon.

The wall profiles 2 are connected in groups one after the other at a mounting bracket 25, so that the lateral surface is formed. The wall profiles are placed in such a way that they follow a polygonal circular circumference on the ground. At the upper end of the plurality of lateral surface a gutter ring 19 is placed, which connects the circular container covering the dome roof 21 with the plurality of wall profiles 2.

At one point along the circumference, the round container 1 at different heights an air inlet 22 and an air outlet 23, which are provided for loading and venting of the round container 1, and are created by using special profiles.

The wall profiles 2 are C-shaped in cross-section and are composed of a central limb 20a and side limbs 20b and 20c folded at the two transverse ends of the middle limb 20a. The visible in cross-section extension of the center leg 20 a corresponds to the width of the wall profile. 2

The wall profiles 2 have a length which essentially corresponds to the wall height 3 of the round container 1.

The C-shaped wall profiles 2 are arranged along the lateral surface of the round container so that the inner surface 2b of the wall profile 2 lying in the radial direction 11 of the round container 1 is formed by the center legs 20a and the open sides of the C-shaped wall profiles 2 and the side legs 20b and 20c in the radial direction 11 to the outside.

In the embodiment shown, the ends of the folded side legs 20b and 20c, which point radially outward in the mounting position, folded once more, so that by the folded ends 20b ', 20c' of the side legs 20b, 20c, the open outer side of the wall profile. 2 partially covered. For this, the ends 20b ', 20c' of the side legs 20b, 20c are folded so that the ends 20b ', 20c' are substantially parallel to the center leg 20a.

At the radially inwardly facing inner surface 2b of the wall profiles 2, a composite of a plurality of inner plates 15 inner lining is attached. The inner plates 15 are thin flat stainless steel plates having a rectangular plan.

In the in Fig. 2 shown embodiment of the invention, in which the round container 1 is a seed box, the inner plates 15 on a longitudinal side of the length corresponding to the length of the wall profiles 2 substantially.

For mounting an inner plate 15, this is applied to the inner surface 2b of the wall surface 2 forming the outer surface of the round container so that e.g. the longitudinal side of the inner plate 15 extends substantially parallel to the extension direction of the wall profiles 2. The inner plate 15 is then attached by means of a tack weld along one of its longitudinal sides to the wall profile 2.

The adjoining the first inner plate 15 second inner plate 15 is so applied to the inner surface of the outer surface of the circular container 1 forming wall profiles 2, that a longitudinal side of the second inner plate via the means of Tack weld on a wall profile 2 fixed longitudinal side of the first inner plate overlaps and the other longitudinal side of the second inner plate 15 rests against the inner surface 2b of the wall profiles 2.

The second inner plate 15 is welded continuously along the longitudinal end with the first inner plate 15 on the longitudinal side, which overlaps on the first inner plate 15. The other longitudinal end of the second inner plate, which bears against the inner surface of the round container, is connected to the inner surface 2b of the wall profiles 2 by means of a tack weld seam.

The result is an inner lining in which only the seams at the overlapping ends and possibly the longitudinal sides of the inner plates 15 are open and thus no gaps or larger bumps in the formed by the inner plates 15 inner lining of the round container 1 are present.

The respective adjacent wall profiles 2 are connected by screws in a mounting bracket 25 together. With the mounting bracket 25, the angle is referred to a wall profile 2 relative to a previously set up wall profile 2, starting from an arrangement in which the inner surfaces 2 b of the two wall profiles 2 are parallel to each other, is pivoted so that through the erected wall profiles 2 the Circumference 4 is approximated.

In the in Fig. 2 In the embodiment shown, the first and second side legs 20b, 20c of the wall profiles 2 are folded in a cant angle 2 'to the center leg 20a, which is greater than 90 degrees by half of the mounting angle 25.

The side legs 20b, 20c of the wall profiles 2 in Fig. 2 are double folded over and thus form substantially parallel to the middle leg 20a extending counter-legs 20b ', 20c' and free-ending legs 20d, e out. The two freely ending legs 20d located within a wall profile 2, e represent connection surfaces on which between the freely ending legs 20 d, e extending support bar 16 can be screwed.

FIG. 3 shows a segmental shape 12, on which a plurality of wall profiles 2 side by side with the center leg 20a screwed facing up before installation to a wall segment 9 and the wall segment 9 on the segment mold 12 lying inner plates 15 are mounted for an interior trim.

The segmental shape 12 has a curvature which ensures that the wall profiles 2 resting on the segmental shape 12 are positioned substantially at the correct mounting angle 25 relative to each other. Thus, the wall profiles 2 in the segmental shape can be connected to one another in such a way that the inner surfaces of the wall profiles joined to a wall segment 9 form a polygonal tract which approximates the curvature of the circumferential line 4 of the round container 1.

The wall profiles 2 are placed on the segment mold 12 so that the inner surfaces 2 b of the wall profiles 2 point away from the segment mold 12. Thus, the inner surfaces for fixing the inner plates 15 are freely accessible.

To attach the inner lining are in the in the Fig. 3 shown structure of a segmental shape of the top inner plates 15 attached to the inner surfaces 2b of the wall profiles 2.

The attachment of the inner plates 15 to the wall profiles 2 is preferably done, as described above, with each other scaly overlapping inner plates.

The inner lining of a wall segment 9 is mounted so that the inner lining projects beyond one end of the wall segment 9 in the circumferential direction 10. Thus overlaps after setting up and assembling two wall segments 9 the inner lining of a wall segment 9 on the inner lining of an adjacent wall segment. 9

After joining the adjacent wall segments 9, the end of the inner lining projecting beyond the axial end of a first wall segment 9 lies on the inner lining of the following wall segment 9, i. both interior linings overlap like scales.

The overlapping end of the inner lining of the wall segment 9 is welded along the protruding longitudinal end of the inner lining of the adjacent wall segment 9. This ensures that even between two wall segments 9, the inner lining has only slight bumps through the welds.

Before erecting the wall profiles 2 or wall segments 9 is preferably, as in FIG. 4a shown, a center point 14 is marked on a substrate 13 and physically manifested, so that this is fixed. Around the center 14, a circular peripheral line 4 is drawn in the radius of the inner surface of the round container to be created, which serves as an orientation when erecting the wall profiles 2 wall segments 9.

In a subsequent step, the circumferential line 4 is subdivided into equal-sized target arc sections 6a and the ends of the target arc sections 6a are identified by a respective segment marking 6. The desired arc sections 6a describe a segment of the lateral surface of the round container 1, which is to be formed by a defined number of the wall profiles 2 or a wall segment 9.

In the following, the positioning process will be described with reference to an embodiment of the invention in which a defined number of the wall profiles 2 are joined to a wall segment 9 prior to installation.

However, this procedure is also possible without the pre-assembly of a defined number of wall profiles 2 to a wall segment 9 by instead of a wall segment 9 a defined number of wall profiles 2 is set up successively starting from a starting point along the perimeter 4 and bolted to the ground 13 and each other ,

A wall segment 9 is attached to the starting point 5 of the circumferential line 4 and screwed along the circumferential line with the substrate 13. As a result, a first, starting at the starting point 5, target arc section 6a is covered by the erected wall segment 9.

Thereafter, the distance of the end of the wall segment 9, which is the end of the last wall profile 2 of the wall segment 9 in the circumferential direction 10, is measured to the position of the associated segment marking 6 in the circumferential direction. In the following step, if the deviation is greater than a predefined undersize threshold value 7, a lining sheet 8 is mounted to the end 9a of the wall segment. The lining sheet 8 has a length corresponding to the length of the wall profiles 2, a width corresponding to the length of the side legs 20b and 20c, respectively, and a thickness approximately equal to the undersize threshold value 7.

By flush mounting a lining plate 8 with its base on the outer side of a side leg 20b, 20c at the end of the wall segment 9 fitting thus the undersize of the wall segment 9, which corresponds to the distance of the end of the wall segment 9 to the segment marking 6, corrected or reduced.

In the subsequent step, a further wall segment 9 is mounted on the end of the first wall segment 9, which is arranged in the circumferential direction 10 at the end of the first wall segment.

To cover the round container 1 from the outside, are - as in FIG. 5 shown - at the radially outwardly facing open sides of the wall profiles 2 cover plates 17, in particular trapezoidal sheets attached.

The cover plates 17 are connected to a plurality of support bars 16 which are fixed to the wall profiles 2. In the Fig. 5 are exemplified for the plurality of support bars 16 two support bar 16, which are each mounted between two free-ending legs 20 d, 20 e of the wall profiles 2.
which are connected to the wall profiles 2. In the limited by the wall profiles 2 and the cover plates 17 spaces, an insulating layer 18 is introduced, especially in the embodiment of the round container 1 as a seed box, so that the interior of the round container 1 is isolated from the environment.

Most still before placing the roof, the still necessary internals are made inside the round container 1. LIST OF REFERENCE NUMBERS 1 round container 22 air intake 1a inner wall 23 air outlet 2 wall profile 24 fastener 2 ' leg angle 25 mounting Brackets 2a outside 21 cupola 2 B palm 3 wall height 4 peripheral line 5 starting point 6 segment marker 6a Should bow section 7 Undersize threshold 8th Futterblech 9 wall segment 9a End of the wall segment 10 circumferentially 11 radial direction 12 segment shape 13 underground 14 Focus 15 inner plates 16 supporting bars 17 Cover plate 18 Isolation chamber / isolation 19 maid of Fring 20 C-section 20a middle leg 20b first side leg 20c second side leg 20d, e free ending legs

Claims (13)

1. A method for producing a round container (1) on a subsurface, in particular a germination container or a kiln drying container in a malthouse, through assembling a plurality of wall elements, wherein

   - wall profiles (2), which are continuous over the wall height of the round container (1) and which have in particular a flat inner surface, are continuously set up along the circumference and

   - connected to one another and to the subsurface,

   characterized in that
   before setting up the wall profiles

   - a circumference line (4) is created on the subsurface,

   - starting at a starting point on the circumference line (4), segment markers (6) are drawn along the circumference line (4) which constitute a target position for the end of a wall profile (2) after a defined number of wall profiles (2) and after setting up and bolting together the defined number of wall profiles (2) starting at the starting point

   - an undersize is measured which shows the deviation of the end of the last wall profile (2) from the defined number of wall profiles relative to the segment marker (6) and

   - when the undersize is at least the value of an undersize threshold value (7), a filler plate is attached to the end of the last wall profile (2).
2. The method according to any of the preceding claims,
   characterized in that
   the wall profiles (2) are specifically manufactured according to the radius of the later round container, in particular bent from sheet metal plates.
3. The method according to any of the preceding claims,
   characterized in that

   - plural wall profiles (2) are joined to form a wall segment (9) before being set up and the wall segment (9) is bolted in setup condition to the preceding wall segment, in particular

   - that the wall profiles (2), while lying flat, are assembled into wall segments in a segment jig whose curvature corresponds to the wall curvature of the round container.
4. The method according to claim 3,
   characterized in that

   - an inner fairing in the form of inner plates (15) is mounted to the inner surface of a wall segment (9) through welding, while the wall segment is still disposed in the segment jig, and in particular

   - the inner plates (15) are applied so that they overlap like fish scales in circumferential direction of the wall segment (9), and/or

   - the inner fairing reaches beyond the wall segment (9) on one side in circumferential direction.
5. The method according to claim 4,
   characterized in that

   - the inner fairing is drilled through coaxially with mounting bore holes in the wall profiles (2), which have already been fabricated during fabrication of the wall profiles (2),

   - internally installed components are mounted by bolting through the wall profile (2) and the inner fairing, and

   - supports of the internally installed components are sealed by a weld at the inner fairing.
6. The method according to any of claims 1 to 4,
   characterized in that

   - cutouts in the inner fairing are fabricated in the portion of the mounting bore holes of the wall profiles (2) for placing supports of the internally installed components against the inner surfaces (2b) of the wall profiles (2),

   - supports are bolted to the wall profiles (2) for preliminary positioning, and

   - the supports are welded to the wall profiles (2).
7. The method according to any of the preceding claims 4 to 6,
   characterized in that
   an eves ring for mounting a cupola roof (21) is placed onto the upper annular end of all wall profiles (2) set up to form a round container.
8. The method according to any of the preceding claims,
   characterized in that

   - support beams (16) with undersize are mounted from the outside between the wall profiles (2) in order to mount an outer fairing and

   - cover plates (17) for covering non-covered portions of the wall profiles (2) are mounted to the support beams (16) as outer fairing.
9. The method according to any of the preceding claims,
   characterized in that
   the wall profiles (2) are produced independently from the radius of the later round container.
10. A round container which is set up on a subsurface and whose circumferential wall has a wall height and which is assembled from a plurality of wall elements disposed along the circumference line (4), wherein

    - the wall elements are vertically standing wall profiles (2),

    - the height of the wall profiles (2) is the wall height (3) of the round container and

    - the wall profiles (2) are bolted to the subsurface and to one another, characterized in that

    - the wall profiles (2) are configured C-shaped in cross-section with bent over free ends, wherein the open sides of the wall profiles (2) face radially outward in the assembled state of the round container (1) and

    - a filler plate (8) having a thickness which substantially corresponds to an undersize target value threshold (7) is mounted in circumferential direction to the end of a defined number of wall profiles in order to compensate for an undersize of the wall profiles (2).
11. The round container according to claim 10,
    characterized in that
    the wall of the round container comprises special profiles being different from the wall profiles and having a reduced height for generating air inlet and air outlet openings (22, 23).
12. The round container according to any of claims 10 to 11,
    characterized in that

    - the wall profiles (2) comprise radially inwardly oriented, flat inner surfaces (2b) in assembled state of the round container (1), or

    - the wall profiles (2) comprise radially inwardly oriented inner surfaces (2b) in assembled state of the round container (1), which have a constant curvature over the length of the wall profile (2) which substantially corresponds to the curvature of the circumference line (4), or

    - the wall profiles (2) comprise radially inwardly oriented inner surfaces (2b) in assembled state of the round container (1), wherein the inner surfaces (2b) are at least bent over once over the length of the wall profile (2) and the inner surface describes a polygon section which is visible in the top view and approximated to the circumference line (4).
13. The round container according to any of claims 10 to 12,
    characterized in that

    - the wall profiles (2) are closed in outward direction through cover plates (17), wherein the cover plates (17) are mounted to support beams (16) which are permanently connected to the free ending arms (20d, e) of the wall profiles (2), and in,particular

    - an insulation chamber (18), into which insulation material can be filled, is defined by the C-shaped wall profiles (2), the support beams (16) and the cover plates (17).

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