Partition Wall with Two-Piece Columns

Abstract

A partition wall includes two columns, which are elongated with respect to respective column axes. The columns are arranged to be spaced apart from one another in parallel. A plurality of bases is provided. A portion of the columns is associated with a respective single base, which is fastened at a lower end of the relevant column. All bases can be fastened to a common subsurface. A laminar separating element is fastened between two adjacent columns. The columns each include two separate half-columns which are elongated with respect to the associated column axis, and abut one another transversely to the respective column axis. The half-columns are directly fastened to the associated base. An associated laminar separating element is directly fastened to at least one half-column of a two-piece column. A corresponding base and a method for assembling the partition wall are disclosed.

Description

This application claims priority under 35 U.S.C. § 119 to application no. DE 10 2022 212 544.4, filed on Nov. 24, 2022 in Germany, the disclosure of which is incorporated herein by reference in its entirety.

The present disclosure relates to a partition wall, a base for use in the aforementioned partition wall, and a method of assembly of the partition wall.

BACKGROUND

From the website retrievable on 10/07/2022 at the link https://www.boschrexroth.com/de/de/produkte/produktgruppen/montagetechnik/mechanik-grundelemente/schutzeinrichtungen-und-trennwande-ecosafe, a partition wall is known, comprising a plurality of parallel columns, each being fastened to a subsurface by means of a separate base. Laminar separating elements are arranged between the columns, which can each be designed as a grid or as a flat plate having a constant thickness. The laminar separating elements are each enclosed by a frame over their entire rectangular circumference, wherein the frame, as well as the columns, are designed as aluminum extrusion profiles. A frame is fastened between two associated columns in order to hold the laminar separating element between the aforementioned columns.

For example, the above partition wall is the subject-matter of EP 918 107 B1, EP 918 121 B2, and EP 968 345 B1.

An advantage of the present disclosure is that less material is required in order to build a partition wall of comparable size. Furthermore, the partition wall according to the disclosure can be erected more quickly than the known partition wall. To the extent that the weight of the partition wall modules discussed below is small enough to be carried by one person, the entire partition wall can be erected by a single person.

According to the disclosure, it is proposed that at least one portion of the columns, namely the two-piece columns, is composed of two separate half-columns, wherein the half-columns are each configured so as to be elongated with respect to the associated column axis, wherein they abut one another transversely to the respective column axis, wherein both half-columns of a two-piece column are directly fastened to the base associated with the two-piece column, wherein an associated laminar separating element is directly fastened to at least one half-column of a two-piece column.

The laminar separating element can be a grid or a flat plate with a constant thickness. The aforementioned plate is preferably translucent or milky-cloudy, for example made of acrylic glass. However, it can also be opaque. The outline of the laminar separating element is preferably rectangular, wherein two opposing rectangular sides extend parallel to the column axes. The column axes are preferably aligned parallel to the direction of gravity. The half-columns preferably abut one another directly. In particular, the two-piece columns at the end or on a buckle of the partition wall can be associated with a semi-column, to which no laminar separating element is fastened, wherein a laminar separating element is fastened only to the other half-column of the aforementioned two-piece column. Preferably, all columns are associated with a respective single base. The base is preferably integrally formed. The laminar element is preferably received in a groove of the associated half-column in order to fasten it directly to the half-column. The groove is preferably designed in accordance with EP 918 121 B2.

SUMMARY

Advantageous developments and improvements of the disclosure are specified herein.

It can be provided that both half-columns of a two-piece column extend with a constant cross-sectional shape along the respective column axis, wherein the two cross-sectional shapes are configured identically such that both aforementioned half-columns can be produced from the same blank. The aforementioned blank is preferably made of aluminum in the extrusion process. The two half-columns of a two-piece column are preferably assembled at a 180° angle to one another with respect to a turning axis perpendicular to the column axis, so that, in the simplest case, two mirror-image cross-sectional shapes result when both half-columns of a two-piece column are viewed in a common sectional view.

It can be provided that, between two adjacent two-piece columns, a respective top and a respective bottom transverse beam are arranged, wherein these two-piece columns extend spaced apart from one another in parallel between the two associated two-piece columns, wherein they are each fastened at their two opposite ends directly to a respectively associated half-column, wherein a laminar separating element is directly fastened to the two associated half-columns and the associated upper and lower transverse beams over its entire circumference. The upper and/or the lower transverse beams each extend perpendicular to the column axis. The half-columns and the upper and lower transverse beams each have a groove in which the laminar separating element is directly fastened.

It can be provided that the upper and/or the lower transverse beams each have a constant cross-sectional shape along their entire length, which is configured so as to be identical to the cross-sectional shape of the associated half-columns, such that the half-columns and the upper and lower transverse beams can be produced from the same blank. Thus, only a single extrusion tool is required for the aforementioned parts, so that they are particularly cost-effective to manufacture. The preferred grooves for fastening the laminar separating element are arranged in a mating manner such that the aforementioned parts can directly hold the laminar separating element over its entire circumference.

It can be provided that an outer outline of the cross-sectional shape of a half-column comprises a rectangle having a shorter and a longer rectangular side, wherein the aforementioned cross-sectional shape forms a groove for receiving the associated laminar separating element, wherein the groove has two opposing side walls, which are respectively arranged parallel to the shorter rectangular side, wherein the two half-columns of a two-piece column abut one another on their longer rectangular sides. Thus, the base explained further below can be used for both the two-piece column as well as for the known single-piece column. The longer rectangular side is preferably twice as long as the shorter rectangular side, so that a two-piece column has a square outer outline overall. The side walls of the groove are preferably designed in accordance with EP 918 121 B2, i.e., sawtooth-like.

It can be provided that the upper transverse beam is arranged flush with a top end of the two associated half-columns. The upper and lower ends of a column and/or a half-column are arranged at opposite ends of the column and/or the half-column with respect to the column axis. “Above” and “below” preferably relate to the direction of gravity.

It can be provided that the two half-columns associated with a lower transverse beam protrude downwardly over the respective lower transverse beam, such that the lower transverse beam is arranged at a distance from the associated bases. The partition wall module explained below can thus be assembled in a particularly simple manner.

It can be provided that the two half-columns of at least one two-piece column are fixedly connected to one another at their upper end by means of a first connector, wherein the first connector has at least one appendage extending in the direction of the column axis, wherein each appendage engages on the front side with at least one associated half-column, such that, taken together, all appendages engage with both half-columns of the aforementioned two-piece column. The first connector is preferably integrally formed. It preferably has a plate section on which the at least one appendage is arranged. The plate section is preferably formed as a flat plate having a substantially constant thickness. It preferably completely covers the associated front face of the two-piece column, wherein its outer outline is configured so as to be aligned flush with the outer outline of the respective two-piece column. The first connector is preferably configured as a cast part or a die-cast part, wherein it can be made of zinc, aluminum, or plastic. The at least one appendage preferably has a constant cross-sectional shape in the direction of the column axis.

It can be provided that at least one two-piece column is associated with at least one respective second connector, wherein the two half-columns of the aforementioned two-piece column are equipped with at least one respective undercut groove, which extends with a constant groove cross-sectional shape along the relevant column axis, wherein the aforementioned second connector is fixedly connected to two undercut grooves, wherein these two undercut grooves are each associated with another of the two aforementioned half-columns. The aforementioned groove cross-sectional shape is preferably T-shaped. The two undercut grooves to which the second connector is fixedly connected preferably face in the same direction. By means of the second connector, particularly high two-piece columns can be realized.

Protection is also disclosed for a base for use as a component of a partition wall according to the disclosure, wherein the base is U-shaped with a bottom and two U-legs, wherein the U-legs extend parallel to the column axis, such that a column is receivable between the two U-legs, wherein the bottom protrudes with a respective fastening appendage perpendicular to the column axis on two opposite sides via the two U-legs, wherein both fastening appendages have a respective first breakthrough, via which the base can be fastened to the subsurface, wherein both U-legs comprise two respective second breakthroughs, to each of which a half-column can be fastened. The base is preferably symmetrically configured such that, when the base is rotated by 180° around the column axis, the same base again results. The two second breakthroughs of a U-leg are preferably arranged transversely to the column axis at a distance to one another. Preferably, both U-legs each have a third breakthrough, the layers and shape of which are adapted to a single-piece column, which is receivable between the U-legs. The U-legs preferably extend with a constant, substantially rectangular cross-sectional shape parallel to the column axis.

It can be provided that an articulation appendage and an articulation recess are arranged on at least one U-leg, wherein the articulation appendage is formed by a circular cylinder extending parallel to the column axis, wherein the articulation recess is adapted to the articulation appendage such that a pivot joint results when the articulation appendage of a base abuts the articulation recess of another base. The articulation appendage is preferably formed integrally with the associated U-leg. By means of the articulation appendage and the articulation recess, the buckle shown in FIG. 1 can be easily assembled in the partition wall.

Protection is further disclosed for methods of assembling a partition wall according to the disclosure, wherein the method comprises the following steps, which are preferably carried out in the stated sequence:

• • a) providing at least two partition wall modules, each comprising two half-columns, an upper and a lower transverse beam, and a laminar separating element, wherein the aforementioned parts are fixedly connected to one another such that they form a module that can be assembled in its entirety;
  • b) positioning a first base on the subsurface;
  • c) fastening a half-column of a partition wall module to the first base, wherein a second base is fastened to the other half-column of the partition wall module and positioned on the subsurface;
  • d) repeating step c) with a further partition wall module, wherein the first base of this method step is the second base of the previous method step.

Step d) is preferably repeated until all partition wall modules provided according to step a) are assembled. As part of steps c) and d), the second base can be pre-fastened to the partition wall module so that it is a component thereof. It is then positioned on the subsurface by aligning the entire partition wall module. It is also possible to pre-position the second base on the subsurface, wherein the partition wall module is fixed to the first and second base as part of steps c) and d). The latter alternative is preferred, because the partition wall modules are easier to pack in a more space-saving manner. In the first mentioned alternative, the (second) base protrudes in an unfavorable manner from the remaining partition wall module. The base that is assembled first of all is referred to as the starting base in the context of the present application.

It can be provided that, immediately after both half-columns of a two-piece column are fastened to the associated base, a first and/or a second connector is fastened to this two-piece column. The first connector is preferably only inserted in this case, wherein, only after a preferably longer section of the partition wall has been provisionally erected, it is screwed onto the two associated half-columns.

It can be provided that, with the exception of the first positioned base, all remaining bases are fixedly connected to the subsurface after assembly of all partition wall modules. The first assembled base, also referred to as the starting base in the context of this application, is preferably fastened to the subsurface prior to assembly of the first partition wall module.

It is understood that the aforementioned features and the features yet to be explained below can be used not only in the respectively specified combination but also in other combinations or alone, without leaving the scope of the present disclosure.

BRIEF DESCRIPTION OF THE DRAWINGS

The disclosure is explained in greater detail below with reference to the enclosed drawings. The figures show:

FIG. 1 a perspective view of a partition wall according to the disclosure;

FIG. 2 a perspective partial view of the partition wall of FIG. 1, wherein the direction of view is drawn into FIG. 1;

FIG. 3 a perspective view of the base according to the disclosure;

FIG. 4 a cross-section of a half-column;

FIG. 5 a perspective view of the first connector from the associated two-piece column;

FIG. 6 a perspective partial view of the partition wall in the region of a second connector;

FIG. 7 a rough schematic illustration of a first assembly step of a partition wall according to the disclosure;

FIG. 8 a rough schematic illustration of a second assembly step of a partition wall according to the disclosure;

FIG. 9 a rough schematic illustration of a third assembly step of a partition wall according to the disclosure;

FIG. 10 a rough schematic illustration of a fourth and final assembly step of a partition wall according to the disclosure; and

FIG. 11 a rough schematic illustration of a partition wall module according to a second embodiment.

DETAILED DESCRIPTION

FIG. 1 shows a perspective view of a partition wall 10 according to the disclosure. With the illustrated partition wall 10, the greatest number of design possibilities are to be demonstrated which are possible in the context of the present disclosure. The partition wall 10 comprises two-piece columns 14 composed of two half-columns (no. 22 in FIG. 2). In addition, single-piece columns 15; 17 are provided, which are formed from an integral square aluminum extrusion profile and which are known from the website retrievable on 10/07/2022 at the link https://www.boschrexroth.com/de/de/produkte/produktgruppen/montagetechnik/mechanik-grundelemente/schutzeinrichtungen-und-trennwande-ecosafe. For example, a 90° corner of the partition wall 10 is formed with the columns 15, wherein the half-columns according to the disclosure are fastened to the known square column 17. All columns 14; 15; 17 are equipped with the base 30 shown in greater detail in FIG. 3 at their lower end 83, wherein they are fixedly connected to the subsurface 11.

Two adjacent two-piece columns 14 or the two corresponding adjacent half-columns (no. 22 in FIG. 2) are fixedly connected to one another via an upper and a lower transverse beam 23; 24, wherein, for example, the central screw channel (no. 58 in FIG. 4) and the first undercut groove (no. 56a in FIG. 4) of a half-column are used for this purpose.

In the present case, a laminar separating element 12 is received in each rectangle, which is circumscribed by two half-columns (no. 22 in FIG. 2) and an upper 23 and a lower transverse beam 24, which separating element completely filled the respective rectangle (contrary to the illustration in FIG. 1). In the present case, the laminar separating element 12 is designed as a grid, wherein it can also be designed as a flat plate having a constant thickness.

In the region of a buckle 16 of the partition wall 10, two two-piece columns 14 are arranged directly adjacent one another, wherein the corresponding bases 30 touch one another with an articulation appendage (no. 45 in FIG. 3) and with an articulation recess (no. 46 in FIG. 3). This results in a defined gap between the two columns 14 of a buckle 16.

Reference is further made to the sliding door 80 and the swinging door 81, which are arranged according to the aforementioned website.

FIG. 2 shows a perspective partial view of the partition wall 10 of FIG. 1, wherein the direction of view is drawn into FIG. 1. It can be seen that the column 14 is composed of two half-columns 22, which directly abut one another transversely to the column axis 21. The two half-columns 22 are each made of aluminum in an extrusion process, wherein both have the constant cross-sectional shape shown in FIG. 4. However, they are installed with a 180° pivot to one another, such that the two grooves 53 face in opposite directions for receiving the laminar separating element 12.

In FIG. 2, the partition wall 10 is shown such that the underside of the base 30, which rests on the subsurface (no. 11 in FIG. 1), is visible. The base 30 is formed overall in a U-shape with a bottom 33 and two U-legs 34. The two-piece column 14 is received between the two U-legs 34, wherein it is screwed together with one of the two U-legs 34 as explained below. For this screwing, the second undercut groove (no. 56b in FIG. 4) of a half-column 22 is used, in which a groove stone is received. The associated fastening screw penetrates the respectively mated second breakthrough 42 in a U-leg 34. On the other U-leg 34, the assembly is carried out with one self-tapping screw per half-column 22. For this purpose, the two circular auxiliary breakthroughs (no. 47 in FIG. 3) are provided.

The bottom 33 comprises two fastening appendages 35 which protrude over the U-legs 34 transversely to the column axis 21. These are each equipped with a flat support surface 36, which rests directly on the subsurface (no. 11 in FIG. 1). In the region of the column 14, the base 30 is equipped with a recess 37, so that it is arranged there at a distance from the typically flat subsurface. It is thus achieved that the base rests fully on the subsurface in the region of the fastening screws, which penetrate a respectively associated first breakthrough 41 in the fastening appendage 35.

In FIG. 2, the lower transverse beams 24 can further be seen, which are fixedly connected to an associated half-column 22. These are also made of aluminum in the extrusion process, wherein they have the same cross-sectional shape as the half-columns 22. Accordingly, the laminar separating element 12 can be held directly over its entire circumference by the grooves 53 in the half-columns 22 and the upper (no. 23 in FIG. 1) and the lower transverse beam 24.

FIG. 3 shows a perspective view of the base 30 according to the disclosure. The base 30 is integrally formed, wherein, for example, it is produced from zinc in the casting process. It is symmetrically configured such that, when the base 30 is rotated by 180° around the column axis 21, the same base 30 again results. This avoids errors in the assembly of the base 30.

The base 30 is overall configured as a U-shape, wherein reference is made to the details already explained with reference to FIG. 2. The two U-legs 34 each extend with a substantially rectangular cross-sectional shape parallel to the column axis 21. They are each equipped with an articulation appendage 45 and an articulation recess 46. The articulation appendage 45 is configured as a circular cylinder that is aligned parallel to the column axis 21. The articulation recess 46 is adapted to the articulation appendage 45 such that a low-play pivot joint results when the articulation appendage 45 abuts the articulation recess 46 of an adjacent base 30. This allows for the buckle in the partition wall, which is labeled no. 16 in FIG. 1, in which two columns are arranged directly adjacent to one another at a defined, small distance.

The second and the third breakthroughs 42; 43 in the U-legs 34 are each configured as an oblong hole, which is elongated in the direction of the column axis 21. Each of the second breakthroughs 42 is associated with a circular cylindrical auxiliary breakthrough 47, which is arranged flush with the respective second breakthrough 42 in the direction of the column axis 21. A self-tapping screw can be screwed into the auxiliary breakthrough 47, which screw digs into the alignment flute (no. 59 in FIG. 4) of a half-column. Furthermore, the fact that the half-column is only equipped on one side with the second undercut groove (no. 56b in FIG. 4), which cooperates with a second breakthrough 42, is taken into account. With the auxiliary breakthrough 47, the stiffness of the fastening of a half-column on the base 30 can be increased. In particular, the bending torque that arises when a transverse force acts on the half-columns that are aligned perpendicular to the plane of the separating elements is to be pointed out here. In one direction, this bending torque is received via the screwing on the second breakthroughs 42, wherein it is received in the opposite direction by the self-tapping screws in the auxiliary breakthroughs 47.

Furthermore, reference should be made to the alignment appendages 44 extending from the bottom 33 in the direction of the column axis 21. The two alignment appendages 44a each engage with the central screw channel (no. 58 in FIG. 4) of a half-column in order to align it in relation to the base 30. Analogously, the alignment appendage 44b engages with the central screw channel of a single-piece column. In the case of a two-piece column, it is inoperable, because the third undercut groove (no. 56c in FIG. 4) is located at the relevant point. Conversely, the single-piece column also has a clearance in the region of the alignment appendages 44a.

FIG. 4 shows a cross-section of a half-column 22, wherein this cross-sectional shape 50 is preferably also used in the upper and lower transverse beams 23; 34. The outer outline of the cross-sectional shape 50 is configured so as to be rectangular with rounded corners. In the present case, the longer rectangular side 52 is exactly twice as long as the shorter rectangular side 51 so that a square column results when two half-columns 22 abut one another on the side labeled no. 84, in order to form a two-piece column. The two half-columns 22 are aligned such that the two grooves 53 for receiving the laminar separating element (no. 12 in FIG. 1) are arranged flush with one another, wherein they face in opposite directions.

The groove 53 is preferably designed in accordance with EP 918 121 B2. Accordingly, their parallel side walls 54 are equipped with a sawtooth profile, which makes it more difficult to pull out the laminar separating element from the groove 53. The aforementioned side walls 54 are oriented parallel to the shorter rectangular side 51, wherein the groove 53 is arranged at the outer edge of the cross-sectional shape.

The remaining three outer sides of the cross-sectional shape are each equipped with an undercut groove 56. The corresponding groove cross-sectional shapes 57 are T-shaped in the known manner, so that they can receive groove stones and/or hammer screws. By means of the first undercut groove 56a, which faces the open side of the groove 53, the upper and the lower transverse beam (no. 23; 24 in FIG. 1) can be fastened to the half-column 22, among other things. The central screw channel is preferably used on the upper or lower transverse beam for this fastening. By means of the second undercut groove 56b facing the short rectangular side 51 opposite the groove 53, the base (no. 30 in FIG. 2) can be fastened to the half-column 22, among other things. By means of the third undercut groove 56c, which faces the long rectangular side 52 opposite the first undercut groove 56a, the first connector shown in FIG. 5 can engage with its third appendage (no. 63 in FIG. 5), among other things.

It would be obvious to also use the third undercut groove 56c elsewhere in order to join the two half-columns 22 of a two-piece column. However, the second connector according to FIG. 6 is easier to assemble.

The present cross-sectional shape 50 is optimized for low-warpage and material-saving manufacture in the aluminum extrusion process. It therefore has a largely constant wall thickness everywhere, wherein cavities are provided in the interior.

FIG. 5 shows a perspective view of the first connector 60 from the associated two-piece column. The first connector 60 is assembled at the top end of a two-piece column, wherein it is inserted into the cavities thereof with its appendages 61; 62; 63 on the front side. The first connector 60 is integrally formed, wherein it is preferably made of zinc in the die-casting process. It can also be made of plastic, for example polyamide, in a plastic injection-molding process. The first connector 60 has a plate section 64, which is substantially designed as a flat plate with a constant thickness. The square outline of the plate section 64 is configured so as to be flush with the cross-sectional outline of the two-piece column, so that its front face is completely closed without the first connector 60 projecting laterally over the two-piece column.

A first, a second, and a third appendage 61; 62; 63 protrude from the plate section 64 in the direction of the column axis (no. 21 in FIG. 2). The first and second appendages 61; 62 are formed identically to one another, wherein they are adapted to the second undercut groove (no. 56b in FIG. 4) of the two half-columns of a two-piece column. Accordingly, they each have a T-shaped cross-sectional shape. Furthermore, they are each equipped with a screw breakthrough 65. A screw with a circular conical tip can be screwed into these, wherein the tip digs into the associated half-column in order to hold the first connector therein.

The third appendage 63 is double-T-shaped, so that it simultaneously engages with the third undercut grooves (no. 56c in FIG. 4) of the two half-columns of a two-piece column.

FIG. 6 shows a perspective partial view of the partition wall 10 in the region of a second connector 70. The second connector 70 is preferably used when very high two-piece columns 14 are used. It is preferably arranged in the middle between the base and the first connector.

The second connector 70 is preferably made of sheet metal, i.e., a laminar plate having a constant thickness, which is most preferably made of aluminum, in particular pre-anodized aluminum. The plate section 73 has a rectangular outline, wherein a total of four rectangular alignment tabs 71 protrude therefrom, which are bent 90° opposite the plate section 73. The alignment tabs 71 each plunge into an associated second undercut groove 56b on one of the two half-columns 22.

The plate section 73 is further penetrated by two screws 72, which are preferably configured as countersunk screws, wherein the screws 72 are each screwed into a groove block, which is received in an associated second undercut groove 56b and which engages rearwardly therewith, so that the second connector 70 is fixedly screwed to both half-columns 22 of a two-piece column 14 by means of the screws 72.

FIG. 7 shows a rough schematic illustration of a first assembly step of a partition wall according to the disclosure. The two bases 30, which are required for the assembly of a first partition wall module (no. 13 in FIG. 8), are positioned on the subsurface, wherein the starting base 89 of the partition wall, shown on the left in FIG. 7, is fastened to the subsurface 11 with screws 85. The screws 85 penetrate the first breakthrough (no. 41 in FIG. 3) of the base 30, wherein they are fastened by means of anchors in the subsurface 11. The subsurface 11 is, for example, the concrete floor of a production hall.

The further base 30, which is shown on the right side of FIG. 7, is only laid loosely on the subsurface 11, so that it can still be displaced during the assembly of the associated partition wall module.

FIG. 8 shows a rough schematic illustration of a second assembly step of a partition wall according to the disclosure. The partition wall module 13 according to a first embodiment shown in FIG. 8 comprises a laminar separating element 12 in the form of a grid, which is simplified. The laminar separating element 12 is associated with two half-supports 22 and one upper and one lower transverse beam 23; 24, wherein the four latter parts directly hold the laminar separating element 12 over its entire circumference. The partition wall module 13 is preferably delivered pre-assembled to the location where the partition wall is to be installed.

Starting from the state shown in FIG. 7, the partition wall module 13 is inserted into the two existing bases 30, wherein the alignment occurs in particular with the alignment appendages (no. 44a in FIG. 3) on the base 30. The base 30, which is shown on the right in FIG. 8, can still move somewhat, so that the entire construction is stress-free.

Subsequently, a half-column 87 is assembled at the beginning of the partition wall, which is not associated with any laminar separating element. The two half-columns 22, 87 of the two-piece column 14 shown on the left in FIG. 8 are connected at their upper end by means of a first connector 60. The first connector 60, with its appendages (nos. 61; 62; 63 in FIG. 5), is inserted only into the half-columns 22; 87 and preferably not yet screwed thereto. There is preferably a slight interference fit between these parts, so that a hammer can be used when assembling the first connector 60.

FIG. 9 shows a rough schematic illustration of a third assembly step of a partition wall according to the disclosure. Here, the middle partition wall module 13 is first assembled analogously to FIG. 8, wherein the right partition wall module 13 is subsequently assembled. The partition wall is thus gradually constructed so that no stresses result.

At the end, the half-column 87 shown on the right in FIG. 8 is assembled, which is not associated with any laminar separating element. This is also assembled with a first connector 60 with the associated other half-column 22 of the two-piece column 14, analogous to the half-column 87 shown on the left in FIG. 8. The first connectors 60 are also assembled onto or inserted into the remaining two-piece columns 14.

The screws 86 are gradually screwed from the starting base 89 onto the associated base 30 so that no stresses result.

FIG. 10 shows a rough schematic illustration of a fourth and final assembly step of a partition wall 10 according to the disclosure. First, the first connectors 60 are screwed from the starting base 89 to the associated half-columns 22. The corresponding screws 88 penetrate the screw breakthroughs (no. 65 in FIG. 5) on the first connector 60, as explained with reference to FIG. 5.

Then, all further bases 30, i.e., all bases 30 except the starting base 87, are screwed to the subsurface 11. The corresponding screws 86 are fastened in the subsurface 11 by means of concrete screws, for example. The screwing is carried out sequentially from the starting base 89 so that no stresses arise in the partition wall.

FIG. 11 shows a rough schematic illustration of a partition wall module 13′ according to a second embodiment. By contrast to the partition wall module according to FIGS. 7 to 10, a base 30, namely the second base in the construction direction, is already fixedly screwed to the remaining partition wall module 13′. This therefore does not have to be placed and positioned separately on the subsurface.

The second embodiment is more rational than the first embodiment in terms of assembly effort. However, the base 30 impedes the packaging and transport of the partition wall modules 13′, so that the first embodiment is preferred.

REFERENCE NUMERALS

• • 10 Partition wall
  • 11 Subsurface
  • 12 Laminar separating element
  • 13 Partition wall module (first embodiment)
  • 13′ Partition wall module (second embodiment)
  • 14 Two-piece column
  • 15 90° angle with single-piece column
  • 16 Buckle
  • 17 Single-piece column
  • 21 Column axis
  • 22 Half-column
  • 23 Upper transverse beam
  • 24 Lower transverse beam
  • 30 Base
  • 31 First base
  • 32 Second base
  • 33 Bottom
  • 34 U-legs
  • 35 Fastening appendage
  • 36 Flat support surface
  • 37 Recess
  • 41 First breakthrough
  • 42 Second breakthrough
  • 43 Third breakthrough
  • 44 Alignment appendage
  • 44 a Alignment appendage for the two-piece column
  • 44 b Alignment appendage for the single-piece column
  • 45 Articulation appendage
  • 46 Articulation recess
  • 47 Auxiliary breakthrough
  • 50 Cross-sectional shape of a half-column
  • 51 Shorter rectangular side
  • 52 Longer rectangular side
  • 53 Groove for receiving the laminar separating element
  • 54 Side wall of the groove
  • 56 Undercut groove
  • 56 a First undercut groove
  • 56 b Second undercut groove
  • 56 c Third undercut groove
  • 57 Groove cross-sectional shape
  • 58 Central screw channel
  • 59 Alignment flute
  • 60 First connector
  • 61 First appendage
  • 62 Second appendage
  • 63 Third appendage
  • 64 Plate section
  • 65 Screw breakthrough
  • 70 Second connector
  • 71 Alignment tab
  • 72 Screw
  • 73 Plate section
  • 80 Sliding door
  • 81 Swinging door
  • 82 Upper end
  • 83 Lower end
  • 84 Side on which two half-columns abut one another
  • 85 Screw towards the subsurface
  • 86 Screw penetrating the second breakthrough of the base
  • 87 Half-column not associated with any laminar separating element
  • 88 Screw penetrating a screw breakthrough on the first connector
  • 89 Starting base

Claims

1. A partition wall, comprising: at least two columns, each designed to be elongated with respect to a respective column axis, whereineach of the at least two columns are arranged so as to be spaced apart from another of the at least two columns in parallel,a plurality of bases are provided,at least one respective portion of each of the at least two columns is associated with a respective one of the plurality of bases, which is fastened at a lower end of the respective one of the at least two columns,each of the plurality of bases is configured to be fastened to a common subsurface,a laminar separating element is fastened between two adjacent columns of the at least two columns,each of the at least two columns includes two separate half-columns,each of the two separate half-columns is configured to be elongated with respect to the respective column axis,each of the two separate half-columns abuts another of the two separate half-columns transversely to the associated column axis,each of the two separate half-columns is directly fastened to the associated respective one of the plurality of bases, andthe laminar separating element is directly fastened to at least one of the two separate half-columns.

2. The partition wall according to claim 1, wherein each of the two separate half-columns extend with a respective constant cross-sectional shape along the respective column axis; andthe respective constant cross-sectional shapes are configured identically such that each of the two separate half-columns can be produced from a single blank.

3. The partition wall according to claim 1, wherein: an upper and a lower transverse beam are arranged between the two adjacent columns of the at least two columns;the two adjacent columns of the at least two columns are each fastened at their two opposite ends directly to a respectively associated half-column of the other of the two adjacent columns; andan entire circumference of the laminar separating element is directly fastened to a group defined by the two associated half-columns and the upper and lower transverse beams.

4. The partition wall according to claim 3, wherein: the upper and lower transverse beams each have a constant cross-sectional shape along their entire length, which is configured to be identical to the cross-sectional shape of the associated half-columns, such that the associated half-columns and the upper and lower transverse beams can be produced from a single blank.

5. The partition wall according to claim 2, wherein: an outer outline of the cross-sectional shape of each of the two separate half-columns comprises a rectangle having a shorter and a longer rectangular side;the cross-sectional shape forms a groove configured to receive the associated laminar separating element;the groove has two opposing side walls which are respectively arranged parallel to the shorter rectangular side; andthe two separate half-columns of each of the at least two columns abut one another on their longer rectangular sides.

6. The partition wall according to claim 3, wherein the upper transverse beam is arranged flush with a top end of the two associated half-columns.

7. The partition wall according to claim 3, wherein the two separate half-columns associated with the bottom transverse beam protrude downwardly over the respective bottom transverse beam, such that the bottom transverse beam is spaced apart from the associated bases.

8. The partition wall according to claim 1, wherein: the two separate half-columns of at least one of the at least two columns are fixedly connected to one another at their upper end using a first connector;the first connector has at least two appendages extending in the direction of the column axis;each of the at least two appendage engages on a front side with at least one associated half-column, such that each of the at least one all appendages engages with both half-columns of the at least one of the at least two columns.

9. The partition wall according to claim 1, wherein: at least one of the at least two columns is associated with at least one respective second connector;each of the two separate half-columns of the at least one of the at least two columns are equipped with at least one respective undercut groove which extends with a constant groove cross-sectional shape along the respective column axis; andthe at least one respective second connector is fixedly connected to the at least one respective undercut groove of each of the two separate half-columns.

10. The partition wall according to claim 1, wherein: each of the plurality of bases is U-shaped with a bottom and two U-legs;the two U-legs extend parallel to the respective column axis such that one of the at least two columns is receivable between the two U-legs;the bottom protrudes with a respective fastening appendage perpendicular to the respective column axis on two opposite sides via the two U-legs;the respective fastening appendage includes a respective first breakthrough configured for use in fastening the base to the subsurface; andeach of the two U-legs comprise a respective second breakthrough configured to be used to couple with a respective one of the two separate half-columns.

11. The partition wall according to claim 10, wherein: an articulation appendage (45) and an articulation recess (46) are arranged on at least one of the two U-legs;the articulation appendage is formed by a circular cylinder extending parallel to the respective column axis; andthe articulation recess is adapted to the articulation appendage such that a pivot joint results when the articulation appendage of each of the plurality of bases abuts the articulation recess of another of the plurality of bases.

12. A method for assembling the partition wall according to claim 3, comprising: providing a first and second partition wall module, each comprising two separate half-columns, an upper and a lower transverse beam, and a laminar separating element, wherein the two separate half-columns, the upper and lower transverse beams, and the laminar separating element are fixedly connected to one another;positioning a first base of the plurality of bases on the subsurface;fastening a first of the two separate half-columns of the first partition wall module to the first base, wherein a second base of the plurality of bases is fastened to a second of the two separate half-columns of the first partition wall module and positioned on the subsurface; andfastening a first of the two separate half-columns of the second partition wall module to the second base with the second of the two separate half-columns of the first partition wall module fastened thereto, wherein a third base of the plurality of bases is fastened to a second of the two separate half-columns of the second partition wall module and positioned on the subsurface.

13. The method according to claim 12, wherein: immediately after fastening the first of the two separate half-columns of the second partition wall module to the first base, a first and/or a second connector is fastened to the second of the two separate half-columns of the first partition wall module and the first of the two separate half-columns of the second partition wall module to form a first of the at least two columns;the first connector has at least two appendages extending in the direction of the column axis;when the first connector is fastened to the second of the two separate half-columns of the first partition wall module and the first of the two separate half-columns of the second partition wall module, each of the second separate half-column of the first module and the first separate half-column of the second module are engaged with at least a respective one of the at least two appendages; andwhen the second connector is fastened to the second of the two separate half-columns of the first partition wall module and the first of the two separate half-columns of the second partition wall module, each of the second of the two separate half-columns of the first partition wall module and the first of the two separate half-columns of the second partition wall module are equipped with at least one respective undercut groove which extends with a constant groove cross-sectional shape along the respective column axis and the second connector is fixedly connected to the at least one respective undercut groove of each of the second of the two separate half-columns of the first partition wall module and the first of the two separate half-columns of the second partition wall module.

14. The method according to claim 12, wherein, with the exception of the first positioned base, all remaining bases of the plurality of bases are fixedly connected to the subsurface after assembly of all partition wall modules.