AU2023203167A1 - Wall assembly and method for producing a wall assembly - Google Patents

Abstract

A wall assembly (1) comprises a wall (2) which is constructed from bricks (7). The wall (2) has a perforated area (3) having openings (4). In order to absorb forces acting perpendicularly on the wall (2), the wall (2) has at least one reinforcing structure (5) which is fixed to a supporting structure (6). The reinforcing structure (5) has an upper bar (16) and a lower bar (17), between which at least one strut (18) extends through the layers (8) of bricks (7). The stroke (8) extends in the perforated area (3) of the wall (2) completely between the opposite flat sides (9, 10) of the wall (2) formed by the bricks (7). The strut (18) extends through recesses (20) in bricks (7) lying one on top of another, which are open to a peripheral side of the brick (7). The reinforcing structure (5) is connected to the supporting structure (6) via at least one adjustment device (19) which, during the production of the wall assembly (1), allows an adjustment of at least one bar (16, 17) of the reinforcing structure (5) in relation to the supporting structure (6) in the vertical direction. A method for producing a wall arrangement (1) provides that the lower web (17) and the struts (18) are fixed as an assembly on the supporting structure (6) and adjusted at least in the vertical direction and, in a subsequent method step, bricks (7) are arranged on the struts (18). 13 1F . FIG.

Description

WALL ASSEMBLY AND METHOD FOR PRODUCING A WALL ASSEMBLY

The invention relates to a wall assembly of the type specified in the preamble of claim 1 and a

method for producing a wall assembly.

A wall assembly according to the preamble of claim 1 is disclosed in KR 10-2000400 B1. The

upper and lower bars are designed as sheet metal angles that are mounted on a supporting wall.

The vertical struts are then passed through the holes in the upper bar and arranged in receptacle

cups on the lower bar. The perforated area of the wall is then bricked up.

The invention is based on the object of creating a wall assembly of the generic type that is easy

to construct. A further object of the invention is to specify a simple method for constructing a wall

assembly.

This object is achieved with respect to the wall assembly by a wall assembly having the

features of claim 1 and by a wall assembly having the features of claim 4. This object is achieved

with respect to the method by a method having the features of claim 13.

It has been shown that the exact arrangement of the reinforcing structure on the supporting

structure is not always possible without problems. If the upper and/or lower beam is not positioned

exactly in the vertical direction, the resulting joints between the layers of bricks between which

the respective beam is positioned are too thick or too thin, which negatively affects the overall

visual impression of the wall. In order to avoid this visual impairment, it is provided according to

the invention that the reinforcing structure is connected to the supporting structure via an

adjustment device that allows an adjustment of at least one bar of the reinforcing structure in

relation to the supporting structure in the vertical direction.

The adjustment device advantageously allows an adjustment of at least one bar of the

reinforcing structure in the horizontal direction. A simple design results when the adjustment

device includes a first detent surface on the reinforcing structure, which engages in a second detent surface on the supporting structure. This enables easy adjustment and secure fixation in the vertical and/or horizontal direction.

It has been shown that the arrangement of the bars and the struts in the prior art is comparatively

complex. An independent inventive concept relates to the arrangement of the struts and at least the

lower bar. In order to reduce the effort involved in arranging the bars and struts in relation to the

prior art, it is provided according to independent claim 4 according to the invention that the lower

bar and all struts are firmly connected to one another independently of the mortar of the wall and

form a force-absorbing, stable assembly.

As a result, the lower bar can be arranged, fixed, and adjusted together with the struts as an

assembly on the supporting structure. As a result, the effort involved in producing the area of the

wall which is broken through is significantly reduced. During the production of the wall, the lower

bar and struts can be positioned and fixed as an assembly on the supporting structure. The bricks

can then be positioned on the struts and connected to one another and to the struts by means of

mortar. Very easy production of the wall on the construction site is thus possible.

It can be provided that the upper bar is connected to all struts via detachable connections, in

particular via screw connections, which allow the position of the upper bar in relation to the struts

to be adjusted in the longitudinal direction of the struts during production of the wall assembly.

As a result, despite the prefabrication, a slight adaptation of the position of the upper bar is

possible, for example to adapt to variations in the joint height. Because the upper bar is fixed on

the struts via detachable connections, the arrangement of the layer of bricks arranged directly

below the upper bar is also simplified. The upper bar can be removed to arrange the layer or layers

of brick immediately below the top bar or can be arranged on the struts only after this layer or

layers of brick have been arranged. In this way, this layer or layers of bricks can easily be arranged

between adjacent struts, even if the recesses of the bricks extend to the transverse side of the bricks.

At least one strut is preferably connected to at least one bar via a welded connection. All struts

are particularly preferably connected to the lower bar via welded connections. This allows the lower bar to be mounted together with the struts. It can be advantageous for the struts to be connected to the upper bar and to the lower bar via welded connections. The struts then form a dimensionally stable, force-transmitting frame with the upper and the lower bar, which can be mounted as an assembly and adjusted in relation to the supporting structure. In this case, the frame structurally specifies both the distance between the upper and the lower bar and the grid in which the bricks are to be arranged and thus the distance between adjacent bricks in a layer.

It can be provided that the at least one strut ends at the upper bar. Alternatively it can be

provided that the at least one strut protrudes beyond the upper bar. In this case, the at least one

strut can position one or more layers of bricks arranged above the upper bar. It can be provided

that the at least one strut ends at the lower bar. Alternatively it can be provided that the at least one

strut protrudes downward below the lower bar. In this case, the at least one strut can position one

or more layers of bricks arranged below the lower bar.

In a particularly preferred embodiment, the peripheral sides of the bricks to which the recesses

extend are transverse sides of the bricks in at least one layer of bricks. The transverse sides of the

bricks extend from one flat side of the wall to the other flat side of the wall. It can be provided that

at least one, in particular the uppermost or the uppermost two layers of bricks arranged under the

upper bar have at least one recess which is formed on a long side of the brick forming a flat side

of the wall. As a result, these bricks can be pushed laterally against the struts and do not have to

be tilted between the struts in order to be arranged on the struts. As a result, even with a small

distance between the upper bar and the layer of bricks arranged directly below the uppermost bar,

it is possible to mount the bricks with the upper bar fixed on the struts.

The supporting structure advantageously comprises at least one support arranged outside of

the wall. Alternatively or additionally, it can be provided that at least one bar is fixed outside the

perforated area in the mortar between layers of bricks lying one on top of another. In this case, the

supporting structure is at least partially formed by the area of the wall arranged outside of the

perforated area.

Each brick of the perforated area preferably has at least one recess. Advantageously, a strut of

the reinforcing structure extends through each recess of a brick that is arranged in the perforated

area. In a preferred embodiment, each brick of the perforated area has two recesses. As a result,

the bricks of the perforated area - possibly with the exception of the one to three layers of bricks

arranged under the upper bar - can be formed identically. The recesses extending outside of the

perforated area then have no function.

The struts are preferably arranged in a regular grid. However, in order to achieve an irregular

structure of the perforated area, the distances between adjacent struts can also vary.

For a method for producing a wall assembly, it is provided that the lower bar of the reinforcing

structure and the struts are fixed as an assembly on the supporting structure and adjusted at least

in the vertical direction, advantageously in the vertical direction and in at least one horizontal

direction in relation to the supporting structure. Bricks are then advantageously arranged on the

struts. The bricks are advantageously laid with an intermediate layer of mortar. The bricks are

advantageously fixed on the struts via the mortar.

In one embodiment variant, it is provided that the upper bar is fixed on the supporting structure

with the lower bar and the struts of the reinforcing structure as an assembly. In an alternative

embodiment, it is provided that after the last layer of bricks has been arranged below the upper

bar, the upper bar is fixed to the struts, in particular via screw connections.

In the following, exemplary embodiments of the invention will be explained in greater detail

with reference to the drawings. In the figures:

Figure 1 and Figure 2 show perspective illustrations of a wall assembly,

Figure 3 shows a side view of an inner flat side of the wall assembly from Figures 1 and 2,

Figure 4 shows a side view in the direction of arrow IV in Figure 3,

Figure 5 shows a top view in the direction of arrow V in Figure 3,

Figure 6 and Figure 7 show perspective illustrations of the reinforcing structure and the

supporting structure,

Figure 8 shows a detail enlarged illustration of area VIII in Figure 7,

Figure 9 shows an exploded view of the assembly from Figure 8,

Figure 10 shows an embodiment variant of the adjustment device in an exploded view

according to Figure 9,

Figure 11 shows a side view of the assembly from Figure 6 and Figure 7,

Figure 12 shows a side view in the direction of arrow XII in Figure 11,

Figure 13 shows a top view in the direction of arrow XIII in Figure 11,

Figure 14 and Figure 15 show perspective illustrations of the reinforcing structure,

Figure 16 shows a side view of the reinforcing structure,

Figure 17 shows a side view in the direction of arrow XVII in Figure 16,

Figure 18 shows a detail view in the direction of arrow XVIII in Figure 16,

Figure 19 shows a perspective illustration of the lower bar of the reinforcing structure,

Figure 20 shows a side view of the lower bar from Figure 19,

Figure 21 shows a top view in the direction of arrow XXI in Figure 20,

Figure 22 shows a detail perspective illustration of an exemplary embodiment of a reinforcing

structure,

Figure 23 shows a detail illustration of an exemplary embodiment of a reinforcing structure,

Figure 24 shows a perspective illustration of a brick,

Figure 25 shows a top view of the brick from Figure 24,

Figure 26 shows a side view of the brick of Figure 25 in the direction of arrow XXVI in Figure

25.

Figure 1 and Figure 2 show a perspective illustration of a wall assembly 1. The wall assembly

1 comprises a wall 2. The wall 2 is constructed from bricks 7. The wall 2 comprises a perforated

area 3 in which openings 4 are formed between adjacent bricks 7 of a layer 8 of bricks 7. The

openings 4 results due to an increased distance a between adjacent bricks 7 of a layer 8 of bricks.

The distance a is not filled with mortar. Mortar 23, which is not shown in Figures 1 and 2, is provided between sections of bricks 7 arranged directly one above the other and directly adjacent to one another. In Figure 3, mortar 23 between some of the bricks 7 is shown as an example.

The wall assembly 2 comprises a reinforcing structure 5 for supporting the wall. The

reinforcing structure 5 is fixed to a supporting structure 6. The reinforcing structure 5 absorbs

forces acting perpendicularly on the wall 2 and dissipates them into the supporting structure 6. In

Figures 1 and 2, the reinforcing structure 5 is largely covered by bricks 7 of the wall 2.

The wall 2 has an outer flat side 9 and an inner flat side 10. The flat side 9 is the visible side

of the wall 2. The inner flat side 10 can face toward the outer wall of a building and therefore

cannot be visible from the outside. Alternatively it can be provided that the inner flat side 10 is

also a visible side. In the exemplary embodiment, the supporting structure 6 is arranged adjacent

to the inner flat side 10. The supporting structure 6 is hardly or not at all visible from the outer flat

side 9.

Each brick 7 has an upper side 11 and a lower side 12. Each brick 7 has longitudinal sides 13

which extend along one of the flat sides 9, 10 of the wall. Each brick 7 has transverse sides 14

which extend from one flat side 9 to the other flat side 10. In the perforated area 3, the transverse

sides 14 delimit the openings 4.

In the exemplary embodiment, the supporting structure 6 comprises two supports 22. A

different number of supports 22 can also be provided. The reinforcing structure 5 is fixed to the

supports 22 via adjustment devices 19. The adjustment devices 19 allow the reinforcing structure

5 to be adjusted in the vertical direction in relation to the supporting structure 6. In addition, an

adjustment in at least one horizontal direction can also be possible. The adjustment in the

horizontal direction is advantageously an adjustment in the longitudinal direction of the wall 2

and/or an adjustment perpendicular to the wall 2.

As shown in Figures 3 and 6, the reinforcing structure 5 comprises an upper bar 16 and a lower

bar 17. The bars 16 and 17 are designed as flat metal strips. However, a different design, for

example as an angle or as a profile, can also be advantageous. As shown in Figure 3, the bars 16 and 17 are arranged in the exemplary embodiment between layers 8 of bricks 7 lying one on top of the other. In an alternative design, it can be provided that the bars 16 and/or 17 delimit the wall

2 at the top and/or bottom. Struts 18 extend between the bars 16 and 17. In the exemplary

embodiment, the struts 18 end at the bars 16 and 17. However, it can also be provided that the

struts 18 are continued upward over the upper bar 16 and/or downward beyond the lower bar 17,

in particular in order to position further layers 8 of bricks 7 arranged above the upper bar 16 and/or

below the lower bar 17.

The struts 18 extend through layers 8 of bricks 7 lying one on top of another. The struts 18 are

advantageously aligned vertically. In the exemplary embodiment, the struts 18 are arranged at a

regular distance c from one another. The distance c is preferably measured in the horizontal

direction. Different distances c between adjacent struts 18 can also be advantageous. In the

exemplary embodiment, the struts 18 are firmly connected both to the upper bar 16 and to the

lower bar 17. The bars 16 and 17 form a dimensionally stable, fixed frame 21 with the struts 18.

The frame 21 is dimensioned such that it is at least capable of absorbing the forces which act on

the section of the perforated area 3 enclosed by the frame 21.

As shown in Figure 5 and Figure 6, the bars 16 and 17 lie completely between the flat sides 9

and 10 of the wall 2 and do not protrude beyond the flat sides 9 and 10. The bars 16 and 17

advantageously have a distance d from the flat sides 9 and 10 which is preferably at least partially

filled with mortar 23. As a result, the bars 16 and 17 are hardly visible.

In the exemplary embodiment, fastening tabs 30 are formed on the bars 16 and 17, which

protrude beyond the wall 2 on the inner flat side 10 and using which the reinforcing structure 5 is

fixed to the supporting structure 6.

As shown in Figures 3 and 5, the struts 18 protrude into recesses 20 of bricks 7 lying one above

the other. The struts 18 are arranged completely within the wall 2 between the flat sides 9 and 10.

After arrangement, the recesses 20 are advantageously filled with mortar 23 so that the struts 18

are not visible in the finished wall 2.

As Figure 6 shows, the supports 22 are designed as U-profiles in the exemplary embodiment.

The supports 22 preferably consist of steel. However, a different design of the supports 22 can also

be advantageous. Adjacent struts 18 have a distance c from one another. The distance c is equal

for all struts 18 in the exemplary embodiment. This results in a regular pattern of bricks 7 and

openings 4. Different distances c can also be advantageous.

The struts 18, together with the upper bar 16 and the lower bar 17, form a stable frame 21

which is designed to absorb the forces which act perpendicularly on the area of the wall 2 (Figure

1) enclosed by the frame 21, for example wind forces.

As shown in Figure 7, the struts 18 are connected to the lower bar 17 via welded connections

26 in the exemplary embodiment. Corresponding welded connections 26 are advantageously

provided between the struts 18 and the upper bar 16 . A stable design of the frame 21 is achieved

in this way.

Figure 8 shows an exemplary embodiment of one of the adjustment devices 19 in an enlarged

view. The further adjustment devices 19 are advantageously designed accordingly. Adjustment

devices 19 are preferably provided both for the lower bar 17 and for the upper bar 16. A first detent

surface 27 is formed on the support 22 and is formed by horizontally extending grid elevations. In

the exemplary embodiment, the detent surface 27 is formed on a first detent plate 37 which is

firmly connected to the support 22. A second detent surface 28 engages in the first detent surface

27 and is connected to the fastening tab 30 in the vertical direction. The second detent surface 28

is formed on a second detent plate 38 (Figure 10). In the exemplary embodiment, a fastening screw

32 is provided which protrudes through the second detent plate 38. The fastening screw 32 is

screwed into a fastening nut 33, as also shown in Figure 9. In the first detent surface 27 and the

support 22, a vertical slot 29 shown schematically in Figure 8 is provided. In Figure 9, the slot 29

in the support 22 is visible. The vertical slide 29 allows the fastening screw 32, the fastening tab

30, and the first detent plate 37 to move in relation to the support 22 and thus the fastening tab 30

and the reinforcing structure 5 to be adjusted in the vertical direction in relation to the support 22.

The fastening tab 30 advantageously has a horizontal slot 31, which is shown in Figure 10, for

example. The horizontal slot 31 allows an adjustment in the horizontal direction, parallel to the

longitudinal direction of the wall 2.

In the embodiment according to Figures 8 and 9, the fastening tab 30 is formed in two parts.

The fastening tab comprises a horizontal extension 39 on the associated bar 16 and an angle 40,

which is displaceable in relation to the horizontal extension 39 in the horizontal direction

perpendicular to the plane of the wall 2 via slots 41 and is fixable by means of a fastening screw

42. As a result, an adjustment in the direction perpendicular to the wall 2 is possible.

In the exemplary embodiment according to Figure 10, the fastening tab 30 is formed in one

piece with the associated bar 16 and is angled. No adjustment in the direction perpendicular to the

plane of the wall 2 is provided here. With regard to the slots 29 and 31 and the detent surfaces 27

and 28, the embodiment of Figure 10 corresponds to the embodiment of Figures 8 and 9.

Due to the detent surfaces 27 and 28, a simple adjustment is possible since the fastening screw

32 in the fastening nut 33 only has to be tightened slightly at first until a preliminary adjustment

is achieved. Due to the detent surfaces 27 and 28, a pre-fixation is achieved even with a slight

tightening.

As shown in Figures 11 to 17, the fastening tabs 30 on the upper bar 16 protrude downwards

in the exemplary embodiment and the fastening tabs 30 on the lower bar 17 protrude upwards. In

the exemplary embodiment, the frame 21 is delimited at the top by the upper bar 16 and at the

bottom by the lower bar 17. No part of the reinforcing structure 5 protrudes beyond the upper bar

16 and the lower bar 17. A different orientation of the fastening tabs 30 can also be advantageous.

As shown in Figures 14 to 17, the fastening tabs 30 are formed as one-piece angles in the

illustrated exemplary embodiment. As Figure 16 shows, the upper bar 16 and the lower bar 17

have a distance b from one another. The distance b can be specified in a structurally fixed manner

if the upper bar 16 is permanently connected to the struts 18. However, it can also be provided that

the distance b is adjustable. For this purpose, adjustable connections are advantageously provided between the struts 18 and the upper bar 16, as will be described hereinafter with regard to Figure

23.

However, a different design of the adjustment devices 19 can also be advantageous.

Figures 19 to 21 show the lower bar 17 as an individual part before it is fixed to the struts 18.

The upper bar 16 can advantageously be of identical design. In the exemplary embodiment, the

lower bar 17 has openings 36 for the struts 18. As a result, the position of the struts 18 on the

respective bar 16, 17 is specified. During the production of the frame 21, the struts 18 are

positioned on the bars 16, 17 and then preferably welded.

Figure 22 shows an alternative embodiment for a supporting structure. In the embodiment

according to Figure 22, the wall 2 (Figure 1) forms the supporting structure. An anchoring section

34, which protrudes laterally from the perforated area 3 of the wall 2 into the area of the wall 2 in

which no openings 4 are formed between adjacent bricks 7, is arranged on the upper bar 16. The

anchoring section 34 has openings 35 into which mortar can penetrate. The anchoring section 34

is fixed by the mortar in the area of the wall 2 that is not provided with openings 4. It can be

provided that the upper bar 16 and/or the lower bar 17 are anchored by means of anchoring sections

34 on one or both sides instead of on supports 22 between layers of bricks of the wall 2 lying one

on top of another.

Figure 23 shows an alternative embodiment for fastening the upper bar 16 to the struts 18. In

the exemplary embodiment according to Figure 23, the upper bar 16 is fixed to the struts 18 via

screw connections 24. For this purpose, a nut 25 is screwed onto a thread formed on the strut 18

in each case above and below the upper bar 16. By fixing the upper bar 16 via detachable

connections, in the exemplary embodiment via screw connections 24, the upper bar 16 can be fixed

to the struts 18 after the uppermost layer of bricks 7 has been arranged below the upper bar 16.

This simplifies the production of the uppermost layer or layers below the upper bar 16.

Figures 24 to 26 show the design of the bricks 7 in detail. All bricks 7 that protrude into the

perforated area 3 are preferably of identical design. Other designs of individual bricks 7, preferably

individual layers 8 of bricks 7, can also be advantageous.

Figure 24 shows the upper side 11, a longitudinal side 13, and a transverse side 14 of the brick

7. In Figure 24, recesses 20 of the brick 7 are also clearly visible. Figure 25 shows a top view of

the upper side 11 and Figure 26 shows a side view of a longitudinal side 13. As shown in Figures

24 to 26, two recesses 20 are provided on the opposite transverse sides 14 of the brick 7. For bricks

7 which protrude into the perforated area 3 with only one side, a design having only one recess 20

can also be provided.

The recesses 20 are open to a circumferential side of the brick extending between the upper

side 11 and the lower side 12. Via the peripheral side, the brick 8 can be pushed over a strut 18

and fixed there using mortar 23 (Figure 3). If the recesses 20 are open on opposite transverse sides

14, the brick 7 can be tilted for this purpose.

In Figure 25, an alternative design for the recesses 20 is shown by dashed lines. The recesses

20 indicated by dashed lines open to a common longitudinal side 13 and are closed to the transverse

sides 14. This design of the recesses 20 allows a brick 7 to be pushed in the horizontal direction

onto two struts 18 starting from one flat side, preferably starting from the outer flat side 9. As a

result, an arrangement of bricks 7 directly below the upper bar 16 is also possible.

The recesses 20, which open onto the transverse sides 14, have the result that the longitudinal

sides 13 are formed continuously closed. This results in an attractive exterior of the wall 2 in the

perforated area 3.

To produce the wall 2, it is provided that initially at least the lower bar 17 and the struts 18,

which are firmly connected to the lower bar 17, are mounted on the supporting structure 6 and are

adjusted in relation to the supporting structure and, if necessary, in relation to layers 8 of bricks 7

arranged underneath the lower bar 17. It can be provided that the upper bar 16 forms a

dimensionally stable frame 21 with the lower bar 17 and the struts 18 and the entire frame 21 is mounted on the supporting structure 6 and adjusted. However, it can also be provided that the upper bar 16 is only mounted when the layer 8 of bricks 7 arranged directly below the upper bar

16 has been laid. If one or more layers 8 of bricks 7 are provided below the lower bar 17, as in the

exemplary embodiment, this lowermost layer 8 or these lowermost layers 8 of bricks 7 are

preferably produced first. This layer or layers 8 of bricks 7 arranged below the lower bar 17 can

have openings 4. However, it can also be provided that this layer or layers 8 of bricks 7 are

produced without openings 4.

After the arrangement and adjustment of the lower bar 17 with the struts 18, the bricks 7 are

positioned in layers in the grid provided by the struts 18 and fixed by means of mortar 23. If both

recesses 20 extend to transverse sides 14 of the bricks 7, the bricks 7 can be tilted for arrangement

on the struts 18.

After reaching the upper bar 16, a further section of the wall 2 can be produced above the upper

bar 16, wherein this further section of the wall 2 can have openings 4 or can be produced without

openings 4.

If the upper bar 16 was not positioned and fixed together with the lower bar 17, then after the

last layer 8 of bricks 7 has been produced below the upper bar 16, the upper bar 16 is positioned

on the struts 18 and fixed. The upper bar 16 is advantageously connected to the struts 18 via

detachable connections, for example via the screw connections 24 shown in Figure 23. A

connection via welded connections 26 can also be advantageous. The upper bar 16 is adjusted in

relation to the supporting structure 6 and connected thereto.

Claims (15)

1. A wall assembly comprising a wall (2) which is constructed from bricks (7) which are

arranged in layers (8) arranged one on top of another with mortar (23) interposed, wherein the wall

(2) has a perforated region (3) having openings (4), wherein the openings (4) are each formed by

a distance (a) between two adjacent bricks (7) of a layer (8), wherein the wall (2) has at least one

reinforcing structure (5) for absorbing forces acting perpendicularly on the wall (2), which is fixed

to a supporting structure (6) of the wall assembly (1), wherein each brick (7) has an upper side

(11), a lower side (12), and peripheral sides extending between the upper side (11) and the lower

side (12), wherein the reinforcing structure (5) has an upper bar (16) and a lower bar (17), between

which at least one strut (18) extends through the layers (8) of bricks (7), wherein the upper bar

(16) and the lower bar (17) are designed as flat metal strips, wherein the strut (18) extends in the

perforated area (3) of the wall (2) completely between the opposite flat sides (9, 10) of the wall (2)

formed by the bricks (7), wherein the strut (18) extends through recesses (20) of bricks (7) lying

one on top of another, which are open to a peripheral side of the brick (7),

characterized in that the reinforcing structure (5) is connected to the supporting structure (6)

via at least one adjustment device (19) which, during the production of the wall assembly (1),

allows an adjustment of at least one bar (16, 17) of the reinforcing structure (5) in relation to the

supporting structure (6) in the vertical direction.

2. The wall assembly according to claim 1,

characterized in that the adjustment device (19) allows an adjustment of at least one bar (16,

17) of the reinforcing structure (5) in the horizontal direction.

3. The wall assembly according to claim 1 or 2,

characterized in that the adjustment device (19) comprises a first detent surface (27) on the

reinforcing structure (5) which engages in a second detent surface (28) on the supporting structure

(6).

4. The wall assembly according to any one of claims 1 to 3 or according to the preamble of

claim 1,

characterized in that the lower bar (17) and all struts (18) are firmly connected to one another

independently of the mortar of the wall (2) and form a force-absorbing, stable assembly.

5. The wall assembly according to any one of claims 1 to 4,

characterized in that the upper bar (16) is connected to all struts (18) via detachable

connections, in particular via screw connections (24), which allow an adjustment of the position

of the upper bar (16) in relation to the struts (18) in the longitudinal direction of the struts (18)

during the production of the wall assembly (1).

6. The wall assembly according to any one of claims 1 to 5,

characterized in that at least one strut (18) is connected to at least one bar (16, 17) via a welded

connection (26).

7. The wall assembly according to any one of claims 1 to 6,

characterized in that the peripheral sides of the bricks (7), to which the recesses (20) extend,

are transverse sides (14) of the bricks (7) in at least one layer (8) of bricks (7), wherein the

transverse sides (14) extend from one flat side (9) of the wall (2) to the other flat side (10) of the

wall (2).

8. The wall assembly according to any one of claims 1 to 7,

characterized in that at least one recess (20) is formed on a longitudinal side (13) of the brick

(7) forming a flat side (9, 10) of the wall (3).

9. The wall assembly according to any one of claims 1 to 8,

characterized in that the supporting structure (6) comprises at least one support (22) arranged

outside of the wall (2).

10. The wall assembly according to any one of claims I to 9,

characterized in that at least one bar (16, 17) is fixed outside the perforated area (3) in the

mortar between layers (8) of bricks (7) lying one on top of another.

11. The wall assembly according to any one of claims I to 10,

characterized in that each brick (7) of the perforated area (3) has at least one recess (20), in

particular two recesses (20).

12. The wall assembly according to one of claims I to 11,

characterized in that a strut (18) protrudes through all recesses (20) in the perforated area (3).

13. A method for producing a wall assembly according to any one of claims I to 12,

characterized in that the lower bar (17) of the reinforcing structure (5) and the struts (18) are

fixed as an assembly on the supporting structure (6) and are adjusted at least in the vertical

direction, advantageously in the vertical direction and in at least one horizontal direction, in

relation to the supporting structure (6) and in a subsequent method step bricks (7) are arranged on

the struts (18).

14. The method according to claim 13,

characterized in that the upper bar (16) with the lower bar (17) and the struts (18) of the

reinforcing structure (5) is fixed as an assembly on the supporting structure (6).

15. The method according to claim 13,

characterized in that the upper bar (16) is fixed to the struts (18) after arrangement of the last

layer (8) of bricks (7) below the upper bar (16).