RU1804294C - Equipment for management of small livestock - Google Patents

Abstract

The inventive equipment for the maintenance of small animals, mainly feed poultry, for example, roosters contains a livestock room with a continuous, made in the form of a conveyor mesh carrier floor made of synthetic material, which is supported by stretching across the direction of movement of the carrier floor, and also parallel to the plane of the carrier the floor of the bearing profiles, which are functionally connected to the lateral supply bodies, and on the upper side of the bearing floor, respectively Just above the supporting profiles are soft elastic cushion layers in the form of tubular or hose hollow bodies or hollow profiles. The bearing floor is made of longitudinal and transverse threads. 6 c.p. f-ly, 24 ill. 10 s

Description

The invention relates to equipment for keeping small animals, in particular fattening poultry, for example, roosters.

The invention is based on the task of improving and improving the last mentioned construction in order to achieve even better cultivation results using simpler means.

In accordance with the invention, this problem is solved by the distinguishing features of paragraph 1 and / or the following claims.

Thus, the carrier floor made in accordance with the invention no longer consists of moving relative to each other elements or mats connected to each other from intersecting bearing profiles, but consists of a continuous web of mesh of relatively thin threads, which can be made and assembled as easily as possible . This also applies to the connection with the bearing profiles, as well as to the associated cushion layer. In this regard, special mention should be made of the design, which is a single transporting body consisting of a mesh of the bearing floor, bearing profiles and conjugate pillow layers.

Preferably, the floor support mesh is made of reinforced synthetic fibers of relatively soft or elast

about

to u

fe

synthetic synthetic material, in particular polyamide, wherein the reinforcement is formed using a high load-bearing core thread, for example, a textile core thread or a metal wire core thread.

Of particular importance is also the use of a simple chain link as a carrier floor - a transporting body and the corresponding adjustment of drive and guide means.

Unexpectedly, when using the equipment in accordance with the invention, a significantly higher fattening result was achieved under generally unchanged external conditions compared to equipment in accordance with European Patent No. 51844. The meat yield is about 7-10% higher. In addition, m with much more tender.

Preferably, the mesh yarns have a diameter of about 1-2 mm. The cell size is preferably (10-13) mm x (13-17) mm, in particular 12 mm + 15 mm. In the comparative tests carried out, the webs of the mesh were propped up, respectively, at 9 cm intervals, directed across the supporting profiles. Accordingly, the pad layers associated with the carrier profiles are spaced apart from each other in the transport direction. The cushion layers are preferably in the form of continuous soft flexible tubes. They allow animals to be kept without the formation of pectoral bladders. The diameter of the soft flexible tubes is about (10-11) mm; the wall thickness is about (1 - 2) mm, preferably about 1.5 mm. At the ends, soft flexible tubes are closed, for example, by flattening, gluing, welding, or the like.

Fig. 1 is a cross-sectional view of a livestock building; Fig. 2 is a cutaway of a livestock building or carrier floor in Fig. 1; in FIG. 3 - section bearing support; figure 4 is a section aa in fig.Z; on Fig, 5 is a vertical section of the support node of the end drums of the floor mesh in the drive zone; figure 6 is a horizontal section of the reference node in accordance with figure 5; Fig.7 is a side view of the support node in accordance with Fig, 5 and 6; Fig. 3 is a horizontal section of the support assembly of the end drums of the floor net on the opposite side of the drive with the image of the tensioning device acting parallel to the conveying direction; Fig.9 is a side view of the reference node in accordance with Fig; Fig. 10 is a horizontal projection of a part of a grid of a bearing floor; in FIG. 11 is a sectional view of a portion of a grid of a bearing floor with an image of the connection between the grid, the bearing profile, and the pad layer of the bearing profile; 12

- a section in accordance with 11 of the bearing profile; in FIG. 13 is an image of a part of the grid of the carrier floor in accordance with FIG. 11, however, with the modified carrier profile and cushion layer of the carrier profile; in FIG. 14 is a sectional view of the carrier profile in accordance with FIG. thirteen; in FIG. 15 is an image of a part of the grid of the supporting floor in accordance with FIG. 11 or 13, however, with other modified support profile and pad layer of the support profile; in Fig.16

is a front view of the cushion layer of the support profile in accordance with FIG. fifteen; in FIG. 17

- type of equipment; Fig. 18 is a horizontal projection of a part of the equipment according to Fig. 17 after removal of the carrier floor; in FIG. 19 is a part of the equipment in accordance with FIG. 17 and 18, namely the support of the bearing floor, in the context; on Fig.20

- a horizontal projection of a part of the bearing floor in the equipment in accordance with Figs. 17-19; Fig. 21 is an embodiment of equipment with a stationary carrier floor; Fig. 22 is a central sectional view of the support floor of the equipment in accordance with Fig. 21; on Fig is a side view of part of the support in accordance with Fig; Fig. 24 is a side view and a sectional view of a casing of a central retaining profile for a bearing floor.

Fig. 1 is a schematic cross-sectional view of a livestock room for housing, for example, farmed males. Inside the livestock room, above the floor 12 of the livestock room and at a certain distance from it, there is a supporting mesh floor 21. This floor forms a working or supporting surface for the animals. Above the bearing floor 21, a system of tubes not shown is provided for supplying the feeders 27 extending in the transport direction.

The bearing floor 21 is generally designed as an animal conveyor and, interrupted only by the central passage 13, can move across the entire width of the livestock building. To this end, the supporting mesh floor 21 is divided into separate webs, which are respectively formed from a continuous mesh 10 of relatively thin filaments. These webs expediently move together and simultaneously in the transport direction.

The webs of the mesh 10 extend at the ends along the end drums 14 (see FIGS. 5-9), with the end drums 14 being connected on one side to a drive (not shown in more detail), in which case the drive is preferably located in the region of the central passage 13.

As has been described, the bearing floor 21 consists of several adjacent to each other cloths of the mesh 10, which are respectively made of reinforced threads from a relatively soft or elastic synthetic material, in particular polyamide, and the reinforcement is made using high-load core threads , for example, using a textile core of metal wire. The diameter of the filaments is about 1-2 mm, preferably only about 1 mm. The cell size is within the initially indicated range and is preferably 12 mm x 15 mm.

The mesh web made in this way is laid along the transverse profiles M 28 with simultaneous attachment to them. The connection between the mesh web or the net 10 of the bearing floor and the supporting profile 38 is made by fixing the mesh 10 with a geometric and force closure between the supporting profile 38 and the associated pad layer, which is located on the upper side of the mesh 10 of the bearing floor 21, respectively above the interface a female supporting profile 38. In this case, the cushion layer is formed using a tubular or hose hollow profile 40 (see Fig. 11 or 13).

According to the embodiments of FIGS. 11 and 12, the support profiles 38 are respectively U-shaped profiles made of synthetic material, metal, in particular stainless steel, or the like, respectively open from above, between the arms 36 and 37 of which are adjacent each the supporting profile of the cushion layers, in this case, the hollow profile 40, namely, while fixing the mesh 10 of the bearing floor between the supporting profile 38 and the pillow layer, namely, the hollow profile 40. For seamless fixing of the mesh 10 between not with the existing profile 38 and the cushion layer or the hollow profile 40, the upper edges of the shoulders 36.37 of the U-shaped profile have, just like the cushion layers fixed between them, slots through which the longitudinal threads of the supporting mesh 10 extend through the mounted state the floor On Fig provided on the upper edges of the shoulders 36, 37 of the U-shaped profile of the slot marked

15. The corresponding slots of the pillow layer are open downwardly and located in the zone 25 of the pillow layer. The distance between said cuts corresponds to the distance between

0 longitudinal threads of mesh 10 of the bearing floor. The width of the slots is respectively about 2 mm, so that the longitudinal threads of the net 10 of the bearing floor can easily be placed inside the up-open slots 15 on the upper edges of the shoulders 36, 37 of the U-shaped profile and inside the open down slots in the area of the pillow layer fixing part 25 bearing profile. When mounted, edge slots

0 support profiles 38 and open downward slots in the area 25 for fixing the pillow layers of the support profiles are located one straight line in the direction of transport or in the direction of longitudinal threads

5 grids.

As already described above, the cushion layers of the supporting profiles contain a tubular or hose hollow profile 40, which extends along the upper side

0 mesh 10, namely, the passage across the canvas mesh. The average outer diameter of the hollow profile 40 is about 10-11 mm. The wall thickness is about 1.5 mm. The hollow profile 40 preferably consists of siloxane rubber with a Shore hardness of 60 degrees. On the underside of the hollow profile 40, a cross-sectional shape of a fishing hook is formed of a zone or section 25

0 pinned. During installation, this section is introduced into the area between both shoulders 36, 37 of the supporting profile 38, made in the form of a U-shaped profile, and the area between both shoulders 36, 37 is pre-filled with siloxane adhesive. After the adhesive has cured properly, a reliable and strong connection is obtained between the described support profiles 38, on the one hand, and the cushion layers 40 of the support profiles, on the other hand, with fixing the grid 10 of the support floor between the support profile 38 and the cushion layer 40. Mesh 10 the carrier floor is pierced by the assembly consisting of the carrier profile 38 and the conjugate 5 pillow layer 40 of the carrier profile. At the end ends, the tubular cushion layer 40 is closed, for example, by flattening, gluing, welding or a similar method.

The nets of the bearing floor or the web of nets 10 are functionally connected to the side transport bodies in the form of link chains 51. The functional connection is obtained due to the fact that the free ends of the supporting profiles 38 are inserted into the vertical links located on both sides of each web of the grid 10 of the link chains and secured with a cotter pin or similar element. In the case of this kind of functional connection between the grid of the bearing floor or the web of the grid 10 on the one hand and the link chains 51 on the other hand, this is probably the simplest construction.

The upper branch of the webs of the net is supported by at least two guide profiles located on the side of the longitudinal edge, in this case by means of metal plates 16, which overlap each other at the joints. Support profiles 30 slide along these guide profiles during transport of the web or mesh 10 of the support floor. The upper side of the metal plates 16 may be equipped with a coating of synthetic material to reduce slip friction and noise, which can preferably be replaced.

The ends of the mesh 10 of the bearing floor adjacent to each other are equipped respectively with the edge of the fabric 11 (see FIG. 10), on which a butt joint is made during the formation of an endless mesh web.

Of particular interest is the additional support of the carrier floor 21 above the floor 12 of the livestock building. To this end, support frames 17 extending in the direction of transportation respectively are provided on both sides of the web of mesh 10. In accordance with FIG. 3, the support frames 17 are formed respectively by means of an I-beam 18, on which two sheet walls 19 are mounted, for example, screwed, lower longitudinal the edges of which are made in the form of side guide profiles 20 of the chains and, to their upper, respectively, blunt-ended longitudinal edges, is attached, in particular, is welded, an attachment unit 31 for extending in the conveying direction of the trough 27. The I-beams 18 camping extending in the conveying direction, the transverse crosspiece lies on the floor 12 of livestock buildings, and preferably connected thereto by means of bolts. Both vertical leaf walls 19

mounted on the upper cross member of the I-beam 18, preferably also with bolts. The lower chain guide profiles 20 are designed in such a way that they support both the vertical and the link chains 51 extending across them, namely, down and to the side. For the corresponding support of the upper branch of the chain chains 51 on

On the leaf walls 19, guide profiles 30 of the chains are also located at the top side, namely screwed. The guide profiles of 30 chains are made in the form of so-called grooved or double

5 corner profiles.

The sheet walls 19 of each support frame 17 respectively have a length that is less than the total length of the bearing floor 21. The sheet metal sheets thus made

0, the walls with blunting are connected to each other, and the connection is made using a vertically extending L-shaped corner 2 (see Figs. 3 and 4), to which the protruding inwards are connected from the side

5 the arms 23 of the transverse beam 24, which contribute to the lateral stiffness of the adjacent support frames 17. Thus, an extremely stable or rigid support frame for the support floor 21 is obtained.

0 The upper guide profiles 30 of the chains extend between the transverse beams 24 and the attachment unit 31 for the feeder 27, namely, it is preferably always so close below said attachment unit 31 that the (vertical) chain links can move without jamming between the guide the profile 30 of the chain and the mount 31 for the feeder 27 (see Fig. 3). Connecting corners 22 are connected to

0 using screws with adjacent dulled sheet walls 19, as can be seen in figure 4. The lateral beams 24 intended to provide lateral rigidity are also screwed onto

5 the shoulders 23 of the L-shaped corners 22 protruding from the side inward (see also FIG. 4).

At the ends of the supporting mesh floor 21, there is a support assembly and a drive for the nets 10 of the supporting floor or for adjoining

0 link chains 51 with them. Netting of the supporting floor or web of meshes 10 together with the supporting profiles 38, the distance between which in the transport direction is preferably 9 cm, at the ends

5 of the carrier floor are guided by end drums 14, which on the front side have chain sprockets 42 respectively for guiding the mesh of the carrier floor or the webs of the mesh 10 of the link chains 51. Support

end drums 14 is carried out on the side support frames 17, located on the same end of the carrier floor 21 end drums 14 of the adjacent support floor nets or webs 10 are located coaxially with each other and are supported by a common rotating support 50, which is made on a common support frame 17 (see Fig. 5-9). Figures 5 and 6 show a common support assembly of the end drums 14 of adjacent carrier floor nets or webs of nets 10 in the area of the drive 60, while Figs. 8 and 9 show the corresponding support assembly on the opposite side of the drive on which a tensioner is further provided the grid.

The end drums 14 are formed respectively by means of tubes 39 which are closed on the end by end flanges 41. A chain sprocket 42 is respectively connected to these end flanges 41, the tooth of which engages with chain links extending parallel to the plane of the web web. In the area of the chain sprocket 42, the vertical chain links are laterally guided by an annular protrusion 43 located on the chain sprocket 42. The chain sprockets 42 are connected to the end flange 41, respectively, by means of threaded fingers 35 evenly distributed around the circumference.

As mentioned above, the adjacent end drums 14 have a common rotary support 50, which is located in the area of the common support frame 17. The common rotary support 50 is formed respectively connecting adjacent end drums 14 with the supporting finger 45 and connected with each other without rotation 52 bearing housing. The bearing housing 52 is integrated in the support frame 17. The connection without the possibility of rotation between both end drums 14 on the one hand and the support pin 45 on the other hand is carried out by means of prismatic keys 46, which are located between the support pin 45 and both chain sprockets facing each other 42. This embodiment allows the end drums 14 to be easily mounted on a common support pin 45. Thus, it is possible to install the equipment in sections by simply fitting and screwing on one another.

The support pin 45 is slidably mounted in the housing 52. It goes without saying that a rolling support unit is also possible. Bearing housing 52 in the illustrated embodiment is a relatively flat metal plate with a through hole 26, the perimeter of which defines the surface of the plain bearing. This

the support plate is fixed with threaded fingers 28, 29 on the support frame 17, namely, in the area between two vertical sheet walls 19, and the bearing is down on

0 continuous I-beam 18 (see Fig. 5 and 7).

The common support node of adjacent end drums 14 on the opposite side of the drive end of the bearing floor 21

5 is schematically shown in FIGS. 8 and 9. This support assembly differs from that described only in that the bearing housing 52 can move in a direction parallel to the conveying direction.

0 with appropriate tension or pre-tensioning of the supporting floor mesh or mesh webs 10.

To this end, the bearing housing 52 is made in the form of a slider, which with the help of the tension bolt 32 can be moved in a direction parallel to the direction of transportation of the carrier mesh floor 21. The tension bolt 32 is supported on a common support

0 frame 17, namely, through the transverse link 33 and mounted on the support frame of the transverse plate 34, which is attached to the support frame 17 in the same manner as the bearing housing 52 in the embodiment 5 in accordance with figure 5 - 7. Inside the transverse plates 34, the bearing housing 52 is mounted with the possibility of reciprocating movement in the direction of the tension bolt 32. The transverse link 33 and the transverse plate 34 are screwed together with threaded fingers 35 extending parallel to the transport direction. s movement nesu5 conductive mesh or fabric grid floor 10 is indicated in Figures 7 and 9 by the arrows 44. Similarly, the direction of movement of the grid floor of the carrier web or grid 10 in Figures 4 and 7, indicated by arrows 44.

0 On the outer lateral edges of the supporting mesh floor 21, a support assembly of the end drums 14 is made in accordance with the described support assembly, namely, in the form of a simple rather than double bearing, as

5 is shown using FIGS. 5 to 9.

With a pitch circle diameter of chain sprockets 42 connected to end drums 14 of about 140-150 mm, chain sprockets 42 have about five teeth, respectively. The outer diameter of the end drums 14 is about 135 mm with said selection of chain sprocket sizes 42. In this case, the width of the grid 10 of the bearing floor is about 2 m. The upper branch of such a width of the mesh floor is supported by six metal plates 16 of the same type spaced apart from each other (see Fig. 2).

Compared to the embodiment of the carrier profile 38 in accordance with FIGS. 11 and 12, the carrier profile in accordance with FIG. 13 and 14 changed slightly. Instead of bonding the pad profile 40 located on the upper side by gluing in the embodiment of FIG. 13 and 14, a snap connection is provided with a geometric closure between the supporting profile 38 on the one hand and the fastening portion 49 formed on the lower side of the hollow profile 40 on the other hand. The carrier profile 38, made with a U-shaped cross-section, is equipped at certain distances with inwardly formed tides or protrusions 53 which, when mounted, are tightly engaged with the thinned fastening portion 49. There is no adhesive bond in this embodiment.

In the embodiment of FIG. 15 and 16, the supporting profiles 38 are made in the form of C-shaped profiles. Similarly, as in the embodiment according to FIG. 13 and 14, a snap connection with a geometric closure is provided between the support profile 38 on the one hand and the fastening portion 49 formed on the lower side of the hollow profile 40 on the other hand. This supporting profile encompasses support flanges 66 formed diametrically with respect to the longitudinal median plane, which in a mounted state are adjacent from the inside to both shoulders of the C-shaped supporting profile 38 with clamping fixation of the hollow profile 40 on the supporting profile 38. In the through-cut area between both shoulders C-shaped supporting profile 38 in the fastening section 49 of the hollow profile 40, sealing lips 67 are formed diametrically to its middle longitudinal plane. Thanks iju indicated in FIG. 15, with 68 clearances, differences in tolerances in the grid 10 of the bearing floor can be compensated. In addition, due to this, it is possible to press the hollow profile 40 from above into the supporting profile 38 before fixing it.

In accordance with FIG. 16, the section 49 for fixing the hollow profile 40 is equipped with

recesses 69 located at a certain distance from each other in the longitudinal direction, the removal corresponding to the mesh size of the supporting floor 10. Through these recesses 69 in a mounted state, the longitudinal threads 70 of the carrier floor net 10 extend. The transverse threads 71 of the carrier floor grid 10 are shown in FIG. 15. In the area of supporting profiles 15 or hollow profiles 40, these

the filaments mate with the side recesses of these profiles while maintaining the aforementioned gap 68 to compensate for tolerances.

Regarding the above-mentioned design of the end drums 14, it should also be mentioned that, on the drive side, the bearing housing 52 is preferably divided, namely, by means of approximately

vertically to the plane of the connector, the half facing the supporting floor 21 being rigidly connected to the equipment, while the outwardly directed half of the support is fixed with screws so that it can be disconnected.

In accordance with the design of the chain conveyors 51 chain sprockets can also be made in the form of simple gears.

The end drums located on the opposite side of the drive can preferably be tensioned independently of each other, thanks to each

the end drum is coupled, a separate tensioning device with a clamping support. In this case, of course, the end drums can also be rotatably mounted independently

apart from each other. In this way, various dimensional tolerances of the chain conveyors can be compensated.

The embodiment of FIG. 17 - 20 differs from the above

embodiments primarily by various support of the supporting mesh floor 21. Signing is carried out using located in the direction of transportation at a certain distance from each other

vertical supports 63, 63a, which are connected to each other with a dull sheet wall 65 are connected to each other in the same way as in the embodiment in accordance with Fig.3 and 4, and giving the transverse rigidity of the adjacent support frames 17 of this type exactly it is also carried out by means of the transverse beams 24 in accordance with the image in Figs. 3 and 4. Thus, by analogy, a stable or rigid support frame for the support floor 21 is obtained, as in the embodiment described above. In accordance with FIG. 18, each second support 63a is made with wider shoulders, which are intended for the butt connection of the sheath 65.

Furthermore, an embodiment in accordance with FIG. 17-20 differs from the above embodiment of a differently executed guide chain. As can be well seen in FIG. 19, both the upper branch and the lower branch of the chain 51 connected by the bearing profiles 38 are guided inside the U-shaped chain guide profiles 64, which extend in the transport direction are secured to the support frame 17, namely, are screwed. These guide chain profiles have guide grooves respectively facing each other for respectively vertical chain links, in the illustrated embodiment, the cross section of the guide grooves 86 is respectively rectangular. In practice, the vertical supports 63, 63 a are spaced apart from each other by approximately 1.2-1.8 m, in particular by approximately 1.5 m. The connection between the supporting profiles 38 and the chain conveyors 51 is carried out in a similar manner as in the embodiment described above.

It should also be mentioned that the preferred design of the mesh web 10 is as follows: - in the direction of the weft yarns: high-strength polyester monofilaments (seven pieces with a spacing of 12.86 mm between threads); - in the direction of the main threads: high-strength polyester multifilament threads (five pieces; the spacing between the threads is 17.55 mm).

The mesh thus made, preferably by immersion in a polyvinyl chloride paste, is provided with a coating of soft polyvinyl chloride.

On the upper side of the support frame 17 or on the upper end sides of the support legs 63, 63a, a feeder 27 extending in the transport direction has been fixed. It has been found that this feeder is too large because of its shape for the smallest animals after being placed in the livestock building or, usually set too high. In addition, significant feed losses have been established because larger animals eject the feed from the feeder 27. For this purpose, a continuous stretching sheet 72 for horizontally collecting the feed is located adjacent to the feed tray 27, as schematically shown in FIG. 19. It goes without saying that this feed collection sheet 72 can be used and is also suitable for the embodiment described above. The longitudinal edge of the food collection sheet 72, which is facing away from the feeder 27, is equipped with elastic cushion strips 73 corresponding to the hollow profile 40 for the supporting profiles 38. The food collection sheet 72 is used as a feed chute for the smallest animals. For grown animals, the sheet 72 is intended to collect the feed ejected from the feeder 27. Thanks to this, feed losses can be significantly reduced. The feed collection sheet 72 extends in accordance with FIG. 19 to the bearing floor 21 or the canvas 10.

Figures 21-24 describe an embodiment with a stationary carrier floor 21, which is likewise defined by a continuous web of mesh 10 of the kind described. This embodiment is suitable for raising animals that remain in the livestock building for a long time, for example, males and chickens or ducks. This does not require the cost of a moving floor.

Accordingly, in the last named embodiment, the rectangular frame 75 is positioned on stone pedestals 74 located at a certain distance from each other and extending parallel to each other. The frame 75 serves as a supporting frame for the supporting mesh floor 21. The dimensions of this supporting floor can be selected as in the previous embodiments. In addition, the main structure, consisting of a grid 10, supporting profiles 38 and hollow profiles 40, is made in the same manner as in the embodiments according to Figs. 1-20.

The frame 75 is defined by I-beams 76, which are supported by stone plinths 74 and which are connected to each other by means of transverse beams 24 located at a certain distance from each other. Thus, the transverse beams are made in the form of L-shaped profiles. The distance of these profiles from each other is about 2.5 - 3.5 m, preferably about 3 m. In accordance with Figs. 22 and 23, to the cross members, in particular, to the opposite sides of the cross members of the I-beams 76, on said distances from each other are respectively welded with double overlays 77, between which the vertical shoulder of the transverse beams 24 can be adjusted 24. Through the double overlays 77, a carrier pin 78, respectively, transversely directed, is mounted on which the transverse beams 24 are hung. To this end, the transverse beams 24 on free at the ends there are recesses 70, respectively open downward, in accordance with Fig. 22. Thus, when the I-profiles 76 are rigidly mounted on the stone pedestals x 74, the cross beams 24 can be turned upward or recline around the support fingers 78. Of course, the mesh carrier floor 21 must first be removed, i.e. collapsed. This provides free access to the floor of the livestock room between adjacent stone pedestals 74 for cleaning. When the middle stone base 74 is positioned for cleaning purposes, the bearing structures associated with it are respectively folded upward on the I-beam profile 76 connected to the stone base and connected to each other in the tilted position and held. Thus, it is possible to simultaneously clean the floor of the livestock building on both sides of the middle stone basement.

As already stated above; the bearing floor 21 is suitably configured as in the embodiments described above, i.e. with supporting profiles 38, mesh web 10, and cushion or hollow profiles 40 mating with supporting profiles 38. In accordance with FIG. 22, hollow profiles 40 are no longer mated to the ends of the supporting profiles 38. Exempt from these hollow profiles the ends of the supporting profiles 38 are mounted in the mating fixing profiles x 80, which are respectively fixed on the upper side of the I-profiles 76. These fixing profiles 80 are defined respectively by a U-shaped profile, which is at a certain distance from each other Rugas has correspondingly tapered downward recess 81 for sensing the ends of end support section 38, distance between recesses 81 correspond to the distance between the bearing profiles of 38.

The mounting profiles 80 during operation are also covered on top with a U-shaped roof profile 82, which

the shoulders pointing downward, on the basis of their respective dimensions, enter the mounting profile 80 open upwards. At certain intervals, the fingers 83 are oriented in the transverse direction. These fingers connect the cover profile 82 to the mounting profile 80 in the manner of a bayonet joint 84 (see FIG. .24).

The upper side of the cover profile 82 is equipped with an elastic hollow coating 85, which should prevent injuries of animals from the cover profile 82.

As already mentioned, in order to clean the livestock house, the cover profile 82 is first raised after the corresponding bayonet connections 84 have been disconnected accordingly. The mesh web is then removed together with the support profiles 38, for example, rolled. This rolling is facilitated by the presence of the trapezoidal recesses 81 in accordance with Fig. 23. Then, as described above, the transverse beams 24 can be folded up around the support fingers 78. After that, the floor of the livestock building is free to clean. The web of the net 10 is preferably cleaned outside the livestock building. The carrier floor 21 is then reassembled, namely in the reverse order. The described recesses 81 are respectively located in the vertical shoulders of the U-shaped mounting profile 80. The supporting profiles 38 are held within the recesses 81 by the upper cover profile 82.

Claims (7)

1. Equipment for keeping small animals, mainly fattening poultry, for example males, in a livestock building, comprising a continuous mesh floor made of longitudinal and transverse threads made in the form of a conveyor, which is installed on the load-bearing profile located transversely to the direction of movement of the floor and connected to the lateral feed organs x, moreover, the mesh floor is connected to the supporting profiles by elastic bodies, characterized in that in order to prevent the risk of contamination of the floor and improve its cleaning , each elastic body for connecting the mesh floor with the supporting profile is made in the form of strips of elastic elastic cushion profile, which is placed in the longitudinal direction above the supporting profile, and sections extending in the longitudinal direction of the cushion profile fasteners secured in the carrier profile, wherein recesses are made in the fastening portions in the region of the longitudinal threads for the passage of said threads. 2. Equipment pop. 1, characterized in that the supporting profiles are made in the form of U-shaped profiles open from above made of plastic, metal, preferably stainless steel or the like, with fastening sections of the pillow profiles fixed between the shelves of the supporting profiles. 3. Equipment according to claim 1, characterized in that the supporting profiles are made in the form of C-shaped profiles with which the pillow profiles are connected by means of fastening sections made on them. 4. Equipment according to claim 3, characterized in that the fastening sections have support 0 jaws interacting from the inside with both side walls of the C-shaped bearing profile, 5. Equipment according to claim 2, characterized in that the cushion profiles are fastened in their U-shaped sections to the U-shaped support profiles by means of a pouring adhesive. 6. Equipment according to claim 2, characterized in that the shelves of the U-shaped support profiles are made extending to the flatness of the floor and have cutouts for the passage of longitudinal threads. 7. Equipment according to claim 2, characterized in that the shelves of the U-shaped supporting profiles are provided with steps made inside the profiles for securing the fastening sections. twenty 17 17 17  ™ p-b: Js - ww- z --- J v w-S r J J / - - M / V Y /, 1712 17 FIG. / 5T7G phage nineteen 38 / 38 of FIG. 20 51 ZO phase- / Ts -70 -10 -38