This application claims priority to German Patent Application No. 10 2019 109 458.5 filed on Apr. 10, 2019, which is hereby incorporated herein by reference.
The invention relates to a carrier plate for a floor, wall or ceiling structure according to the preamble of claim 1.
A carrier plate for integration into a floor construction is known from EP 2 231 941 B1. This carrier plate consists of a film-like plate made of plastic having a plurality of protrusions and recesses. On a first plate side of the film-like plate, an adhesion-enhancing layer is applied, which follows the contours of the first plate side. A further layer can be provided on an opposite plate side, which abuts the protrusions and spans the recesses.
The protrusions in the film-like plate are formed on one side, i.e. protrusions are introduced from a flat film-like plate on one side, wherein the recesses form between the protrusions.
The object of the invention is to create a carrier plate which enables an improved decoupling to a supporting surface.
This object is solved by a carrier plate, by means of which the protrusions are formed so that they protrude alternately from one plane of the film-like plate, such that a plurality of rows and columns is formed, in which protrusions and recesses are alternately lined up, and only recesses are lined up along one diagonal to the rows and columns, and only protrusions are lined up in a further diagonal. Such a design of the carrier plate enables an increased support surface or contact surface to the supporting surface as well as to a cladding applied to it, since by forming protrusions on both sides, an increased number of nubs can be created alternately from the centre plane of the film-like plate. The protrusions extend in the one direction and in the other direction perpendicular to the plane of the film-like plate, such that the elevations and recesses are adjacent to each other, whereby an improved decoupling performance is enabled.
A preferred design of the carrier plate provides that the protrusions formed alternately from the plane of the film-like plate are formed like truncated cones. This has the advantage that contact surfaces are created at the respective end faces of the protrusions in order to accommodate a surface covering, such as a floor covering. Alternatively, truncated pyramid-shaped protrusions can also be provided.
It is preferably provided that along a diagonal, in which recesses are lined up, a crosspiece is provided between two recesses. Advantageously, a crosspiece is analogously provided along the further diagonals, along which the protrusions extend, between two protrusions. These crosspieces are preferably located in the central plane. At the respective crossing point of the diagonals, the respective crosspieces form a common connecting section, the outer edge regions of which are formed and limited by the adjoining recesses or protrusions.
Furthermore, it is preferably provided that a star-shaped connecting section is formed between protrusions and recesses assigned to each other in the central plane. This allows an even force transfer into all protrusions and recesses adjacent to the star-shaped connecting section.
Furthermore, it is preferably provided that the protrusions extend alternately to the central plane at the same height. In particular, a height starting from the central plane of less than 5 mm, in particular less than 3 mm, is provided.
Furthermore, in order to increase the load capacity or payload, it is provided that the number of nubs is greater than 9,000 units/sqm. Preferably, more than 20,000 protrusions per square metre are provided, in particular 22,500 or 25,600 protrusions per square metre. By way of example, the number of protrusions can be in a range between 22,500 to 90,000 nubs/protrusions per square metre. This number comprises all protrusions protruding from the central plane on both the first side of the plate and the second side of the plate.
Furthermore, it is preferably provided that the front surface of the protrusions has a diameter of 3 to 8 mm. This allows a maximum bearing surface and a sufficient force dissipation over the inclined surfaces of the protrusions.
In particular, the film-like plate of the carrier plate is formed of LDPE (low-density polyethylene). This soft and elastic material enables improved decoupling. The carrier plate can also be formed of HDPE (high-density polyethylene), PE (polyethylene) or PP (polypropylene). Preferably, a thickness of the film-like plate of from 0.1 to 2 mm is used.
A fleece or felt is preferably provided as an adhesion-enhancing layer which follows the contours of the first plate side. This allows the adhesive to bond with the fleece or felt when an adhesive is applied to fix a surface support.
Preferably, the carrier plate having the adhesion-enhancing layer provided thereupon and the further layer has a surface weight of from 400 g/m2 to 700 g/m2, preferably of from 500 to 600 g/m2.
Furthermore, it is preferably provided that the further layer on the second plate side is a fleece, a felt, a textile material, a mesh-like fabric or net-like fabric or a perforated layer. This allows for ventilation between the supporting surface and the film-like plate.
This carrier plate according to one of the embodiments described above is preferably used for decoupling a surface covering on a supporting surface to be built on. In this way, a decoupling of tensions between the surface covering and the supporting surface can be made possible. In addition, a sound decoupling, in particular impact sound decoupling, can also be provided.
The invention and other advantageous embodiments and developments of the same are described and explained in more detail below using the examples depicted in the drawings. The features to be inferred from the description and the drawings can be applied individually or in any combination in accordance with the invention. They show:
Due to the formation of protrusions 14 from the central plane 16 on both sides, horizontally formed support sections 23 arise in the central plane 16 seen in the section view. These support sections 23 surround the protrusions 14 annularly when changing from one plate side 17 to the other plate side 18. Seen in the top view, a star-shaped section 24 arises due to the protrusions 14 on both sides of the central plane structure 35 and the alternately arranged protrusions 14 and recesses 19 through the crosspieces 25. This preferably also merges with the crosspieces 23.
On a first plate side 17, an adhesion-enhancing layer 26 is provided. This layer 26 follows the contour of the first plate side 17 and preferably covers it completely. This layer 26 can be glued or laminated or welded on. Preferably, the adhesion-enhancing layer 26 consists of a fleece, in particular made of polypropylene or polyethylene. Alternatively, a preferably fine-meshed woven fabric, a knitted fabric, a textile material or a perforated fleece or a perforated felt can be provided as the adhesion-enhancing layer 26.
A further layer 29 is provided on the second plate side 18 on the front sides 28 of the protrusions 14. This layer 29 spans over the recesses 19 formed between the protrusions 14. This further layer 29 can be a net-like fabric, a fine-meshed fabric, a perforated fleece or similar. This further layer 29 is glued or welded to the front sides 28 of the protrusions 14.
The carrier plate 11 is used, for example, to decouple a surface covering 31 on a supporting surface 32. This is depicted in
Adhesive or mortar 34 is applied on the opposite first plate side 17 in order to fix the surface covering 31 to the carrier plate 11. The surface covering 31 can be formed from individual tiles or slabs, but also as a laminate made of resin or similar.
The carrier plate 11 has an increased load capacity or payload due to the plurality of protrusions 14 formed out of the central plane 16. Preferably, 9,000 protrusions per square metre or more than 20,000 protrusions per square metre are provided. The gradient of the conical wall sections of the protrusions 14 runs to a vertical of the central plane 16, preferably in a range between 10° and 20°. The protrusions 14 extending on both sides opposite the central plane 16 have a height of less than 5 mm. Preferably, the height of the protrusions on both sides of the central plane 16 is the same.
Number | Date | Country | Kind |
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10 2019 109 458.5 | Apr 2019 | DE | national |
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