building element

Abstract

Building element (1) for arranging between two supports (2, 3) of a building section (20) of a building with at least one longitudinal support (4, 5) and / or with at least one cross support (6, 7, 8) arranged transversely to the longitudinal support (4, 5), characterized in that at least one clay plate (12) is arranged on the at least one longitudinal support (4, 5) and / or on the at least one cross support (6, 7, 8).

Description

[0001] The present invention relates to a building element for arranging between two beams of a building section of a building with at least one longitudinal beam and with at least one cross beam arranged transversely to the longitudinal beam.

[0002] DE 20 2007 013 299 U1 describes a building element.

[0003] The object of the present invention is to create a building element with which a pleasant indoor climate can be achieved.

[0004] The problem is solved by a building element, a building section, and a building having the features of the independent claims. Advantageous or preferred embodiments are each subject of a corresponding dependent claim.

[0005] A building element is proposed for placement between two beams of a building section. The building element serves to regulate the temperature and / or adjust the building's indoor climate.

[0006] The building element comprises at least one longitudinal beam. Additionally or alternatively, the building element comprises at least one cross beam arranged transversely to the longitudinal beam.

[0007] At least one clay panel is arranged on at least one longitudinal beam and / or at least one cross beam. By arranging the clay panel on the longitudinal beam and / or cross beam, improved heat storage and dissipation is achieved, resulting in a balanced indoor climate. The clay panel ensures natural regulation of temperature and humidity in the room. Furthermore, the use of clay as a building material is environmentally friendly.

[0008] The arrangement of the building element between existing supports makes the invention particularly suitable for building renovations. This allows the building element to be integrated without extensive reconstruction work. This enables subsequent improvement and / or upgrading of the thermal properties of ceiling or wall structures in existing buildings. Additionally or alternatively, the building element can also be used in new buildings.

[0009] It is advantageous if the building element is a ceiling element and / or a wall element. The flexible design as a ceiling or wall element enables versatile application in different parts of the building and improves the integration of heating and / or cooling systems. This allows heat or cooling to be delivered directly into the room, increasing comfort.

[0010] It is advantageous if the building element includes at least one temperature control unit. The temperature control unit enables targeted control of the temperature of the building element and thus heating and / or cooling the building while simultaneously maintaining a pleasant indoor climate thanks to the clay panel. This contributes to energy efficiency and comfort in the room.

[0011] It is advantageous if the temperature control unit is an electric heating unit. The use of an electric heating unit allows for fast response times and precise temperature control, which optimizes energy consumption. Furthermore, the electric heating unit can be integrated in a space-saving manner. The electric heating unit can be designed, for example, as a heating foil or a flat heating element, allowing the building to be heated across its entire surface.

[0012] According to an advantageous development of the invention, the temperature control unit comprises a pipe system for the flow of a heat transfer medium. The pipe system enables efficient heat transfer through the circulating heat transfer medium, ensuring uniform temperature control of the building element. Heat transfer media that are warmer or colder than the building temperature can flow through the pipe system for heating or cooling purposes. The heat transfer medium can be a liquid, such as, in the simplest case, water. Alternatively, oils or similar substances capable of transporting heat can also be used.

[0013] Furthermore, it is advantageous if the pipe system comprises at least one pipe. The heat transfer medium can flow through this pipe. Advantageously, the pipe system comprises several pipes, which can also be interconnected. Alternatively, the pipe system can also comprise just one pipe laid in a meandering pattern. The pipe(s) guide the heat transfer medium through the building element in a targeted manner, thus ensuring effective heat or cold transfer. This allows for flexible temperature adjustment.

[0014] Advantageously, the at least one cross member comprises at least one cross member groove. The pipe system and / or the at least one pipe is arranged or can be arranged in the cross member groove. The cross member groove serves to securely accommodate the pipe system, thereby protecting the pipes and simplifying assembly. This contributes to a stable and durable installation.

[0015] Furthermore, it is advantageous if the building element includes at least one radiating unit, by means of which heat can be radiated and / or conducted. The radiating unit ensures targeted heat distribution into the room and / or to the clay panel, thereby improving the thermal efficiency of the building element. The radiant heat enables comfortable and even heating of the room. With the help of the radiating unit, heat can be exchanged more effectively between the temperature control unit and the room and / or the clay panel.

[0016] It is advantageous if the radiation unit is designed to be flat, so that heat flow between the temperature control unit or radiation unit and the room and / or the clay plate is improved.

[0017] It is advantageous if the at least one radiating unit is arranged on the at least one longitudinal beam and / or the at least one cross beam. The arrangement of the radiating unit on the beams enables direct heat transfer from the building element into the room, which reduces heat loss and increases heating efficiency.

[0018] It is advantageous if at least one temperature control unit is arranged on top of the radiating unit. Arranging the temperature control unit on top of the radiating unit improves heat conduction, resulting in even temperature distribution and efficient energy utilization. The thermal radiation, or heat from the temperature control unit, reaches the radiating unit directly and is then conducted into the room.

[0019] According to an advantageous development of the invention, the radiation unit is arranged between the at least one temperature control unit and the at least one longitudinal member and / or the at least one cross member. This arrangement optimizes the heat transfer from the heat transfer medium via the temperature control unit to the radiation unit and thus into the room, thereby achieving high thermal efficiency.

[0020] It is advantageous if the radiant unit incorporates the pipe system. Integrating the pipe system into the radiant unit enables a compact design and ensures effective heat transfer to the radiant surface.

[0021] Furthermore, it is advantageous if the radiation unit comprises at least one, in particular several, receiving grooves. The pipe system and / or the at least one pipe is arranged in the receiving groove. The receiving groove ensures secure guidance and fixation of the pipe system, which facilitates assembly and improves the stability of the structure. The arrangement of the pipe system and / or the pipe in the receiving groove offers a compact design, while also enabling prior assembly of the radiation unit with the pipe system and / or pipe.

[0022] In addition, the radiating unit comprises several radiating elements. Each radiating element includes a groove for accommodating a pipe. The modular design with multiple radiating elements allows for flexible adaptation to different requirements, such as different widths and / or lengths of the building element, and facilitates the repair or replacement of individual components.

[0023] It is advantageous if the radiating unit is arranged in the at least one crossbeam groove and / or the radiating elements are each arranged in a crossbeam groove. The arrangement in the crossbeam groove protects the radiating unit and ensures stable fastening, which increases the durability of the building element. In this case, the radiating unit and / or the radiating elements can also be arranged partially in the crossbeam groove.

[0024] It is advantageous if the radiating unit and / or the radiating elements are made of metal. Metal as a material ensures good thermal conductivity and heat reflection, which increases the efficiency of heat radiation. Furthermore, the mechanical strength of metal ensures a robust construction.

[0025] Furthermore, it is advantageous if the radiating unit and / or the radiating elements are arranged, in particular screwed, on the at least one cross member. The firm attachment to the cross members ensures secure positioning of the radiating unit and minimizes vibrations or displacement, thus improving functionality.

[0026] It is advantageous if the building element comprises at least one fixing element. The fixing element secures the at least one cross member to at least one longitudinal member. Additionally or alternatively, it is advantageous if the fixing element can be fixed to the beam, so that the at least one cross member can be fixed to the beam. The fixing element ensures a stable connection between the cross member and the longitudinal member, which increases the mechanical stability of the building element and shortens assembly times.

[0027] It is advantageous if the building element includes two longitudinal beams. One longitudinal beam can be arranged on each beam. The use of two longitudinal beams allows for even load distribution and improves the load-bearing capacity of the building element.

[0028] It is advantageous if the building element includes several cross beams. Multiple cross beams increase structural stability and provide more attachment points for the temperature control unit and the radiant unit, simplifying installation.

[0029] It is advantageous if the building element includes electrical cables and / or conduits for electrical cables. These allow for simple and safe routing of the electrical system within the building element. This simplifies the installation of electrical systems and ensures space-saving, protected routing of the cables. Furthermore, boxes for sockets or light switches can also be integrated.

[0030] The multiple longitudinal and transverse beams also allow the building element to be designed in a frame-like manner, allowing it to be prefabricated and transported to the building site for renovation and / or new construction. At least the longitudinal and transverse beams can be assembled in this state. The temperature control unit, the radiant unit, and / or the clay panel can also be pre-attached to these beams. This prefabrication enables cost-effective assembly of the building element in the factory. Assembly in the building is also simplified.

[0031] Furthermore, a building section of a building with at least two beams and at least one building element arranged between the at least two beams is proposed. The arrangement of the building element between two beams enables efficient integration into the building structure and optimizes thermal utilization.

[0032] The building element is preferably designed according to a feature of the preceding and / or following description, wherein the said features can be present individually or in any combination.

[0033] It is advantageous if a cavity between the at least two supports and the building element is filled with clay and preferably an additive. Filling the cavity with clay improves the thermal mass and increases heat storage, thereby achieving longer heat dissipation. Clay can also improve the indoor climate and is itself an environmentally friendly building material. The additive can improve mechanical stability and moisture regulation.

[0034] It is advantageous if the clay, and preferably the additive, are filled up to the top of the beams. Complete backfilling up to the top of the beam ensures consistent thermal and moisture-regulating properties of the clay.

[0035] It is advantageous if at least two of the supports are ceiling supports and / or wall supports. The use of ceiling supports or wall supports allows for flexible application of the building element in various components and ensures efficient integration of heating and cooling systems.

[0036] Furthermore, it is advantageous if the building section is a ceiling and / or wall section. Designing it as a ceiling or wall section facilitates the installation and use of the temperature control unit and radiant unit for area temperature control.

[0037] It is advantageous if the at least one longitudinal beam is arranged, in particular screwed, on a longitudinal side of the beam. The fastening to the longitudinal side of the beam enables stable installation and a secure connection, which increases the durability of the building element.

[0038] It is advantageous to have a longitudinal beam on each beam. This arrangement on both beams ensures symmetrical load distribution and improves mechanical stability.

[0039] Furthermore, it is advantageous if the at least one cross member extends between the two facing longitudinal sides of the beams. Positioning the cross member between the longitudinal sides of the beams allows for optimal accommodation of the temperature control unit and the radiation unit and improves structural strength.

[0040] It is advantageous if at least one clay panel is positioned between the two facing longitudinal sides of the beams. The position of the clay panel ensures effective use of the thermal mass in the room and contributes to the regulation of temperature and humidity.

[0041] It is advantageous if the at least one clay panel is arranged on the underside of the beams. This arrangement on the underside of the beam supports heat transfer into the room and improves thermal comfort. Furthermore, the surface area of ​​the clay panel is increased, as it also covers the underside of the beams.

[0042] It is advantageous if the at least one longitudinal beam and / or the at least one cross beam are arranged such that their undersides are flush with the undersides of the beams. This flush arrangement ensures a homogeneous surface of the building element, for example, the ceiling or wall.

[0043] The previous section refers to the underside of the beam. This, of course, only applies if the building section is a ceiling. If the building section is a wall, the clay slab faces the room, and the beam then has a beam end that also faces the room.

[0044] Also proposed is a building with at least one building section designed according to at least one feature of the preceding and / or subsequent description. Alternatively or additionally, it is advantageous if the building comprises at least one building element designed according to at least one feature of the preceding and / or subsequent description. The integration of one or more building elements according to the preceding description enables improved thermal control of the building and contributes to increasing user comfort.

[0045] Further advantages of the invention are described in the following exemplary embodiments. They show: Fig. 1 a perspective view of a building element and a building section, Fig. 2 a sectional view of the building element between the two beams and with a temperature control unit, Fig. 3 a sectional view of the building element between the two supports with a temperature control unit and a radiation unit, Fig. 4 a sectional view of the cross member with temperature control unit and radiation unit and Fig. 5 a plan view of the building element between the two beams.

[0046] The Fig. The embodiment illustrated in Figure 1 shows a building element 1 arranged between a first support 2 and a second support 3 of a building section 20. The building element 1 serves to regulate the temperature and / or adjust the indoor climate of the building.

[0047] The building element 1 comprises at least a first longitudinal beam 4 and a second longitudinal beam 5. Additionally or alternatively, the building element 1 comprises several cross beams 6 - 8, of which Fig. 1 shows a first cross member 6, a second cross member 7, and a third cross member 8. The cross members 6-8 are oriented in a transverse direction 10. The longitudinal members 4, 5 are oriented in the longitudinal direction 9. A vertical direction 11 is also shown here. Here, the building element 1 is shown as a ceiling element. Additionally or alternatively, the building element 1 can also be a wall element. In this case, the building element 1 shown here is rotated. The members 2, 3 shown here are ceiling members in this exemplary embodiment. In an alternative exemplary embodiment, they can also be wall members that are arranged vertically.

[0048] At least one clay panel 12 is arranged on at least one longitudinal beam 4, 5 and / or on at least one cross beam 6-8. The arrangement of the clay panel 12 on the longitudinal beam 4 and / or on the cross beams 6-8 improves heat storage and heat dissipation, resulting in a balanced indoor climate. The clay panel 12 ensures natural regulation of temperature and humidity in the room. Furthermore, the use of clay as a building material is ecologically advantageous. In this exemplary embodiment, the clay panel 12 is arranged between the beams 2, 3.

[0049] The building element 1 of the present embodiment comprises at least one temperature control unit 13, which serves to specifically control the temperature of the building element 1. The temperature control unit 13 enables the heating and / or cooling of the building while simultaneously maintaining a pleasant indoor climate thanks to the clay panel 12. This contributes to energy efficiency and comfort. The temperature control unit 13 can be designed, for example, as an electric heating unit, for example in the form of a flat unit.

[0050] According to Fig. 1, however, the temperature control unit 13 comprises a pipe system 14 having at least one pipe 15. The pipe system 14 enables the flow of a heat transfer medium, thereby achieving uniform temperature control of the building element 1. The pipe system 14 guides the heat transfer medium in a targeted manner through the building element 1, thus ensuring effective heat or cold transfer. A warm heat transfer medium can flow through the pipe system 14 for heating purposes, transporting heat to the temperature control unit 13. Alternatively, a cold heat transfer medium can flow through the pipe system 14 for cooling purposes, transporting heat away from the temperature control unit 13.

[0051] Furthermore, a cavity 18 is shown here, which is formed between the building element 1 and the beams 2, 3 and which can be filled with clay. Filling the cavity 18 with clay improves the thermal mass and increases heat storage, which contributes to longer heat dissipation or heat absorption. This improves the thermal efficiency of the building. Furthermore, the clay can improve the moisture regulation of the building element 1 and thus the indoor climate.

[0052] The supports 2, 3 each have a support longitudinal side 19a and 19b, wherein according to the present embodiment the longitudinal supports 4, 5 are arranged on these support longitudinal sides 19a, 19b.

[0053] The building element 1 is particularly suitable for use in a building section 20 that has ceiling beams and / or wall beams as supports 2 and 3. The flexible design of the building element 1 as a ceiling or wall element enables versatile application and improves the integration of the temperature control unit 13 and the regulation of the room climate.

[0054] The longitudinal beams 4 and 5 as well as the cross beams 6-8 can also be prefabricated, for example, in the factory, so that the building element 1 is suitable for easy assembly and integration into the building, particularly during house renovations or new construction. Furthermore, the temperature control unit 13 and / or the clay panel 12 and / or the radiation unit 25 explained below can be optionally arranged on the frame-like structure of the building element 1.

[0055] Features that have already been described in at least one previous figure cannot be explained again for the sake of simplicity. Furthermore, features can also be described in this or in at least one of the subsequent figures. Furthermore, for the sake of simplicity, the same reference symbols are used for the same features. Moreover, for the sake of clarity, not all features can be shown and / or provided with a reference symbol in the following figures. However, features shown in one or more of the previous figures can also be present in this or in one or more of the subsequent figures. Furthermore, for the sake of clarity, features can also be shown and / or provided with a reference symbol in this or in one or more of the subsequent figures.Nevertheless, features which are only shown in one or more of the subsequent figures may already be present in this or a previous figure.

[0056] The Fig. The embodiment illustrated in Figure 2 shows a sectional view of the building element 1, which is arranged between the first support 2 and the second support 3 of a building section 20. The building element 1 serves for temperature control, for example for heating and cooling, and / or for adjusting the indoor climate of the building.

[0057] Here, the first longitudinal member 4 and the second longitudinal member 5 are shown, which are arranged on the beams 2 and 3, respectively. Between the longitudinal members 4 and 5, the first cross member 6 is shown, which is aligned in the transverse direction 10.

[0058] At least one clay panel 12 is arranged on at least one longitudinal beam 4 and / or at least one cross beam 6. Due to its thermal properties, the clay panel 12 ensures improved heat storage and dissipation, resulting in a balanced indoor climate. Furthermore, the clay panel 12 naturally regulates the temperature and humidity in the room. The use of clay as a building material is also ecologically advantageous.

[0059] Building element 1 includes the temperature control unit 13, which is arranged on the first cross member 6. The temperature control unit 13 enables the targeted control of the temperature of building element 1 and thus contributes to the heating and / or cooling of the building. This increases energy efficiency and comfort.

[0060] The temperature control unit 13 comprises the pipe system 14, which has a plurality of pipes 15. The pipe system 14 is arranged in a cross member groove 22 of the cross member 6. The cross member groove 22 serves to securely accommodate the pipe system 14 and protects the pipes 15, which simplifies assembly and increases the stability of the installation.

[0061] The clay panel 12 is arranged here on the room-facing side 16 of the building element 1. The clay panel 12 thus faces the room, regardless of whether the building element 1 is a ceiling or a wall element.

[0062] Also shown is the cavity 18, which is filled with clay 21 and, if necessary, an additive. This increases the moisture-regulating effect of building element 1.

[0063] In addition, the filling with clay 21 serves as an absorption element for sound.

[0064] The Fig. The embodiment shown in Figure 3 shows a further sectional view of the building element 1.

[0065] The building element 1 again includes the temperature control unit 13, which is arranged on the first cross member 6. The temperature control unit 13 includes the pipe system 14 with the pipes 15.

[0066] Furthermore, the building element 1 shown here comprises a radiation unit 25, which is arranged on the side 16 of the building element 1 facing the room or faces the side 16 facing the room. In this exemplary embodiment, the radiation unit 25 comprises a plurality of radiation elements 26, each of which has a receiving groove 27 for receiving a pipe 15. The arrangement of the pipes 15 in the receiving grooves 27 ensures secure guidance and fixing of the pipe system 14. This facilitates assembly and increases the stability of the installation. The radiation unit 25 enables direct heat transfer into the room, which increases thermal efficiency. It is advantageous if the radiation unit 25 is made of metal, which has good heat radiation and heat reflection. In addition, the metal has very good thermal conductivity, so that the heat can be effectively transferred from the temperature control unit 13 to the clay panel 12.The radiating unit 25 can also be a heat-conducting unit. The radiating elements 26 can therefore also be heat-conducting elements. The radiating unit 25 or the heat-conducting unit serves to transfer heat between the clay plate 12 and the temperature control unit 13. For this reason, the radiating unit 25 is also designed to be flat.

[0067] The clay panel 12 is arranged on the room-facing side 16 of building element 1 and contributes to improving heat storage and regulating the indoor climate. The clay panel 12 ensures natural temperature and humidity regulation.

[0068] The arrangement of the temperature control unit 13 on the radiant unit 25 results in improved heat conduction and even temperature distribution. The combination of pipe system 14, radiant unit 25, and clay plate 12 enables efficient and sustainable temperature control of building element 1.

[0069] The arrangement of the radiation unit 25 and the clay plate 12 on the side 16 facing the room ensures effective heat emission and a balanced room climate.

[0070] As in the Fig. 2 and Fig. 3, the clay plate 12 completely covers the supports 2, 3 on the side 16 facing the room. Fig. 1 shows the alternative in which the clay plate 12 is arranged between the supports 2, 3.

[0071] The Fig. The embodiment shown in Figure 4 shows a sectional view of a first cross member 6 with a tempering unit 13 and a radiation unit 25 arranged thereon.

[0072] The temperature control unit 13 is arranged on the first cross member 6 and on the other cross members 7, 8. It comprises the pipe system 14, which has several pipes 15. The pipes 15 are arranged in receiving grooves 27 of the radiation unit 25. The receiving grooves 27 serve to securely accommodate the pipes 15 and ensure a firm fixation of the pipe system 14 to the cross member 6.

[0073] The radiating unit 25 enables targeted heat release into the room and / or effective heat transfer to the clay panel 12 (not shown here) by efficiently radiating the heat generated by the temperature control unit 13 into the room and / or distributing or transmitting it to the clay panel 12. This achieves high thermal efficiency.

[0074] As can be seen from the example of Fig. As can be seen from Figure 4, the arrangement of the pipe system 14 in the receiving grooves 27 of the radiation unit 25 ensures optimal heat transfer and secure fastening of the pipes 15. This leads to uniform temperature control and improves the functionality of the building element 1.

[0075] The Fig. The embodiment shown in Figure 5 shows a plan view of the building element 1, which is arranged between the first support 2 and the second support 3.

[0076] In this embodiment, two longitudinal beams 4, 5 and three cross beams 6-8 are shown. Depending on the design, the building element 1 can also have more or fewer longitudinal beams 4, 5 and / or cross beams 6-8.

[0077] Also visible here is the pipe system 14 of the temperature control unit 13. The pipe system 14 can be designed in a meandering pattern. A single pipe 15 or multiple pipes 15 can be used.

[0078] The embodiment of the Fig. 5 thus illustrates the frame-shaped design of the building element 1 with longitudinal beams 4, 5 and cross beams 6 - 8 and a pipe system 14 for efficient temperature control. List of reference symbols 1 building element 2 first carrier 3 second carrier 4 first longitudinal member 5 second longitudinal member 6 first cross member 7 second cross member 8 third cross member 9 Longitudinal direction 10 Transverse direction 11 Vertical direction 12 clay slabs 13 Temperature control unit 14 Pipe system 15 pipe 16 room-facing side 17 side facing away from the room 18 cavity 19 Longitudinal side of the beam 20 building section 21 Clay 22 Cross member groove 23 first fixing element 24 second fixing element 25 Radiation unit 26 Radiating element 27 Underside of the carrier 28 Carrier top 29 mounting groove QUOTES CONTAINED IN THE DESCRIPTION

[0000] This list of documents submitted by the applicant was generated automatically and is included solely for the convenience of the reader. This list is not part of the German patent or utility model application. The DPMA assumes no liability for any errors or omissions. Cited patent literature

[0000] DE 20 2007 013 299 U1

[0002]

Claims

[1] Building element (1) for arranging between two beams (2, 3) of a building section (20) of a building with at least one longitudinal beam (4, 5) and / or with at least one cross beam (6, 7, 8) arranged transversely to the longitudinal beam (4, 5), characterized by that at least one clay plate (12) is arranged on at least one longitudinal member (4, 5) and / or on at least one transverse member (6, 7, 8). [2] Building element according to the previous claim, characterized by that the building element (1) is a ceiling element and / or a wall element. [3] Building element according to one of the preceding claims, characterized by that the building element (1) comprises at least one temperature control unit (13). [4] Building element according to one of the preceding claims, characterized by that the temperature control unit (13) is an electrical heating unit. [5] Building element according to one of the preceding claims, characterized bythat the temperature control unit (13) comprises a pipe system (14) for the flow of a heat transfer medium. [6] Building element according to one of the preceding claims, characterized by that the pipe system (14) comprises at least one pipe (15) through which the heat transfer medium can flow. [7] Building element according to one of the preceding claims, characterized by that the at least one cross member (6, 7, 8) comprises at least one cross member groove (22) in which the pipe system (14) and / or the at least one pipe (15) is and / or can be arranged. [8] Building element according to one of the preceding claims, characterized by that the building element (1) comprises at least one radiation unit (25) by means of which heat can be radiated and / or conducted. [9] Building element according to one of the preceding claims, characterized bythat the at least one radiation unit (25) is arranged on the at least one longitudinal member (4, 5) and / or the at least one cross member (6, 7, 8). [10] Building element according to one of the preceding claims, characterized by that the at least one tempering unit (13) is arranged on the radiation unit (25). [11] Building element according to one of the preceding claims, characterized by that the radiation unit (25) is arranged between the at least one temperature control unit (13) and the at least one longitudinal member (4, 5) and / or the at least one cross member (6, 7, 8). [12] Building element according to one of the preceding claims, characterized by that the pipe system (14) is accommodated by the radiation unit (25). [13] Building element according to one of the preceding claims, characterized bythat the radiation unit (25) comprises at least one, in particular several, receiving grooves (29), wherein the pipe system (14) and / or the at least one pipe (15) is arranged in the receiving groove (29). [14] Building element according to one of the preceding claims, characterized by that the radiation unit (25) comprises a plurality of radiation elements (26), each of which comprises a receiving groove (29) for receiving a pipe (15). [15] Building element according to one of the preceding claims, characterized by that the radiating unit (25) is arranged in the at least one cross member groove (22) and / or the radiating elements (26) are each arranged in a cross member groove (22). [16] Building element according to one of the preceding claims, characterized by that the radiating unit (25) and / or the radiating elements (26) are made of metal. [17] Building element according to one of the preceding claims, characterized bythat the radiating unit (25) and / or the radiating elements (26) are arranged, in particular screwed, on the at least one cross member (6, 7, 8). [18] Building element according to one of the preceding claims, characterized by that the building element (1) comprises at least one fixing element (23, 24) by means of which the at least one cross member (6, 7, 8) is fixed to the at least one longitudinal member (4, 5) and / or which can be fixed to the member (2, 3). [19] Building element according to one of the preceding claims, characterized by that the building element (1) comprises two longitudinal beams (4, 5), wherein one longitudinal beam (4, 5) can be arranged on a beam (2, 3). [20] Building element according to one of the preceding claims, characterized by that the building element (1) comprises several cross beams (6, 7, 8). [21] Building element according to one of the preceding claims, characterized bythat the building element (1) comprises electrical cables and / or conduits for electrical cables. [22] Building section (20) of a building with at least two carriers (2, 3) and with at least one building element (1) arranged between the at least two supports (2, 3), characterized by , that the building element (1) is designed according to at least one of the preceding claims. [23] Building section according to the previous claim, characterized by that a cavity (18) between the at least two supports (2, 3) and the building element (1) is filled with clay (21) and preferably an additive. [24] Building section according to one of the preceding claims, characterized by that the clay (21) and preferably the additive are filled up to a support top side (28) of the supports (2, 3). [25] Building section according to one of the preceding claims, characterized bythat the at least two supports (2, 3) are ceiling supports and / or wall supports. [26] Building section according to one of the preceding claims, characterized by that the building section (20) is a ceiling part and / or a wall part. [27] Building section according to one of the preceding claims, characterized by that the at least one longitudinal member (4, 5) is arranged, in particular screwed, on a longitudinal side (19) of the carrier (2, 3). [28] Building section according to one of the preceding claims, characterized by that a longitudinal beam (4, 5) is arranged on each beam (2, 3). [29] Building section according to one of the preceding claims, characterized by that the at least one cross member (6, 7, 8) extends between the two mutually facing longitudinal sides (19) of the supports (2, 3). [30] Building section according to one of the preceding claims, characterized bythat the at least one clay plate (12) is arranged between the two mutually facing longitudinal sides (19) of the supports (2, 3). [31] Building section according to one of the preceding claims, characterized by that the at least one clay plate (12) is arranged on a support underside (27) of the supports (2, 3). [32] Building section according to one of the preceding claims, characterized by that the at least one longitudinal member (4, 5) and / or the at least one transverse member (6, 7, 8) are arranged such that their undersides are flush with the undersides (27) of the supports (2, 3). [33] Building with at least one building section (20) designed according to at least one of the preceding claims and / or with at least one building element (1) designed according to at least one of the preceding claims.

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