Corrugated bottom buried pipe type radiant cooling plate

Abstract

The utility model discloses a corrugated bottom buried pipe type radiant cooling plate which comprises a corrugated bottom plate, a reinforcing mesh and heat exchange coils, the reinforcing mesh is laid on the upper end face of the corrugated bottom plate, the heat exchange coils are arranged on the reinforcing mesh at intervals, the two ends of each heat exchange coil are arranged side by side, pipe bodies of the heat exchange coils are arranged on the reinforcing mesh in a coiled mode, and the corrugated bottom buried pipe type radiant cooling plate is arranged on the corrugated bottom plate. A plurality of binding belts are arranged on a pipe body of the heat exchange coil pipe, the pipe body of the heat exchange coil pipe is fixed to the reinforcing mesh through the binding belts, a water collector and a water segregator are arranged on the lower end face of the corrugated bottom plate, and the two ends of the heat exchange coil pipe penetrate through the corrugated bottom plate and then are connected with the water collector and the water segregator respectively. The radiation cooling plate is simple in structure and reasonable in layout, the heat exchange area of the radiation cooling plate is effectively increased, the cooling capacity of the radiation cooling plate is improved, and the cooling capacity per unit area is improved.

Description

Technical Field

[0001] The utility model relates to a corrugated bottom buried pipe type radiant cooling panel. Background Art

[0002] The floor area of industrial workshops is generally more than several thousand square meters, and the building height is more than ten meters. For such large and tall spaces, if a full-room air conditioning system is adopted, the energy consumption of the air conditioning is quite severe. Moreover, the main load in industrial workshops is sensible heat load, and the air volume and cooling capacity required for air conditioning are very large. Therefore, the system is huge and the energy consumption is extremely high, and sometimes even exceeds the production energy consumption. Therefore, a all-air air conditioning system is mostly adopted in industrial workshops. Cold water is centrally supplied by a refrigeration machine room, and air is centrally processed by an air handling unit, and the generated cold air is transported into the workshop through a distribution air duct. In engineering, there are also cases where indoor air conditioning loads are treated by radiant ceiling panels. However, at present, when the radiant cooling panel is in use, condensation is likely to occur on its surface. At the same time, the existing conventional radiant ceiling panel has a complex process and a high cost. Content of the Utility Model

[0003] Aiming at the deficiencies of the prior art, the utility model provides a corrugated bottom buried pipe type radiant cooling panel, which has a simple structure and reasonable layout, effectively increases the heat exchange area of the radiant cooling panel, improves the cooling capacity of the radiant cooling panel, and improves the cooling capacity per unit area.

[0004] To achieve the above object, the utility model provides a corrugated bottom buried pipe type radiant cooling panel, which includes a corrugated bottom plate, a steel mesh and a heat exchange coil. The steel mesh is laid on the upper end surface of the corrugated bottom plate. The heat exchange coils are arranged at intervals on the steel mesh. The two ends of the heat exchange coils are arranged side by side. The body of the heat exchange coil is wound on the steel mesh. A plurality of binding bands are arranged on the body of the heat exchange coil and are fixed to the steel mesh through the binding bands. A water collector and a water distributor are arranged on the lower end surface of the corrugated bottom plate. The two ends of the heat exchange coil pass through the corrugated bottom plate and are respectively connected to the water collector and the water distributor.

[0005] The beneficial effect of such a setting is: After such an arrangement, through concrete pouring, a corrugated bottom buried pipe type radiant cooling panel is formed. When in use, it has a good heat exchange effect, effectively increases the heat exchange area of the radiant cooling panel, improves the cooling capacity of the radiant cooling panel, and improves the cooling capacity per unit area. At the same time, this structural layout is simple, the operation is convenient, the production and processing are convenient, and it has a good use effect.

[0006] As a further setting of the utility model, a through-hole seat is arranged on the corrugated bottom plate. An arc-shaped through-hole groove is arranged on the through-hole seat. The inner wall of the through-hole groove is smoothly arranged. The two ends of the heat exchange coil respectively pass through the corresponding through-hole grooves.

[0007] The beneficial effects of such a setting are as follows: By setting it in this way, the stability of the wiring is ensured. At the same time, it avoids the external erosion of the heat exchange coil at the weak bending position, extends the service life of the structure, and this structure is simple, easy to operate, and has good use effects.

[0008] As a further setting of the present utility model, a protective sleeve is wound around the end of the heat exchange coil.

[0009] The beneficial effects of such a setting are as follows: By setting it in this way, through the protective sleeve, the wear at the end of the heat exchange coil can be effectively prevented, the heat exchange stability of the heat exchange coil is ensured, and at the same time, the structure is simple, easy to implement, and has good use reliability.

[0010] As a further setting of the present utility model, a water collecting rack is arranged at the position of the corrugated top plate corresponding to the water collector, and a water distributing rack is arranged at the position of the corrugated top plate corresponding to the water distributor.

[0011] The beneficial effects of such a setting are as follows: By setting it in this way, the stability of the positions of the water collector and the water distributor is ensured, the reliability of the structure in use is ensured, the water flow can smoothly enter the pipeline, the use effect of the structure is improved, and at the same time, the structure is simple, easy to implement, and convenient to process.

[0012] As a further setting of the present utility model, the protective sleeve is fixed to the steel bar mesh by binding straps.

[0013] The beneficial effects of such a setting are as follows: By setting it in this way, the fastening of the protective sleeve is further realized, loosening is avoided, the positioning effect of the pipeline is ensured, and the reliability of the structure in use is ensured. Description of the Drawings

[0014] Figure 1 is the front view structural schematic diagram of the embodiment of the present utility model;

[0015] Figure 2 is the combined structural schematic diagram of the heat exchange coil and the steel bar mesh in the embodiment of the present utility model;

[0016] Figure 3 is the structural schematic diagram of the position where the heat exchange coil penetrates through the corrugated bottom plate in the embodiment of the present utility model;

[0017] Figure 4 is the combined structural schematic diagram of the heat exchange coil and the penetration seat in the embodiment of the present utility model;

[0018] Figure 5 is the layout structural schematic diagram of the heat exchange coil at the position with a beam or shear wall in the embodiment of the present utility model. Detailed Embodiments

[0019] The embodiment of the corrugated bottom buried pipe type radiant cooling panel of the present utility model is as followsFigures 1 to 4 As shown in the figure: it includes a corrugated bottom plate 1, a steel mesh 2 and heat exchange coils 3. The steel mesh 2 is laid on the upper end surface of the corrugated bottom plate 1. The heat exchange coils 3 are arranged at intervals on the steel mesh 2. The two ends of the heat exchange coils 3 are arranged side by side. The body of the heat exchange coils 3 is coiled on the steel mesh 2. A plurality of binding straps 31 are arranged on the body of the heat exchange coils 3 and fixed to the steel mesh 2 through the binding straps 31. A water collector 5 and a water distributor 6 are arranged on the lower end surface of the corrugated bottom plate 1. The two ends of the heat exchange coils 3 pass through the corrugated bottom plate 1 and are respectively connected to the water collector 5 and the water distributor 6. The beneficial effect of such a setting is: after such an arrangement, through concrete pouring, a corrugated bottom buried pipe type radiant cooling plate is formed. When in use, it has a good heat exchange effect, effectively increases the heat exchange area of the radiant cooling plate, improves the cooling capacity of the radiant cooling plate, improves the cooling capacity per unit area, and at the same time, this structural layout is simple, the operation is convenient, the production and processing are convenient, and it has a good use effect.

[0020] As a further setting of this embodiment, a through-hole seat 4 is arranged on the corrugated bottom plate 1. An arc-shaped through-hole groove is arranged on the through-hole seat 4. The inner wall of the through-hole groove is smoothly arranged. The two ends of the heat exchange coils 3 respectively pass through the corresponding through-hole grooves. The beneficial effect of such a setting is: through such a setting, the stability of the wire routing is ensured. At the same time, it is avoided that the heat exchange coils 3 are eroded by the outside at the weak bending positions, the service life of the structure is prolonged, and at the same time, this structure is simple, the operation is convenient, and it has a good use effect.

[0021] As a further setting of this embodiment, a protective sleeve 32 is wound around the end of the heat exchange coils 3. The beneficial effect of such a setting is: through such a setting, through the protective sleeve 32, the wear of the end of the heat exchange coils 3 can be effectively prevented, the heat exchange stability of the heat exchange coils 3 is ensured, and at the same time, the structure is simple, is conducive to implementation, and has good use reliability.

[0022] As a further setting of this embodiment, a water collecting frame is arranged at the position of the corrugated top plate corresponding to the water collector 5, and a water distributing frame is arranged at the position of the corrugated top plate corresponding to the water distributor 6. The beneficial effect of such a setting is: through such a setting, the stability of the positions of the water collector 5 and the water distributor 6 is ensured, the reliability of the structure in use is ensured, it is ensured that the water flow can smoothly enter the pipeline, the use effect of the structure is improved, and at the same time, the structure is simple, is conducive to implementation, and the processing is convenient.

[0023] As a further setting of this embodiment, the protective sleeve 32 is fixed to the steel mesh 2 through the binding strap 31. The beneficial effect of such a setting is: through such a setting, the fastening of the protective sleeve 32 is further realized, looseness is avoided, the positioning effect of the pipeline is ensured, and the reliability of the structure in use is ensured.

[0024] In this embodiment, the heat exchange coil 3 is a coil with an outer diameter of 16 mm, and the heat exchange coil 3 is laid at a spacing of 150 mm. The width of the corrugated bottom plate 1 is 825 mm, and the distance between the corrugations on the corrugated bottom plate 1 is 63.5 mm. The spacing of the binding straps 31 is 600 mm. When the heat exchange coil 3 passes through the corrugated bottom plate 1, a protective sleeve 4 is used for protection. As Figure 5 shown, when the heat exchange coil 3 passes through the lintel and shear wall, a protective sleeve 4 is provided, and the distances between the two ends of the protective sleeve 4 and the lintel and shear wall are 150 mm.

[0025] The above examples are only one of the preferred specific examples of the present invention, and the common changes and substitutions made by those skilled in the art within the scope of the technical solution of the present invention are included in the protection scope of the present invention.

Claims

1. A corrugated bottom buried tube type radiant cooling panel, characterized in that: It includes a corrugated base plate, a steel mesh and a heat exchange coil, wherein the steel mesh is laid on the upper end surface of the corrugated base plate, the heat exchange coil is arranged on the steel mesh at intervals, the two ends of the heat exchange coil are arranged side by side, the heat exchange coil body is coiled on the steel mesh, a plurality of binding straps are arranged on the heat exchange coil body and fixed to the steel mesh by the binding straps, a water collector and a water distributor are arranged on the lower end surface of the corrugated base plate, and the two ends of the heat exchange coil are respectively connected to the water collector and the water distributor after passing through the corrugated base plate.

2. The corrugated bottom buried tube type radiant cooling panel according to claim 1, characterized in that: The corrugated bottom plate is provided with a perforated seat, the perforated seat is provided with an arc-shaped perforated groove, the inner wall of the perforated groove is smoothly arranged, and the two ends of the heat exchange coil are respectively passed through the corresponding perforated grooves.

3. The corrugated bottom buried tube type radiant cooling panel according to claim 1, characterized in that: The end of the heat exchange coil is wrapped with a protective sleeve.

4. The corrugated bottom buried tube type radiant cooling panel according to claim 3, characterized in that: The corrugated top plate is provided with a water collecting frame at a position corresponding to the water collector, and the corrugated top plate is provided with a water distributing frame at a position corresponding to the water distributor.

5. The corrugated bottom buried tube type radiant cooling panel according to claim 3, characterized in that: The protective sleeve is fixed to the steel mesh by a binding belt.

Images