Heat dissipation structure for concrete pouring

Abstract

The utility model relates to the field of buildings, in particular to a heat dissipation structure for concrete pouring, which comprises a base assembly. The supporting assembly is arranged on the base assembly; the first heat dissipation pipeline is arranged on the base assembly; the second heat dissipation pipeline is arranged on the supporting assembly, and one end of the second heat dissipation pipeline communicates with one end of the first heat dissipation pipeline; and the vacuum assembly comprises a connecting pipeline and a vacuum sucking pump, an input port of the vacuum sucking pump communicates with one end of the connecting pipeline, and the other end of the connecting pipeline communicates with the other end of the first heat dissipation pipeline. The pipe network with good heat conduction performance and the vacuum assembly for accelerating air flow are arranged on the concrete frame reinforcing mesh, the heat exchange efficiency is improved, and therefore the heat dissipation efficiency in the concrete foundation is improved, it is guaranteed that all parts of the concrete foundation dissipate heat stably, and the quality and strength of concrete are improved.

Description

Technical Field

[0001] The utility model relates to the field of foundation construction of wind turbine generator sets, in particular to a heat dissipation structure used for concrete pouring. Background Art

[0002] Concrete has the characteristics of abundant raw materials, low price and simple production process, which makes its usage more and more. At the same time, concrete also has the characteristics of high compressive strength, good durability and a wide range of strength grades. These characteristics make it widely used. It is not only used in various civil engineering projects, but also in the wind power generation industry, machinery industry, ocean development and geothermal engineering. Concrete is also an important material.

[0003] Large wind turbines require a solid concrete foundation. The concrete foundations of existing large wind turbines mostly adopt a circular expansion type. In the early construction, construction workers need to build a concrete frame according to the designed construction drawings. After the concrete frame is built, construction workers can pour the mixed concrete into the concrete frame. After the concrete pouring is completed, it is necessary to wait for the concrete to harden and form a stable circular expansion concrete foundation. The concrete hardens and forms after pouring. This process requires the reaction of cement and other materials. The reaction heat generated will cause the concrete temperature to rise. If the heat is not dissipated in time, the temperature may reach a peak, resulting in problems such as reduced concrete strength and cracking. Therefore, the heat needs to be dissipated in time after the concrete is poured.

[0004] In the prior art, heat dissipation methods for circular expanded concrete foundations usually achieve heat dissipation by reducing the temperature through atmospheric flow. For example, bamboo poles are inserted between the concrete frame steel mesh to increase the ventilation volume of the concrete, which is conducive to heat dissipation through atmospheric flow. However, its disadvantages are: the pore size of the bamboo poles is small, resulting in low ventilation efficiency. At the same time, the bamboo poles themselves are made of wood, which has poor thermal conductivity and cannot quickly exchange heat with the air inside the bamboo poles. As a result, the heat near the center of the concrete frame steel mesh cannot be dissipated in time, resulting in problems such as reduced strength and cracking inside the concrete foundation. Utility Model Content

[0005] The utility model provides a heat dissipation structure for concrete pouring, which improves the heat exchange efficiency by arranging a pipe network with good thermal conductivity and a vacuum component that accelerates air flow in the concrete frame steel mesh, thereby accelerating the heat dissipation efficiency in the concrete foundation, ensuring stable heat dissipation in various parts of the concrete foundation, and improving the quality and strength of the concrete.

[0006] To achieve the above object, the utility model provides a heat dissipation structure for concrete pouring, comprising: a base assembly, the base assembly comprising a laying base and a blocking member, the laying base being provided with a mounting groove;

[0007] A support assembly, the support assembly being arranged on the base assembly, the support assembly comprising a clamping member and a support member, the clamping member being arranged at one end of the laying base, and the support member being used to support the clamping member;

[0008] a first heat dissipation pipeline, the first heat dissipation pipeline being arranged in the installation groove through the blocking member;

[0009] a second heat dissipation pipeline, the second heat dissipation pipeline being provided on the clamping member, one end of the second heat dissipation pipeline being connected to one end of the first heat dissipation pipeline;

[0010] A vacuum component includes a connecting pipeline and a vacuum pump, wherein the input port of the vacuum pump is connected to one end of the connecting pipeline, and the other end of the connecting pipeline is connected to the other end of the first heat dissipation pipeline.

[0011] Furthermore, the heat dissipation structure for concrete pouring also includes a blocking groove, which is arranged on the inner wall of the installation groove, and the blocking groove is located above the installation groove. The blocking part is provided with an insert block, and the blocking groove cooperates with the insert block. The cross-section of the installation groove is semicircular.

[0012] Furthermore, a socket is provided at one end of the laying base, and a thread is provided in the socket.

[0013] Furthermore, the fastener includes a support rod and an auxiliary fixing block, the auxiliary fixing block includes a first mounting block and a first insertion block, the number of the support rods is the same as the number of the sockets, one end of the support rod is threadedly connected to the socket, the first mounting block and the first insertion block are both provided with a first guide hole, the support rod passes through the first guide hole, a sliding groove is provided at the side end of the first mounting block, a fixing groove is provided at the end of the sliding groove, the first insertion block is provided with a plug, the plug of the first insertion block passes through the sliding groove and is inserted into the fixing groove, the first mounting block and the first insertion block are both provided with a semicircular auxiliary fixing half ring, after the first insertion block is inserted into the first mounting block, the two auxiliary fixing half rings are combined into an auxiliary fixing circular ring.

[0014] Furthermore, the support member includes a support column, a support pad and a clamping column, the support column is provided with a plurality of first fixing holes, the support pad is in a step shape, the side end of the support pad is provided with a second fixing hole, the support pad is provided with a second guide hole and a third guide hole, the second guide hole is perpendicular to the second fixing hole, the third guide hole is connected to the second fixing hole, the third guide hole of the support pad passes through the support column, the clamping column passes through the first fixing hole and the second fixing hole, thereby fixing the support pad on the support column, the second guide hole of the support pad passes through the support rod, and the support pad is located below the auxiliary fixing block.

[0015] Furthermore, the heat dissipation structure used for concrete pouring also includes a water spray assembly, which includes a water tank, a water tank base and a water supply component. The water tank base is arranged at the bottom of the water tank, the water tank base is arranged at one end of the support column, and the other end of the support column is arranged on the ground. The water supply component is connected to the water tank, and a plurality of high-pressure nozzles are arranged on the outer wall of the water tank.

[0016] Furthermore, the heat dissipation structure for concrete pouring also includes a cooling pipeline. A hollow cavity is provided in the water tank. The cooling pipeline passes through the hollow cavity of the water tank. A water inlet is provided at the top of the water tank. The water delivery component includes a water delivery pool and a water delivery pump. The water outlet end of the water delivery pump is connected to the water inlet. The water inlet end of the water delivery pump is provided in the water delivery pool. One end of the cooling pipeline is connected to the other end of the second heat dissipation pipeline.

[0017] Compared with the prior art, the heat dissipation structure for concrete pouring according to the embodiment of the present invention, by arranging a base assembly, a support assembly, a first heat dissipation pipeline, a second heat dissipation pipeline and a vacuum assembly in the concrete model, after the concrete is poured and covered, the first heat dissipation pipeline and the second heat dissipation pipeline are located at the center of the concrete pouring setting, which is convenient for transferring the heat generated by the reaction heat of the concrete to the first heat dissipation pipeline and the second heat dissipation pipeline, thereby heating the air in the first heat dissipation pipeline and the second heat dissipation pipeline. At this time, by connecting the vacuum assembly to the other end of the first heat dissipation pipeline, the outside air at the other end of the second heat dissipation pipeline is sucked into the second heat dissipation pipeline, so that the external air flows through the second heat dissipation pipeline and the first heat dissipation pipeline into the vacuum assembly. At this time, the circulating gas takes away the heat in the second heat dissipation pipeline and the first heat dissipation pipeline, thereby realizing heat dissipation inside the concrete foundation, improving the strength of the concrete foundation, and reducing the risk of concrete cracking. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic diagram of the overall cross-sectional structure of a heat dissipation structure for concrete pouring according to the present invention;

[0019] Figure 2This is a schematic diagram of the overall structure of the connection between the first heat dissipation pipeline and the second heat dissipation pipeline of a heat dissipation structure for concrete pouring of the utility model;

[0020] Figure 3 This is a cross-sectional schematic diagram of a first heat dissipation pipeline installed on a laying base of a heat dissipation structure for concrete pouring according to the present invention;

[0021] Figure 4 This is a structural schematic diagram of the installation of an auxiliary fixing block of a heat dissipation structure for concrete pouring according to the present invention;

[0022] Figure 5 This is a schematic diagram of the cross-sectional structure of the support assembly installation of a heat dissipation structure for concrete pouring according to the present invention;

[0023] Figure 6 A schematic diagram of the cross-sectional structure of a water spray assembly of a heat dissipation structure for concrete pouring according to the present invention; and

[0024] Figure 7 The utility model is a schematic top view of the structure of an annular water inlet pipeline in a water spray assembly of a heat dissipation structure for concrete pouring.

[0025] Reference numerals:

[0026] 1000. Base assembly; 1100. Laying base; 1110. Mounting channel; 1120. Blocking slot; 1130. Socket; 1200. Blocking member; 1210. Insert block;

[0027] 2100. Fastener; 2110. Support rod; 2120. Auxiliary fixing block; 2121. First mounting block; 21211. Sliding slot; 21212. Fixing slot; 2122. First insertion block; 21221. Plug; 2123. First guide hole; 2124. Auxiliary fixing ring; 2125. Locking hole;

[0028] 2200. Support member; 2210. Support column; 2211. First fixing hole; 2220. Support pad; 2221. Second fixing hole; 2222. Second guide hole; 2223. Third guide hole; 2230. Clamping column;

[0029] 3000. First heat dissipation pipeline;

[0030] 4000. Second heat dissipation pipeline;

[0031] 5000. Water spray assembly; 5100. Water tank; 5110. Water inlet; 5120. Annular water inlet pipe; 5121. Water outlet; 5200. Water tank base; 5300. High-pressure nozzle; 5400. Cooling pipe;

[0032] 6000. Vacuum components; 6200. Connecting pipes;

[0033] 7000. Concrete foundation. DETAILED DESCRIPTION

[0034] In order to provide a further understanding of the purpose, structure, features, and functions of the present invention, the present invention is described in detail below with reference to the embodiments.

[0035] like Figure 1 As shown, a heat dissipation structure for concrete pouring provided according to an embodiment of the present invention includes:

[0036] Base assembly 1000, support assembly, first heat dissipation pipeline 3000, second heat dissipation pipeline 4000 and vacuum assembly 6000;

[0037] The base assembly 1000 includes a laying base 1100 and a blocking member 1200. The laying base 1100 is provided with an installation groove 1110. The laying base 1100 is provided on the foundation. The first heat dissipation pipe 3000 is provided in the installation groove 1110 through the blocking member 1200.

[0038] The support assembly is provided on the base assembly 1000, and the support assembly includes a clamping member 2100 and a support member 2200. The clamping member 2100 is provided at one end of the laying base 1100, and the support member 2200 supports the clamping member 2100. The second heat dissipation pipeline 4000 is fixed by the clamping member 2100, and the clamping member 2100 is supported by the support member 2200 to achieve auxiliary support for the second heat dissipation pipeline 4000, and one end of the first heat dissipation pipeline 3000 is connected to one end of the second heat dissipation pipeline 4000.

[0039] The vacuum assembly 6000 includes a connecting pipe 6200 and a vacuum pump, wherein one end of the connecting pipe 6200 is connected to the input port of the vacuum pump, and the other end of the connecting pipe 6200 is connected to the other end of the first heat dissipation pipe 3000;

[0040] Among them, when the user installs the heat dissipation structure for concrete pouring of the present invention in the concrete frame, the user needs to set different numbers of heat dissipation structures according to the overall size of the concrete foundation 7000. Among them, the laying base 1100 is first fixed on the ground, and then the first heat dissipation pipeline 3000 is placed in the installation groove 1110, and then multiple blocking members 1200 are placed in the installation groove 1110 to fix the first heat dissipation pipeline 3000. After the first heat dissipation pipeline 3000 is installed, one end of the second heat dissipation pipeline 4000 is connected with one end of the first heat dissipation pipeline 3000, and then the clamping member 2100 is passed through the second heat dissipation pipeline 4000 and fixed to one end of the laying base 1100. After completing the fixation of the clamping member 2100, the support member 2200 is installed to assist in supporting the clamping member 2100. At this time, the other end of the second heat dissipation pipeline 4000 and the other end of the first heat dissipation pipeline 3000 both protrude from the concrete frame. After completing the overall installation, the concrete frame is concrete poured and shaped to complete the pouring and shaping. Then, one end of the connecting pipe 6200 of the vacuum assembly 6000 is connected to the other end of the first heat dissipation pipe 3000, and the other end of the connecting pipe 6200 is connected to the input port of the vacuum pump. At this time, after the concrete is poured and formed, the internal heat in the center of the concrete foundation 7000 is heat-conducted to the first heat dissipation pipe 3000 and the second heat dissipation pipe 4000, thereby heating the gas inside the first heat dissipation pipe 3000 and the second heat dissipation pipe 4000. At this time, the user turns on the vacuum pump to draw external air at the other end of the second heat dissipation pipe 4000 into the second heat dissipation pipe 4000, so that the external air flow flows through the second heat dissipation pipe 4000 and the first heat dissipation pipe 3000 and then enters the vacuum pump. The vacuum pump extracts the gas originally containing heat in the first heat dissipation pipe 3000 and the second heat dissipation pipe 4000, and the subsequent flowing gas has a lower temperature, so it can continuously remove the temperature on the surface of the first heat dissipation pipe 3000 and the second heat dissipation pipe 4000, thereby achieving the purpose of airflow cooling.

[0041] Furthermore, if Figure 2 and Figure 3 As shown, the heat dissipation structure for concrete pouring also includes a blocking groove 1120, which is set on the inner wall of the installation groove 1110 and is located above the installation groove 1110. The blocking member 1200 is provided with an insert 1210, which cooperates with the blocking groove 1120. The cross section of the installation groove 1110 is semicircular. The insert 1210 of the blocking member 1200 is made of flexible material, such as Figure 3As shown, when the insert block 1210 of the blocking member 1200 is inserted into the blocking groove 1120, the insert block 1210 of the blocking member 1200 is deformed until the insert block 1210 of the blocking member 1200 is inserted into the blocking groove 1120, and the insert block 1210 of the blocking member 1200 returns to its initial state. At this time, the blocking member 1200 fixes the first heat dissipation pipeline 3000 in the installation groove 1110. When the concrete is built, the blocking member 1200 expands due to heat, so that the insert block 1210 of the blocking member 1200 extends into the blocking groove 1120 again, thereby further tightening the first heat dissipation pipeline 3000.

[0042] Furthermore, if Figure 2 As shown, a socket 1130 is provided at one end of the laying base 1100, and a thread is provided in the socket 1130. The socket 1130 is convenient for installing the fixing member 2100.

[0043] Furthermore, if Figure 2 、 Figure 4 and Figure 5As shown, the fixing member 2100 includes a support rod 2110 and an auxiliary fixing block 2120, the auxiliary fixing block 2120 includes a first mounting block 2121 and a first insertion block 2122, the number of the support rods 2110 is the same as the number of the sockets 1130, and one end of the support rod 2110 is connected to the threaded connection of the socket 1130, and the first mounting block 2121 and the first insertion block 2122 are both provided with a first guide hole 2123, the support rod 2110 passes through the first guide hole 2123, and the side end of the first mounting block 2121 is provided with a sliding groove 2123. 1211, wherein a fixed groove 21212 is provided at the end of the sliding groove 21211, the first insertion block 2122 is provided with a plug 21221, the plug 21221 of the first insertion block 2122 is inserted into the fixed groove 21212 through the sliding groove 21211 of the first mounting block 2121, and the first mounting block 2121 and the first insertion block 2122 are both provided with semicircular auxiliary fixing half rings. After the first insertion block 2122 is inserted into the first mounting block 2121, the two auxiliary fixing half rings are combined into an auxiliary fixing circular ring 2124. The connection between the first insertion block 2122 and the plug 21221 is a flexible connection. During installation, the plug 21221 of the first insertion block 2122 is simply deformed and inserted into the sliding groove 21211 of the first mounting block 2121 until the plug 21221 enters the fixing groove 21212 at the end of the sliding groove 21211. At this time, the auxiliary fixing half ring of the first insertion block 2122 and the first mounting block 2121 is combined into an auxiliary fixing ring 2124, which is convenient for fixing the second heat dissipation pipe 4000 placed in the auxiliary fixing ring 2124, and the support rod 2110 is used to limit the installation position of the second heat dissipation pipe 4000 to ensure the connection between the second heat dissipation pipe 4000 and the first heat dissipation pipe 3000. The plug 21221 of the first insertion block 2122 expands and deforms laterally due to heat, so that the plug 21221 is further clamped in the fixing groove 21212.

[0044] Preferably, Figure 2 and Figure 4 As shown, both the first insertion block 2122 and the first mounting block 2121 are provided with locking holes 2125. After the first insertion block 2122 is installed to the first mounting block 2121, the bolt is screwed into the locking hole 2125 to further lock the first insertion block 2122 to the first mounting block 2121.

[0045] Furthermore, if Figure 2 and Figure 5As shown, the support member 2200 includes a support column 2210, a support pad 2220 and a clamping column 2230, the support column 2210 is provided with a plurality of first fixing holes 2211, the support pad 2220 is stepped, the side end of the support pad 2220 is opened with a second fixing hole 2221, and the support pad 2220 is provided with a second guide hole 2222 and a third guide hole 2223, wherein the third guide hole 2223 is perpendicular to the second fixing hole 2221, and the third guide hole 2223 is connected to the second fixing hole 2221, the third guide hole 2223 of the support pad 2220 passes through the support column 2210, and the clamping column 2230 passes through the first fixing hole 2211 and the second fixing hole 2221, thereby fixing the support pad 2220 on the support column 2210, and the second guide hole 2222 of the support pad 2220 passes through the support rod 2110, so that the support pad 2220 is located below the auxiliary fixing block 2120. When installing the support member 2200, the user is required to install multiple support columns 2210 around one end of the laying base 1100. After completing the installation of the support columns 2210, the second guide holes 2222 and the third guide holes 2223 of the multiple support pads 2220 are respectively inserted into the support rod 2110 and the support column 2210. After determining the position of the support pad 2220, the clamping column 2230 is inserted into the first fixing hole 2211 and the second fixing hole 2221, thereby fixing the support pad 2220 on the support column 2210. At this time, The first mounting block 2121 and the first insertion block 2122 are respectively inserted into the support rod 2110 until the first mounting block 2121 and the first insertion block 2122 contact the support pad 2220, and then inserted and assembled to form the auxiliary fixing block 2120, and the second heat dissipation pipe 4000 is fixed in the auxiliary fixing ring 2124. At this time, the support pad 2220 contacts the auxiliary fixing block 2120, so that the support pad 2220 supports the auxiliary fixing block 2120.

[0046] Furthermore, if Figure 1 、 Figure 6 and Figure 7As shown, the heat dissipation structure for concrete pouring also includes a water spray assembly 5000, and the water spray assembly includes a water tank 5100, a water tank base 5200 and a water delivery member. The water tank base 5200 is arranged at the bottom of the water tank 5100, and the water tank base 5200 is arranged at one end of the support column 2210. The other end of the support column 2210 is fixedly set on the ground. The water delivery member is connected to the water tank 5100, and a plurality of high-pressure nozzles 5300 are arranged on the outer wall of the water tank 5100. After the concrete is poured and formed, the heat dissipation efficiency of the shady side and the windward side is higher, which makes the overall heat dissipation efficiency uneven. It is easy for one side of the concrete foundation 7000 to have initially solidified while the other side has not yet initially solidified. Now, by setting a water spray component 5000, water is sprayed on the surface with a slower heat dissipation speed to dissipate heat, so that the overall initial setting time of the concrete foundation 7000 is uniform. Water is pumped into the water tank 5100 through the water delivery component. When the water level inside the water tank 5100 reaches the position of the high-pressure nozzle 5300, there is no pressure inside the water tank 5100, and the water cannot be sprayed out through the high-pressure nozzle 5300. When the water level inside the water tank 5100 approaches the water inlet 5110, the water pumped in again will press the water inside the water tank 5100, generating corresponding pressure, so that the water in the water tank 5100 is sprayed out from the high-pressure nozzle 5300.

[0047] Furthermore, if Figure 6 As shown, the heat dissipation structure for concrete pouring also includes a cooling pipe 5400, a hollow cavity is set in the water tank 5100, the cooling pipe 5400 runs through the hollow cavity of the water tank 5100, a water inlet 5110 is set at the top of the water tank 5100, the water delivery component includes a water delivery pool and a water delivery pump, the water outlet end of the water delivery pump is connected to the water inlet 5110, the water inlet end of the water delivery pump is set in the water delivery pool, and one end of the cooling pipe 5400 is connected to the other end of the second heat dissipation pipe 4000. The water pump continuously pumps the water in the water tank into the hollow cavity in the water tank 5100. The pumped water continuously enters the hollow cavity, which will cool the cooling pipe 5400 that runs through the hollow cavity, so that the air flow temperature in the cooling pipe 5400 is lower than the atmospheric temperature. At the same time, the second heat dissipation pipe 4000 is connected to the cooling pipe 5400. During heat dissipation, the external air enters the cooling pipe 5400 and is cooled, and then enters the second heat dissipation pipe 4000 and the first heat dissipation pipe 3000 for heat exchange, and conducts the temperature in the concrete foundation 7000, thereby further accelerating the heat dissipation efficiency.

[0048] Preferably, Figure 7As shown, an annular water inlet pipe 5120 is provided at the top of the inner cavity of the water tank 5100. The annular water inlet pipe 5120 is connected to the water inlet 5110. A plurality of water outlets 5121 are provided in an annular manner on the annular water inlet pipe 5120. The water outlets 5121 are inclined, and the water outlets 5121 are directed toward the cooling pipe 5400. The water pumped into the annular water inlet pipe 5120 is then ejected from the plurality of water outlets 5121. The ejected water flushes the wall of the cooling pipe 5400 in the inner cavity of the water tank 5100, thereby accelerating the cooling of the air in the cooling pipe 5400.

[0049] In the description of the present invention, it should be understood that the terms "longitudinal", "transverse", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside" and "outside" orientations or positional relationships are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation, and therefore cannot be understood as a limitation on the present invention.

[0050] The present invention has been described with reference to the above embodiments. However, these embodiments are merely exemplary embodiments of the present invention. It should be noted that the disclosed embodiments do not limit the scope of the present invention. On the contrary, modifications and improvements made without departing from the spirit and scope of the present invention are within the scope of patent protection of the present invention.

Claims

1. A heat dissipation structure for concrete pouring, characterized in that: include: A base assembly, the base assembly comprising a laying base and a blocking member, the laying base being provided with a mounting groove; A support assembly, the support assembly being arranged on the base assembly, the support assembly comprising a clamping member and a support member, the clamping member being arranged at one end of the laying base, and the support member being used to support the clamping member; a first heat dissipation pipeline, the first heat dissipation pipeline being arranged in the installation groove through the blocking member; a second heat dissipation pipeline, the second heat dissipation pipeline being arranged on the clamping member, and one end of the second heat dissipation pipeline being connected to one end of the first heat dissipation pipeline; A vacuum component includes a connecting pipeline and a vacuum pump, wherein the input port of the vacuum pump is connected to one end of the connecting pipeline, and the other end of the connecting pipeline is connected to the other end of the first heat dissipation pipeline.

2. The heat dissipation structure for concrete pouring according to claim 1, characterized in that: It also includes a blocking groove, which is arranged on the inner wall of the installation groove and located above the installation groove. The blocking member is provided with an insert block, and the blocking groove cooperates with the insert block. The cross section of the installation groove is semicircular.

3. The heat dissipation structure for concrete pouring according to claim 1, characterized in that: One end of the laying base is provided with a socket, and a thread is provided in the socket.

4. The heat dissipation structure for concrete pouring according to claim 3, characterized in that: The clamping member includes a support rod and an auxiliary fixing block, the auxiliary fixing block includes a first mounting block and a first insertion block, the number of the support rods is the same as the number of the sockets, one end of the support rod is threadedly connected to the socket, the first mounting block and the first insertion block are both provided with a first guide hole, the support rod passes through the first guide hole, a sliding groove is provided at the side end of the first mounting block, a fixing groove is provided at the end of the sliding groove, the first insertion block is provided with a plug, the plug of the first insertion block passes through the sliding groove and is inserted into the fixing groove, the first mounting block and the first insertion block are both provided with a semicircular auxiliary fixing half ring, after the first insertion block is inserted into the first mounting block, the two auxiliary fixing half rings are combined into an auxiliary fixing circular ring.

5. The heat dissipation structure for concrete pouring according to claim 4, characterized in that: The support member includes a support column, a support pad and a clamping column, the support column is provided with multiple first fixing holes, the support pad is step-shaped, the side end of the support pad is provided with a second fixing hole, the support pad is provided with a second guide hole and a third guide hole, the second guide hole is perpendicular to the second fixing hole, the third guide hole is connected to the second fixing hole, the third guide hole of the support pad passes through the support column, the clamping column passes through the first fixing hole and the second fixing hole, thereby fixing the support pad on the support column, the second guide hole of the support pad passes through the support rod, and the support pad is located below the auxiliary fixing block.

6. The heat dissipation structure for concrete pouring according to claim 5, characterized in that: It also includes a water spray assembly, which includes a water tank, a water tank base and a water delivery component. The water tank base is arranged at the bottom of the water tank, the water tank base is arranged at one end of the support column, and the other end of the support column is arranged on the ground. The water delivery component is connected to the water tank, and a plurality of high-pressure nozzles are arranged on the outer wall of the water tank.

7. The heat dissipation structure for concrete pouring according to claim 6, characterized in that: It also includes a cooling pipeline. A hollow cavity is provided in the water tank. The cooling pipeline passes through the hollow cavity of the water tank. A water inlet is provided on the top of the water tank. The water delivery component includes a water delivery pool and a water delivery pump. The water outlet end of the water delivery pump is connected to the water inlet. The water inlet end of the water delivery pump is provided in the water delivery pool. One end of the cooling pipeline is connected to the other end of the second heat dissipation pipeline.

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