Condensate water prevention silo

Abstract

The utility model belongs to the technical field of silos. The condensate water prevention silo comprises a silo top and a silo wall, and is characterized in that a wall surface structure is arranged on the inner side of the silo wall, the silo wall is a transverse corrugated plate, and the wall surface structure is a vertical plate shaped like a Chinese character'ji '; and an air duct is formed between the silo wall and the wall surface structure. The silo cover plate is used for solving the technical problems that condensate water is formed on the inner side of an existing silo cover plate at night, so that condensation, material decay and even local hardening in a silo are caused, and the safety of the silo is endangered.

Description

Technical Field

[0001] The utility model belongs to the technical field of silos, and in particular relates to an anti-condensation water silo. Background Art

[0002] Prefabricated steel silos have been introduced into China for nearly 30 years and are now widely used in various industries in China, mainly in docks, grain depots, deep processing of agricultural products and other related industries.

[0003] The main material of prefabricated steel silo is galvanized steel silo. Its designed thickness and diameter are relatively large compared to the structural system with a large height-to-diameter ratio. The side panels and top panels of prefabricated steel silo are generally made of galvanized steel plates. During the grain storage process, the side panels are in direct contact with the grain in the warehouse during the day, and the local temperature is very high. The grain in the silo is greatly affected by the external temperature. The temperature difference between day and night in some silo areas is large. The air in the gap between the upper cone angle formed on the top of the silo grain and the silo top cover is very high due to the respiration of the grain. The temperature difference between the air inside and outside the warehouse at night is large, resulting in a temperature difference on the silo cover, which in turn causes condensation on the inside of the silo cover at night. After the condensation water is formed, condensation may occur in the warehouse, the material in the warehouse may rot locally, or even local hardening may endanger the safety of the silo. Therefore, there is an urgent need for a new silo in the market to solve the problem of grain storage safety in the warehouse. Utility Model Content

[0004] The utility model aims to provide an anti-condensation silo to solve the technical problem that condensation is formed on the inner side of the existing silo cover at night, causing condensation in the silo, material decay and even local hardening, which endangers the safety of the silo.

[0005] In order to solve the above technical problems, the utility model adopts the following technical scheme: an anti-condensation water silo, including a silo roof and a silo wall, characterized in that a wall structure is arranged on the inner side of the silo wall, the silo wall is a horizontal corrugated plate, and the wall structure is a vertical "J"-shaped plate; an air duct is formed between the silo wall and the wall structure.

[0006] The horizontal load of the traditional silo is also carried by the corrugated plate of the silo wall, and the vertical load is carried by the vertical reinforcement ribs outside the silo wall. The horizontal load of the silo of the utility model is carried by the transverse corrugated plate of the silo wall, and the vertical load is carried by the vertical "J"-shaped wall structure. Through the design of the transverse corrugated plate of the silo wall and the vertical "J"-shaped (Great Wall type) structure of the wall structure, the structural strength of the steel silo is greatly improved to ensure the stability of the silo structure. The wall structure of the utility model adopts the "J"-shaped structural section to ensure the stability of the vertical load transmission of grain.

[0007] Compared with the traditional silo, the utility model can avoid the need to set reinforcing ribs outside the silo wall; in terms of structural strength, the "J"-shaped wall structure is superior to the vertical corrugated plate.

[0008] The gap between the transverse corrugated plate of the warehouse wall and the vertical "J"-shaped structure of the wall structure of the utility model can prevent the grain from directly contacting the high-temperature warehouse wall during the day, thereby achieving a heat preservation effect.

[0009] The utility model allows wind to enter the air duct, evenly contact the surface of grain, and finally be discharged out of the silo through the air outlet on the silo top. The utility model utilizes ventilation for the silo to reduce the temperature difference between the inside and outside of the silo and prevent the generation of condensed water.

[0010] In order to solve the technical problem of materials entering the air duct, the utility model adopts the following technical solution: the silo wall and the top of the wall structure are provided with material blocking members to block materials from entering the air duct. The material blocking member is assembled and connected with the silo wall, and is easy to assemble and disassemble, and can effectively prevent materials from entering the air duct.

[0011] In order to solve the technical problem of how to realize the material blocking member, the utility model adopts the following technical solution: the material blocking member is an annular Z-shaped member, the lower part of the annular Z-shaped member contacts the top of the wall structure, and the upper part of the annular Z-shaped member is connected to the top of the silo wall through a connector. The annular Z-shaped member has the same curvature as the side plate of the assembled silo (silo wall, wall structure) and is formed by a special mold. The connection hole on the annular Z-shaped member is designed as a circular hole or an oblong hole, and the annular Z-shaped member and the silo wall are assembled and connected by high-strength 3 / 8-inch diameter bolts.

[0012] In order to solve the technical problem of how to discharge the wind in the air duct, the utility model adopts the following technical solution: ventilation holes are set on the material blocking member. The wind passes through the air duct from bottom to top and is discharged through the ventilation holes on the material blocking member to cool the air layer in the silo top. The wind enters the air duct, evenly contacts the grain surface, passes through the ventilation holes reserved on the material blocking member, and finally is discharged out of the silo through the air outlet on the silo top. The utility model uses the air duct to ventilate the silo, reduce the temperature difference between the inside and outside of the silo, and prevent the generation of condensed water.

[0013] In order to solve the technical problem of how to realize the wall structure, the utility model adopts the following technical solution, wherein the wall structure is an assembled structure, including a top wall structure board and a wall structure board;

[0014] The upper part of the top wall structure plate is in contact with the material blocking member, the material blocking member is connected to the top of the warehouse wall through a connecting member, and the lower part of the top wall structure plate is connected to the warehouse wall through a connecting member;

[0015] The wall structure plate is connected to the warehouse wall via a connecting piece.

[0016] The utility model designs the wall structure into two forms, the length of the top wall structure board is equal to that of the wall structure board, and the height of the top wall structure board is slightly less than that of the wall structure board. A row of connection holes is arranged at the lower part of the top wall structure board; and a row of connection holes is arranged at the top and the bottom of the wall structure board respectively.

[0017] The top wall structure and the connecting holes on the wall structure are designed with round holes or oblong holes. The upper part of the top wall structure is in contact with the annular Z-shaped member, and the annular Z-shaped member is used to ensure that grain does not enter. The lower part of the top wall structure is connected to the warehouse wall with bolts.

[0018] In order to solve the technical problem of how to connect the top wall structure panels and the wall structure panels, the utility model adopts the following technical solution, wherein the top wall structure panels are overlapped and connected by connecting pieces;

[0019] The top wall structure panels are overlapped with each other and connected by connecting pieces;

[0020] The wall structure panels on the same layer are overlapped and connected via connectors;

[0021] The upper and lower wall structure panels are overlapped and staggered and connected via connectors.

[0022] The top-level wall structure panels themselves are overlapped left and right with bolts; the wall structure panels themselves are overlapped left and right with bolts; the top-level wall structure panels and wall structure panels are connected by shared bolt nodes, and the top-level wall structure panels and wall structure panels are overlapped up and down with staggered vertical seams to ensure that the vertical force system of the structure meets structural safety.

[0023] In order to solve the technical problem that the grain temperature in the silo is too high and the temperature difference with the outside of the silo is large, resulting in condensed water, the utility model adopts the following technical solution: ventilation holes are evenly distributed on the top wall structure board;

[0024] The ventilation holes are evenly distributed on the wall structure plate.

[0025] The top wall structure board and the wall structure board itself adopt a design with multiple ventilation holes evenly arranged on the board surface to ensure that the wind energy provided by the bottom fan is evenly blown to the grain surface. The wind in the air duct enters the silo through the ventilation holes on the top wall structure board and the wall structure, lowering the grain temperature in the silo, reducing the temperature difference between the inside and outside of the silo, and further reducing the generation of condensed water.

[0026] In order to solve the technical problem of how to realize the warehouse wall, the utility model adopts the following technical solution: the warehouse wall is an assembled structure, including a plurality of warehouse wall panels, which are overlapped and connected by connecting pieces. The warehouse wall is designed to be a structure formed by assembling warehouse wall panels, which is easy to manufacture and install and disassemble.

[0027] In order to solve the technical problem of how to realize the silo roof, the utility model adopts the following technical solution: the silo roof is a prefabricated structure, and an air outlet is arranged on the silo roof. The silo roof is designed as a prefabricated structure, which is easy to manufacture and convenient to install and disassemble. The air outlet is designed on the silo roof, so that the air duct forms a structure of lower air inlet and upper air outlet, ensuring smooth air outlet.

[0028] In order to solve the technical problem that the silo roof is in full contact with the grain, causing danger in grain unloading, the utility model adopts the following technical solution: the silo roof is conical, and the cone angle of the silo roof is greater than the material stacking angle in the silo, ensuring that there is a partial air layer between the silo roof and the grain in the silo, avoiding safety accidents in grain unloading.

[0029] In order to solve the technical problem of the wind source of the air duct, the utility model adopts the following technical solution: the anti-condensation silo also includes a fan, which is used to provide wind to the air duct. The wind generated by the fan passes through the air duct, the material blocking member, the air layer between the silo top and the grain from bottom to top, takes away the heat, and reduces the temperature difference between the inside and outside of the silo.

[0030] The bottom fan outlet can be directly connected to the ventilation duct, which can ensure that the wind provided by the bottom fan passes through the ventilation duct, blows to the entire silo wall surface, and evenly contacts the grain surface through the dense ventilation holes in the wall structure, passes through the ventilation holes reserved on the material blocking piece, and finally is discharged out of the silo through the outlet on the top of the silo, avoiding the setting of additional ducts.

[0031] The bottom fan outlet can also be connected to the ventilation cage set at the bottom of the silo. After the wind passes through the grain pile through the ventilation cage, it merges into the ventilation duct, evenly contacts the grain surface, passes through the ventilation holes reserved on the material blocking piece, and finally is discharged out of the silo through the outlet on the top of the silo.

[0032] In order to solve the technical problem of uneven wind force distribution in the air duct, the utility model adopts the following technical solution: an air duct partition is arranged in the air duct to divide the air duct into several independent wind zones, and a fan is arranged at the bottom of each independent wind zone. In a silo that needs regional ventilation control, more than two vertical air duct partitions can be arranged between the silo wall and the wall structure. The air duct partition is preferably a vertical sealing strip, which is connected to the material blocking member at the top and the silo bottom part at the bottom, so that the air duct formed between the silo wall and the wall structure is evenly divided into multiple independent ventilation areas. An independent fan is arranged at the bottom of each independent ventilation area to realize regional ventilation control. According to the different temperature and humidity caused by different sunshine conditions received by different areas of different silos, the fan power and opening time of different areas are adjusted to achieve energy saving effect.

[0033] In order to solve the technical problem of inconvenience in manually controlling the fan, the utility model adopts the following technical solution: the silo roof, the independent wind zone, and the outside of the silo are all equipped with temperature sensors and humidity sensors; the humidity sensors and temperature sensors are all connected to the controller, and the controller controls the fan. When the detected temperature and humidity meet the corresponding conditions, the fan is controlled to perform ventilation operation.

[0034] In order to solve the technical problem of how to connect the wall structure with the warehouse wall, the utility model adopts the following technical solution: the top wall structure plate and the wall structure plate are provided with connection hole 1 and connection hole 2 respectively;

[0035] The first connection hole and the second connection hole are both structures protruding outwards of the silo;

[0036] The connecting hole three on the warehouse wall;

[0037] The connection hole three is matched with the connection hole one and is provided with flange bolts;

[0038] The connection hole three is matched with the connection hole two and is provided with flange bolts.

[0039] The wall structure panels are designed and installed in a standardized production mode. They are consistent with the design height and width of the corresponding warehouse wall panels, and are assembled using high-strength 3 / 8-inch bolts. The top wall structure panels are designed and installed in a standardized production mode. They are consistent with the design height and width of the corresponding warehouse wall panels. The top wall structure corner connection holes are designed with a concave and convex mold to ensure that high-strength 3 / 8-inch bolts can pass through effectively. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 This is an overall schematic diagram of the utility model anti-condensation water silo;

[0041] Figure 2 This is a schematic diagram of the top wall structure board of the utility model anti-condensation water silo;

[0042] Figure 3 This is a schematic diagram of the wall structure board of the anti-condensation silo of the utility model;

[0043] Figure 4 This is a schematic diagram of the wall structure of the utility model anti-condensation water silo;

[0044] Figure 5a This is the front view of the annular Z-shaped component of the anti-condensation water silo of the utility model;

[0045] Figure 5b It is an expanded view of the annular Z-shaped component of the anti-condensation water silo of the utility model;

[0046] Figure 5cIt is a side view of the annular Z-shaped component of the anti-condensation water silo of the utility model;

[0047] Figure 6 It is a detailed exploded schematic diagram of the utility model anti-condensation water silo;

[0048] Figure 7a This is a schematic diagram of the utility model of anti-condensation water silo air duct Figure 1 ;

[0049] Figure 7b This is a schematic diagram of the utility model of anti-condensation water silo air duct Figure 2 ;

[0050] Figure 8 This is a schematic diagram of the connection between the wall structure plate and the silo wall plate of the utility model anti-condensation water silo;

[0051] Fig. 9 This is a schematic diagram of the utility model anti-condensation water silo ventilation system;

[0052] Reference numerals:

[0053] 10 Anti-condensation silo;

[0054] 100 warehouse top; 101 air outlet;

[0055] 200 warehouse wall, 210 warehouse wall plate, 211 connecting hole three;

[0056] 300 material blocking member, 301 connecting hole four, 302 bending line;

[0057] 400 wall structure; 410 top wall structure board, 411 connection hole 1, 412 ventilation hole 1; 420 wall structure board; 421 connection hole 2; 422 ventilation hole 2;

[0058] 500 air ducts;

[0059] 600 connectors;

[0060] 700 fans;

[0061] 800 ventilated cage. DETAILED DESCRIPTION

[0062] The present invention is further explained below in conjunction with the accompanying drawings and specific implementation methods.

[0063] Example 1

[0064] like Figure 1 , Figure 6 As shown, the anti-condensation water silo 10 includes a silo roof 100 , a silo wall 200 , and a wall structure 400 .

[0065] like Figure 1As shown, the silo roof 100 is a prefabricated structure, and an air outlet 101 is arranged on the silo roof 100. In one embodiment, the silo roof 100 is conical, and the cone angle of the silo roof 100 is greater than the material accumulation angle in the silo, ensuring that there is a partial air layer between the silo roof and the material, ensuring the safety of unloading.

[0066] like Figure 2 , 3 As shown in Figures 4 and 5, the warehouse wall 200 is a prefabricated structure, which is assembled from a plurality of warehouse wall panels 210. The warehouse wall panels 210 are preferably in the shape of horizontal corrugated steel plates, i.e., transverse corrugated plates. The warehouse wall panels 210 are processed with connection holes 211 around them, and the connection holes 211 are designed as round holes or oblong holes. The warehouse wall panels 201 on the same layer are overlapped left and right and connected by a connector 600. The upper and lower warehouse wall panels 201 are overlapped up and down and connected by a connector 600.

[0067] The wall structure 400 is installed inside the warehouse wall 200. Specifically, the wall structure 400 is a vertical "J"-shaped plate. The structural strength of the steel plate warehouse is greatly improved by the design of the horizontal corrugated plate of the warehouse wall and the vertical "J"-shaped (vertical Great Wall) structure of the wall structure.

[0068] like Figure 7a , Figure 7b As shown, an air duct 500 is formed between the warehouse wall 200 and the wall structure 400. The air duct 500 is in the shape of a Chinese character "J". The gap between the horizontal corrugated plate of the warehouse wall and the vertical Chinese character "J" (Great Wall) structure of the wall structure can prevent the grain from directly contacting the high-temperature warehouse wall during the day, thereby achieving a heat preservation effect. At the same time, the gap forms a ventilation duct.

[0069] In one embodiment, the wall structure 400 is a prefabricated structure, which is assembled from a top wall structure panel 410 and a wall structure panel 420 .

[0070] The top wall structure plate 410 is a vertical "J"-shaped steel plate. The top wall structure plate adopts a "J"-shaped (Great Wall-shaped) structural section to ensure the stability of the vertical load transfer of grain. The top wall structure plate 410 is designed to be consistent in height and width with the warehouse wall plate 201.

[0071] The bottom of the top wall structure plate 410 is connected to the warehouse wall plate 210 by a connector 600, and the top wall structure plate 410 itself is overlapped by bolts. Specifically: a row of connection holes 411 are processed at the bottom of the top wall structure plate 410. The connection holes 411 are designed as round holes or oblong holes. Figure 8As shown, the connection hole 1 411 is a convex structure toward the outside of the silo. The connection hole 1 411 cooperates with the connection hole 3 211 and is provided with a connection piece 600. The connection piece 600 is preferably a flange bolt. The corner of the top wall structure plate adopts a concave and convex mold design to ensure that high-strength 3 / 8-inch diameter bolts can effectively pass through, and a standardized production mode is adopted for design and installation.

[0072] In one embodiment, ventilation holes 412 are evenly distributed on the top wall structure board 410. The top wall structure board 410 itself adopts a design in which multiple fine holes are evenly arranged on the board surface to ensure that the wind energy provided by the bottom fan is evenly blown to the grain surface.

[0073] The wall structure plate 420 is a vertical "J"-shaped plate. The wall structure plate 420 adopts a "J"-shaped (Great Wall-shaped) structural cross-section to ensure the stability of the vertical load transfer of grain. The wall structure plate 420 is designed to have the same height and width as the warehouse wall plate 210.

[0074] The top and bottom of the wall structure plate 420 are connected to the warehouse wall plate 210 respectively by connecting pieces 600, and the wall structure plate 420 itself is overlapped by bolts. The wall structure plates on the same layer are overlapped and connected by connecting pieces; the wall structure plates on the upper and lower layers are overlapped and connected by connecting pieces; the wall structure plates on the top layer are overlapped and connected by connecting pieces.

[0075] Specifically: A row of connection holes 421 are processed on the top and bottom of the wall structure plate 420. Preferably, the connection holes 421 are all convex structures toward the silo. The connection holes 421 are matched with the connection holes 211 on the silo wall and a connector 600 is provided. The connector 600 is preferably a flange bolt. The corners of the wall structure plate adopt a concave and convex mold design to ensure that high-strength 3 / 8-inch diameter bolts can pass through effectively, and a standardized production model is adopted for design and installation.

[0076] In one embodiment, the wall structure plate 420 is evenly distributed with ventilation holes 422. The wall structure plate 420 itself is designed with multiple fine holes evenly arranged on the plate surface to ensure that the wind can evenly blow to the surface of the grain.

[0077] The top wall structure panels 410 and the wall structure panels 420 are connected by common bolt nodes, and the top wall structure panels and the wall structure panels are overlapped and connected by staggered vertical seams to ensure that the vertical force system of the structure meets the structural safety.

[0078] like Figure 5a , Figure 5b , Figure 5c As shown, in one embodiment, a material blocking member 300 is provided on the top of the warehouse wall 200 and the top wall structure panel 410 to block the material from entering the air duct 500 .

[0079] In one embodiment, the material blocking member 300 is an annular Z-shaped member formed by laser cutting and bending of a 2.0 mm thick galvanized sheet. Figure 5b The lower part of the annular Z-shaped member contacts the top of the wall structure 400, and the upper part of the annular Z-shaped member is connected to the top of the silo wall 200 through a connector. The lower part of the material blocking member 300 contacts the upper part of the top wall structure plate 410, and the upper part of the material blocking member 300 is connected to the top of the silo wall 200 through a connector 600, and the lower part of the top wall structure plate 410 is connected to the silo wall 200 through a connector. The upper part of the top wall structure plate is in contact with the material blocking member, and the material blocking member is used to ensure that food does not enter.

[0080] The utility model sets a material blocking member on the inner side of the silo wall, which is consistent with the arc of the assembled silo side plate (silo wall plate), and processes a third connection hole 301 on the upper part of the material blocking member. The third connection hole 301 is designed as a round hole or an oblong hole and is formed by mold bending. The material blocking member 300 is assembled and connected to the silo wall by high-strength 3 / 8-inch diameter bolts.

[0081] A material blocking member is designed at the top of the wall structure. The material blocking member is a Z-shaped annular curved member, which is pre-matched with holes and connected to the warehouse wall plate at the upper and lower overlapping holes. The Z-shaped annular curved member completely covers the wall structure to ensure that grain cannot enter the wall structure.

[0082] In one embodiment, ventilation holes are provided on the material blocking member 300. The wind in the air duct blows to the entire surface of the silo wall, and evenly contacts the grain surface through the densely distributed fine holes in the wall structure, passes through the ventilation holes reserved on the annular Z-shaped member, and finally is discharged out of the silo through the air outlet on the silo top.

[0083] In one embodiment, at least one bottom fan 700 is provided, and the fan is used to provide wind to the air duct 500. The air outlet of the bottom fan is directly connected to the ventilation duct, which can ensure that the wind provided by the bottom fan passes through the ventilation duct and blows to the entire silo wall surface, and evenly contacts the grain surface through the fine holes densely distributed in the wall structure, passes through the ventilation holes reserved on the annular Z-shaped member, and finally is discharged out of the silo through the air outlet on the silo top, avoiding the need to set up an additional duct. The specific structure is shown in Figure 7.

[0084] like Fig. 9 As shown, in one embodiment, the bottom fan outlet can also be connected to the ventilation cage 800 arranged at the bottom of the silo. After passing through the ventilation cage and the grain pile, the wind enters the ventilation duct, evenly contacts the grain surface, passes through the ventilation holes reserved on the annular Z-shaped member, and finally is discharged out of the silo through the outlet on the silo top.

[0085] In one embodiment, a duct partition is provided in the duct 500 to divide the duct into several independent wind zones, and a fan is provided at the bottom of each independent wind zone. In a silo that needs regional ventilation control, two or more duct partitions can be provided between the silo wall and the wall structure, and the duct partition is connected to the annular Z-shaped member on the upper part and the silo bottom part on the lower part, so as to evenly divide the gap formed between the silo wall and the wall structure into multiple independent ventilation areas, and an independent fan is provided at the bottom of each independent ventilation area to realize regional ventilation control, and adjust the fan power and opening time of different areas according to the different temperature and humidity caused by different sunshine conditions received by different areas of different silos, so as to achieve energy saving effect.

[0086] In one embodiment, temperature sensors and humidity sensors are installed on the silo top, independent wind zone, and outside the silo. When the detected temperature and humidity meet corresponding conditions, the fan is controlled to perform ventilation operation.

[0087] The utility model anti-condensation water silo is an insulated steel plate silo, including a silo roof and a silo wall. A wall structure is arranged on the inner side of the silo wall, and bolts are arranged at the upper and lower fixed overlap positions of the side plates between the wall structure and the silo body. The wall structure adopts a special concave-convex mold design, and the pre-holes in the concave-convex mold design can pass through the implemented bolts. The pre-holes in the concave-convex mold design are installed by adding flange bolts, ensuring that the implemented silo can easily implement this structural device, and the new silo can also ensure the reliability of the connection between the bolts and the side plates and the sufficient gap requirements.

[0088] The wall structure adopts a "J"-shaped (Great Wall type) vertical stiffness design. The wall structure is fully covered with ventilation holes according to the air volume control requirements. The wall structure overlaps left and right, and the upper and lower overlaps of the wall structure adopt a staggered overlap design to ensure the stability of the vertical stiffness of the structure.

[0089] The utility model adopts all-galvanized thin plate to form an integral pressure-bearing shape, which is light in weight and can be operated by one worker throughout the entire installation process. It is installed in a fully assembled form, which greatly reduces the installation period and the cost of scaffolding, innovatively improves construction efficiency, and greatly reduces construction costs.

[0090] Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art may still modify the technical solutions described in the aforementioned embodiments, or make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention shall be included in the protection scope of the present invention, and the contents not described in detail in this specification shall belong to the prior art known to professional and technical personnel in the field.

Claims

1. Anti-condensation silo, including silo roof and silo wall, characterized by: A wall structure is arranged on the inner side of the warehouse wall, the warehouse wall is a horizontal corrugated plate, and the wall structure is a vertical "J"-shaped plate; an air duct is formed between the warehouse wall and the wall structure; a material blocking member is arranged on the top of the warehouse wall and the wall structure to block the material from entering the air duct; and ventilation holes are arranged on the material blocking member.

2. The anti-condensation water silo according to claim 1, characterized in that: The material blocking member is an annular Z-shaped member, the lower part of the annular Z-shaped member is in contact with the top of the wall structure, and the upper part of the annular Z-shaped member is connected to the top of the warehouse wall through a connecting member.

3. The anti-condensation water silo according to claim 1, characterized in that: The wall structure is a prefabricated structure, including a top wall structure board and a wall structure board; The upper part of the top wall structure plate is in contact with the material blocking member, the material blocking member is connected to the top of the warehouse wall through a connecting member, and the lower part of the top wall structure plate is connected to the warehouse wall through a connecting member; The wall structure plate is connected to the warehouse wall via a connecting piece.

4. The anti-condensation water silo according to claim 3, characterized in that: The top wall structural panels are overlapped and connected by connecting pieces; The top wall structure panels are overlapped with each other and connected by connecting pieces; The wall structure panels on the same layer are overlapped and connected via connectors; The upper and lower wall structure panels are overlapped and staggered and connected via connectors.

5. The anti-condensation water silo according to claim 3, characterized in that: The ventilation holes are evenly distributed on the top wall structure board; The ventilation holes are evenly distributed on the wall structure plate.

6. The anti-condensation water silo according to claim 1, characterized in that: The warehouse wall is a prefabricated structure, including a plurality of warehouse wall panels, which are overlapped and connected by connecting pieces.

7. The anti-condensation water silo according to claim 1, characterized in that: The silo roof is a prefabricated structure, and an air outlet is arranged on the silo roof.

8. The anti-condensation water silo according to claim 7, characterized in that: The silo top is conical, and the cone angle of the silo top is greater than the material stacking angle in the silo.

9. The anti-condensation water silo according to claim 1, characterized in that: The anti-condensation water silo further comprises a fan, and the fan is used for providing wind to the air duct.

10. The anti-condensation water silo according to claim 1, characterized in that: An air duct partition is arranged in the air duct to divide the air duct into a plurality of independent air zones, and a fan is arranged at the bottom of each independent air zone.

11. The anti-condensation water silo according to claim 10, characterized in that: Temperature sensors and humidity sensors are arranged on the silo roof, the independent wind zone and the outside of the silo; the humidity sensor and the temperature sensor are connected to a controller, and the controller controls the connection to the fan.

12. The anti-condensation water silo according to claim 3, characterized in that: The top wall structure plate and the wall structure plate are provided with connection hole 1 and connection hole 2 respectively; The first connection hole and the second connection hole are both structures protruding outwards of the silo; The connecting hole three on the warehouse wall; The third connection hole matches with the first connection hole and is provided with a connection piece; The third connecting hole cooperates with the second connecting hole and is provided with a connecting piece.

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