Raw material drying equipment for environment-friendly heat-preservation perforated bricks and construction method of raw material drying equipment

Abstract

The invention relates to the technical field of drying equipment, and particularly discloses raw material drying equipment for environment-friendly heat-preservation perforated bricks and a construction method thereof.The raw material drying equipment comprises a soil turning assembly and a drying assembly, and the soil turning assembly is slidably connected to the upper portion of the drying assembly; the soil turning assembly comprises a rotating main shaft, two pushing pieces and a plurality of rotating pieces, the rotating main shaft is evenly sleeved with the rotating pieces, the two ends of the rotating main shaft are sleeved with the two pushing pieces respectively, four soil turning pieces are evenly and fixedly arranged on each rotating piece, and the two sides of each soil turning piece are of symmetrical arc-shaped structures; the soil turning assembly further comprises a top supporting piece, a soil turning motor and a movable sliding rail, the two sides of the top supporting piece are each fixedly provided with a side fixing plate, and the two ends of the rotating main shaft are rotationally connected to the two side fixing plates correspondingly. According to the device, soil turning and collecting can be automatically conducted on perforated brick raw materials, and the raw materials are heated, dried and conveyed to the next procedure.

Description

Technical Field

[0001] The present invention relates to the technical field of drying equipment, and particularly to a raw material drying equipment for environmentally friendly heat-insulating perforated bricks and its construction method. Background Art

[0002] Perforated bricks are a kind of building materials with significant pore structures and are widely used in the construction field. Their main characteristics include light weight, high strength, good heat insulation performance, convenient construction, etc. Perforated bricks can be divided into two major categories: concrete perforated bricks and sintered perforated bricks according to different raw materials and production processes.

[0003] Currently, the following areas in the existing technology still need to be improved: Currently, the drying of perforated brick raw materials usually adopts natural air drying. Although the natural air drying method is simple and has low cost, it depends on the natural environment and climate conditions. This method takes a long time and is greatly affected by the weather. Therefore, it is not suitable for large-scale or urgent production situations. Manual soil turning requires a large amount of labor cost, and after the raw materials are dried, it is also difficult to transport a large amount of raw materials. Summary of the Invention

[0004] To solve the above problems existing in the prior art, the present invention provides a raw material drying equipment for environmentally friendly heat-insulating perforated bricks and its construction method, which can automatically turn the soil and collect the perforated brick raw materials, and perform heat drying treatment on the raw materials and transport them to the next process.

[0005] The object of the present invention can be achieved by the following technical solutions: A raw material drying equipment for environmentally friendly heat-insulating perforated bricks, comprising a soil turning component and a drying component, wherein the soil turning component is slidably connected above the drying component; The soil turning component includes a rotating main shaft, two pushing components and a plurality of rotating components. The plurality of rotating components are evenly sleeved on the rotating main shaft, the two pushing components are respectively sleeved at both ends of the rotating main shaft, and four soil turning components are evenly and fixedly arranged on each rotating component. Both sides of each soil turning component are symmetrically arc-shaped structures.

[0006] Further, the soil turning component further includes a top support member, a soil turning motor and a moving slide rail. One side fixing plate is fixedly arranged on each side of the top support member, and both ends of the rotating main shaft are respectively rotatably connected to the two side fixing plates; The upper end inside the top support member is fixedly connected with the moving slide rail. One connecting rod is fixedly arranged at the upper end of each pushing component, one moving slider is fixedly arranged at the upper end of each connecting rod, the two moving sliders are both slidably connected to the moving slide rail, and one moving motor is fixedly arranged on each moving slider.

[0007] Furthermore, a moving support block is fixedly arranged at the lower end of each side fixing plate, a driving motor is fixedly arranged on each moving support block, and one end of the rotating main shaft is fixedly connected with the soil-turning motor; A motor box is arranged outside the soil-turning motor, the motor box is fixedly connected to the outside of one of the side fixing plates, and a dust-proof cover is fixedly arranged on each of the front and rear sides of the lower end of the top support member, and each dust-proof cover is in an arc-shaped structure.

[0008] Furthermore, a plurality of limiting grooves are formed on the rotating main shaft, one limiting groove is arranged on each side of each rotating member, a limiting slide rail is fixedly arranged outside each limiting groove, a limiting slider is slidably arranged on each limiting slide rail, and a limiting member is fixedly arranged inside each limiting slider.

[0009] Furthermore, a limiting motor is fixedly arranged on each limiting slider, and a plurality of rotating members and two pushing members are all slidably connected to the rotating main shaft.

[0010] Furthermore, the drying assembly includes a drying placement plate and a conveyor belt. A driving slide rail is fixedly arranged on each side of the drying placement plate, and each moving support block is slidably connected to the corresponding driving slide rail. The conveyor belt is located at the middle position above the drying placement plate.

[0011] Furthermore, a plurality of waste heat pipes are arranged inside the drying placement plate, the plurality of waste heat pipes are parallel to each other, the output ends of the plurality of waste heat pipes are all communicated with an output pipe, and the input ends of the plurality of waste heat pipes are all communicated with an input pipe.

[0012] Furthermore, a plurality of support bars are fixedly arranged at the middle position of the drying placement plate, the plurality of support bars are all located above the conveyor belt, a plurality of arrow-shaped grooves are formed in the conveyor belt, a plurality of conveying members are fixedly arranged on the conveyor belt, each conveying member is in an arc-shaped structure, and an auxiliary plate is arranged below the plurality of support bars. The auxiliary plate is in an arc-shaped structure and is fixedly connected to the drying placement plate.

[0013] Furthermore, the conveyor belt is sleeved on a driving pulley and a driven pulley. The driving pulley is sleeved on a driving shaft, one end of the driving shaft is fixedly provided with a conveying motor, the driven pulley is sleeved on a driven shaft, and the driving shaft and the driven shaft are both rotatably connected to the drying placement plate.

[0014] A construction method of a raw material drying device for an environmentally friendly heat-insulating perforated brick includes the steps: S1: Level the upper surface of the reinforced concrete base, vertically insert reinforcing bars into multiple holes on the reinforced concrete base. There are multiple lifting holes on the reinforced concrete base, and support embedments are arranged at the bottom of the reinforced concrete base; S2: Place multiple DE sintered silt bricks on the reinforced concrete base, and place thermal insulation materials between the inner and outer layers of DE sintered silt bricks; S3: Horizontal reinforcing bars are arranged between each layer of DE sintered silt bricks. Inner bracing steels are arranged between each longitudinal row of DE sintered silt bricks, and horizontal connecting bars are arranged between every four layers of DE sintered silt bricks; S4: Mortar joints are poured between the reinforced concrete base and the DE sintered silt bricks, and vertical insert grouting material is poured between the holes of each DE sintered silt brick.

[0015] The beneficial effects of the present invention are as follows: (1) By setting the soil-turning component, the technical effect that can be achieved is that multiple rotating parts are evenly sleeved on the rotating main shaft, two pushing parts are respectively sleeved at both ends of the rotating main shaft, four soil-turning parts are evenly fixed on each rotating part, both sides of each soil-turning part are symmetrically arc-shaped structures, one side fixing plate is respectively fixed on both sides of the top support part, and both ends of the rotating main shaft are respectively rotatably connected to the two side fixing plates; Start the soil-turning motor to drive the rotation of the rotating main shaft, drive the rotation of multiple rotating parts, and the soil-turning parts turn the raw materials of the perforated bricks. Start the driving motor, and the moving support block moves on the driving slide rail, driving the soil-turning component to move back and forth, so that the raw materials of the perforated bricks are evenly distributed on the drying placement plate for drying operation. The soil-turning component can automatically turn and collect the raw materials of the perforated bricks. The arc-shaped structure of the soil-turning parts not only helps to reduce the resistance during soil turning, but also ensures the coherence and uniformity of the soil-turning action, which is convenient for the subsequent collection of the raw materials of the perforated bricks, playing a role in promoting heat transfer and uniform drying. The raw materials are continuously turned, so that the heat can penetrate more evenly into the interior of the raw materials, improving the drying efficiency and quality.

[0016] (2) By setting the drying component, the technical effect that can be achieved is that one driving slide rail is respectively fixed on both sides of the drying placement plate, each moving support block is slidably connected to the corresponding driving slide rail, the conveyor belt is located at the middle position of the upper end of the drying placement plate, multiple support bars are fixed at the middle position of the drying placement plate, and multiple support bars are all located above the conveyor belt. Multiple arrow-shaped grooves are formed on the conveyor belt, and multiple conveying parts are fixed on the conveyor belt, and each conveying part is in an arc-shaped structure; Start the transport motor. The driving shaft drives the driving pulley to rotate, which drives the conveyor belt to rotate, transporting the porous brick raw materials to the next process. The transport parts assist in transporting the porous brick raw materials. The drying component can heat and dry the raw materials and transport them to the next process. The multiple arrow-shaped grooves opened on the conveyor belt not only help reduce the weight of the conveyor belt but also provide additional friction during transportation to ensure the stable forward movement of the raw materials on the conveyor belt. The arrow-shaped grooves also play a role in guiding the flow of the raw materials, enabling the raw materials to enter the next process more smoothly. The support bars not only enhance the load-bearing capacity of the conveyor belt but also prevent the raw materials from falling due to shaking during transportation.

[0017] (3) By setting the waste heat pipeline, the technical effect that can be achieved is that there are multiple waste heat pipelines arranged inside the drying placement plate. The multiple waste heat pipelines are parallel to each other. The output ends of the multiple waste heat pipelines are all connected to the output pipeline, and the input ends of the multiple waste heat pipelines are all connected to the input pipeline. The waste heat generated from firing the porous bricks is input into the waste heat pipeline. The waste heat pipeline can utilize the waste heat during firing to dry the porous brick raw materials. Being parallel to each other ensures the uniformity of heat distribution. The heat generated during the firing of the porous bricks itself can be directly used for the preheating and drying of the raw materials, significantly reducing the production cost. Brief Description of the Drawings

[0018] For the convenience of those skilled in the art to understand, the present invention will be further described below with reference to the accompanying drawings.

[0019] Figure 1 Is the front view of the present invention; Figure 2 Is the front view of the soil-turning component in the present invention; Figure 3 Is the right view of the soil-turning component in the present invention; Figure 4 Is the front view of the soil-turning component in the present invention with the dust-proof cover removed; Figure 5 Is Figure 4 The partial enlarged view of A in Figure 6 Is the front view of the soil-turning component in the present invention with the dust-proof cover, top support and side fixing plate removed; Figure 7 Is Figure 6 The partial enlarged view of B in Figure 8 Is the front view of the rotating part and the soil-turning part in the present invention; Figure 9 Is the top view of the drying component in the present invention; Figure 10 Is the front cross-sectional view of the drying component in the present invention; Figure 11It is the top view of the conveyor belt in the present invention; Figure 12 It is the right sectional view of the conveyor belt in the present invention; Figure 13 It is the front view of the conveyor belt in the present invention; Figure 14 It is the right sectional view of the conveying member in the present invention; Figure 15 It is the schematic diagram of the DE brick prefabricated assembled self-insulating wall in the present invention; Explanation of reference numerals: In the figure: 1. DE sintered silt brick; 2. Mortar joint; 3. Horizontal connecting steel bar; 4. Thermal insulation material; 5. Vertical inserted bar in the hole; 6. Vertical inserted bar grouting material; 7. Horizontal strengthening steel bar; 8. Inner connecting steel; 9. Reinforced concrete base; 10. Lifting hole; 11. Support embedment; 21. Soil-turning assembly; 211. Side fixing plate; 212. Top support member; 213. Motor box; 214. Dust-proof cover; 215. Moving support block; 216. Moving slide rail; 217. Rotating member; 218. Rotating main shaft; 219. Moving slider; 2110. Moving motor; 2111. Connecting rod; 2112. Pushing member; 2113. Soil-turning member; 2114. Soil-turning motor; 2115. Limiting member; 2116. Limiting motor; 2117. Limiting slide rail; 2118. Limiting groove; 2119. Limiting slider; 22. Drying assembly; 221. Driving slide rail; 222. Drying placement plate; 223. Support bar; 224. Conveyor belt; 225. Waste heat pipeline; 226. Conveying motor; 227. Conveying member; 228. Driving shaft; 229. Driving pulley; 2210. Driven pulley; 2211. Auxiliary plate. Detailed implementation manners

[0020] Next, the technical solutions in the embodiments of the present application will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present application; obviously, the described embodiments are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present application.

[0021] In the description of the present application, it should be noted that the orientation or positional relationship indicated by the terms "upper", "lower", "inner", "outer", "top / bottom end", etc. is based on the orientation or positional relationship shown in the accompanying drawings, and is only for the convenience of describing the present application and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the present application. In addition, the terms "first" and "second" are only used for descriptive purposes and cannot be construed as indicating or implying relative importance.

[0022] In the description of the present application, it should be noted that unless otherwise clearly specified and defined, terms such as "installation", "provided with", "sheathed / connected", "connection", etc. should be understood in a broad sense. For example, "connection" can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected or indirectly connected through an intermediate medium, and it can be the communication inside two components. For those of ordinary skill in the art, the specific meanings of the above terms in the present application can be understood according to specific circumstances.

[0023] Referring to Figures 1 to 15 , a raw material drying device for an environmentally friendly heat-insulating porous brick disclosed by the present invention includes a soil-turning component 21 and a drying component 22, and the soil-turning component 21 is slidably connected above the drying component 22.

[0024] The soil-turning component 21 includes a rotating main shaft 218, two pushing members 2112 and a plurality of rotating members 217. The plurality of rotating members 217 are evenly sleeved on the rotating main shaft 218, and the two pushing members 2112 are respectively sleeved at both ends of the rotating main shaft 218. Four soil-turning members 2113 are evenly and fixedly arranged on each rotating member 217, and both sides of each soil-turning member 2113 are symmetrically arc-shaped structures.

[0025] The soil-turning component 21 further includes a top support member 212, a soil-turning motor 2114 and a moving slide rail 216. One side fixing plate 211 is fixedly arranged on each side of the top support member 212, and both ends of the rotating main shaft 218 are rotatably connected to the two side fixing plates 211 respectively.

[0026] The inner upper end of the top support member 212 is fixedly connected with the moving slide rail 216. One connecting rod 2111 is fixedly arranged at the upper end of each pushing member 2112, and one moving slider 219 is fixedly arranged at the upper end of each connecting rod 2111. The two moving sliders 219 are both slidably connected to the moving slide rail 216, and one moving motor 2110 is fixedly arranged on each moving slider 219.

[0027] One moving support block 215 is fixedly arranged at the lower end of each side fixing plate 211, and one driving motor is fixedly arranged on each moving support block 215. One end of the rotating main shaft 218 is fixedly connected with the soil-turning motor 2114.

[0028] A motor box 213 is arranged outside the soil-turning motor 2114, and the motor box 213 is fixedly connected to the outside of one side fixing plate 211. One dust-proof cover 214 is fixedly arranged on the front and rear sides of the lower end of the top support member 212, and each dust-proof cover 214 is in an arc-shaped structure.

[0029] A plurality of limiting grooves 2118 are formed in the rotating main shaft 218. A limiting groove 2118 is provided on each side of each rotating member 217. A limiting slide rail 2117 is fixedly arranged on the outer side of each limiting groove 2118. A limiting slider 2119 is slidably arranged on each limiting slide rail 2117. A limiting member 2115 is fixedly arranged on the inner side of each limiting slider 2119.

[0030] A limiting motor 2116 is fixedly arranged on each limiting slider 2119. A plurality of rotating members 217 and two pushing members 2112 are all slidably connected to the rotating main shaft 218.

[0031] The soil-turning assembly 21 can automatically turn over and collect the raw materials of the perforated bricks. The arc-shaped structure of the soil-turning member 2113 not only helps to reduce the resistance during soil turning, but also ensures the coherence and uniformity of the soil-turning action, facilitating the collection of the raw materials of the perforated bricks in the later stage, playing a role in promoting heat transfer and uniform drying. The raw materials are continuously turned over, enabling the heat to penetrate more evenly into the interior of the raw materials, improving the drying efficiency and quality.

[0032] The drying assembly 22 includes a drying placement plate 222 and a conveyor belt 224. A driving slide rail 221 is fixedly arranged on each side of the drying placement plate 222. Each moving support block 215 is slidably connected to the corresponding driving slide rail 221. The conveyor belt 224 is located at the middle position above the drying placement plate 222.

[0033] A plurality of waste heat pipes 225 are arranged inside the drying placement plate 222. The plurality of waste heat pipes 225 are parallel to each other. The output ends of the plurality of waste heat pipes 225 are all communicated with the output pipe. The input ends of the plurality of waste heat pipes 225 are all communicated with the input pipe.

[0034] The waste heat pipes 225 can utilize the waste heat during firing to dry the raw materials of the perforated bricks. The parallel arrangement ensures the uniformity of heat distribution. The heat generated during the firing of the perforated bricks itself can be directly used for the preheating and drying of the raw materials, significantly reducing the production cost.

[0035] A plurality of support bars 223 are fixedly arranged at the middle position of the drying placement plate 222. The plurality of support bars 223 are all located above the conveyor belt 224. A plurality of arrow-shaped grooves are formed in the conveyor belt 224. A plurality of conveying members 227 are fixedly arranged on the conveyor belt 224. Each conveying member 227 has an arc-shaped structure. An auxiliary plate 2211 is arranged below the plurality of support bars 223. The auxiliary plate 2211 has an arc-shaped structure. The auxiliary plate 2211 is fixedly connected to the drying placement plate 222.

[0036] The conveyor belt 224 is sleeved on the driving pulley 229 and the driven pulley 2210. The driving pulley 229 is sleeved on the driving shaft 228. One end of the driving shaft 228 is fixedly provided with a conveying motor 226. The driven pulley 2210 is sleeved on the driven shaft. Both the driving shaft 228 and the driven shaft are rotatably connected to the drying placement plate 222.

[0037] The drying assembly 22 can heat and dry the raw materials and transport them to the next process. The multiple arrow-shaped grooves formed on the conveyor belt 224 not only help reduce the weight of the conveyor belt 224, but also provide additional friction during transportation to ensure the raw materials move forward stably on the conveyor belt 224. The arrow-shaped grooves also play a role in guiding the flow of the raw materials, enabling the raw materials to enter the next link more smoothly. The support bars 223 not only enhance the load-bearing capacity of the conveyor belt 224, but also prevent the raw materials from falling due to shaking during transportation.

[0038] The working principle and usage process of the present invention: Place the porous brick raw materials on the drying placement plate 222. The waste heat generated from firing the porous bricks is input into the waste heat pipeline 225. Start the soil-turning motor 2114, drive the rotating main shaft 218 to rotate, drive the multiple rotating parts 217 to rotate, and the soil-turning part 2113 turns the porous brick raw materials. Start the driving motor, the moving support block 215 moves on the driving slide rail 221, drives the soil-turning assembly 21 to move back and forth, and makes the porous brick raw materials evenly distributed on the drying placement plate 222 for drying operation. When the drying is completed, turn off the soil-turning motor 2114, the rotating main shaft 218 stops rotating, the multiple rotating parts 217 stop rotating. Start the limit motor 2116, the limit slider 2119 moves inward along the limit slide rail 2117, and the limiting part 2115 retracts into the interior of the rotating main shaft 218. Start the moving motor 2110, the moving slider 219 moves inward along the moving slide rail 216, the pushing part 2112 pushes the rotating part 217 to move inward, the soil-turning part 2113 drives the dried porous brick raw materials to move inward to the conveyor belt 224. Start the conveying motor 226, the driving shaft 228 drives the driving pulley 229 to rotate, drives the conveyor belt 224 to rotate, transports the porous brick raw materials to the next link, and the transporting part 227 assists in transporting the porous brick raw materials.

[0039] A construction method of a raw material drying device for an environmentally friendly heat-insulating porous brick, comprising the steps: S1: Level the upper surface of the reinforced concrete base 9, vertically insert reinforcing bars 5 into multiple holes on the reinforced concrete base 9. The reinforced concrete base 9 is provided with multiple lifting holes 10, and the bottom of the reinforced concrete base 9 is provided with support embedments 11. S2: Place multiple DE sintered silt bricks 1 on the reinforced concrete base 9, and place the thermal insulation material 4 between the inner and outer layers of DE sintered silt bricks 1; S3: Horizontal reinforcing bars 7 are provided between each layer of DE sintered silt bricks 1, internal tension steel 8 is provided between each longitudinal column of DE sintered silt bricks 1, and horizontal connecting bars 3 are provided between every four layers of DE sintered silt bricks 1; S4: Mortar joints 2 are poured between the reinforced concrete base 9 and the DE sintered silt bricks 1, and vertical insert bar grouting material 6 is poured between the holes of each DE sintered silt brick 1.

[0040] The above are only the preferred embodiments of the present invention, and do not impose any form of limitation on the present invention. Although the present invention has been disclosed above with preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some changes or modifications to equivalent embodiments by using the above-disclosed technical content within the scope of the technical solution of the present invention. However, as long as it does not depart from the content of the technical solution of the present invention, any brief modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention still fall within the scope of the technical solution of the present invention.

Claims

1. A raw material drying equipment for environmentally friendly thermal insulation porous bricks, characterized by: It comprises a soil turning component (21) and a drying component (22), wherein the soil turning component (21) is slidably connected above the drying component (22); The soil turning component (21) comprises a rotating main shaft (218), two pushing members (2112) and a plurality of rotating members (217); the plurality of rotating members (217) are evenly sleeved on the rotating main shaft (218); the two pushing members (2112) are respectively sleeved on the two ends of the rotating main shaft (218); four soil turning members (2113) are evenly fixedly arranged on each rotating member (217); and both sides of each soil turning member (2113) are symmetrical arc-shaped structures.

2. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 1 is characterized by: The soil turning component (21) further comprises a top support member (212), a soil turning motor (2114) and a movable slide rail (216); a side fixing plate (211) is fixedly provided on both sides of the top support member (212); and both ends of the rotating main shaft (218) are rotatably connected to the two side fixing plates (211); The inner upper end of the top support member (212) is fixedly connected to the movable slide rail (216), a connecting rod (2111) is fixedly provided on the upper end of each of the pushing members (2112), a movable slider (219) is fixedly provided on the upper end of each of the connecting rods (2111), two movable sliders (219) are slidably connected to the movable slide rail (216), and a movable motor (2110) is fixedly provided on each of the movable sliders (219).

3. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 2 is characterized by: A movable support block (215) is fixedly provided at the lower end of each side fixed plate (211), a driving motor is fixedly provided on each movable support block (215), and one end of the rotating main shaft (218) is fixedly connected to the soil turning motor (2114); A motor box (213) is arranged on the outside of the soil turning motor (2114), and the motor box (213) is fixedly connected to the outside of one of the side fixing plates (211). A dust cover (214) is fixedly arranged on the front and rear sides of the lower end of the top support member (212), respectively, and each of the dust covers (214) has an arc-shaped structure.

4. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 3 is characterized by: A plurality of limit grooves (2118) are provided on the rotating main shaft (218), a limit groove (2118) is provided on both sides of each rotating member (217), a limit slide rail (2117) is fixedly provided on the outer side of each limit groove (2118), a limit slider (2119) is slidably provided on each limit slider (2117), and a limit member (2115) is fixedly provided on the inner side of each limit slider (2119).

5. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 4 is characterized by: A limiting motor (2116) is fixedly arranged on each of the limiting sliding blocks (2119), and the plurality of rotating members (217) and the two pushing members (2112) are slidably connected to the rotating main shaft (218).

6. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 3 is characterized by: The drying assembly (22) comprises a drying placement plate (222) and a conveyor belt (224), a driving slide rail (221) being fixedly arranged on both sides of the drying placement plate (222), each of the movable support blocks (215) being slidably connected to the corresponding driving slide rail (221), and the conveyor belt (224) being located at a middle position of the upper end of the drying placement plate (222).

7. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 6 is characterized by: A plurality of waste heat pipes (225) are arranged inside the drying placement plate (222), the plurality of waste heat pipes (225) are parallel to each other, the output ends of the plurality of waste heat pipes (225) are all connected to the output pipe, and the input ends of the plurality of waste heat pipes (225) are all connected to the input pipe.

8. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 7 is characterized by: A plurality of support bars (223) are fixedly arranged at the middle position of the drying placement plate (222), and the plurality of support bars (223) are all located at the upper end of the conveyor belt (224). The conveyor belt (224) is provided with a plurality of arrow-shaped grooves. A plurality of transport members (227) are fixedly arranged on the conveyor belt (224), and each of the transport members (227) is in an arc-shaped structure. An auxiliary plate (2211) is arranged below the plurality of support bars (223), and the auxiliary plate (2211) is in an arc-shaped structure. The auxiliary plate (2211) is fixedly connected to the drying placement plate (222).

9. The raw material drying equipment for environmentally friendly thermal insulation porous bricks according to claim 8 is characterized by: The conveyor belt (224) is sleeved on a driving pulley (229) and a driven pulley (2210), the driving pulley (229) is sleeved on a driving shaft (228), a conveyor motor (226) is fixedly provided at one end of the driving shaft (228), the driven pulley (2210) is sleeved on the driven shaft, and both the driving shaft (228) and the driven shaft are rotatably connected to the drying placement plate (222).

10. A construction method of a raw material drying device for environmentally friendly thermal insulation porous bricks, applied to the raw material drying device as claimed in any one of claims 1 to 9, characterized in that: Includes steps: S1: The upper surface of the reinforced concrete base (9) is leveled, a plurality of vertical dowel bars (5) are installed in holes on the reinforced concrete base (9), a plurality of lifting holes (10) are provided on the reinforced concrete base (9), and a supporting embedded part (11) is provided at the bottom of the reinforced concrete base (9); S2: placing a plurality of DE fired silt bricks (1) on a reinforced concrete base (9), and placing a thermal insulation material (4) between the inner and outer layers of DE fired silt bricks (1); S3: Horizontal reinforcing steel bars (7) are arranged between each layer of DE sintered silt bricks (1), inner connecting steel bars (8) are arranged between each longitudinal row of DE sintered silt bricks (1), and horizontal connecting steel bars (3) are arranged between every four layers of DE sintered silt bricks (1); S4: Mortar joints (2) are poured between the reinforced concrete base (9) and the DE fired silt bricks (1), and vertical reinforcing bar grouting material (6) is poured between the holes of each DE fired silt brick (1).

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