Automatic concrete pouring equipment for building construction

Abstract

The invention discloses an automatic concrete pouring equipment for building construction, which relates to the technical field of concrete pouring, and comprises a base, a sliding support block is slidably installed on the base, a swing arm bracket is fixedly installed on the base, a swing arm is rotatably installed on the swing arm bracket, a passive roller is fixedly installed on one end of the swing arm, a swing shaft is slidably installed on the swing arm, a swing spring is fixedly installed on the swing shaft, and the other end of the swing spring is fixedly installed on the swing arm, the swing shaft is rotatably connected to a reciprocating slider, a reciprocating adjustment block is slidably installed on the reciprocating slider, a bottom vibration plate is fixedly installed on one end of the reciprocating adjustment block, and a vibration module is arranged on the bottom vibration plate; through the reciprocating motion of the bottom vibration plate, the bottom vibration plate stirs the concrete on the ground evenly, and cooperates with the vibration module on the bottom vibration plate, so that the device can perform efficient concrete pouring work.

Description

Technical Field

[0001] The invention relates to the technical field of concrete pouring, and in particular to automatic concrete pouring equipment for building construction. Background Art

[0002] During the concrete construction process, the concrete needs to be vibrated to make it denser and reduce hollowing. When pouring large volumes of concrete, the concrete also needs to be poured in layers. Therefore, vibration also takes into account the combination of the poured concrete in the lower layer with the cast concrete in the upper layer. Concrete vibration refers to vibrating in an orderly manner according to the length of the vibrating rod and the vibration radius. The vibrating rod usually moves about 40 cm each time, and the thickness of the vibrating rod inserted into the poured concrete of the lower layer is not less than 5 cm. Each vibration is done to prevent the concrete from sinking and bubbles from appearing to prevent missing vibration or over-vibration.

[0003] The Chinese invention patent with announcement number CN113445506B discloses a concrete pouring equipment for dam forming, including a base plate, a rectangular tube, a transmission assembly, and a vibrating assembly. The base plate is fixedly mounted with a rectangular tube, and a transmission assembly is arranged inside the rectangular tube. The transmission assembly is fixedly connected with the vibrating assembly. When pouring concrete in the template, the baffle can prevent the concrete from falling, so that the concrete can push the baffle to drive the rotating shaft to rotate, and then the main gear can rotate synchronously with the rotating shaft. When the main gear rotates, it can drive the driven gear to rotate through the tooth chain, and then the driven gear drives the protrusion to rotate through the rotating column. When the protrusion rotates, it can squeeze the top block to move horizontally. While the top block moves horizontally, it can drive the moving plate to move longitudinally through the connecting rod. The moving plate can drive the vibrating plate to move synchronously in the vibrating hole through the connecting rod, so that the newly poured concrete can be vibrated.

[0004] Although the above device can vibrate the concrete during pouring, it does not vibrate according to the thickness of the concrete, and does not prevent the uneven vibration of thicker concrete during pouring. Moreover, the above device is not equipped with a moving device, so it needs to be moved manually or with large equipment before or during work. Summary of the invention

[0005] In view of the above technical problems, the present invention proposes the following technical solutions:

[0006] The cam is provided with a plurality of wheels, and a plurality of wheels are provided on the cam, and a plurality of wheels are provided on the cam.

[0007] Furthermore, an adjustment bracket is fixedly installed on the reciprocating adjustment block, a swing bracket is rotatably installed on the adjustment bracket, a swing central axis is slidably installed on the swing bracket, a swing vibration plate is also fixedly installed on the swing bracket, and a vibration module is also provided on the swing vibration plate.

[0008] Furthermore, a swing wheel bracket is fixedly installed on the base, a swing wheel is rotatably installed on the swing wheel bracket, a ball slide is provided on the swing wheel, and a U-shaped opening is also provided on the swing wheel. A stirring device for stirring concrete is also fixedly installed on the end of the swing wheel away from the base, a stirring frame is also rotatably installed on the stirring device, a stirring support column is fixedly installed on the stirring frame, and the stirring support column is also fixedly connected to the base.

[0009] Furthermore, a reaction support block is fixedly mounted on the base, a reaction rotating block is rotatably mounted on the reaction support block, a reaction sliding wheel is slidably mounted on the reaction rotating block, a reaction rack is slidably mounted on the reaction sliding wheel, a reaction wheel is rotatably mounted on one end of the reaction rack, three reaction rollers are rotatably mounted on the reaction wheel, a reaction gear is also rotatably mounted on the reaction sliding wheel, the reaction gear is meshed with the reaction rack, a reaction belt is arranged on the reaction gear, a reaction intermediate shaft is arranged on the other end of the reaction belt, and the reaction intermediate shaft is rotatably connected to the reaction support block.

[0010] Furthermore, a spindle support block is fixedly mounted on the sliding support block, a spindle is rotatably mounted on the spindle support block, a cylinder gear is slidably mounted on the spindle, a cylinder is rotatably mounted on the cylinder gear, the other end of the cylinder is fixedly mounted on the cylinder support block, the cylinder support block is fixedly connected to the sliding support block, a displacement gear is also fixedly mounted on one end of the spindle, a protruding rack is meshingly mounted on the displacement gear, and the protruding rack is fixedly connected to the base.

[0011] Furthermore, a cam motor is fixedly mounted on the protruding rack, an intermediate roller is rotatably mounted on the sliding support block, and a cam belt is also provided on the intermediate roller.

[0012] Furthermore, a plurality of transverse sliders are fixedly mounted on the intermediate roller, the transverse sliders are rotatably connected to the sliding support block, a stabilizing arc block is fixedly mounted on one end of the transverse slider, a sliding support block is also fixedly mounted on the transverse slider, a sliding gear rack is slidably mounted on the sliding support block, the sliding gear rack is provided with an adjustment rack meshing with the cylinder gear, and a protruding cone column is fixedly mounted on one end of the sliding gear rack.

[0013] Furthermore, a ball head is provided at one end of the protruding cone column, and a first intermediate shaft is fixedly installed on the sliding gear rack. A plurality of rotating protrusions are slidably installed on the first intermediate shaft, and a hollow round block is rotatably installed on the rotating protrusion, and the hollow round block is slidably connected to the transverse slider.

[0014] Compared with the prior art, the present invention has the following beneficial effects: (1) through the reciprocating motion of the bottom vibration plate and the swing vibration plate, the bottom vibration plate and the swing vibration plate can stir the concrete on the ground evenly, and at the same time, in combination with the vibration modules on the bottom vibration plate and the swing vibration plate, the device can perform efficient concrete pouring work; (2) through the rotation of the swing wheel, the swing vibration plate can perform fan-shaped motion while achieving reciprocating motion, which can make the working range of the device larger, and in combination with the mixing frame, the self-pouring efficiency of the device can be enhanced; (3) by detecting the ground height through the reaction wheel and the reaction rack, the movement range of the bottom vibration plate and the swing vibration plate in the device can be automatically adjusted, so that the device can be used in a variety of working environments. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0016] Figure 2 This is a cross-sectional view of the base and stirring frame of the present invention.

[0017] Figure 3 It is a schematic diagram of the reaction rack structure of the present invention.

[0018] Figure 4 It is a schematic diagram of the structure of the swing wheel of the present invention.

[0019] Figure 5 For the present invention Figure 4 A partial enlarged view of point A in the middle.

[0020] Figure 6 It is a schematic diagram of the structure of the sliding support block of the present invention.

[0021] Figure 7 For the present invention Figure 6 A partial enlarged view of point B in the middle.

[0022] Figure 8 This is a front view of the transverse slider structure of the present invention.

[0023] Fig. 9 This is a cross-sectional view of the swing wheel of the present invention.

[0024] Figure numerals: 101-base; 102-tire; 103-mixing frame; 104-mixing support column; 106-reaction sliding wheel; 107-reaction rack; 108-reaction wheel; 109-mixing device; 110-swinging rotating wheel; 111-swinging vibration plate; 112-bottom vibration plate; 113-swinging middle axis; 114-sliding support block; 115-swinging belt; 116-reaction gear; 117-reaction middle axis; 118-reaction support block; 119-reaction rotating block; 120-swinging wheel bracket, 201-spindle support block; 202-spindle; 203-cylinder support block; 204-cylinder; 205-cylinder gear; 206-sliding gear rack ;207-sliding support block;208-protruding cone column;209-hollow round block;210-rotating convex block;211-first intermediate shaft;212-stable arc block;213-lateral slider;214-displacement gear;301-cam motor;302-protruding rack;303-cam belt;306-intermediate roller;401-passive roller;402-swing rod;403-swing rod bracket;404-rotating slider;405-reciprocating slider;406-reciprocating adjustment block;407-adjustment bracket;408-swing bracket;501-adjustment support plate;502-adjustment belt;503-adjustment screw;504-tire adjustment screw;505-wheel frame. DETAILED DESCRIPTION

[0025] like Figure 1 , Figure 3As shown, an automatic concrete pouring device for construction includes a base 101, a wheel frame 505 is slidably mounted on the base 101, a plurality of tires 102 are arranged on the wheel frame 505, a sliding support block 114 is slidably mounted on the base 101, a reaction support block 118 is fixedly mounted on the base 101, a reaction rotating block 119 is rotatably mounted on the reaction supporting block 118, a reaction sliding wheel 106 is slidably mounted on the reaction rotating block 119, and a reaction sliding wheel 106 is slidably mounted on the reaction sliding wheel 106. There is a reaction rack 107, on which a reaction rack is arranged, a reaction wheel 108 is rotatably mounted on one end of the reaction rack 107, on which three reaction rollers are rotatably mounted, a reaction gear 116 is rotatably mounted on the reaction sliding wheel 106, the reaction gear 116 is meshed with the reaction rack 107, a reaction belt is arranged on the reaction gear 116, a reaction intermediate shaft 117 is arranged at the other end of the reaction belt, and the reaction intermediate shaft 117 is rotatably connected to a reaction support block 118.

[0026] like Figures 4 to 7 As shown, a spindle support block 201 is fixedly mounted on the sliding support block 114, a spindle 202 is rotatably mounted on the spindle support block 201, an intermediate belt is provided on the spindle 202, the other end of the intermediate belt is provided on the reaction intermediate shaft 117, a cylinder gear 205 is slidably mounted on the spindle 202, a cylinder 204 is rotatably mounted on the cylinder gear 205, the other end of the cylinder 204 is fixedly mounted on the cylinder support block 203, the cylinder support block 203 is fixedly connected to the sliding support block 114, a displacement gear 214 is also fixedly mounted on one end of the spindle 202, a protruding rack 302 is meshingly mounted on the displacement gear 214, and the protruding rack 302 is fixedly connected to the base 101.

[0027] like Figures 4 to 8As shown, a cam motor 301 is fixedly mounted on the protruding rack 302, a cam belt 303 is provided at the output end of the cam motor 301, an intermediate roller 306 is provided at the other end of the cam belt 303, the intermediate roller 306 is rotatably connected to the sliding support block 114, two transverse sliders 213 are also fixedly mounted on the intermediate roller 306, the transverse slider 213 is rotatably connected to the sliding support block 114, the two transverse sliders 213 are symmetrically arranged, a stabilizing arc block 212 is fixedly mounted on one end of the transverse slider 213, the stabilizing arc block 212 is arc-shaped, a sliding support block 207 is also fixedly mounted on the transverse slider 213, the sliding support A sliding gear rack 206 is slidably mounted on the block 207, and the sliding gear rack 206 is provided with an adjustment rack meshing with the cylinder gear 205. A protruding cone column 208 is also fixedly mounted on one end of the sliding gear rack 206, and a ball head is provided on one end of the protruding cone column 208. A first intermediate shaft 211 is also fixedly mounted on the sliding gear rack 206, and a plurality of rotating protrusions 210 are slidably mounted on the first intermediate shaft 211. The rotating protrusions 210 are also provided with sliding grooves for the sliding of the first intermediate shaft 211. A hollow round block 209 is also rotatably mounted on the rotating protrusion 210, and the hollow round block 209 is slidably connected to the transverse slider 213, and the hollow round block 209 is arc-shaped.

[0028] like Figure 6 , Figure 8 , Fig. 9As shown, a swing rod bracket 403 is also fixedly installed on the base 101, and a swing rod 402 is rotatably installed on the swing rod bracket 403. A swing torsion spring is fixedly installed on the swing rod 402, and the other end of the swing torsion spring is fixedly installed on the swing rod bracket 403. A passive roller 401 is fixedly installed on one end of the swing rod 402, and the passive roller 401 contacts the rotating protrusion 210. The passive roller 401 also contacts the hollow round block 209 when working. A swing shaft is also slidably installed on the swing rod 402 , a swing spring is also fixedly installed on the swing shaft, and the other end of the swing spring is fixedly installed on the swing rod 402. The swing shaft is rotatably connected to the reciprocating slider 405. A reciprocating adjustment block 406 is also slidably installed on the reciprocating slider 405. A bottom vibration disk 112 is fixedly installed on one end of the reciprocating adjustment block 406. A vibration module is provided on the bottom vibration disk 112. An adjustment bracket 407 is fixedly installed on the reciprocating adjustment block 406. A swing bracket 408 is rotatably installed on the adjustment bracket 407. The swinging middle axis 113 is slidably mounted on the swing bracket 408, and a swinging vibration plate 111 is fixedly mounted on the swinging bracket 408. A vibration module is also arranged on the swinging vibration plate 111. A swinging wheel bracket 120 is fixedly mounted on the base 101, and a swinging wheel 110 is rotatably mounted on the swinging wheel bracket 120. A ball-shaped slide groove is arranged on the swinging wheel 110, and the ball-shaped slide groove can fit with the ball head on the protruding cone column 208. At the same time, a U-shaped opening is also arranged on the swinging wheel 110, and the U-shaped opening can In cooperation with the stabilizing arc block 212, a oscillating belt 115 is further provided at one end of the oscillating wheel 110 close to the base 101, and the other end of the oscillating belt 115 is provided on the oscillating center axis 113. A stirring device 109 for stirring concrete is further fixedly installed at one end of the oscillating wheel 110 away from the base 101, and a stirring frame 103 is further rotatably installed on the stirring device 109, and a stirring support column 104 is fixedly installed on the stirring frame 103, and the stirring support column 104 is also fixedly connected to the base 101.

[0029] like Fig. 9 As shown, an adjustment support plate 501 is also fixedly installed on the base 101, an adjustment motor is fixedly installed on the adjustment support plate 501, a tire adjustment screw 504 is fixedly installed on the output end of the adjustment motor, the tire adjustment screw 504 is rotatably connected to the adjustment support plate 501, the tire adjustment screw 504 is also threadedly connected to the wheel frame 505, an adjustment screw 503 is also rotatably installed on the reciprocating slider 405, the adjustment screw 503 is also threadedly connected to the reciprocating adjustment block 406, the adjustment screw 503 does not contact the base 101, an adjustment belt 502 is arranged on the adjustment screw 503, and the other end of the adjustment belt 502 is arranged on the tire adjustment screw 504.

[0030] Working principle: When using this device, the reaction sliding wheel 106 and the reaction rotating block 119 are manually driven to rotate on the reaction support block 118, so that the reaction sliding wheel 106 rotates 90 degrees, so that the reaction sliding wheel 106 reaches the following position: Figure 2 In the state, the reaction rack 107 will slide toward the ground due to its own weight, and when the reaction wheel 108 contacts the ground, the reaction rack 107 will stop moving. The distance between the reaction rack 107 and the reaction wheel 108 and the ground after starting to work will enable the device to determine the movement range of the subsequent vibration device. While the reaction rack 107 is moving, the reaction rack 107 will also drive the reaction gear 116 to rotate, and the reaction gear 116 drives the reaction intermediate shaft 117 to rotate through the reaction belt. The intermediate shaft 117 will drive the main shaft 202 to rotate through the intermediate belt. When the main shaft 202 rotates, the cylinder 204 will start, and the cylinder 204 will drive the cylinder gear 205 to move toward the sliding gear rack 206, so that the cylinder gear 205 is engaged with the adjustment rack on the sliding gear rack 206. At this time, when the main shaft 202 rotates, it will drive the two sliding gear racks 206 to slide away from the main shaft 202 through the cylinder gear 205, so that the distance between the protruding cone column 208 on the sliding gear rack 206 and the main shaft 202 becomes farther and farther.

[0031] When the sliding gear rack 206 moves, the rotating protrusion 210 will also be driven to rotate through the first intermediate shaft 211. When the rotating protrusion 210 rotates, the two rotating protrusions 210 will get closer and closer to a straight line. In this motion state, the hollow circle block 209 will move away from the cylinder gear 205. The purpose of this is to change the swing state of the swing rod 402. At the same time, the rotation of the main shaft 202 will also drive the displacement gear 214 to rotate. At this time, the displacement gear 214 will rotate on the protruding rack 302. Through the protruding rack 302, the main shaft 202 drives the sliding support block 114 and the cylinder support block 203 to move in the direction of the reaction rack 107 through the main shaft support block 201. The purpose of this is to allow the sliding gear rack 206 with a larger active radius to continue to cooperate with the swinging wheel 110.

[0032] After the device completes the above adjustment steps, the cam motor 301 can be started, and the cam motor 301 can drive the middle roller 306 and the transverse slider 213 to rotate around the axis of the main shaft 202 through the cam belt 303, so that the transverse slider 213 drives the stabilizing arc block 212, the hollow circle block 209, and the sliding gear rack 206 to rotate around the axis. The purpose of such rotation is to drive the swing wheel 110 and the swing rod 402 to move, and they can also be adjusted while moving.

[0033] When the lateral slider 213 rotates around the main shaft 202, it will drive the stabilizing arc block 212 to rotate. At this time, when the stabilizing arc block 212 contacts the swing wheel 110, the swing wheel 110 will not rotate, thus stopping the swing wheel 110 from rotating. When the stabilizing arc block 212 does not contact the swing wheel 110, the protruding cone column 208 on the sliding gear rack 206 will immediately contact the swing wheel 110, and the ball head on the protruding cone column 208 will fit with the ball groove on the swing wheel 110. After that, since the ball groove is on the surface of the swing wheel 110, when the protruding cone column 208 continues to rotate around the axis of the main shaft 202, the ball head on the protruding cone column 208 slides on the ball groove, squeezing the swing wheel 110, so that the swing wheel 110 is Figure 4 When the convex cone column 208 is rotated clockwise by 90 degrees, the convex cone column 208 will be out of contact with the rotating protrusion 210, and then the stabilizing arc block 212 on the other side will contact with the rotating protrusion 210, so that the swing wheel 110 will be stabilized at a position point, and when the stabilizing arc block 212 on the other side is out of contact with the swing wheel 110, the convex cone column 208 on the other side will drive the swing wheel 110 to move in a certain position. Figure 4 Rotate counterclockwise to return to the initial position, thus forming a reciprocating motion.

[0034] At the same time, when the hollow circle block 209 and the multiple rotating protrusions 210 rotate around the axis of the main shaft 202 at the same time, the passive roller 401 will be squeezed due to the state of the hollow circle block 209 at this time, so that the passive roller 401 drives the swing rod 402 to rotate around the connecting axis of the swing rod 402 and the swing rod bracket 403, and then the swing rod 402 will drive the reciprocating slider 405 to start moving away from or close to the base 101. At this time, the multiple hollow circle blocks 209 and the multiple rotating protrusions 210 can be regarded as a whole, which is a cam, to squeeze the passive roller 401, so that the passive roller 401 drives the swing rod 402 to swing.

[0035] When the reciprocating slider 405 is moving, the reciprocating adjustment block 406 and the bottom vibration plate 112 are driven to move away from or close to the base 101 through the adjusting screw rod 503, and the swing bracket 408 and the swing vibration plate 111 are driven to move together through the adjusting bracket 407. In this way, the vibration modules on the bottom vibration plate 112 and the swing vibration plate 111 are started at the same time, so that the bottom vibration plate 112 and the swing vibration plate 111 vibrate to vibrate the concrete laid on the ground evenly. The overall movement of the swing vibration plate 111 allows the swing vibration plate 111 and the bottom vibration plate 112 to continuously reciprocate in the concrete layer while vibrating, so that the concrete can be as uniform as possible on the plane. While the swing vibration plate 111 is moving, the swing wheel 110 will also drive the swing center axis 113 to rotate through the swing belt 115, so that the swing center axis 113 drives the swing bracket 408 and the swing vibration plate 111 to rotate around the axis of the swing center axis 113, so that the vibration range of the swing vibration plate 111 becomes larger.

[0036] At the same time, it can also be coordinated with a mixing frame 103. If the concrete is not distributed by a special concrete truck, the concrete can be allowed to enter the device through the mixing frame 103, and then the mixing device 109 driven by the swing wheel 110 can be rotated, so that the mixing device 109 stirs the concrete and then flows out of the device, and then the swing vibration plate 111 can be allowed to vibrate and distribute it evenly.

[0037] At the same time, when the device is pouring concrete, if the device is moving and the ground in front is too high or has an inclined surface, after the device moves to this point, the reaction wheel 108 will drive the reaction rack 107 to move away from the ground, so that the sliding gear rack 206 will be driven to continuously move away from the main shaft 202 through the working mode of the above-mentioned reaction gear 116, so that the swing amplitude of the swing rod 402 will increase, and when the distance between the two hollow circles 209 and the main shaft 202 reaches the maximum value, the swing amplitude of the swing rod 402 is also the largest, so that the device can adapt to concrete layers of different heights or thicknesses, or can be handled when encountering steps during pouring to prevent the swing vibration plate 111 or the bottom vibration plate 112 from being stuck.

[0038] When the use scenario of the present device undergoes special changes, for example, when the thickness of the concrete layer exceeds the range of motion of the reaction rack 107 and the reaction wheel 108, or when the distance between the hollow circle block 209 and the main shaft 202 is the maximum, the tire adjusting screw 504 can be driven to rotate by starting the adjusting motor. The rotation of the tire adjusting screw 504 will drive the wheel frame 505 to move the tire 102 on the wheel frame 505 away from the base 101, thereby increasing the distance between the base 101 and the ground. When the tire adjusting screw 504 rotates, the adjusting screw 503 is driven to rotate through the adjusting belt 502. The adjusting screw 503 drives the reciprocating adjusting block 406 and the adjusting bracket 407 to move away from the base 101. When the reciprocating adjusting block 406 and the adjusting bracket 407 move, they will also drive the swinging vibration plate 111 and the bottom vibration plate 112 to move together. The adjusting motor can also be reversed to adjust the present device so that the present device can adapt to more different concrete pouring conditions and more usage environments.

Claims

1. An automatic concrete pouring device for construction, comprising a base (101), a wheel frame (505) slidably mounted on the base (101), a plurality of tires (102) being arranged on the wheel frame (505), and a sliding support block (114) slidably mounted on the base (101), characterized in that: The base (101) is also fixedly mounted with a swing arm bracket (403), a swing arm (402) is rotatably mounted on the swing arm bracket (403), a swing torsion spring is fixedly mounted on the swing arm (402), the other end of the swing torsion spring is fixedly mounted on the swing arm bracket (403), a passive roller (401) is fixedly mounted on one end of the swing arm (402), the passive roller (401) contacts the rotating protrusion (210), a swing shaft is slidably mounted on the swing arm (402), a swing spring is fixedly mounted on the swing shaft, the other end of the swing spring is fixedly mounted on the swing arm (402), the swing shaft is rotatably connected to the reciprocating slider (405), a reciprocating adjustment block (406) is slidably mounted on the reciprocating slider (405), a bottom vibration disk (112) is fixedly mounted on one end of the reciprocating adjustment block (406), and a vibration module is arranged on the bottom vibration disk (112); An adjustment bracket (407) is fixedly mounted on the reciprocating adjustment block (406), a swing bracket (408) is rotatably mounted on the adjustment bracket (407), a swing center axis (113) is slidably mounted on the swing bracket (408), a swing vibration plate (111) is also fixedly mounted on the swing bracket (408), and a vibration module is also arranged on the swing vibration plate (111); A swing wheel bracket (120) is fixedly mounted on the base (101), a swing wheel (110) is rotatably mounted on the swing wheel bracket (120), a ball-shaped slide groove is provided on the swing wheel (110), and a U-shaped opening is also provided on the swing wheel (110), a stirring device (109) for stirring concrete is also fixedly mounted on one end of the swing wheel (110) away from the base (101), a stirring frame (103) is also rotatably mounted on the stirring device (109), a stirring support column (104) is fixedly mounted on the stirring frame (103), and the stirring support column (104) is also fixedly connected to the base (101); A reaction support block (118) is fixedly mounted on the base (101), a reaction rotating block (119) is rotatably mounted on the reaction support block (118), a reaction sliding wheel (106) is slidably mounted on the reaction rotating block (119), a reaction rack (107) is slidably mounted on the reaction sliding wheel (106), a reaction wheel (108) is rotatably mounted on one end of the reaction rack (107), three reaction rollers are rotatably mounted on the reaction wheel (108), a reaction gear (116) is also rotatably mounted on the reaction sliding wheel (106), the reaction gear (116) is meshed with the reaction rack (107), a reaction belt is arranged on the reaction gear (116), a reaction intermediate shaft (117) is arranged at the other end of the reaction belt, and the reaction intermediate shaft (117) is rotatably connected to the reaction support block (118).

2. The automatic concrete pouring equipment for construction according to claim 1, characterized in that: A main shaft support block (201) is fixedly mounted on the sliding support block (114); a main shaft (202) is rotatably mounted on the main shaft support block (201); a cylinder gear (205) is slidably mounted on the main shaft (202); a cylinder (204) is rotatably mounted on the cylinder gear (205); the other end of the cylinder (204) is fixedly mounted on the cylinder support block (203); the cylinder support block (203) is fixedly connected to the sliding support block (114); a displacement gear (214) is also fixedly mounted on one end of the main shaft (202); a protruding rack (302) is meshingly mounted on the displacement gear (214); and the protruding rack (302) is fixedly connected to the base (101).

3. The automatic concrete pouring equipment for construction according to claim 2, characterized in that: A cam motor (301) is fixedly mounted on the protruding rack (302), an intermediate roller (306) is rotatably mounted on the sliding support block (114), and a cam belt (303) is also arranged on the intermediate roller (306).

4. The automatic concrete pouring equipment for construction according to claim 3, characterized in that: A plurality of transverse sliders (213) are also fixedly mounted on the intermediate roller (306), the transverse sliders (213) are rotatably connected to the sliding support block (114), a stabilizing arc block (212) is fixedly mounted on one end of the transverse slider (213), a sliding support block (207) is also fixedly mounted on the transverse slider (213), a sliding gear rack (206) is slidably mounted on the sliding support block (207), the sliding gear rack (206) is provided with an adjustment rack meshing with the cylinder gear (205), and a protruding cone column (208) is also fixedly mounted on one end of the sliding gear rack (206).

5. The automatic concrete pouring equipment for construction according to claim 4, characterized in that: A ball head is provided at one end of the protruding cone column (208); a first intermediate shaft (211) is fixedly mounted on the sliding gear rack (206); a plurality of rotating protrusions (210) are slidably mounted on the first intermediate shaft (211); a hollow round block (209) is rotatably mounted on the rotating protrusion (210); and the hollow round block (209) is slidably connected to a transverse sliding block (213).

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