A production line for prefabricated building components

Abstract

The present invention relates to a prefabricated component production line for assembled buildings, comprising a hopper placed above a steel truss mold and a mold platform placed below the steel truss mold, a discharging baffle is installed at the discharging port at the bottom of the hopper, a discharging mounting shaft is installed on the discharging baffle, a plurality of discharging mechanisms are installed on the discharging mounting shaft, a bracket is installed on the periphery of the hopper, a vibration mechanism is installed at the rear of the bracket, a smoothing mechanism is installed at the tail of the bracket, a left support wheel and a right support wheel are installed on both sides of the bracket, and the hopper is driven by a left and right moving crane, and the left and right moving cranes are installed on the front and rear moving cranes. The beneficial effects of the present invention are: the assembled prefabricated components being manufactured can be laid, vibrated, smoothed and maintained without moving, which greatly reduces the floor space occupied by the production line, facilitates the production line to be directly placed on the construction site for production, greatly reduces the transportation cost of prefabricated parts, ensures the quality of prefabricated parts, and thus greatly reduces the investment cost of the prefabricated component production line.

Description

1. Technical field

[0002] The invention belongs to the technical field of building engineering material manufacturing, and in particular relates to an assembled building prefabricated component production line. 2. Background technology

[0004] Prefabricated buildings refer to prefabricated walls, prefabricated beams, prefabricated composite panels, prefabricated columns, prefabricated stair slabs, etc. used in buildings that are produced and processed in factories and then transported to construction sites to be assembled into high-quality commercial buildings, residential buildings, etc. Compared with cast-in-place buildings, prefabricated buildings can reduce the time and resource investment in cast-in-place formwork, and reduce the cast-in-place maintenance cycle. Therefore, prefabricated buildings have the advantages of short construction period, low resource consumption, green environmental protection, low cost, reduced garbage and sewage, and reduced construction noise. Usually, the prefabricated parts factory and the construction site are far apart, and the prefabricated components need to be transported over long distances, which poses many problems: prefabricated components are large in size, difficult to carry, and have extremely high transportation costs; prefabricated components are easily damaged by cracking during transportation, which not only causes economic losses, but also poses a major safety hazard to the building. At present, some prefabricated component production lines have been moved to construction sites for on-site production. However, the prefabricated components that have been completed need to be vibrated, smoothed, and maintained together with the formwork. This requires a huge area of ​​site and has high production costs. More formwork is required for recycling, and the investment cost of the production line is relatively high, generally reaching over 100 million yuan. (III) Summary of the invention

[0006] In order to make up for the deficiencies of the prior art, the present invention provides a production line for prefabricated building components with small footprint, low investment cost, flexible production site, high production efficiency and wide application range.

[0007] The present invention is achieved through the following technical solutions:

[0008] A production line for prefabricated components of assembled buildings comprises a hopper placed above a steel truss mould and a mould table placed below the steel truss mould, and is characterized in that a discharge baffle is installed at the discharge port at the bottom of the hopper, a discharge mounting shaft is installed on the discharge baffle, a plurality of discharge mechanisms are installed on the discharge mounting shaft, a bracket is installed on the periphery of the hopper, a vibration mechanism is installed at the rear of the bracket, a smoothing mechanism is installed at the tail of the bracket, a left supporting wheel and a right supporting wheel are respectively installed on both sides of the bracket, and the hopper is driven by a left and right moving crane, and the left and right moving crane is installed on a front and rear moving crane.

[0009] The formwork platform includes a steel plate surface layer that supports the steel truss mold, a steel plate frame is connected below the steel plate surface layer, a concrete warming layer, a polyurethane insulation layer and a concrete protective layer are arranged in the steel plate frame from top to bottom, a plurality of heating water branch pipes are connected in parallel in the concrete warming layer, the heating water branch pipes are connected to the heating water main pipe, and the concrete warming layer, the polyurethane insulation layer and the concrete protective layer are connected to the steel plate surface layer and the steel plate frame through a steel mesh.

[0010] The discharging mechanism includes an arc discharging door, which is fixed on a discharging sleeve, which is arranged on a discharging mounting shaft, the discharging sleeve is fixed to one end of a discharging power rod, the other end of the discharging power rod is hinged to a discharging cylinder, the other end of the discharging cylinder is hinged to a discharging hanging rod, and the discharging hanging rod is fixed to the outer wall of the hopper.

[0011] A discharging limiting screw is arranged above the arc discharging door, and a discharging limiting nut is installed on the discharging limiting screw.

[0012] The vibration mechanism includes a plurality of vibration rods, which are installed on a vibration frame, on which a vibration pump is installed, vibration screws are installed at both ends of the vibration frame, the vibration screws are inserted into a vibration branch pipe, a vibration spring located above the vibration branch pipe is sleeved on the upper part of the vibration screw, a vibration adjustment nut installed on the vibration screw is provided above the vibration spring, and the vibration branch pipe is fixed on the bracket.

[0013] The vibrating rod is inserted into the vibrating rod installation tube and fixed by the vibrating rod locking bolt. The vibrating rod installation tube is fixed on the vibrating rod adjustment sleeve. The vibrating rod adjustment sleeve is sleeved on the vibrating frame and fixed by the vibrating rod adjustment locking bolt.

[0014] The smoothing mechanism includes a trowel plate, which is inserted into a trowel plate mounting tube and fixed with a trowel plate locking bolt. The trowel plate mounting tube is fixed on a trowel plate adjusting sleeve. The trowel plate adjusting sleeve is mounted on a trowel frame and fixed with a trowel plate adjusting locking bolt. The trowel frame is installed at the tail of the bracket.

[0015] The right support wheel is inserted into the right support wheel mounting tube and fixed with the right support wheel locking bolt, the right support wheel mounting tube is fixed on the bracket, the left support wheel is inserted into the left support wheel mounting tube and fixed with the left support wheel locking bolt, the left support wheel mounting tube is fixed on the left support wheel adjusting sleeve, the left support wheel adjusting sleeve is sleeved on the left support wheel frame and fixed with the left support wheel adjusting locking bolt, and the left support wheel frame is installed between the bracket and the outer wall of the hopper.

[0016] Guide blocks are installed at the four corners of the hopper, the guide blocks are clamped in the guide grooves, the guide grooves are installed below the left and right moving cranes, the guide blocks are connected to the wire ropes, the wire ropes are wound on the reels, and the reels are driven by the winch motor.

[0017] A crane trolley is arranged above the left-right movable trolley.

[0018] A stirring screw is installed at the bottom of the hopper. The stirring screw is driven by a stirring motor through a stirring chain. The stirring motor is installed on a bracket.

[0019] Vibrating feeding pumps are installed on both sides of the front end of the hopper.

[0020] A reinforcing rib plate is installed on the inner wall of the hopper, and a reinforcing rib rod is connected to the top of the hopper.

[0021] The beneficial effects of the present invention are as follows: the fabrication of prefabricated components can be completed with laying, vibration, leveling and maintenance without moving them, which greatly reduces the floor space occupied by the production line, facilitates placing the production line directly on the construction site for production, greatly reduces the transportation cost of the prefabricated components, ensures the quality of the prefabricated components, and thus greatly reduces the investment cost of the prefabricated building component production line. (IV) Description of the drawings

[0023] The present invention will be further described below in conjunction with the accompanying drawings.

[0024] Attached Figure 1 It is a schematic diagram of the plane layout structure of the present invention;

[0025] Attached Figure 2 It is a schematic diagram of the mold platform structure of the present invention;

[0026] Attached Figure 3 It is a schematic diagram of the structure of the discharging mechanism of the present invention;

[0027] Attached Figure 4 It is a schematic diagram of the structure of the vibration mechanism of the present invention;

[0028] Attached Figure 5 It is a schematic diagram of the structure of the smoothing mechanism of the present invention;

[0029] Attached Figure 6 It is a schematic diagram of the hopper installation structure of the present invention;

[0030] Attached Figure 7 This is a schematic diagram of the installation structure of the left support wheel of the present invention;

[0031] Attached Figure 8 It is a schematic diagram of the installation structure of the right support wheel of the present invention;

[0032] Attached Fig. 9 This is a schematic diagram of the stirring screw transmission structure of the present invention;

[0033] Attached Fig.10 It is a schematic diagram of the installation structure of the vibration blanking pump of the present invention;

[0034] In the figure, 1 hopper, 2 mold table, 3 discharging baffle, 4 discharging installation shaft, 5 discharging mechanism, 6 bracket, 7 vibration mechanism, 8 smoothing mechanism, 9 left support wheel, 10 right support wheel, 11 left and right moving crane, 12 front and back moving crane, 13 steel plate surface layer, 14 steel plate frame, 15 concrete heating layer, 16 polyurethane insulation layer, 17 concrete protective layer, 18 heating water branch pipe, 19 heating water main pipe, 20 steel mesh, 21 arc discharging door, 22 discharging sleeve, 23 discharging power rod, 24 discharging cylinder, 25 discharging hanging rod, 26 discharging limit screw, 27 discharging limit nut, 28 vibrating rod, 29 vibrating frame, 30 vibrating pump, 31 vibrating screw, 32 vibrating branch pipe, 33 vibrating spring, 34 vibrating adjusting nut, 3 5 Vibration rod mounting tube, 36 Vibration rod locking bolt, 37 Vibration rod adjustment sleeve, 38 Vibration rod adjustment locking bolt, 39 Smoothing plate, 40 Smoothing plate mounting tube, 41 Smoothing plate locking bolt, 42 Smoothing plate adjustment sleeve, 43 Smoothing frame, 44 Smoothing plate adjustment locking bolt, 45 Right support wheel mounting tube, 46 Right support wheel locking bolt, 47 Left support wheel mounting tube, 48 Left support wheel locking bolt, 49 Left support wheel adjustment sleeve, 50 Left support wheel frame, 51 Left support wheel adjustment locking bolt, 52 Guide block, 53 Guide groove, 54 Wire rope, 55 Reel, 56 Winch motor, 57 Crane trolley, 58 Mixing screw, 59 Mixing chain, 60 Mixing motor, 61 Vibration blanking pump, 62 Reinforcement rib plate, 63 Reinforcement rib rod. (V) Specific implementation methods

[0036] The accompanying drawings are a specific embodiment of the present invention. The embodiment includes a hopper 1 placed above the steel truss mold and a mold platform 2 placed below the steel truss mold, a discharge baffle 3 is installed at the discharge port at the bottom of the hopper 1, a discharge mounting shaft 4 is installed on the discharge baffle 3, and several groups of discharge mechanisms 5 are installed on the discharge mounting shaft 4, a bracket 6 is installed on the periphery of the hopper 1, a vibration mechanism 7 is installed at the rear of the bracket 6, a smoothing mechanism 8 is installed at the tail of the bracket 6, a left support wheel 9 and a right support wheel 10 are installed on both sides of the bracket 6, and the hopper 1 is driven by a left and right moving crane 11, and the left and right moving crane 11 is installed on a front and rear moving crane 12. The formwork platform 2 includes a steel plate surface layer 13 that supports the steel truss mold. A steel plate frame 14 is connected to the bottom of the steel plate surface layer 13. A concrete warming layer 15, a polyurethane insulation layer 16 and a concrete protective layer 17 are arranged in the steel plate frame 14 from top to bottom. A plurality of heating water branch pipes 18 are connected in parallel in the concrete warming layer 15. The heating water branch pipes 18 are connected to the heating water main pipe 19. The concrete warming layer 15, the polyurethane insulation layer 16 and the concrete protective layer 17 are connected to the steel plate surface layer 13 and the steel plate frame 14 through a steel mesh 20.

[0037] The discharge mechanism 5 includes an arc discharge door 21, which is fixed on a discharge sleeve 22, which is sleeved on a discharge installation shaft 4, and the discharge sleeve 22 is fixed to one end of a discharge power rod 23, and the other end of the discharge power rod 23 is hinged to a discharge cylinder 24, and the other end of the discharge cylinder 24 is hinged to a discharge hanging rod 25, which is fixed to the outer wall of the hopper 1. A discharge limiting screw 26 is provided above the arc discharge door 21, and a discharge limiting nut 27 is installed on the discharge limiting screw 26.

[0038] The vibration mechanism 7 includes a plurality of vibration rods 28, which are mounted on a vibration frame 29, on which a vibration pump 30 is mounted, and vibration screws 31 are mounted at both ends of the vibration frame 29, which are inserted into a vibration branch pipe 32, and a vibration spring 33 located above the vibration branch pipe 32 is sleeved on the upper part of the vibration screw 31, and a vibration adjustment nut 34 mounted on the vibration screw 31 is arranged above the vibration spring 33, and the vibration branch pipe 32 is fixed to the bracket 6. The vibration rod 28 is inserted into a vibration rod mounting tube 35 and fixed with a vibration rod locking bolt 36, and the vibration rod mounting tube 35 is fixed on a vibration rod adjustment sleeve 37, and the vibration rod adjustment sleeve 37 is sleeved on the vibration frame 29 and fixed with a vibration rod adjustment locking bolt 38.

[0039] The smoothing mechanism 8 includes a trowel plate 39, which is inserted into a trowel plate mounting tube 40 and fixed with a trowel plate locking bolt 41. The trowel plate mounting tube 40 is fixed on a trowel plate adjusting sleeve 42. The trowel plate adjusting sleeve 42 is sleeved on a trowel frame 43 and fixed with a trowel plate adjusting locking bolt 44. The trowel frame 43 is installed at the tail end of the bracket 6.

[0040] The right support wheel 10 is passed through the right support wheel mounting tube 45 and fixed with the right support wheel locking bolt 46. The right support wheel mounting tube 45 is fixed on the bracket 6. The left support wheel 9 is passed through the left support wheel mounting tube 47 and fixed with the left support wheel locking bolt 48. The left support wheel mounting tube 47 is fixed on the left support wheel adjusting sleeve 49. The left support wheel adjusting sleeve 49 is sleeved on the left support wheel frame 50 and fixed with the left support wheel adjusting locking bolt 51. The left support wheel frame 50 is installed between the bracket 6 and the outer wall of the hopper 1.

[0041] Guide blocks 52 are installed at the four corners of the hopper 1. The guide blocks 52 are stuck in the guide grooves 53. The guide grooves 53 are installed below the left and right moving crane 11. The guide blocks 52 are connected to the wire rope 54. The wire rope 54 is wound on the reel 55. The reel 55 is driven by the hoisting motor 56. A hoisting crane 57 is installed above the left and right moving crane 11. A stirring screw 58 is installed at the bottom of the hopper 1. The stirring screw 58 is driven by the stirring motor 60 through the stirring chain 59. The stirring motor 60 is installed on the bracket 6. Vibrating blanking pumps 61 are installed on both sides of the front end of the hopper 1. A reinforcing rib plate 62 is installed on the inner wall of the hopper 1, and a reinforcing rib rod 63 is connected to the top of the hopper 1.

[0042] By using the prefabricated building component production line of the present invention, the tied steel truss molds are placed on the mold platform 2 in sequence. Multiple rows of steel truss molds can be arranged on the multiple rows of mold platforms 2. Each row of steel truss molds can also be multiple. The prepared materials are loaded into the hopper 1, and the hopper 1 is transported to the beginning of the steel truss mold by moving the trolley 12 forward and backward, and then the hopper 1 is brought to one of the rows of steel truss molds by moving the trolley 11 left and right. Start the hoisting motor 56 to drive the reel 55 to rotate, so as to lower the wire rope 54. At this time, the guide block 52 descends along the guide groove 53 until the left support wheel 9 and the right support wheel 10 contact the tracks on both sides of the steel truss mold and stop. The heights of the left support wheel 9 and the right support wheel 10 can be adjusted by adjusting the length of the left support wheel 9 extending into the left support wheel mounting tube 47 and the length of the right support wheel 10 extending into the right support wheel mounting tube 45 respectively, and then they are locked with the left support wheel locking bolt 48 and the right support wheel locking bolt 46 respectively, so as to adjust the height of the cloth to adapt to the thickness of different prefabricated components; the right support wheel 10 is fixed in the horizontal direction relative to the bracket 6 and the hopper 1. By adjusting the position of the left support wheel adjusting sleeve 49 on the left support wheel frame 50, and then tightening the left support wheel adjusting locking bolt 51, the distance between the left support wheel 9 and the right support wheel 10 can be adjusted to adapt to the width of different prefabricated components.

[0043] The working principle of the discharge mechanism 5 is as follows: the discharge cylinder 24 is started to extend downward, driving the discharge power rod 23 to rotate around the discharge sleeve 22, and at the same time driving the discharge sleeve 22 to rotate around the discharge installation shaft 4. The discharge sleeve 22 drives the arc discharge door 21 to open. During the opening process, the arc discharge door 21 is blocked by the discharge limit nut 27, and the door is now at its maximum opening position. By adjusting the position of the discharge limit nut 27 on the discharge limit screw 26, the maximum position of the arc discharge door 21 can be adjusted. The discharge baffle 3 not only provides a mounting carrier for the discharge installation shaft 4, but also prevents the material from overflowing to the outside during the outflow process. Each arc discharge door 21 corresponds to a discharge cylinder 24, that is, each arc discharge door 21 can be opened or closed separately, and each arc discharge door 21 can be opened at different angles, so that different prefabricated components or different sizes of the same prefabricated components can be used.

[0044] Working principle of vibration mechanism 7: vibration mechanism 7 is placed behind discharging mechanism 5 to vibrate the outflowing material. After the material flows into the steel bar truss mold, the vibration pump 30 is started, and the vibration pump 30 drives the vibration frame 29 to vibrate up and down, and the vibration frame 29 drives the vibration rod 28 to vibrate the material. During vibration, the two ends of the vibration frame 29 are respectively connected to the vibration screw 31, and the vibration screw 31 passes through the vibration branch pipe 32 and installs the vibration spring 33 to ensure the continuity and stability of the vibration. At the same time, the vibration spring 33 is fixed with a vibration adjustment nut 34 and a vibration branch pipe 32. By adjusting the position of the vibration adjustment nut 34 on the vibration screw 31, the amplitude of the vibration can be adjusted. By adjusting the height of the vibration rod 28 on the vibration rod mounting tube 35, and then tightening the vibration rod locking bolt 36, you can choose to use or not use this vibration rod 28, and adapt to different prefabricated components. In addition, by adjusting the position of the vibration rod adjustment sleeve 37 on the vibration frame 29, and then tightening the vibration rod adjustment locking bolt 38, the vibration position of the vibration rod 28 can be adjusted.

[0045] Working principle of smoothing mechanism 8: Smoothing mechanism 8 is arranged behind vibration mechanism 7 to smooth the material after vibration. Smoothing plate 39 moves forward with bracket 6, and its structure is a sloped surface with high front and low back, which can quickly smooth the material after vibration. Similar to vibration mechanism 7, the height of trowel plate 39 can be adjusted by adjusting the length of trowel plate 39 extending into trowel plate mounting tube 40, and then tightening trowel plate locking bolt 41. At the same time, by adjusting the position of trowel plate adjustment sleeve 42 on trowel frame 43, the position of trowel plate 39 can be adjusted to adapt to the production of different prefabricated components, and then tightening trowel plate adjustment locking bolt 44.

[0046] After the prefabricated components are laid, vibrated and smoothed, they can be cured naturally on the mold platform 2. Hot water can be injected into the heating water main pipe 19, and then the hot water enters the mold platform 2 through the heating water branch pipe 18, so that the prefabricated components located above the mold platform 2 can be quickly cured. Each prefabricated component is placed on an independent mold platform 2, and the hot water entering the heating water branch pipe 18 can be controlled by a switch. If several mold platforms 2 are used, only several mold platforms 2 can be heated and cured; and each heating water branch pipe 18 is connected to the heating water main pipe 19 through a switch. For different prefabricated components of different widths, hot water can be respectively sent to the required heating water branch pipes 18 to cure the prefabricated components, saving hot water resources. The steel plate surface layer 13 serves as the bearing surface of the mold platform 2 to bear the weight of the prefabricated components and the hopper 1. The steel plate frame 14 frames the concrete heating layer 15, the polyurethane insulation layer 16 and the concrete protective layer 17 together, and further connects and fastens the above three parts together through the steel mesh 20, thereby ensuring the stability of the formwork platform 2. The concrete heating layer 15 protects the heating water branch pipe 18, which can not only quickly transfer heat to the prefabricated components above, but also prevent the heating water branch pipe 18 from being damaged by pressure. The polyurethane insulation layer 16 prevents heat from being transferred downward, greatly improving the heat utilization rate. In this way, the prefabricated components can be quickly maintained without moving, greatly reducing the floor space. The prefabricated components that have been maintained can be lifted away by the lifting trolley 57 to make room for making new prefabricated components.

[0047] The stirring motor 60 drives the stirring screw 58 to rotate forward or reversely through the stirring chain 59, which can not only stir the materials in the hopper 1, but also push the materials in the position where too much material is accumulated to the part with less material, so as to promote the uniformity of the discharge. A vibration discharge pump 61 is installed at the bottom of the front of the hopper 1, which can vibrate the materials adhering to the inner wall of the hopper 1 at the end, not only avoiding material waste, but also preventing the discharge port of the hopper 1 from being blocked due to excessive adhesion of materials. Since the hopper 1 is large in size and needs to be vibrated and leveled during the material distribution process, the reinforcing rib plate 62 and the reinforcing rib rod 63 can ensure the firmness of the entire hopper 1.

Claims

1. A production line for prefabricated building components, comprising a hopper (1) disposed above a steel truss mold and a mold table (2) disposed below the steel truss mold, wherein: A discharge baffle (3) is installed at the discharge port at the bottom of the hopper (1), a discharge mounting shaft (4) is installed on the discharge baffle (3), and a plurality of discharge mechanisms (5) are installed on the discharge mounting shaft (4). A bracket (6) is installed on the outer periphery of the hopper (1), a vibration mechanism (7) is installed at the rear of the bracket (6), a smoothing mechanism (8) is installed at the rear of the bracket (6), and a left support wheel (9) and a right support wheel (10) are installed on both sides of the bracket (6). The hopper (1) is driven by a left and right movable crane (11), and the left and right movable crane (11) is installed at the front and rear ends. The mold platform (2) includes a steel plate surface layer (13) for receiving the steel truss mold, a steel plate frame (14) is connected below the steel plate surface layer (13), a concrete heating layer (15), a polyurethane insulation layer (16) and a concrete protective layer (17) are arranged in the steel plate frame (14) from top to bottom, a plurality of heating water branch pipes (18) are connected in parallel in the concrete heating layer (15), the heating water branch pipes (18) are connected to the heating water main pipe (19), and the concrete heating layer (15), the polyurethane insulation layer (16) and the concrete protective layer (17) are connected to the concrete heating layer (15). The layer (17) is connected to the steel plate surface layer (13) and the steel plate frame (14) through the steel mesh (20); the right support wheel (10) is inserted into the right support wheel mounting tube (45) and fixed with the right support wheel locking bolt (46); the right support wheel mounting tube (45) is fixed on the bracket (6); the left support wheel (9) is inserted into the left support wheel mounting tube (47) and fixed with the left support wheel locking bolt (48); the left support wheel mounting tube (47) is fixed on the left support wheel adjustment sleeve (49); the left support wheel adjustment sleeve (49) is sleeved on the left support wheel frame ( The left supporting wheel frame (50) is fixed with a left supporting wheel adjusting locking bolt (51), and the left supporting wheel frame (50) is installed between the bracket (6) and the outer wall of the hopper (1); guide blocks (52) are installed at the four corners of the hopper (1), and the guide blocks (52) are clamped in the guide grooves (53), and the guide grooves (53) are installed below the left and right movable crane (11), and the guide blocks (52) are connected to the wire rope (54), and the wire rope (54) is wound on the reel (55), and the reel (55) is driven by the hoisting motor (56), and a hoisting crane (57) is provided above the left and right movable crane (11).

2. The assembly type building prefabricated component production line according to claim 1 is characterized in that: The discharging mechanism (5) comprises an arc discharging door (21), the arc discharging door (21) is fixed on a discharging sleeve (22), the discharging sleeve (22) is sleeved on a discharging mounting shaft (4), the discharging sleeve (22) is fixed to one end of a discharging power rod (23), the other end of the discharging power rod (23) is hinged to a discharging cylinder (24), the other end of the discharging cylinder (24) is hinged to a discharging hanging rod (25), and the discharging hanging rod (25) is fixed to the outer wall of the hopper (1).

3. The assembly type building prefabricated component production line according to claim 2 is characterized in that: A discharge limiting screw (26) is provided above the arc discharge door (21), and a discharge limiting nut (27) is mounted on the discharge limiting screw (26).

4. The assembly type building prefabricated component production line according to claim 1 is characterized in that: The vibration mechanism (7) comprises a plurality of vibration rods (28), the vibration rods (28) being mounted on a vibration frame (29), a vibration pump (30) being mounted on the vibration frame (29), vibration screws (31) being mounted at both ends of the vibration frame (29), the vibration screws (31) being inserted into a vibration branch pipe (32), a vibration spring (33) being sleeved on the upper part of the vibration screw (31) and being located above the vibration branch pipe (32), a vibration adjustment nut (34) being mounted on the vibration screw (31) being disposed above the vibration spring (33), and the vibration branch pipe (32) being fixed on a bracket (6).

5. The assembly type building prefabricated component production line according to claim 4 is characterized in that: The vibrating rod (28) is inserted into the vibrating rod mounting tube (35) and fixed by a vibrating rod locking bolt (36); the vibrating rod mounting tube (35) is fixed on a vibrating rod adjustment sleeve (37); the vibrating rod adjustment sleeve (37) is sleeved on the vibrating frame (29) and fixed by a vibrating rod adjustment locking bolt (38).

6. The assembly type building prefabricated component production line according to claim 1 is characterized in that: The smoothing mechanism (8) comprises a smoothing plate (39), the smoothing plate (39) is inserted into a smoothing plate mounting tube (40) and fixed by a smoothing plate locking bolt (41), the smoothing plate mounting tube (40) is fixed on a smoothing plate adjusting sleeve (42), the smoothing plate adjusting sleeve (42) is sleeved on a smoothing frame (43) and fixed by a smoothing plate adjusting locking bolt (44), and the smoothing frame (43) is mounted on the rear end of the bracket (6).

7. The assembly type building prefabricated component production line according to claim 1 is characterized in that: A stirring screw (58) is installed at the bottom of the hopper (1). The stirring screw (58) is driven by a stirring motor (60) through a stirring chain (59). The stirring motor (60) is installed on a bracket (6). Vibrating feeding pumps (61) are installed on both sides of the front end of the hopper (1). A reinforcing rib plate (62) is installed on the inner wall of the hopper (1). The top of the hopper (1) is connected to a reinforcing rib rod (63).

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