A building block forming device

Abstract

The utility model relates to building block forming technical field, proposes a kind of building block forming device, including the feeding assembly for material feeding, the side of the feeding assembly is used for the block forming assembly of block forming, the other side of the block forming assembly is provided with the oscillation component for material oscillation compaction, the inside of the oscillation component is provided with the vibration motor for oscillation, through the setting of vibration rod and vibration motor etc. Structure in oscillation component, when third cylinder drives vibration rod inserts inside mould, high-frequency vibration generated by vibration motor is directly transmitted to material core area through sliding plate, effectively removes internal bubble, so that material distribution is more uniform, while the block briquetting of the bottom of pressure plate is cooperated with mould cavity, under the drive of hydraulic cylinder, balanced pressure is applied to material, ensure that block internal structure is dense, improve the compressive strength and overall quality of block, solve the problem of insufficient finished product quality and high scrap rate in prior art.

Description

Technical Field

[0001] This utility model relates to the field of building block forming technology, specifically, to a building block forming device. Background Technology

[0002] In the field of building block production, the level of automation and structural design of the molding equipment directly determines the density, molding efficiency and product quality of the blocks.

[0003] A block processing and molding device, with existing patent publication number CN222021868U, uses a motor-driven lead screw to move a mold box downwards and utilizes a gear and rack mechanism linked with a swing plate to automatically push away the finished block. Although this device reduces the cost of manual blank removal through mechanical structure optimization, its reliance on the downward movement of the mold box and the scraping demolding method on the worktable can easily lead to damage to the edges of the blocks. Furthermore, this patent lacks pre-compacting treatment of the material, making it difficult to remove air bubbles inside the blocks, thus affecting the strength and durability of the final product.

[0004] However, this device primarily relies on the scraping action between the mold box and the fixed worktable as the mold box moves downwards to achieve demolding, and then uses gear transmission to push the blocks apart. This mechanical demolding mechanism has two major drawbacks: First, in terms of material compaction, relying solely on natural settling or simple vibration cannot effectively remove air from the material, resulting in porosity in the molded blocks, directly affecting their compressive strength and durability; second, during the demolding process, the scraping separation method is poorly adapted to viscous materials, easily causing wear and tear on the block surface and damage to the edges, which not only increases the scrap rate, but also limits the single function of its pusher mechanism to playing an auxiliary compaction role in the pressing stage. Utility Model Content

[0005] This utility model proposes a building block forming device, which solves the problems of insufficient finished product quality and high scrap rate in related technologies.

[0006] The technical solution of this utility model is as follows: a building block forming device, including a feeding component for feeding materials, and a block forming component on one side of the feeding component for forming blocks; On the other side of the block forming assembly, there is a vibration assembly for compacting the material by vibration. Inside the vibration assembly, there is a vibration motor for vibration, and inside the vibration assembly, there is a third cylinder for extending the vibration rod.

[0007] In a preferred embodiment of this utility model, the vibration assembly consists of a second cylinder and a telescopic frame. The second cylinder is installed on one side of the block forming assembly, the telescopic frame is located at the output end of the second cylinder, the vibration motor is located on the top of the telescopic frame, and a vibration frame is installed at the output end of the vibration motor. Several dampers are equidistantly distributed on the vibration frame and the telescopic frame.

[0008] As a preferred embodiment of this utility model, the third cylinder is installed on the top of the vibration frame, a connecting shaft is installed at the output end of the third cylinder, a sliding plate is fixedly connected to the bottom of the connecting shaft by bolts, and a plurality of equally spaced vibration rods are arranged at the bottom of the sliding plate. The top of the sliding plate is fixedly connected to several equidistant limiting sliders, which are slidably assembled inside the vibration frame.

[0009] In a preferred embodiment of the present invention, the feeding assembly consists of a support frame and a receiving frame. The support frame is disposed on the outer peripheral surface of the feeding assembly. A first cylinder is installed on one side of the support frame. The receiving frame is disposed at the output end of the first cylinder. A receiving tray is disposed at the bottom of the receiving frame.

[0010] In a preferred embodiment of the present invention, the block forming assembly consists of a pressure plate and a block mold, wherein the block mold is slidably mounted on the bottom of the block forming assembly and the pressure plate is slidably mounted on the top of the block mold.

[0011] As a preferred embodiment of this utility model, a hydraulic cylinder is installed on the top of the block forming assembly, the pressure plate is installed on the output end of the hydraulic cylinder, a number of equidistant limiting rods are fixedly connected to the top of the pressure plate, the limiting rods are slidably assembled inside the block forming assembly, and a number of block pressing blocks equivalent to the number of vibration rods are fixedly connected to the bottom of the pressure plate.

[0012] As a preferred embodiment of this utility model, height adjustment cylinders are provided on both sides of the bottom of the block forming component. A connecting plate is installed at the output end of the height adjustment cylinder. The block mold is installed on one side of both connecting plates. Several equidistant limiting shafts are fixedly connected to the bottom of the block mold. The limiting shafts are slidably assembled inside the block forming component.

[0013] As a preferred embodiment of the present invention, the bottom of the block forming component is provided with a pressure-bearing base, the inside of the pressure-bearing base is provided with a conveyor belt that passes through the pressure-bearing base, and an extractable block placement plate is provided on the pressure-bearing base and the conveyor belt.

[0014] The working principle and beneficial effects of this utility model are as follows: 1. This utility model, through the setting of the vibrating rod and vibrating motor in the vibration assembly, when the third cylinder drives the vibrating rod to be inserted into the mold, the high-frequency vibration generated by the vibrating motor is directly transmitted to the core area of ​​the material through the sliding plate, effectively eliminating internal air bubbles and making the material distribution more uniform. At the same time, the block pressing block at the bottom of the pressure plate cooperates with the mold cavity, and applies balanced pressure to the material under the drive of the hydraulic cylinder, ensuring that the internal structure of the block is dense and improving the compressive strength and overall quality of the block.

[0015] 2. This utility model, through the setting of structures such as height adjustment cylinder and limiting shaft, the height adjustment cylinder drives the block mold to move vertically downward along the limiting shaft through the connecting plate, avoiding the damage to the blank body caused by traditional scraping demolding. Combined with the material distribution system of receiving frame and receiving tray in the feeding assembly, it ensures uniform and consistent material filling and reduces the scrap rate in the production process. Attached Figure Description

[0016] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0017] Figure 1 This is a schematic diagram of the overall structure of this utility model; Figure 2 This is a schematic diagram of the overall structure of the block forming component of this utility model; Figure 3 This is a schematic diagram of the overall structure of the feeding assembly of this utility model; Figure 4 This is a schematic diagram of the overall structure of the oscillation component of this utility model; Figure 5 This is a bottom view of the oscillation component of this utility model; Figure 6 This is a schematic diagram of the overall structure of the vibration frame of this utility model; Figure 7 This is a schematic diagram of the overall structure of the sliding plate of this utility model.

[0018] In the diagram: 100, feeding assembly; 101, support frame; 102, receiving tray; 103, first cylinder; 104, receiving frame; 200. Vibration assembly; 201. Second cylinder; 202. Telescopic frame; 203. Vibration motor; 204. Vibration frame; 205. Damper; 206. Third cylinder; 207. Connecting shaft; 208. Sliding plate; 209. Limiting slider; 210. Vibration rod; 300. Block forming component; 301. Hydraulic cylinder; 302. Pressure plate; 303. Limiting rod; 304. Block pressing block; 305. Height adjusting cylinder; 306. Connecting plate; 307. Limiting shaft; 308. Block mold; 309. Pressure bearing base; 310. Conveyor belt; 311. Block placement plate. Detailed Implementation

[0019] The technical solutions of this utility model will be clearly and completely described below with reference to the embodiments of this utility model. Obviously, the described embodiments are only some embodiments of this utility model, and not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of this utility model.

[0020] Example like Figures 1-7 As shown, a building block forming device includes a feeding assembly 100 for feeding materials, and a block forming assembly 300 on one side of the feeding assembly 100 for forming blocks. On the other side of the block forming assembly 300, there is a vibration assembly 200 for compacting materials by vibration. Inside the vibration assembly 200, there is a vibration motor 203 for vibration. Inside the vibration assembly 200, there is a third cylinder 206 for extending the vibration rod 210.

[0021] A building block forming device includes a feeding assembly 100 for feeding materials, one side of which is connected to a block forming assembly 300 for forming blocks. The other side of the block forming assembly 300 is equipped with a vibrating assembly 200 for compacting the materials. The feeding assembly 100 is responsible for conveying materials such as concrete or mortar to the inlet of the block forming assembly 300, driving a continuous supply of materials. The block forming assembly 300 then presses the materials into building blocks using a mold and a pressure mechanism. The vibrating assembly 200 is located to the side of the block forming assembly 300 and contains a vibration motor 203. The vibration motor 203 drives an eccentric wheel to generate high-frequency vibration. Energy is transmitted to the frame structure of the vibration component 200 through the drive shaft, thereby vibrating and compacting the material. The vibration component 200 also has a third cylinder 206 inside. The third cylinder 206 acts as a linear actuator, driving the piston rod to extend and retract via pneumatic or hydraulic pressure, thereby controlling the extension and retraction of the vibrating rod 210. When the material is filled into the mold of the block forming component 300, the third cylinder 206 pushes the vibrating rod 210 into the mold. At the same time, the vibration motor 203 starts, causing the vibrating rod 210 to apply high-frequency vibration to the material, eliminating air bubbles and increasing density. The feeding component 100 first feeds in the material, the vibration component 200 pre-compacts it, and finally the block forming component 300 completes the pressing.

[0022] The vibration assembly 200 consists of a second cylinder 201 and a telescopic frame 202. The second cylinder 201 is installed on one side of the block forming assembly 300. The telescopic frame 202 is located at the output end of the second cylinder 201. The vibration motor 203 is located on the top of the telescopic frame 202. The output end of the vibration motor 203 is equipped with a vibration frame 204. Several equally spaced dampers 205 are provided on the vibration frame 204 and the telescopic frame 202.

[0023] The vibration assembly 200 consists of a second cylinder 201 and a telescopic frame 202. The second cylinder 201 is installed on one side of the block forming assembly 300 and fixed to the frame by bolts. Its output end is connected to the telescopic frame 202. The second cylinder 201 drives the piston rod to move linearly by air pressure, thereby pushing the telescopic frame 202 to move towards or away from the block forming assembly 300. The telescopic frame 202 adopts a nested rectangular frame structure, with inner and outer frames connected by slide rails, allowing for length adjustment under the drive of the second cylinder 201. The vibration motor 203 is located on the top of the telescopic frame 202 and fixed by base bolts. Its output shaft is mounted with the vibration frame 204. When the vibration motor 203 is working, it generates a rotational vibration. The balancing force drives the vibrating frame 204 to generate high-frequency vibration. The vibrating frame 204 and the telescopic frame 202 are connected by several equally spaced dampers 205. The dampers 205 are usually composed of springs and hydraulic buffers. They absorb vibration energy by using elastic deformation and fluid resistance to prevent vibration from being transmitted to the telescopic frame 202 and the second cylinder 201, thereby protecting other components from damage. When the device is working, the second cylinder 201 first adjusts the position of the telescopic frame 202 so that the vibrating frame 204 is aligned with the mold. Then the vibration motor 203 is started, and the vibration is transmitted to the material through the vibrating frame 204. At the same time, the dampers 205 isolate most of the vibration, ensuring the stability of the telescopic frame 202 and the second cylinder 201.

[0024] The third cylinder 206 is installed on the top of the vibration frame 204. The output end of the third cylinder 206 is equipped with a connecting shaft 207. The bottom of the connecting shaft 207 is fixedly connected to a sliding plate 208 by bolts. The bottom of the sliding plate 208 is provided with several arrays of equally spaced vibration rods 210. Several equidistant limiting sliders 209 are fixedly connected to the top of the sliding plate 208, and the limiting sliders 209 are slidably assembled inside the vibration frame 204.

[0025] The third cylinder 206 of the vibration assembly 200 is mounted on the top of the vibration frame 204 and fixed by a flange. The third cylinder 206 is a double-acting cylinder, and the air pressure is controlled by a solenoid valve to drive the piston rod to move up and down. A connecting shaft 207 is installed at the output end of the third cylinder 206. The connecting shaft 207 is connected to the piston rod by a thread. A sliding plate 208 is bolted to its bottom. The sliding plate 208 is a rectangular steel plate, and several equally spaced vibrating rods 210 are arranged at its bottom. The vibrating rods 210 are used to directly insert into the material to transmit vibration. Several equally spaced limiting sliders 209 are fixedly connected to the top of the sliding plate 208. The limiting sliders 209 are rectangular sliders and are slidably assembled in the linear guide rail inside the vibration frame 204. To ensure that the sliding plate 208 can only move vertically and prevent horizontal deviation, when the third cylinder 206 is activated, the piston rod extends and pushes the sliding plate 208 downward through the connecting shaft 207, causing the vibrating rod 210 to extend into the material in the block mold 308. After the vibration motor 203 is started, the vibration is transmitted to the sliding plate 208 through the vibration frame 204. The limiting slider 209 slides in the guide rail, guiding the sliding plate 208 to vibrate up and down, thereby driving the vibrating rod 210 to vibrate and compact the material. After completion, the third cylinder 206 retracts and the vibrating rod 210 exits the mold. Through the cooperation of the limiting slider 209 and the guide rail, the guidance and stable vibration of the vibrating rod 210 are ensured, avoiding jamming or deflection, improving the compaction effect and the reliability of the device.

[0026] The feeding assembly 100 consists of a support frame 101 and a receiving frame 104. The support frame 101 is disposed on the outer peripheral surface of the feeding assembly 100. A first cylinder 103 is installed on one side of the support frame 101. The receiving frame 104 is disposed at the output end of the first cylinder 103. A receiving tray 102 is disposed at the bottom of the receiving frame 104.

[0027] The feeding assembly 100 consists of a support frame 101 and a receiving frame 104. The support frame 101 is disposed on the outer circumferential surface of the feeding assembly 100 and provides structural support and installation foundation. A first cylinder 103 is mounted on one side of the support frame 101. The first cylinder 103 is fixed by a mounting plate and is a double-acting cylinder. It drives the piston rod to extend and retract by air pressure. The output end of the first cylinder 103 is connected to the receiving frame 104. The receiving frame 104 is an open container used to receive materials conveyed from upstream equipment. A receiving tray 102 is provided at the bottom of the receiving frame 104. 2 is a shallow tray structure, connected to the receiving frame 104 via a slide rail, used for temporary storage of materials and to prevent leakage. When the device is working, the first cylinder 103 pushes the receiving frame 104 to move horizontally, aligning the receiving frame 104 with the feed port of the block forming assembly 300. The material is poured from the receiving frame 104 into the receiving tray 102, and then enters the block mold 308 by gravity. The stroke of the first cylinder 103 can be controlled by an adjusting valve to adapt to different feeding distances. The support frame 101 ensures the overall stability of the feeding assembly and prevents vibration or displacement during movement.

[0028] The block forming assembly 300 consists of a pressure plate 302 and a block mold 308. The block mold 308 is slidably mounted on the bottom of the block forming assembly 300, and the pressure plate 302 is slidably mounted on the top of the block mold 308.

[0029] The block forming assembly 300 consists of a pressure plate 302 and a block mold 308. The block mold 308 is slidably mounted on the bottom of the block forming assembly 300. Specifically, a vertical guide rail is provided at the bottom of the assembly, and sliders are installed on both sides of the block mold 308, allowing the block mold 308 to slide up and down along the guide rail. The pressure plate 302 is slidably mounted on the top of the block mold 308, and its vertical movement is also achieved through guide rods or linear bearings, ensuring that the pressure plate 302 remains horizontal during movement. The block mold 308 has multiple cavities inside, the shape of which is based on the block specifications. The design accommodates materials. The bottom of the pressure plate 302 has a raised structure corresponding to the cavity, which is used to form blocks under pressure. When the material is filled into the block mold 308, the pressure plate 302 moves downward under the action of the drive mechanism and enters the cavity of the block mold 308. Pressure is applied to the material, which is compressed and fills the cavity details to form the block shape. The sliding assembly of the block mold 308 allows it to move downward during demolding, thereby pushing the formed block out of the cavity. The sliding of the pressure plate 302 is controlled by a guide mechanism to prevent the block from being damaged or uneven in size due to bias.

[0030] A hydraulic cylinder 301 is installed on the top of the block forming assembly 300, and a pressure plate 302 is installed on the output end of the hydraulic cylinder 301. Several equidistant limiting rods 303 are fixedly connected to the top of the pressure plate 302. The limiting rods 303 are slidably assembled inside the block forming assembly 300. A block pressing block 304 with a number equivalent to the number of vibration rods 210 is fixedly connected to the bottom of the pressure plate 302.

[0031] A hydraulic cylinder 301 is mounted on the top of the block forming assembly 300. The hydraulic cylinder 301 is fixed to the assembly frame by base bolts. It is a single-acting or double-acting hydraulic cylinder, and the piston rod is driven by a hydraulic pump. A pressure plate 302 is mounted on the output end of the hydraulic cylinder 301. The pressure plate 302 is a heavy steel plate used to apply concentrated pressure. Several equidistant limit rods 303 are fixedly connected to the top of the pressure plate 302. The limit rods 303 are smooth, rigid round rods that slide inside the block forming assembly 300. Within the mold, the bottom of the pressure plate 302 is fixedly connected to block pressing blocks 304, the number of which is equal to the number of vibrating rods 210. The block pressing blocks 304 are raised modules, their shape matching the cavity of the block mold 308. They are used to form the surface texture and structure of the blocks under pressure. When the hydraulic cylinder 301 actuates, hydraulic oil enters the cylinder body, pushing the piston rod downwards, causing the pressure plate 302 and block pressing blocks 304 to move downwards. The limiting rod 303 slides along the guide sleeve to prevent the pressure plate 302 from rotating or tilting, ensuring that pressure is applied evenly to the material. The block pressing blocks 304 enter the cavity of the block mold 308, subjecting the material to high-pressure compression, making the material densely formed. After completion, the hydraulic cylinder 301 retracts, the pressure plate 302 rises, and the block pressing blocks 304 exit the cavity. This structure, through hydraulic drive and limiting guidance, provides stable high-pressure forming, ensuring the density and dimensions of the blocks.

[0032] Height adjustment cylinders 305 are provided on both sides of the bottom of the block forming component 300. A connecting plate 306 is installed at the output end of the height adjustment cylinder 305. The block mold 308 is installed on one side of both connecting plates 306. Several equidistant limiting shafts 307 are fixedly connected to the bottom of the block mold 308. The limiting shafts 307 are slidably assembled inside the block forming component 300.

[0033] Height adjustment cylinders 305 are installed on both sides of the bottom of the block forming component 300. The height adjustment cylinders 305 are fixed to the component frame via mounting bases and are double-acting cylinders. The piston rod extension and retraction are controlled by air pressure. A connecting plate 306 is installed at the output end of the height adjustment cylinder 305. The block mold 308 is simultaneously installed on one side of both connecting plates 306 and secured with bolts or clips to ensure a firm connection. Several equidistant limiting shafts 307, made of hard steel, are fixedly connected to the bottom of the block mold 308 and are slidably assembled on... The bearing inside the block forming assembly 300 allows the block mold 308 to move vertically while preventing horizontal displacement. The height adjusting cylinder 305 is used to adjust the height position of the block mold 308. During the material filling stage, the cylinder extends to put the block mold 308 in the upper position, which facilitates the material to enter the cavity. During the demolding stage, the cylinder retracts to drive the block mold 308 to move downward, so that the formed block is ejected from the cavity. The limiting shaft 307 provides guidance during the sliding process to ensure the linearity and stability of the block mold 308's movement and avoid jamming or tilting.

[0034] The bottom of the block forming assembly 300 is provided with a pressure-bearing base 309, and a conveyor belt 310 is provided inside the pressure-bearing base 309. An extractable block placement plate 311 is provided on the pressure-bearing base 309 and the conveyor belt 310.

[0035] The block forming assembly 300 has a pressure-bearing base 309 at its bottom, which is fixed to the ground by anchor bolts to withstand the high-pressure load during the forming process. A conveyor belt 310 runs through the pressure-bearing base 309, driven by a motor and made of wear-resistant material, for automatically conveying the formed blocks. An extractable block placement plate 311 is provided on the pressure-bearing base 309 and the conveyor belt 310. The block placement plate 311 is a flat, smooth surface for easy block placement and movement. During the forming process, the block placement plate 311 is located below the block mold 308. After the block is formed, the block mold 308 rises or the block placement plate 311 descends via a lifting mechanism, allowing the block to fall onto the plate. The conveyor belt 310 then starts, using rollers and belt drive to transport the block placement plate 311 and the blocks on it out of the device and into the curing area or packaging line.

[0036] Working principle: The support frame 101 provides a stable foundation. The first cylinder 103 on the support frame 101 drives the receiving frame 104 to move horizontally to the feed port of the block forming assembly 300. The material then falls from the receiving tray 102 at the bottom of the receiving frame 104 into the cavity of the block mold 308. Immediately afterwards, the vibration assembly 200 starts to pre-compact the material: First, the second cylinder 201 pushes the telescopic frame 202 to extend, so that the entire vibration unit is aligned with the block mold 308; at the same time, the third cylinder 206 installed on the top of the vibration frame 204 is activated, and its output end is connected to the... The connecting shaft 207 pushes the sliding plate 208 to move vertically downward along the guide rail inside the vibration frame 204 along the limiting slider 209, so that the vibration rods 210 distributed in the array at the bottom of the sliding plate 208 are inserted into the material in the mold. At this moment, the vibration motor 203 starts to generate high-frequency vibration. The vibration is transmitted to the sliding plate 208 and the vibration rods 210 through the vibration frame 204, which fully oscillates the material to remove air bubbles. The damper 205 between the telescopic frame 202 and the vibration frame 204 effectively absorbs most of the vibration and prevents it from being transmitted in reverse and damaging other components. After pre-compaction, the third cylinder 206 retracts the vibrating rod 210, the vibration component 200 resets, and then enters the pressing and molding stage. The hydraulic cylinder 301 at the top of the block forming component 300 drives the pressure plate 302 to press down. The limiting rod 303 at the top of the pressure plate 302 slides in the guide sleeve to ensure no deviation during the pressing process. At the same time, the block pressing block 304 at the bottom of the pressure plate 302 is embedded into the cavity of the block mold 308, applying high pressure to the material to make it compact and form. During this process or after forming, the height adjustment cylinders 305 located on both sides of the bottom of the block forming component 300 are activated, which drive the block mold 308 and its bottom limiting shaft 307 to move down along the bearing through the connecting plate 306 to achieve demolding. Finally, the formed blocks are placed on the removable block placement plate 311 on the pressure base 309. The conveyor belt 310 that runs through the pressure base 309 is started, and the block placement plate 311, which is fully loaded with blocks, is smoothly transported out of the device and enters the next stage, thus completing an automated production cycle.

[0037] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model shall be included within the protection scope of the present utility model.

Claims

1. A building block forming apparatus, comprising a feeding assembly (100) for feeding materials, and a block forming assembly (300) on one side of the feeding assembly (100) for forming blocks. Its characteristics are: On the other side of the block forming assembly (300), there is a vibration assembly (200) for compacting the material by vibration. Inside the vibration assembly (200) is a vibration motor (203) for vibration. Inside the vibration assembly (200) is a third cylinder (206) for extending the vibration rod (210).

2. The building block forming device according to claim 1, characterized in that, The vibration assembly (200) consists of a second cylinder (201) and a telescopic frame (202). The second cylinder (201) is installed on one side of the block forming assembly (300). The telescopic frame (202) is located at the output end of the second cylinder (201). The vibration motor (203) is located on the top of the telescopic frame (202). A vibration frame (204) is installed at the output end of the vibration motor (203). Several dampers (205) are arranged equidistantly on the vibration frame (204) and the telescopic frame (202).

3. The building block forming device according to claim 2, characterized in that, The third cylinder (206) is installed on the top of the vibration frame (204). A connecting shaft (207) is installed at the output end of the third cylinder (206). A sliding plate (208) is fixedly connected to the bottom of the connecting shaft (207) by bolts. Several arrayed vibration rods (210) are provided at the bottom of the sliding plate (208). The top of the sliding plate (208) is fixedly connected with several equidistant limiting sliders (209), which are slidably assembled inside the vibration frame (204).

4. The building block forming device according to claim 1, characterized in that, The feeding assembly (100) consists of a support frame (101) and a receiving frame (104). The support frame (101) is disposed on the outer peripheral surface of the feeding assembly (100). A first cylinder (103) is installed on one side of the support frame (101). The receiving frame (104) is disposed at the output end of the first cylinder (103). A receiving tray (102) is disposed at the bottom of the receiving frame (104).

5. A building block forming device according to claim 3, characterized in that, The block forming assembly (300) consists of a pressure plate (302) and a block mold (308). The block mold (308) is slidably mounted on the bottom of the block forming assembly (300), and the pressure plate (302) is slidably mounted on the top of the block mold (308).

6. A building block forming device according to claim 5, characterized in that, A hydraulic cylinder (301) is installed on the top of the block forming assembly (300), and a pressure plate (302) is installed on the output end of the hydraulic cylinder (301). A number of equally spaced limiting rods (303) are fixedly connected to the top of the pressure plate (302). The limiting rods (303) are slidably assembled inside the block forming assembly (300). A number of block pressing blocks (304) with a number equivalent to the number of vibration rods (210) are fixedly connected to the bottom of the pressure plate (302).

7. A building block forming device according to claim 5, characterized in that, Height adjustment cylinders (305) are provided on both sides of the bottom of the block forming assembly (300). A connecting plate (306) is installed at the output end of the height adjustment cylinder (305). The block mold (308) is installed on one side of both connecting plates (306). Several equidistant limiting shafts (307) are fixedly connected to the bottom of the block mold (308). The limiting shafts (307) are slidably assembled inside the block forming assembly (300).

8. A building block forming device according to claim 5, characterized in that, The bottom of the block forming assembly (300) is provided with a pressure-bearing base (309), and a conveyor belt (310) is provided inside the pressure-bearing base (309) and passes through the pressure-bearing base (309). A removable block placement plate (311) is provided on the pressure-bearing base (309) and the conveyor belt (310).

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