CN118343341A - Aerated block stacking and conveying equipment and process - Google Patents

Abstract

The invention provides aerated block stacking and conveying equipment and process, wherein the equipment comprises a first conveying line for conveying aerated blocks to move in a directional manner and a conveying device for conveying the aerated blocks, the tail end of the first conveying line is further provided with a bearing device for bearing the aerated blocks, the equipment also comprises a supporting block and a second conveying line for controlling the supporting block to move, the second conveying line is positioned on one side of the first conveying line, and the occupied space of the supporting block is smaller than that of the aerated blocks. The invention can simplify the operation steps of the carrying device for clamping the multi-layer aerated building blocks, greatly improves the efficiency of stacking the aerated building blocks and improves the packing stability of the aerated building blocks.

Description

Aerated block stacking and conveying equipment and process

Technical Field

The invention relates to the technical field of stacking and conveying equipment, and in particular to a stacking and conveying equipment and process for aerated building blocks.

Background technique

After being cut into predetermined sizes, aerated blocks need to be centrally stacked; the traditional aerated block stacking process is to place the aerated blocks on special pallets, and use forklifts and other equipment to centrally transport the pallets and stacked multi-layer aerated blocks to the warehouse.

Some companies use programming technology to use robots to place aerated blocks at predetermined positions, so that the predetermined number of layers of aerated blocks form two openings for the end of the forklift to pass through. When the outer side of the multi-layer aerated blocks is tightly wrapped with packing tape, the multi-layer aerated blocks can be directly transferred to the predetermined position by a forklift, without the need to transfer the pallet, which reduces production costs and greatly improves the efficiency of subsequent transportation of aerated blocks.

However, during the palletizing process, the robot needs to grab a predetermined number of blocks at a specific number of layers, and needs to place the aerated blocks at a suitable position according to a predetermined procedure to allow a gap for the end of a forklift to pass through; the above operation process has high requirements for equipment operation, and the overall palletizing efficiency of the robot is limited; at the same time, during the packaging stage, there is a hollow part in the middle of the multi-layer aerated blocks, and the overall stability deteriorates during the packaging process. The predetermined hollow part is deformed, which affects the entry of the end of the forklift and affects the transportation process after packaging.

Summary of the invention

In view of the above problems, the present invention provides an aerated block stacking and conveying device and process, which can simplify the operating steps of the handling device clamping multiple layers of aerated blocks, greatly improve the efficiency of aerated block stacking, and improve the stability of aerated block packaging.

To solve the above problems, the technical solution adopted by the present invention is:

A stacking and conveying device for aerated blocks comprises a first conveying line for conveying aerated blocks for directional movement and a conveying device for conveying aerated blocks, a carrying device for carrying aerated blocks is also arranged at the end of the first conveying line, and the device further comprises a supporting block and a second conveying line for controlling the movement of the supporting block, the second conveying line is located on one side of the first conveying line, and the space occupied by the supporting block is smaller than that occupied by the aerated block; wherein the supporting block is placed between two adjacent predetermined aerated blocks through the second conveying line, and after the multi-layer aerated blocks are packed, the supporting block is pulled out to complete the stacking.

Preferably, the first conveying line comprises a bearing base and a conveying end, a limit stopper rod is fixedly connected to the surface of the bearing base, and the limit stopper rod is close to one side of the bearing device.

Preferably, the support block comprises a support body located at an inner side and a support end located at an outer side, the support end extends along a surface of the support body, and a telescopic device is installed between the support body and the support end.

Preferably, a connecting opening is opened on the side wall of the supporting body, a control valve is built into the connecting opening, and the telescopic device is pneumatically controlled and communicated with the control valve.

Preferably, the second conveying line includes a second conveying guide rail, the upper end of which is slidably connected to a second conveying platform, and the upper end of the second conveying platform is equipped with a accommodating device for placing support blocks, and the accommodating device cyclically moves between the carrying device and the first conveying line to complete the continuous transfer of the support blocks.

Preferably, the accommodating device comprises a accommodating box, a bottom of which is slidably connected to an electric slider, a side of the accommodating box close to the first conveying line is provided with a notch, and a guide plate is installed on the outer side of the notch.

Preferably, the carrying device comprises a carrying platform, a lifting control device for controlling the lifting of the carrying platform, and a rotating device for controlling the rotation of the carrying platform; the rotation and descent of the carrying platform are orderly controlled to complete the stacking of the multi-layer aerated building blocks.

Preferably, a strip groove for the strapping tape to pass through is opened at the upper end of the bearing platform, and the strip groove includes a transversely arranged strip groove 1 and a longitudinally arranged strip groove 2.

Preferably, the bearing device further comprises a bearing base plate, a guide ring is mounted on the upper end of the bearing base plate, a plurality of guide rods are slidably connected to the upper end of the guide ring, and the guide rods penetrate the bearing platform and are slidably connected thereto.

A process for stacking and conveying aerated blocks, using the above-mentioned stacking and conveying equipment for aerated blocks, comprises the following steps: S1, controlling the directional movement of aerated blocks toward a carrying device through a first conveyor line; S2, controlling the directional movement of supporting blocks through a second conveyor line; S3, placing the supporting blocks between two adjacent predetermined aerated blocks through the second conveyor line; S4, after the multi-layer aerated blocks are packed, the supporting blocks are pulled out to complete the stacking.

The beneficial effects of the present invention are:

Through the above method, the support blocks can be inserted into the predetermined positions during the transportation of the aerated blocks, and can be stacked and packaged synchronously together with the aerated blocks, thereby ensuring the stability of the multi-layer aerated blocks during the stacking and packaging process. At the same time, there is no need to program the aerated blocks for special placement, which greatly improves the efficiency and stability of the aerated block stacking; at the same time, the support blocks can be quickly discharged later to form an opening for the end of the forklift to pass through, and the opening will not be deformed, thereby ensuring the normal passage of the end of the forklift, and there is no need for a pallet to carry it, thereby reducing the production cost and improving the efficiency of the subsequent transportation of the aerated blocks.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a schematic diagram of the three-dimensional structure of the present invention.

FIG. 2 is a schematic diagram of the main structure of FIG. 1 of the present invention.

FIG. 3 is a side structural schematic diagram of FIG. 1 of the present invention.

FIG. 4 is a schematic diagram of the top view of the structure of FIG. 1 of the present invention.

FIG. 5 is a schematic diagram of the structure of the original position of the carrying device of the present invention.

FIG. 6 is a schematic diagram of the structure of the load-bearing device of the present invention in the retracted position.

FIG. 7 is a schematic diagram of the three-dimensional structure of the second conveyor line of the present invention.

FIG. 8 is a schematic diagram of the top view of the structure of FIG. 7 of the present invention.

FIG. 9 is a schematic diagram of the three-dimensional structure of the support block of the present invention.

In the figure: 100, first conveyor line; 110, bearing base; 111, limit stop rod; 120, conveying end; 200, aerated building block; 300, support block; 310, support body; 311, connecting opening; 320, support end; 400, handling device; 410, handling track; 420, handling platform; 430, handling end; 431, handling clamp; 432, telescopic gas rod; 500, second conveyor line; 510, second conveyor guide rail; 520, second conveyor platform; 530, accommodating device; 531, accommodating box; 532, electric slider; 533, guide plate; 600, bearing device; 610, bearing platform; 611, strip groove one; 612, strip groove two; 620, lifting control device; 630, bearing bottom plate; 640, rotating device; 650, guide rod; 651, pressing against the slope; 660, guide ring.

Detailed ways

The present invention is further described below in conjunction with the accompanying drawings and embodiments.

Aerated blocks are made of concrete, gas-generating agent and other materials, and have the characteristics of light weight, good heat preservation and sound insulation.

After being cut into predetermined sizes, aerated blocks need to be centrally stacked; the traditional aerated block stacking process is to place the aerated blocks on special pallets, and use forklifts and other equipment to centrally transport the pallets and stacked multi-layer aerated blocks to the warehouse.

Some companies use programming technology to use robots to place aerated blocks at predetermined positions, so that a predetermined number of layers (usually the second layer from the bottom up) of aerated blocks form two openings for the end of the forklift to pass through. When the outer side of the multi-layer aerated blocks is tightly wrapped with packing tape, the multi-layer aerated blocks can be directly transferred to the predetermined position by a forklift, without the need to transfer the pallet, which reduces production costs and greatly improves the efficiency of subsequent transportation of aerated blocks.

However, during the palletizing process, the robot needs to grab a predetermined number of aerated blocks at a specific number of layers (the number of aerated blocks grabbed is two less), and the aerated blocks need to be placed at a suitable position according to a predetermined procedure to allow a gap for the end of a forklift to pass through; the above operation process has high requirements for equipment operation, and the overall palletizing efficiency of the robot is limited; at the same time, during the packaging stage, there is a hollow part in the middle of the multi-layer aerated blocks, the overall stability deteriorates during the packaging process, and the predetermined hollow part is deformed, which affects the entry of the end of the forklift and affects the transportation process after packaging.

In order to solve the above problems, referring to Figures 1 to 9, an aerated block stacking and conveying equipment includes a first conveyor line 100 for conveying aerated blocks 200 for directional movement and a conveying device 400 for transporting aerated blocks 200. The first conveyor line 100 here can be selected as a belt conveyor. A carrying device 600 is also provided at the end of the first conveyor line 100 for carrying aerated blocks 200. The carrying device 400 can continuously transport a plurality of aerated blocks 200 to the surface of the carrying device 600. Multi-layer aerated blocks 200 are transported to the surface of the carrying device 600 and stacked to form a rectangular block for centralized wrapping and packaging, and finally transported to a warehouse for storage by a forklift.

Furthermore; it also includes a support block 300 and a second conveyor line 500 for controlling the movement of the support block 300, the second conveyor line 500 is located on one side of the first conveyor line 100, and the space occupied by the support block 300 is smaller than the space occupied by the aerated block 200; wherein, the support block 300 is placed between two adjacent predetermined aerated blocks 200 through the second conveyor line 500, and after the multi-layer aerated blocks 200 are packaged, the support block 300 is pulled out to complete the palletizing, and after the support block 300 is pulled out, the multi-layer aerated block 200 packaged by the packing tape has two hollow parts inside for the end of the forklift to pass through, and then the multi-layer packaged aerated blocks 200 are transported to the warehouse for storage.

The space occupied by the support blocks 300 here is smaller than that occupied by the aerated blocks 200, which can facilitate the extraction or pushout of the support blocks 300 between the aerated blocks 200, thereby reducing the friction effect on the outer aerated blocks 200; the support blocks 300 can be set to be ellipsoidal, or the support blocks 300 can be set to have an expanded state and a contracted state. In the expanded state, the aerated blocks 200 on both sides can be pressed tightly together to ensure the normal and stable packaging process; in the contracted state, the friction with the outer aerated blocks 200 can be reduced to achieve rapid discharge of the support blocks 300.

In summary, through the above method, during the transportation of the aerated building blocks 200, the support blocks 300 can be inserted into the predetermined position to connect the aerated building blocks 200 for simultaneous stacking and packaging, thereby ensuring the stability of the multi-layer aerated building blocks 200 during the stacking and packaging process. At the same time, there is no need to program the aerated building blocks 200 for special placement, which greatly improves the efficiency and stability of the stacking of the aerated building blocks 200. At the same time, the support blocks 300 can be quickly discharged later to form an opening for the end of the forklift to pass through, and the opening will not be deformed, thereby ensuring the normal passage of the end of the forklift. There is also no need for a pallet to carry the load, thereby reducing the production cost and improving the efficiency of the subsequent transportation of the aerated building blocks.

It should be noted here that the support block 300 here can be selected to be pulled out from the outside, or the multi-layer aerated building block 200 can be pressed tightly and the aerated building block 200 can be pushed out by the end of the forklift to form an opening for the end of the forklift to pass through; the support block 300 here is preferably designed to be two, which meets the needs of forklift transportation.

Specifically, the first conveyor line 100 includes a supporting base 110 and a conveying end 120. A limiting stop rod 111 is fixedly connected to the surface of the supporting base 110. The limiting stop rod 111 is close to one side of the supporting device 600. The conveying end 120 here can be selected as a belt conveyor device to continuously drive the aerated building blocks 200 to move in a directional manner. The limiting stop rod 111 here can block and limit the aerated building blocks 200 on the side close to the supporting device 600 to prevent the supporting device 600 from exceeding a predetermined position, thereby ensuring that the handling device 400 accurately grasps the positions of multiple aerated building blocks 200.

The transport device 400 includes a transport track 410, a transport platform 420, a transport terminal 430 and other components. The transport platform 420 moves linearly along the transport track 410 to transport multiple aerated blocks 200 on the surface of the first conveyor line 100 to one side of the carrier 600. The retractable design between the transport platform 420 and the transport terminal 430 allows the transport terminal 430 to move toward the aerated block 200, so that the transport terminal 430 can complete the grabbing of the side wall of the aerated block 200. At the same time, the transport platform 420 and the transport terminal 430 are retractable. A rotating structure can be set in the middle, which can rotate the transport end 430 and clamp multiple aerated building blocks 200 from the front and rear directions to ensure the accuracy of subsequent grabbing of the aerated building blocks 200 from the left and right directions and the compactness and accuracy of the subsequent stacking; the transport end 430 here includes a transport clamp 431 and a telescopic gas rod 432, and the transport clamp 431 and the telescopic gas rod 432 are arranged in multiple groups, which can realize the grabbing of multiple aerated building blocks 200, and the telescopic gas rod 432 controls the transport clamp 431 to clamp and complete the clamping and grabbing of the aerated building blocks 200.

Specific reference is made to FIG9 , preferably, the support block 300 includes a support body 310 located on the inner side and a support end 320 located on the outer side, the support end 320 extending along the surface of the support body 310, and a telescopic device is installed between the support body 310 and the support end 320. During the stacking process of the aerated building blocks 200 and the support blocks 300, the telescopic device is controlled to be in an extended state, so that the support end 320 can be extended and pressed against the aerated building blocks 200 on the outer side, ensuring that the multi-layer aerated building blocks 200 can stably complete the stacking and packaging; after the packaging is completed, the telescopic device is controlled to be in a retracted state, at which time the support end 320 can be in a retracted state, and the aerated building blocks 200 and the support blocks 300 are not completely pressed against each other, so that the support block 300 can be quickly discharged as a whole, thereby improving the extraction efficiency of the support block 300 and avoiding interference with the multi-layer aerated building blocks 200 that have been packaged.

The support end 320 here is in the shape of a plate. Through the above structure, when the support end 320 is expanded or contracted, it can ensure smooth movement between the support block 300 and the aerated building block 200, and ensure smooth movement of the support block 300 between the aerated building blocks 200 to avoid jamming and other phenomena.

A connecting opening 311 is provided on the side wall of the supporting body 310, and a control valve is built in the connecting opening 311. The telescopic device is pneumatically controlled and communicated with the control valve, so that the matching extraction structure can be extended into the connecting opening 311 to lock the supporting block 300 and quickly withdraw it; at the same time, the telescopic device here is pneumatically controlled, and when extended into the connecting opening 311, the valve can be controlled to be in a conducting state, so that the gas inside the telescopic device is quickly discharged, and the automatic contraction of the supporting end 320 is realized; through the above-mentioned structural design, the rapid discharge of the supporting block 300 structure can be realized, the overall structural contraction control process is simple, the difficulty of operating and controlling the supporting block 300 is reduced, and the overall transportation, stacking and packaging efficiency of the multi-layer aerated building block 200 is improved.

With specific reference to FIGS. 7 and 8 , specifically; the second conveying line 500 includes a second conveying rail 510, and a second conveying platform 520 is slidably connected to the upper end of the second conveying rail 510, and the second conveying platform 520 moves linearly along the length direction of the second conveying rail 510; a accommodating device 530 for placing the support block 300 is installed on the upper end of the second conveying platform 520, and the accommodating device 530 circulates between the carrying device 600 and the first conveying line 100 to complete the continuous transportation of the support block 300, and the support block 300 is accommodated by the accommodating device 530. The accommodating device 530 here is preferably two accommodating devices 530 arranged at intervals, which can accommodate two accommodating devices 530, and the spacing between the two accommodating devices 530 is the same as the spacing at the end of the forklift to meet the needs of forklift transportation.

In the above operation process, after the first group of multi-layer aerated building blocks 200 are stacked and packaged, the accommodating device 530 is controlled to move to the side of the carrying device 600, and the end of the forklift can push the two support blocks 300 into the accommodating device 530 for accommodating; after the two support blocks 300 are accommodated, the accommodating device 530 is controlled to move toward the first conveyor line 100, and after moving to the predetermined position, the two support blocks 300 are pushed out and pushed between the predetermined two aerated building blocks 200 to complete the cyclic placement of the support blocks 300; the above structure automatically performs cyclic control without manual participation, thereby improving the automation and efficiency of the overall control.

Specifically, the accommodating device 530 includes a accommodating box 531, and an electric slider 532 is slidably connected to the bottom of the accommodating box 531. A notch is opened on the side of the accommodating box 531 close to the first conveyor line 100, and a guide plate 533 is installed on the outer side of the notch. The electric slider 532 can push out the support block 300 during the movement toward the notch. During the process of pushing the support block 300, the two guide plates 533 are controlled to deflect inward, so as to clamp and limit the support block 300, thereby ensuring the accuracy of the pushing direction of the support block 300, so that the support block 300 can be quickly and smoothly located between the two predetermined aerated blocks 200.

During the process of pushing out the two support blocks 300 at the carrying device 600, the two guide plates 533 are controlled to deflect toward the outside, and a trumpet-shaped opening can be formed at this time. The two guide plates 533 can also guide and control the support blocks 300, ensuring that the support blocks 300 can smoothly and accurately enter the storage box 531, thereby reducing the requirements for the movement control accuracy of the second conveying guide rail 510 and the second conveying platform 520, and improving the efficiency of this part of the movement control.

Specific reference is made to FIGS. 5 and 6 ; the carrying device 600 includes a carrying platform 610, a lifting control device 620 for controlling the lifting and lowering of the carrying platform 610, and a rotating device 640 for controlling the rotation of the carrying platform 610; the rotation and lowering of the carrying platform 610 are controlled in an orderly manner to complete the stacking of multiple layers of aerated building blocks 200. After the stacking of multiple aerated building blocks 200 on each layer is completed, the lifting control device 620 and the rotating device 640 cooperate with the carrying platform 610 to rotate 90° and descend to a predetermined height, so that the subsequent aerated building blocks 200 can be stacked again to a predetermined position. Through the above structural design, the moving track of the transport device 400 can be simplified. The transport device 400 only needs to move linearly along a predetermined direction to complete the transport and stacking of the aerated building blocks 200. The structure between the first conveyor line 100 and the carrying device 600 is more compact. At the same time, the stacking time of multiple aerated building blocks 200 between the first conveyor line 100 and the carrying device 600 is shorter. During the gap of the return of the transport device 400, the carrying device 600 is controlled to rotate and descend, which further improves the efficiency of stacking and transporting the aerated building blocks 200.

A strip groove for the strapping tape to pass through is provided at the upper end of the carrying platform 610, and the strip groove includes a transversely arranged strip groove 1 611 and a longitudinally arranged strip groove 2 612. The strip grooves are provided so that the strapping tape can pass through, thereby realizing the packaging and bundling of the multi-layer aerated building blocks 200. The strip grooves 1 611 and the strip grooves 2 612 are provided so that the strapping tape can pass through from different directions, thereby satisfying the adaptive packaging and bundling of the multi-layer aerated building blocks 200 placed in different postures and the demand for stable packaging and bundling of the multi-layer aerated building blocks 200.

In order to ensure the stability of the multi-layer aerated building block 200 during the rotation and descent process; the bearing device 600 also includes a bearing base plate 630, and a guide ring 660 is installed on the upper end of the bearing base plate 630. A plurality of guide rods 650 are slidably connected to the upper end of the guide ring 660. The guide rods 650 penetrate the bearing platform 610 and are slidably connected thereto. The multi-layer aerated building block 200 can be limitedly supported from the outside through the plurality of guide rods 650 to ensure the stability of the aerated building block 200 during the rotation and descent process; during the rotation of the bearing platform 610, the guide rods 650 can rotate synchronously with the bearing platform 610, and during the descent of the bearing platform 610, the top of the guide rods 650 can be extended, and the extended guide rods 650 can limit the aerated building block 200 at a constant position to ensure the stability of the aerated building block 200 during the rotation and descent process.

A rollable roller may be provided inside the guide ring 660, and the guide rod 650 is rotationally connected to the roller to reduce the friction at the bottom of the guide rod 650; a tightening slope 651 is provided on the inner wall of the upper end of the guide rod 650, which can correct the aerated building block 200 with partial position deviation, avoid interference with the aerated building block 200, and ensure overall stability.

Finally, it should be noted that when the multi-layer aerated building blocks 200 need to be transported by a forklift, the lifting control device 620 is controlled to extend and reset to the initial height. At this time, the multiple guide rods 650 are in a retracted state, which will not affect the stacking of the guide rods 650; at the same time, the overall structure can be reset to a predetermined position, and the two support blocks 300 can be pushed out at a constant position, and the support blocks 300 fall onto the surface of the second conveyor line 500 for cyclic conveying.

A process for stacking and conveying aerated blocks, using the above-mentioned stacking and conveying equipment for aerated blocks, comprises the following steps:

S1. Control the aerated building blocks 200 to move in a directional manner toward the carrying device 600 through the first conveyor line 100; preferably, two adjacent aerated building blocks 200 are conveyed in a directional manner toward the carrying device 600 at a predetermined distance from each other, and the distance between the two aerated building blocks 200 is the same as the width of the aerated building blocks 200, so that the support block 300 can enter between the two aerated building blocks 200.

S2, controlling the directional movement of the support block 300 through the second conveyor line 500; moving and conveying the two support blocks 300 pushed out from one side of the carrying device 600 toward the direction of the first conveyor line 100.

S3. Place the support block 300 between two adjacent predetermined aerated blocks 200 through the second conveyor line 500; at this time, the aerated block 200 and the support block 300 can form a whole, and the aerated block 200 and the support block 300 are stacked as a whole to one side of the carrying device 600 to facilitate subsequent packaging and bundling.

S4. After the multi-layer aerated building blocks 200 are packaged, the support blocks 300 are pulled out to complete the stacking. After the support blocks 300 are pulled out or pushed out, two hollow parts are formed between the multi-layer aerated building blocks 200. The hollow parts can be used for the end of a forklift to pass through and transport the packaged multi-layer aerated building blocks 200, meeting the requirements of subsequent transportation and delivery.

The above-mentioned method can simplify the operation steps of the handling device 400 clamping the multi-layer aerated building blocks 200, greatly improve the efficiency of stacking the aerated building blocks 200, and improve the stability of the packaging of the aerated building blocks 200.

The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims (10)

1. Aerated block pile up neatly conveying equipment, including being used for carrying first transfer chain (100) of aerated block (200) directional removal and being used for carrying handling device (400) of aerated block (200), its characterized in that:

The end of the first conveying line (100) is further provided with a bearing device (600) for bearing the aerated building block (200), the air-entrapping building block comprises a supporting block (300) and a second conveying line (500) for controlling the supporting block (300) to move, the second conveying line (500) is positioned on one side of the first conveying line (100), and the occupied space of the supporting block (300) is smaller than that of the aerated building block (200); wherein, place supporting shoe (300) between two adjacent predetermined aerated building blocks (200) through second transfer chain (500), multilayer aerated building blocks (200) pack the back and accomplish the pile up neatly with supporting shoe (300) extraction after finishing.

2. The aerated block stacking and conveying device according to claim 1, wherein the first conveying line (100) comprises a bearing base (110) and a conveying tail end (120), a limiting stop lever (111) is fixedly connected to the surface of the bearing base (110), and the limiting stop lever (111) is close to one side of the bearing device (600).

3. The aerated block palletizing delivery apparatus of claim 1, wherein the support block (300) comprises an inboard support body (310) and an outboard support tip (320), the support tip (320) extending along a surface of the support body (310), and a telescoping device mounted between the support body (310) and the support tip (320).

4. A aerated block palletizing conveying apparatus according to claim 3, wherein a connecting opening (311) is formed on the side wall of the supporting main body (310), a control valve is arranged in the connecting opening (311), and the telescopic device is pneumatically controlled and communicated with the control valve.

5. The aerated block stacking and conveying device according to claim 1, wherein the second conveying line (500) comprises a second conveying guide rail (510), a second conveying platform (520) is slidably connected to the upper end of the second conveying guide rail (510), a containing device (530) for placing the supporting block (300) is installed at the upper end of the second conveying platform (520), and the containing device (530) circularly moves between the bearing device (600) and the first conveying line (100) to complete continuous transfer of the supporting block (300).

6. The aerated block stacking and conveying device according to claim 1, wherein the accommodating device (530) comprises an accommodating box (531), an electric sliding block (532) is slidably connected to the bottom of the accommodating box (531), a gap is formed on one side, close to the first conveying line (100), of the accommodating box (531), and a guide plate (533) is arranged on the outer side of the gap.

7. The aerated block palletizing conveying apparatus of claim 1, wherein the bearing device (600) comprises a bearing platform (610), a lifting control device (620) for controlling the lifting of the bearing platform (610) and a rotating device (640) for controlling the rotation of the bearing platform (610); and orderly controlling the bearing platform (610) to rotate and descend to finish stacking of the multi-layer aerated building blocks (200).

8. The aerated block palletizing conveying device according to claim 1, wherein the upper end of the bearing platform (610) is provided with a strip-shaped groove for a packing belt to pass through, and the strip-shaped groove comprises a strip-shaped groove I (611) which is transversely arranged and a strip-shaped groove II (612) which is longitudinally arranged.

9. The aerated block palletizing conveying apparatus of claim 1, wherein the bearing device (600) further comprises a bearing bottom plate (630), a guide ring (660) is mounted at the upper end of the bearing bottom plate (630), a plurality of guide rods (650) are slidably connected to the upper end of the guide ring (660), and the guide rods (650) penetrate through the bearing platform (610) and are slidably connected thereto.

10. A aerated block palletizing and conveying process, which is characterized by using the aerated block palletizing and conveying equipment as claimed in any one of claims 1-9, comprising the following steps:

S1, controlling the aerated building block (200) to directionally move towards the direction of the bearing device (600) through a first conveying line (100);

s2, controlling the supporting block (300) to move directionally through a second conveying line (500);

S3, placing the supporting blocks (300) between two adjacent preset aerated building blocks (200) through a second conveying line (500);

S4, after the multi-layer aerated building blocks (200) are packaged, the supporting blocks (300) are pulled out to finish stacking.