CN220997963U - A powder material running device for aerated brick production - Google Patents

Abstract

The utility model discloses a powder material running device for aerated brick production, which belongs to the technical field of powder material running, and aims to solve the problem that most of the existing raw materials are lifted by running in the form of a spiral conveyor frame, and can only carry out transfer operations in a straight line, with a narrow scope of use; some are also operated by gravity, but are very prone to blockage during operation, and include an electric control box, a conveying pipe and a return pipe, both ends of the conveying pipe and the return pipe are connected by a connecting plate, the shapes of the conveying pipe and the return pipe can be designed according to the needs of use, so that continuous conveying operations at different angles can be carried out, and the arrangement of the main power structure and the auxiliary power structure ensures that the material has sufficient power when moving in the conveying pipe, so that the material can be smoothly transported, and the arrangement of the quantitative discharging rack can discharge the material quantitatively, so as to facilitate the use operation during processing.

Description

A powder material running device for aerated brick production

Technical Field

The utility model discloses a powder material running device for producing aerated bricks. The utility model belongs to the technical field of powder material running, and specifically relates to the technical field of powder material running for producing aerated bricks.

Background technique

Aerated concrete blocks are a new type of wall material made of stone powder, cement and lime as the main raw materials, which are prepared through raw material preparation, pouring, cutting and forming, and high-pressure steam curing. Since most of the raw materials are in powder form, a large amount of dust is often generated during the material addition process. In order to reduce the generation of dust, sealed operation is often required during the operation of these powders. Although there are some pipeline-type sealed transfer devices on the market, most of them are used to lift the raw materials through spiral conveyors, and can only perform transfer operations in a straight line, with a narrow range of use. Some are operated by gravity, but blockage is very likely to occur during the operation.

Utility Model Content

The purpose of the utility model is to provide a powder material running device for aerated brick production, so as to solve the above-mentioned existing problems that most of the raw materials are lifted by means of a spiral conveyor, which can only be transported in a straight line and has a narrow scope of use. Some are operated by gravity, but are prone to blockage during operation.

The technical solution adopted by the utility model is as follows:

A powder material movement device for aerated brick production includes an electric control box, a conveying pipe and a return pipe, both ends of the conveying pipe and the return pipe are connected by a connecting plate, and a main power structure is installed in the connecting plate at one end of the conveying pipe, and an auxiliary power structure is installed in the connecting plate at the other end of the conveying pipe, a feed pipe is installed on the surface of one end of the conveying pipe, and a discharge pipe is installed at the bottom of the other end of the conveying pipe, a quantitative discharge rack is arranged inside the discharge pipe, and the electric control box is installed on the side of the discharge pipe.

Furthermore, the delivery pipe and the return pipe both include a symmetrically arranged bottom shell and an upper cover, the bottom shell and the upper cover are fixed by bolts, baffles are distributed between the bottom shell and the upper cover, and the baffles are connected by connecting ropes.

Furthermore, the main power structure and the auxiliary power structure both include a mounting ring, a support ring for sleeve-connecting the mounting ring is arranged in the connection plate, and a push plate for pushing the baffle is distributed outside the mounting ring.

Furthermore, a motor is installed at the bottom end of the bottom shell, the output shaft of the motor is arranged inside the support ring and connected to the connecting shaft, and an annular groove is opened on the support ring, and a cross bar connecting the mounting ring and the connecting shaft is installed inside the annular groove.

Furthermore, the quantitative discharging rack includes guide plates installed on both sides of the discharging pipe, a bottom plate is installed inside the discharging pipe below the guide plates, the surface of the bottom plate is connected to a partition plate for closing the channel between the two guide plates through an electric push rod, a rotating shaft is installed inside the discharging pipe below the bottom plate, a weighing scale is sleeved on the outside of the rotating shaft, and one side of the surface of the weighing scale is connected to the bottom end of the partition plate through a pull rope.

Furthermore, a mounting hole is provided inside the end of the tube wall away from the pull rope, a clamping hole is provided on the side of the weighing scale at a position corresponding to the mounting hole, a magnetic column that can extend into the clamping hole is connected to the bottom of the mounting hole through a spring, and an electromagnet is installed on the outside of the discharge tube at a position corresponding to the magnetic column.

In summary, due to the adoption of the above technical solution, the beneficial effects of the utility model are:

The shapes of the conveying pipe and the return pipe can be designed according to the requirements of use, so that continuous conveying operations at different angles can be carried out. The setting of the main power structure and the auxiliary power structure ensures that the material has sufficient power when moving in the conveying pipe, so that the material can be smoothly conveyed. Furthermore, the setting of the quantitative discharging rack can discharge the material in a quantitative manner, which is convenient for use during processing.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is a schematic diagram of the three-dimensional structure of the utility model;

FIG2 is a schematic diagram of a first cross-sectional structure of the present invention;

FIG3 is a schematic diagram of a second cross-sectional structure of the present invention;

FIG4 is a partial enlarged view of the A1 end of the present invention;

1- conveying pipe; 2- reflux pipe; 3- main power structure; 4- auxiliary power structure; 5- feed pipe; 6- discharge pipe; 7- electric control box; 8- quantitative discharge rack; 9- bottom shell; 10- top cover; 11- baffle; 12- connecting rope; 13- support ring; 14- mounting ring; 15- push plate; 16- motor; 17- connecting shaft; 18- guide plate; 19- bottom plate; 20- electric push rod; 21- partition; 22- rotating shaft; 23- weighing scale; 24- pull rope; 25- mounting hole; 26- clamping hole; 27- spring; 28- magnetic column; 29- electromagnet.

Detailed ways

In order to make the purpose, technical solution and advantages of the utility model more clear, the utility model is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described here are only used to explain the utility model and are not used to limit the utility model.

Example 1

As shown in Figures 1 to 4, a powder material running device for aerated brick production includes an electric control box 7, a conveying pipe 1 and a return pipe 2, both ends of the conveying pipe 1 and the return pipe 2 are connected by a connecting plate, and a main power structure 3 is installed in the connecting plate at one end of the conveying pipe 1, and an auxiliary power structure 4 is installed in the connecting plate at the other end of the conveying pipe 1, a feed pipe 5 is installed on the surface of one end of the conveying pipe 1, and a discharge pipe 6 is installed at the bottom of the other end of the conveying pipe 1, and a quantitative discharge rack 8 is arranged inside the discharge pipe 6, and the electric control box 7 is installed on the side of the discharge pipe 6, so that the material enters through the feed pipe 5, and then moves in the conveying pipe 1 under the action of the main power structure 3 and the auxiliary power structure 4, and then is discharged along the discharge pipe 6, thereby performing the material conveying operation.

The conveying pipe 1 and the return pipe 2 both include a symmetrically arranged bottom shell 9 and an upper cover 10, which are fixed by bolts, and baffles 11 are distributed between the bottom shell 9 and the upper cover 10, and the baffles 11 are connected by connecting ropes 12, so that under the joint action of the main power structure 3 and the auxiliary power structure 4, the baffles 11 and the connecting ropes 12 are cyclically moved inside the conveying pipe 1 and the return pipe 2, thereby performing material conveying operations.

Both the main power structure 3 and the auxiliary power structure 4 include a mounting ring 14, a support ring 13 for socketing the mounting ring 14 is provided in the connecting plate, and a push plate 15 for pushing the baffle 11 is distributed outside the mounting ring 14, so that when the mounting ring 14 rotates, the push plate 15 can be driven to move, and the baffle 11 is driven to move under the action of the push plate 15.

A motor 16 is installed at the bottom end of the bottom shell 9. The output shaft of the motor 16 is arranged inside the support ring 13 and is connected to the connecting shaft 17. An annular groove is opened on the support ring 13. A cross bar connecting the mounting ring 14 and the connecting shaft 17 is installed inside the annular groove. Thus, the motor 16 drives the connecting shaft 17 to rotate when it works. Under the action of the cross bar, the mounting ring 14 rotates with the connecting shaft 17, thereby providing power for the movement of the baffle 11 and the connecting rope 12.

The quantitative discharging frame 8 includes guide plates 18 installed on both sides of the discharging pipe 6, a bottom plate 19 is installed inside the discharging pipe 6 below the guide plate 18, and the surface of the bottom plate 19 is connected to a partition 21 for closing the channel between the two guide plates 18 through an electric push rod 20, a rotating shaft 22 is installed inside the discharging pipe 6 below the bottom plate 19, and a weighing scale 23 is sleeved on the outside of the rotating shaft 22, and one side of the surface of the weighing scale 23 is connected to the bottom end of the partition 21 through a pull rope 24, so that when the weight set by the weighing scale 23 is reached, the electric push rod 20 works so that the partition 21 can close the channel between the guide plates 18, thereby preventing the material from falling onto the surface of the weighing scale 23 again, and at the same time, under the action of the pull rope 24, the weighing scale 23 can be driven to rotate with the rotating shaft 22 as the axis, thereby pouring out the material.

A mounting hole 25 is provided inside the end of the tube wall of the discharge tube 6 away from the pull rope 24, and a clamping hole 26 is provided on the side of the weighing scale 23 at a position corresponding to the mounting hole 25. The bottom of the mounting hole 25 is connected to a magnetic column 28 that can extend into the clamping hole 26 through a spring 27, and an electromagnet 29 is installed on the outside of the discharge tube 6 at a position corresponding to the magnetic column 28, so that when there is no need to pour out the material, the electromagnet 29 does not work, and the magnetic column 28 slides into the clamping hole 26 under the action of the spring 27, thereby assisting the positioning operation of the weighing scale 23. When it is necessary to pour out the material on the weighing scale 23, the electromagnet 29 works, and the magnetic column 28 slides out of the clamping hole 26 under the action of the magnetic force, and then can drive the weighing scale 23 to rotate around the rotating shaft 22 as the axis under the action of the pull rope 24, so as to pour out the material.

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 and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims (6)

1. A powder material running device for aerated brick production, comprising an electric control box (7), characterized in that it also comprises a conveying pipe (1) and a return pipe (2), both ends of the conveying pipe (1) and the return pipe (2) are connected by a connecting plate, and a main power structure (3) is installed in the connecting plate at one end of the conveying pipe (1), and a secondary power structure (4) is installed in the connecting plate at the other end of the conveying pipe (1), a feed pipe (5) is installed on the surface of one end of the conveying pipe (1), and a discharge pipe (6) is installed at the bottom of the other end of the conveying pipe (1), and a quantitative discharge rack (8) is arranged inside the discharge pipe (6), and the electric control box (7) is installed on the side of the discharge pipe (6). 2. A powder material circulation device for aerated brick production according to claim 1, characterized in that: the conveying pipe (1) and the return pipe (2) both include a symmetrically arranged bottom shell (9) and an upper cover (10), the bottom shell (9) and the upper cover (10) are fixed by bolts, baffles (11) are distributed between the bottom shell (9) and the upper cover (10), and the baffles (11) are connected by connecting ropes (12). 3. A powder material running device for aerated brick production according to claim 2, characterized in that: the main power structure (3) and the auxiliary power structure (4) both include a mounting ring (14), a support ring (13) for sleeve-connecting the mounting ring (14) is provided in the connecting plate, and a push plate (15) for pushing the baffle (11) is distributed outside the mounting ring (14). 4. A powder running device for aerated brick production according to claim 3, characterized in that: a motor (16) is installed at the bottom end of the bottom shell (9), the output shaft of the motor (16) is arranged inside the support ring (13) and connected to a connecting shaft (17), and an annular groove is opened on the support ring (13), and a cross bar connecting the mounting ring (14) and the connecting shaft (17) is installed inside the annular groove. 5. A powder material running device for aerated brick production according to claim 1, characterized in that: the quantitative discharging frame (8) includes guide plates (18) installed on both sides of the discharging pipe (6), a bottom plate (19) is installed inside the discharging pipe (6) below the guide plates (18), the surface of the bottom plate (19) is connected to a partition (21) for closing the channel between the two guide plates (18) through an electric push rod (20), a rotating shaft (22) is installed inside the discharging pipe (6) below the bottom plate (19), a measuring scale (23) is sleeved on the outside of the rotating shaft (22), and one side of the surface of the measuring scale (23) is connected to the bottom end of the partition (21) through a pull rope (24). 6. A powder material circulation device for aerated brick production according to claim 5, characterized in that: a mounting hole (25) is provided inside the end of the tube wall of the discharge tube (6) away from the pull rope (24), a clamping hole (26) is provided on the side of the weighing scale (23) at a position corresponding to the mounting hole (25), a magnetic column (28) capable of extending into the clamping hole (26) is connected to the bottom of the mounting hole (25) through a spring (27), and an electromagnet (29) is installed on the outside of the discharge tube (6) at a position corresponding to the magnetic column (28).