CN113618894B - Finishing system is used in production of magnesium aluminate spinel brick - Google Patents

Abstract

The invention discloses a finishing system and a finishing process for producing magnesia-alumina spinel bricks, belonging to the field of processing of magnesia-alumina spinel bricks, wherein the finishing system for producing the magnesia-alumina spinel bricks comprises a base plate, the base plate is fixedly connected with a building, and the top end of the base plate is provided with four carrying shaft seats, every two carrying shaft seats form a group, the middle of each group of carrying shaft seats is provided with a carrying roller, wherein the side wall of one carrying shaft seat is provided with a carrying motor, the two carrying rollers are connected through a carrying belt, a cantilever beam guide rail is arranged above the base platform plate, two ends of the cantilever beam guide rail are fixedly connected with the side wall of the base platform plate, a lifting platform is sleeved on the cantilever beam guide rail, and the top end of the outrigger guide rail is fixedly provided with a carrying plate, one side of the base bedplate is provided with an extension platform, and one side of the extension table is provided with a grinding assembly, and a discharging assembly is arranged below the grinding assembly. When the lifting platform is lifted along the cantilever beam guide rail, the block materials on the carrying belt can be crushed.

Description

A finishing system for the production of magnesia-aluminum spinel bricks

technical field

The invention relates to the field of processing magnesia-aluminum spinel bricks, in particular to a finishing system and finishing process for the production of magnesia-alumina spinel bricks.

Background technique

The magnesia-alumina spinel brick has good thermal shock stability, high high temperature mechanical strength, high load softening temperature, good slag resistance, high temperature performance and thermal stability, and the magnesia-alumina spinel brick product has a dense structure and a high load. High softening temperature, good wear resistance, excellent corrosion resistance, thermal shock resistance, peeling resistance, etc. Belts, various lime rotary kilns, sleeve kiln firing belts, steel-making electric furnaces and other thermal equipment; during the firing and molding process of magnesia-aluminum spinel bricks, the crushed materials need to be formed. The spar brick production equipment uses a lot of square-shaped mold boxes. This molding method is more troublesome, and the structure of the molding device is complicated and difficult to maintain.

SUMMARY OF THE INVENTION

The purpose of the present invention is to provide a finishing system and finishing process for the production of magnesia-alumina spinel bricks in view of the deficiencies of the prior art.

In order to solve the above problems, the present invention provides the following technical solutions: a finishing system for the production of magnesia-aluminum spinel bricks, including a base plate, the base plate is fixedly connected to the building, and the top of the base plate is provided with four There are two carrying axle bases, each two carrying axle bases form a group, a carrying roller is arranged in the middle of each group of carrying axle bases, and a carrying motor is arranged on the side wall of one carrying axle base, and the output end of the carrying motor passes through the carrying axle The seat is fixedly connected with one of the carrying rollers, the two carrying rollers are connected by a carrying belt, a beam guide rail is arranged above the base plate, and the two ends of the beam guide rail are fixedly connected with the side wall of the base plate , a lifting platform is set on the lifting beam guide rail, and the top of the lifting beam guide rail is fixedly installed with a carrying plate, one side of the base plate is provided with an extension table, and one side of the extension table is provided with a grinding assembly, the A discharge assembly is arranged below the grinding assembly.

The two ends of the lifting platform are provided with interpenetrating circular holes matching the guide rails of the lifting beam, the top end of the loading plate is provided with a plane axle seat, and the bottom end of the loading plate is provided with a torsion turntable, and the top end of the torsion turntable is provided with interspersed holes. The round rod on the inner side of the plane shaft seat is provided with a connecting guide rod between the lift table and the torsion turntable, the two ends of the connecting guide rod are provided with metal balls, and the side walls of the lift table and the torsion turntable are provided with Connect the spherical cavities matched with the metal balls at both ends of the guide rod, and the spherical cavities on the side walls of the lifting platform and the torsion turntable are at positions deviating from the center of the lifting platform and the torsion turntable, and the bottom end of the lifting platform is provided with grinding pieces. A number of built-in frames are fixedly installed on the top of the platen, and built-in round rollers are arranged in the middle of the built-in frames, and the built-in round rollers fit the inner side wall of the carrying belt.

The top of the plane shaft seat is provided with a first bevel gear, the first bevel gear is fixedly connected with the round rod at the top of the torsion turntable, the top of the mounting plate is provided with a bracket plate, and one side of the bracket plate is provided with a second bevel gear , the second bevel gear and the first bevel gear mesh with each other, the second bevel gear is provided with a round rod passing through the bracket plate, and the round rod at the end of the second bevel gear is fixedly installed with a rolling roller, and the other A roller group is fixedly installed at the end of the carrying roller, and the roller group and the rolling roller are connected by a grinding belt.

The top of the extension table is provided with a screening frame, the bottom end of the screening frame is provided with an insertion table, the extension table is provided with a sliding groove matching the insertion table, the insertion table and the extension table are slidably connected, and one side of the screening frame is provided. A discharge channel is provided, and the bottom end of the discharge channel is provided with a mesh plate, the bottom end of the extension table is provided with a hanging beam, the side wall of the hanging beam is provided with a return spring, and the end of the return spring and The side walls of the screening frame are fixedly connected.

One side of the extension table is provided with a locking shaft seat, the locking shaft seat is fixedly connected with the building, one side of the locking shaft seat is provided with a shaking roller, and the shaking roller and the roller group are connected by a shaking belt, and the shaking roller is connected. A collision ball is arranged on the side wall, and a triangular block matching the collision ball is arranged on the screening frame.

The grinding assembly includes a side wall channel, the side wall channel and the side wall of the extension platform are fixedly connected, a hoisting base is arranged above the side wall channel, the hoisting base is fixedly connected with the building, and the side wall of the hoisting base is fixedly connected. A central gear is provided, and two synchronous toothed discs are arranged on the hoisting bases on both sides of the central gear. The central gear is respectively meshed with the two synchronous toothed discs, and the central gear is installed on the output end of the stepping motor. The motor is fixedly connected to the side wall of the hoisting base.

One side of the synchronous gear plate is provided with a telescopic tube, and the bottom end of the telescopic tube is interspersed with a telescopic rod. The side walls are connected in rotation, the ends of the other two bending rods are provided with bent sheet metal, the outer sides of the telescopic tube and the telescopic rod are provided with resistance springs, and the bending rods are provided with circular rings connected to both ends of the resistance springs. Flanging, the bottom end of the bent sheet metal is provided with a grinding plate, and the bottom end of the grinding plate is provided with a grinding wire groove.

The discharging assembly includes a stirring box body, the top end of the stirring box body is provided with a horizontal plate, and the bottom end of the horizontal plate is provided with three stirring toothed discs, the three stirring toothed discs are meshed with each other, and the three stirring toothed discs are arranged with each other. The bottom end is provided with a stirring wheel, one of which is mounted on the output end of the servo motor, the top surface of the servo motor and the horizontal plate is fixedly installed, one side of the stirring box is provided with a rectangular channel, and the rectangular channel is The lower part is provided with a blanking component.

The other side of the stirring box body is provided with a bridge plate, the side wall of the bridge plate is provided with a push hydraulic press, the output end of the push hydraulic press is provided with an output rod, and the output rod passes through the side wall of the stirring box body, The end of the output rod is provided with a push table, and the side wall of the push table is provided with two extension rods. The bridge, the load-bearing bridge is provided with reinforcing ribs, the end of the load-bearing bridge is provided with an end plate, the top of the end plate is provided with a chopping cylinder, and the output end of the chopping cylinder is provided with a chopping knife.

A finishing process of a finishing system for the production of magnesia-aluminum spinel bricks, comprising the following steps:

S1. Put the bulk material to be processed on the carrier belt. The carrier motor drives the carrier belt to run and feed the material through two carrier rollers. The carrier rollers also drive the crushing belt and the rolling roller through the roller group. During the operation, the bevel gear set is also driven to run. At this time, the torsion turntable is also rotating with the bevel gear set. The torsion turntable drives the lifting platform to slide up and down along the guide rail of the pick-up beam through the connecting guide rod. , the built-in round roller drags the carrier belt to prevent the carrier belt from bending inward when it is impacted by the crushed fragments;

S2. The crushed hard material on the carrier belt then falls into the inner side of the screening frame. At this time, the roller group is also driving the shaking roller to rotate. The collision ball on the side wall of the shaking roller will squeeze the triangular block, and the screening frame will be in The wire trough on the extension table will be interspersed, and the screening frame will be reset and moved by the return spring. The shaking screening frame will shake out the torn solid particles from the discharge channel and the mesh plate, and the mesh plate also has a buffer material. Effect;

S3. The solid material falling from the discharge channel will go to the side wall channel, and then the stepper motor drives the two synchronous toothed discs to rotate at the same time through the central gear, and the rotation direction of the synchronous toothed disc is the same. The assembly of the telescopic tube and the telescopic rod also runs together. The bent sheet metal at the bottom end of the telescopic tube and the telescopic rod runs along a circular track without the obstruction of the sidewall channel, bending the sheet metal and grinding the plate When it touches the side wall channel, it runs along a straight line, and the grinding groove at the bottom of the grinding plate grinds and pushes the small granular materials down;

S4. Immediately after the material will enter the stirring box, the servo motor drives the three stirring toothed discs to rotate, and the two adjacent stirring toothed discs rotate in opposite directions, and then the three stirring wheels will twist and stir each other. After adding the liquid material manually, Then the push hydraulic press drives the output rod, the push table and the two push pieces to push forward. When the push piece is punched out from the rectangular channel, the material will be squeezed to form a rectangular block, and then the chopping cylinder drives the chopping knife to fall down and cut off. , The cutting cylinder is synchronized with the output rod through the load-bearing bridge, and the cut block-shaped bricks will be transported out by the blanking component.

Beneficial effects of the present invention:

First, put the block material to be processed on the carrier belt, the carrier motor drives the carrier belt to run and feed the material through two carrier rollers, and the carrier rollers also drive the crushing belt and the rolling roller to run through the roller group, and the rolling rollers operate. In the process of operation, it also drives the bevel gear set to run. At this time, the torsion turntable is also rotating with the bevel gear set. The torsion turntable drives the lifting platform to slide up and down along the guide rail of the pick-up beam through the connecting guide rod, and the crushed pieces will reciprocate towards the carrier belt. Impact, the built-in round roller drags the carrier belt to prevent the carrier belt from bending inward when it is impacted by the crushed pieces.

Second, the crushed hard material on the carrying belt then falls into the inner side of the screening frame. At this time, the roller group is also driving the shaking roller to rotate. The collision ball on the side wall of the shaking roller will squeeze the triangular block, and the screening frame will It will be inserted in the wire groove on the extension table, and the screening frame is reset and moved by the return spring. The shaking screening frame will shake out the torn solid particles from the discharge channel and the mesh plate, and the mesh plate also has a buffer. effect of the material.

Third, the solid material falling from the discharge channel will go to the side wall channel, and then the stepping motor drives the two synchronous toothed discs to rotate at the same time through the central gear, and the rotation direction of the synchronous toothed disc is the same. The assembly of the telescopic tube and the telescopic rod also runs together. The bent sheet metal at the bottom end of the telescopic tube and the telescopic rod runs along a circular track without the obstruction of the sidewall channel, bending the sheet metal and grinding. When the plate touches the sidewall channel, it runs along a straight line, and the grinding groove at the bottom of the grinding plate grinds and pushes the small granular materials down, realizing the effect of convenient grinding.

Fourth, the material will then enter the mixing box, the servo motor drives the three stirring toothed discs to rotate, and the two adjacent stirring toothed discs rotate in opposite directions, and then the three stirring wheels will reverse each other and stir, after adding the liquid material manually. , and then push the hydraulic press to drive the output rod, the push table and the two push pieces to push forward. When the push piece is punched out of the rectangular channel, the material will be squeezed to form a rectangular block, and then the chopping cylinder will drive the chopping knife to fall. The cutting and cutting cylinder is synchronized with the output rod through the load-bearing bridge, and the cut block-shaped bricks will be transported out by the blanking component, realizing the effect of automatic forming and automatic discharging.

Description of drawings

Fig. 1 is a schematic diagram of the front view of the finishing system for the production of magnesia-alumina spinel bricks.

Figure 2 is a schematic side view of a finishing system for the production of magnesia-alumina spinel bricks.

Fig. 3 is a schematic diagram of a cross-sectional view of a finishing system for the production of magnesia-alumina spinel bricks.

FIG. 4 is a schematic diagram of a second cross-sectional view of the finishing system for the production of magnesia-alumina spinel bricks.

Fig. 5 is a schematic diagram of the hanging beam of the finishing system for the production of magnesia-aluminum spinel bricks.

FIG. 6 is a schematic diagram of the mounting plate of the finishing system for the production of magnesia-aluminum spinel bricks.

FIG. 7 is a schematic diagram of the grinding assembly of the finishing system for the production of magnesia-alumina spinel bricks.

FIG. 8 is a schematic diagram of a second viewing angle of the grinding assembly of the finishing system for the production of magnesia-alumina spinel bricks.

FIG. 9 is a schematic diagram of the discharge components of the finishing system for the production of magnesia-alumina spinel bricks.

FIG. 10 is a schematic diagram of a second perspective view of the discharging component of the finishing system for the production of magnesia-alumina spinel bricks.

FIG. 11 is a schematic diagram of a cross-sectional view of the discharge component of the finishing system for the production of magnesia-alumina spinel bricks.

Description of reference numbers:

Base plate 1, carrying axle base 2, carrying motor 201, carrying roller 202, carrying belt 203, beam guide rail 3, lifting table 4, grinding piece 401, carrying plate 5, plane axle base 501, torque turntable 502, the first Bevel gear 503, second bevel gear 504, support plate 505, extension table 6, hanging beam 601, return spring 602, grinding assembly 7, side wall channel 701, hoisting base 702, central gear 703, synchronous gear plate 704, Stepping motor 705, telescopic tube 706, telescopic rod 707, resistance spring 708, bending rod 709, bending sheet metal 710, grinding plate 711, discharge assembly 8, stirring box 801, bridge plate 802, cross plate 803 , servo motor 804, stirring tooth plate 805, stirring wheel 806, rectangular channel 807, push hydraulic press 808, output rod 809, load-bearing bridge 810, reinforcing rib 811, end plate 812, chopping cylinder 813, chopping knife 814, push Table 815, extension rod 816, push piece 817, blanking assembly 9, built-in frame 10, built-in round roller 1001, connecting guide rod 11, screening frame 12, discharge channel 1201, mesh plate 1202, triangular block 1203, insertion table 1204, roller set 13, rolling roller 14, locking axle seat 15, shaking roller 1501, impact ball 1502, crushing belt 16, shaking belt 17.

Detailed ways

In order to make the objectives, technical solutions and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention, but not to limit the present invention.

In the description of the present invention, it should be understood that the terms "portrait", "horizontal", "upper", "lower", "front", "rear", "left", "right", "vertical", The orientation or positional relationship indicated by "horizontal", "top", "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present invention, rather than indicating or It is implied that the device or element referred to must have a particular orientation, be constructed and operate in a particular orientation, and therefore should not be construed as limiting the invention.

Referring to Figures 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, and 11, a finishing system for producing magnesia-aluminum spinel bricks includes a base plate 1, the base plate 1 is fixedly connected to the building, and the top of the base plate 1 is provided with four carrying axle bases 2, every two carrying axle bases 2 form a group, and a carrying roller 202 is arranged in the middle of each group of carrying axle bases 2, one of which is A carrying motor 201 is provided on the side wall of the carrying axle base 2, the output end of the carrying motor 201 is fixedly connected to one of the carrying rollers 202 through the carrying axle base 2, and the two carrying rollers 202 are connected by a carrying belt 203. The top of the base plate 1 is provided with a beam guide rail 3, the two ends of the beam guide rail 3 are fixedly connected with the side wall of the base plate 1, and the lifting platform 4 is sleeved on the beam guide rail 3, and the beam guide rail 3 is set. The top of 3 is fixedly installed with a carrying plate 5, one side of the base plate 1 is provided with an extension table 6, and one side of the extension table 6 is provided with a grinding component 7, and a discharging component is provided below the grinding component 7 8.

The two ends of the lifting platform 4 are provided with round holes that match with the beam guide rails 3, the top of the mounting plate 5 is provided with a plane axle seat 501, and the bottom end of the mounting plate 5 is provided with a torsion turntable 502, and the torsion The top end of the turntable 502 is provided with a round rod inserted into the inner side of the plane shaft seat 501, a connecting guide rod 11 is provided between the lifting platform 4 and the torsion turntable 502, and two ends of the connecting guide rod 11 are provided with metal balls, and The side walls of the lift table 4 and the torsion turntable 502 are provided with spherical cavities that match the metal balls at both ends of the connecting guide rod 11 , and the spherical cavities on the side walls of the lift table 4 and the torsion turntable 502 deviate from the lift table 4 and the torsion. The position of the center of the turntable 502, the bottom end of the lift table 4 is provided with a grinding piece 401, the top of the base plate 1 is fixedly installed with a number of built-in frames 10, the middle of the built-in frame 10 is provided with built-in round rollers 1001, built-in round rollers 1001 fits the inner side wall of the carrier belt 203, the torsion turntable 502 will drive the lifting platform 4 to rise and fall along the lifting beam guide rail 3 during the rotation process, and then the crushed pieces 401 and the carrier belt 203 will crush the block material at this time. The round roller 1001 drags the carrying belt 203 to prevent the carrying belt 203 from being bent inward when it is impacted by the grinding pieces 401 .

The top of the plane shaft seat 501 is provided with a first bevel gear 503, which is fixedly connected with the round rod at the top of the torsion turntable 502. The top of the mounting plate 5 is provided with a bracket plate 505. A second bevel gear 504 is arranged on the side, the second bevel gear 504 and the first bevel gear 503 mesh with each other, the second bevel gear 504 is provided with a round rod passing through the bracket plate 505, and the end of the second bevel gear 504 The rolling roller 14 is fixedly installed on the round rod, and the other end of the carrying roller 202 is fixedly installed with a roller group 13. The roller group 13 and the rolling roller 14 are connected by the grinding belt 16, and the carrying roller 202 is rotating. At the same time, the crushing belt 16 and the rolling roller 14 are also driven to run by the roller set 13. The rolling roller 14 also drives the bevel gear set to run during the operation, and the torque turntable 502 is also rotating with the bevel gear set at this time. .

The top of the extension table 6 is provided with a screening frame 12, the bottom end of the screening frame 12 is provided with an interpenetrating table 1204, the extension table 6 is provided with a sliding groove matching the interpenetrating table 1204, and the interpenetrating table 1204 and the extension table 6 are slidably connected. , one side of the screening frame 12 is provided with a discharge channel 1201, and the bottom end of the discharge channel 1201 is provided with a mesh plate 1202, and the bottom end of the extension table 6 is provided with a hanging beam 601, and the hanging beam 601 A return spring 602 is arranged on the side wall of the shovel, and the end of the return spring 602 is fixedly connected to the side wall of the screening frame 12. The crushed hard material on the carrying belt 203 then falls into the inner side of the screening frame 12, and the screening frame 12 will The wire grooves on the extension table 6 will be inserted, and the screening frame 12 is reset and moved by the return spring 602 .

One side of the extension table 6 is provided with a locking shaft seat 15, the locking shaft seat 15 is fixedly connected to the building, one side of the locking shaft seat 15 is provided with a shaking roller 1501, and a shaking belt passes between the shaking roller 1501 and the roller group 13. 17 is connected, the side wall of the shaking roller 1501 is provided with an interference ball 1502, and the screening frame 12 is provided with a triangular block 1203 that matches the interference ball 1502, the roller group 13 at this time is also driving the shaking roller 1501 to rotate, The collision ball 1502 on the side wall of the shaking roller 1501 will squeeze the triangular block 1203, and the shaking screening frame 12 will shake out the torn solid particles from the discharge channel 1201 and the mesh plate 1202, and the mesh plate 1202 also has The effect of the buffer material.

The grinding assembly 7 includes a side wall channel 701, which is fixedly connected to the side wall of the extension table 6. A hoisting base 702 is provided above the side wall channel 701, and the hoisting base 702 is fixedly connected to the building. The side wall of the hoisting base 702 is provided with a central gear 703, and the hoisting base 702 on both sides of the central gear 703 is provided with two synchronous toothed discs 704, the central gear 703 is respectively meshed with the two synchronous toothed discs 704, and The central gear 703 is installed on the output end of the stepping motor 705, and the stepping motor 705 is fixedly connected to the side wall of the hoisting base 702. The stepping motor 705 drives the two synchronous toothed discs 704 to rotate at the same time through the central gear 703, and the synchronous toothed The direction of rotation of the disk 704 is the same.

A telescopic tube 706 is provided on one side of the synchronous toothed disc 704, and a telescopic rod 707 is inserted through the bottom end of the telescopic tube 706. The zigzag bending rod 709 is rotatably connected to the side wall of the synchronous toothed plate 704, the ends of the other two zigzag bending rods 709 are provided with bent sheet metal 710, and the outer sides of the telescopic tube 706 and the telescopic rod 707 are provided with resistance springs 708, which are bent and bent. The rod 709 is provided with a circular flange connected to both ends of the resistance spring 708, the bottom end of the bent sheet metal 710 is provided with a grinding plate 711, the bottom end of the grinding plate 711 is provided with a grinding wire groove, and the discharge channel 1201 The solid material falling from the middle will go to the side wall channel 701, and the assembly of the telescopic tube 706 and the telescopic rod 706 on the side wall of the synchronous toothed disc 704 also work together, and the bent sheet metal at the bottom of the telescopic tube 706 and the telescopic rod 707 710 runs along a circular trajectory without being blocked by the side wall channel 701. When the bent sheet metal 710 and the grinding plate 711 touch the side wall channel, it runs along a straight trajectory, and the bottom end of the grinding plate 711 is ground. The wire groove will grind and push down the small granular materials, which realizes the effect of convenient grinding.

The discharging assembly 8 includes a stirring box body 801, the top end of the stirring box body 801 is provided with a horizontal plate 803, and the bottom end of the horizontal plate 803 is provided with three stirring toothed discs 805, and the three stirring toothed discs 805 are meshed with each other, and The bottom ends of the three stirring toothed discs 805 are provided with stirring wheels 806, one of the stirring toothed discs 805 is installed on the output end of the servo motor 804, and the top surface of the servo motor 804 and the horizontal plate 803 is fixedly installed. One side of the body 801 is provided with a rectangular channel 807, and the lower part of the rectangular channel 807 is provided with a blanking assembly 9, and then the material will enter the body of the stirring box 801, and the servo motor 804 drives the three stirring toothed discs 805 to rotate, adjacent The two stirring toothed discs 805 rotate in opposite directions, and then the three stirring wheels 806 will twist and stir each other, and then add the liquid material manually.

The other side of the stirring box body 801 is provided with a bridge plate 802, the side wall of the bridge plate 802 is provided with a push hydraulic press 808, and the output end of the push hydraulic press 808 is provided with an output rod 809, and the output rod 809 extends from the stirring box body. Passing through the side wall of 801, the end of the output rod 809 is provided with a push table 815, the side wall of the push table 815 is provided with two extension rods 816, and the end of the extension rod 816 is provided with a rectangular channel 807. A load-bearing bridge 810 is also fixedly installed on the output rod 809, a reinforcing rib 811 is arranged on the load-bearing bridge 810, and an end plate 812 is arranged at the end of the load-bearing bridge 810. A chopping cylinder 813 is provided, the output end of the chopping cylinder 813 is provided with a chopping knife 814, the push hydraulic press 808 drives the output rod 809, the push table 815 and the two push pieces 817 to push forward, and the push piece 817 is punched from the rectangular channel 807. When going out, the material will be extruded to form a rectangular block, and then the cutting cylinder 813 drives the cutting knife 814 to drop down and cut off. It will be transported out by the blanking component 9, which realizes the effect of automatic forming and automatic discharging.

A finishing process of a finishing system for the production of magnesia-aluminum spinel bricks, comprising the following steps:

S1. Put the block material to be processed on the carrier belt 203, the carrier motor 201 drives the carrier belt 203 to run and feed the material through the two carrier rollers 202, and the carrier roller 202 also drives the crushing belt 16 and rolling through the roller group 13. The roller 14 is running, and the rolling roller 14 is also driving the bevel gear set to rotate during the operation. At this time, the torque turntable 502 is also rotating with the bevel gear set. The beam guide rail 3 slides up and down, and the crushed pieces 401 will reciprocate toward the carrier belt 203, and the built-in round roller 1001 drags the carrier belt 203 to prevent the carrier belt 203 from bending inward when it is impacted by the crushed pieces 401;

S2. The crushed hard material on the carrier belt 203 then falls into the inner side of the screening frame 12. At this time, the roller group 13 is also driving the shaking roller 1501 to rotate, and the collision ball 1502 on the side wall of the shaking roller 1501 will squeeze the triangle Block 1203, the screening frame 12 will be inserted into the wire groove on the extension table 6, the screening frame 12 will be reset and moved by the return spring 602, and the shaking screening frame 12 will remove the torn solid particles from the discharge channel 1201 and the mesh. The plate 1202 is shaken out, and the mesh plate 1202 also has the effect of buffering materials;

S3. The solid material falling from the discharge channel 1201 will go to the side wall channel 701, and then the stepping motor 705 drives the two synchronous toothed discs 704 to rotate at the same time through the central gear 703, and the rotational direction of the synchronous toothed discs 704 is the same, synchronous The assembly of the telescopic tube 706 on the side wall of the chainring 704 and the telescopic rod 707 also works together, and the bent sheet metal 710 at the bottom end of the telescopic tube 706 and the telescopic rod 707 follows a circle without being blocked by the side wall channel 701 The circular trajectory runs. When the bent sheet metal 710 and the grinding plate 711 touch the side wall channel 701, they run along a straight trajectory. The grinding groove at the bottom of the grinding plate 711 will grind and push down the small granular materials;

S4. Immediately after the material will enter the stirring box body 801, the servo motor 804 drives the three stirring toothed discs 805 to rotate, and the two adjacent stirring toothed discs 805 rotate in opposite directions, and then the three stirring wheels 806 will twist and stir each other, After adding the liquid material manually, then push the hydraulic press 808 to drive the output rod 809, the push table 815 and the two push pieces 817 to push forward. When the push piece 817 is pushed out from the rectangular channel 807, the material will be squeezed to form a rectangular block. , and then the cutting cylinder 813 drives the cutting knife 814 to drop and cut off. The cutting cylinder 813 synchronizes with the output rod 809 through the load-bearing bridge 810 , and the cut block-shaped bricks will be transported out by the blanking assembly 9 .

Finally, during the rotation of the torsion turntable 502, the lifting platform 4 is moved up and down along the guide rails 3 for lifting the beam, and then the crushing pieces 401 and the carrying belt 203 at this time will crush the bulk material, and the built-in round roller 1001 drags the carrying belt 203 , to prevent the carrier belt 203 from being bent inward when it is impacted by the crushing pieces 401. The carrier roller 202 will also drive the crushing belt 16 and the rolling roller 14 to run through the roller group 13 while rotating, and the rolling roller 14 is in the process of running. It is also driving the bevel gear set to run. At this time, the torque turntable 502 is also rotating with the bevel gear set. The crushed hard materials on the carrying belt 203 then fall into the inner side of the screening frame 12, and the screening frame 12 will be on the extension table 6. The wire trough on the top will be interspersed, and the screening frame 12 is reset and moved by the reset spring 602. At this time, the roller group 13 is also driving the shaking roller 16 to rotate, and the collision ball 1502 on the side wall of the shaking roller 16 will squeeze the triangular block 1203. The shaking screening frame 12 will shake out the torn solid particles from the discharge channel 1201 and the mesh plate 1202, and the mesh plate 1202 also has the effect of buffering the material, and the stepping motor 705 drives the two synchronization through the central gear 703. The toothed plate 704 rotates at the same time, and the rotation direction of the synchronous toothed plate 704 is the same, the solid material falling from the discharge channel 1201 will reach the side wall channel 701, and the telescopic tube 706 on the side wall of the synchronous toothed plate 704 and the telescopic rod 706 The assembly also works together, and the bent sheet metal 710 at the bottom end of the telescopic tube 706 and the telescopic rod 707 runs along a circular track without the obstruction of the sidewall channel 701, and the bent sheet metal 710 and the grinding plate 711 When the block touches the side wall channel, it runs in a straight line. The grinding groove at the bottom of the grinding block 711 will grind and push the small granular materials down, realizing the effect of convenient grinding, and then the materials will enter the mixing box 801. In the body, the servo motor 804 drives the three stirring toothed discs 805 to rotate, and the two adjacent stirring toothed discs 805 rotate in opposite directions, and then the three stirring wheels 806 will twist and stir each other, and then manually add liquid materials, and push the hydraulic press 808 to drive the output rod 809. The pushing table 815 and the two pushing pieces 817 are pushed forward. When the pushing piece 817 is punched out from the rectangular channel 807, the material will be squeezed to form a rectangular block, and then the chopping cylinder 813 will drive the chopping knife 814 down. The cutting and chopping cylinder 813 is synchronized with the output rod 809 through the load-bearing bridge 810, and the cut block-shaped bricks will be transported out by the blanking assembly 9, realizing the effect of automatic forming and automatic discharging.

The above are only preferred embodiments of the present invention, and do not limit the technical scope of the present invention. Therefore, any minor modifications, equivalent changes and modifications made to the above embodiments according to the technical essence of the present invention are still It belongs to the scope of the technical solution of the present invention.

Claims (6)

1. The utility model provides a magnesium aluminate spinel brick production is with arrangement system which characterized in that: the lifting platform comprises a base platform plate (1), wherein the base platform plate (1) is fixedly connected with a building, the top end of the base platform plate (1) is provided with four carrying shaft seats (2), every two carrying shaft seats (2) form a group, the middle of each group of carrying shaft seats (2) is provided with a carrying roller (202), the side wall of one carrying shaft seat (2) is provided with a carrying motor (201), the output end of the carrying motor (201) penetrates through the carrying shaft seats (2) to be fixedly connected with one carrying roller (202), the two carrying rollers (202) are connected through a carrying belt (203), a cantilever guide rail (3) is arranged above the base platform plate (1), two ends of the cantilever guide rail (3) are fixedly connected with the side wall of the base platform plate (1), a lifting platform (4) is sleeved on the cantilever guide rail (3), and the top end of the cantilever guide rail (3) is fixedly provided with a carrying plate block (5), an extension table (6) is arranged on one side of the base plate (1), a grinding assembly (7) is arranged on one side of the extension table (6), and a discharging assembly (8) is arranged below the grinding assembly (7);

the two ends of the lifting platform (4) are provided with penetrating round holes matched with the cantilever beam guide rail (3), the top end of the carrying plate (5) is provided with a plane shaft seat (501), the bottom end of the carrying plate (5) is provided with a torsion turntable (502), the top end of the torsion turntable (502) is provided with a round rod penetrating into the inner side of the plane shaft seat (501), a connecting guide rod (11) is arranged between the lifting platform (4) and the torsion turntable (502), two ends of the connecting guide rod (11) are provided with metal balls, the side walls of the lifting platform (4) and the torsion turntable (502) are provided with ball cavities matched with the metal balls at the two ends of the connecting guide rod (11), the ball cavities on the side walls of the lifting platform (4) and the torsion turntable (502) are positioned at positions deviated from the circle centers of the lifting platform (4) and the torsion turntable (502), and the bottom end of the lifting platform (4) is provided with a fragment grinding piece (401), the top end of the base plate (1) is fixedly provided with a plurality of built-in frames (10), a built-in round roller (1001) is arranged in the middle of each built-in frame (10), and the built-in round rollers (1001) are attached to the inner side wall of the carrier belt (203);

the discharging assembly (8) comprises a stirring box body (801), a transverse plate (803) is arranged at the top end of the stirring box body (801), three stirring fluted discs (805) are arranged at the bottom end of the transverse plate (803), the three stirring fluted discs (805) are mutually meshed, stirring wheels (806) are arranged at the bottom ends of the three stirring fluted discs (805), one stirring fluted disc (805) is installed at the output end of a servo motor (804), the servo motor (804) and the transverse plate (803) are fixedly installed on the top surfaces, a rectangular channel (807) is arranged at one side of the stirring box body (801), and a discharging assembly (9) is arranged below the rectangular channel (807);

the other side of the stirring box body (801) is provided with a bridging plate (802), the side wall of the bridging plate (802) is provided with a pushing hydraulic machine (808), the output end of the pushing hydraulic machine (808) is provided with an output rod (809), the output rod (809) penetrates through the side wall of the stirring box body (801), the end of the output rod (809) is provided with a pushing table (815), the side wall of the pushing table (815) is provided with two extension bars (816), the end of each extension bar (816) is provided with a pushing sheet (817) matched with the section of the rectangular channel (807), the output rod (809) is also fixedly provided with a bearing bridge (810), the bearing bridge (810) is provided with a reinforcing rib (811), an end plate (812) is arranged at the end of the bearing bridge (810), a chopping cylinder (813) is arranged at the top end of the end plate (812), and a chopping knife (814) is arranged at the output end of the chopping cylinder (813).

2. The finishing system for magnesium aluminate spinel brick production according to claim 1, wherein: the top end of the plane shaft seat (501) is provided with a first bevel gear (503), the first bevel gear (503) is fixedly connected with a round rod at the top end of the torsion rotating disc (502), the top end of the carrying plate block (5) is provided with a support plate (505), one side of the support plate (505) is provided with a second bevel gear (504), the second bevel gear (504) is meshed with the first bevel gear (503), the round rod penetrating through the support plate (505) is arranged on the second bevel gear (504), a rolling roller (14) is fixedly installed on the round rod at the end of the second bevel gear (504), a roller group (13) is fixedly installed at the end of the carrying roller (202) which is not fixedly connected with a carrying motor, and the roller group (13) is connected with the rolling roller (14) through a grinding belt (16).

3. The finishing system for magnesium aluminate spinel brick production according to claim 1, wherein: the screening frame (12) is arranged above the extension table (6), the inserting table (1204) is arranged at the bottom end of the screening frame (12), the sliding groove matched with the inserting table (1204) is formed in the extension table (6), the inserting table (1204) is in sliding connection with the extension table (6), a discharging channel (1201) is arranged on one side of the screening frame (12), a mesh plate (1202) is arranged at the bottom end of the discharging channel (1201), a drooping cantilever beam (601) is arranged at the bottom end of the extension table (6), a reset spring (602) is arranged on the side wall of the drooping cantilever beam (601), and the end of the reset spring (602) is fixedly connected with the side wall of the screening frame (12).

4. The finishing system for magnesium aluminate spinel brick production according to claim 3, wherein: one side of the extension table (6) is provided with a locking shaft seat (15), the locking shaft seat (15) is fixedly connected with a building, one side of the locking shaft seat (15) is provided with a shaking roller (1501), the shaking roller (1501) is connected with a roller group (13) through a shaking belt (17), a propping ball (1502) is arranged on the side wall of the shaking roller (1501), and a triangular block (1203) matched with the propping ball (1502) is arranged on the screening frame (12).

5. The finishing system for magnesium aluminate spinel brick production according to claim 1, wherein: grinding assembly (7) includes lateral wall passageway (701), lateral wall passageway (701) and the lateral wall fixed connection of extension platform (6), and the top of lateral wall passageway (701) is provided with hoist and mount base station (702), hoist and mount base station (702) and building fixed connection, be provided with sun gear (703) on the lateral wall of hoist and mount base station (702), and be provided with two synchronous fluted discs (704) on hoist and mount base station (702) of sun gear (703) both sides, sun gear (703) respectively with two synchronous fluted discs (704) intermeshing, and sun gear (703) install on the output of step motor (705), the lateral wall fixed connection of step motor (705) and hoist and mount base station (702).

6. The finishing system for magnesium aluminate spinel brick production according to claim 5, characterized in that: one side of the synchronous fluted disc (704) is provided with a telescopic pipe (706), the bottom end of the telescopic pipe (706) is inserted with a telescopic rod (707), the ends of the telescopic pipe (706) and the telescopic rod (707) are provided with bent rods (709), wherein the two bent rods (709) are rotatably connected with the side wall of the synchronous fluted disc (704), the ends of the other two bent rods (709) are provided with bent metal plates (710), the outer sides of the telescopic pipe (706) and the telescopic rod (707) are provided with resistance springs (708), the bent rods (709) are provided with circular flanges connected with two ends of the resistance springs (708), the bottom end of the bent metal plate (710) is provided with a grinding plate block (711), and the bottom end of the grinding plate block (711) is provided with a grinding wire groove.

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