CN210411069U - Crushing system for manufacturing sandstone aggregate - Google Patents
Crushing system for manufacturing sandstone aggregate Download PDFInfo
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- CN210411069U CN210411069U CN201920944075.3U CN201920944075U CN210411069U CN 210411069 U CN210411069 U CN 210411069U CN 201920944075 U CN201920944075 U CN 201920944075U CN 210411069 U CN210411069 U CN 210411069U
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Abstract
A crushing system for manufacturing gravel aggregate comprises a primary crusher and a secondary crusher, wherein a primary screening device is arranged at an inlet of the primary crusher; a second conveying device is arranged below the outlet of the primary crusher and the primary screening discharge port, the output end of the second conveying device is arranged above the inlet of the secondary crusher, a third conveying device is arranged below the outlet of the secondary crusher, and the output end of the third conveying device is arranged above the feeding port of the secondary screening device; the secondary screening device is provided with a secondary screening material returning port and a secondary screening material discharging port. The system crushes the stones collected by the mine twice through the primary crusher and the secondary crusher, so that the crushing effect is good; the primary screening device reduces the load of the primary crusher and improves the working efficiency; the secondary screening device further screens the sandstone aggregate formed by the secondary crusher, so that the product quality is improved.
Description
Technical Field
The utility model belongs to the technical field of the breakage of grit aggregate, in particular to broken system for making grit aggregate.
Background
The crushing process is the most core process for manufacturing the sandstone aggregate, and the sandstone aggregate with smaller particles is formed by crushing stones collected by a mine, and is a raw material for manufacturing concrete. At present, the production efficiency of the sandstone aggregate crushing process is low, the size difference of the crushed sandstone aggregate particles is large, and the product quality is not high; in addition, a large amount of soil is mixed with the sandstone aggregate, and the quality of the product is also influenced.
SUMMERY OF THE UTILITY MODEL
In view of the technical problems in the prior art, the crushing system for manufacturing the sandstone aggregate provided by the utility model has the advantages that stones collected by a mine are crushed twice by the primary crusher and the secondary crusher, so that the crushing effect is good; the primary screening device reduces the load of the primary crusher and improves the working efficiency; the secondary screening device further screens the sandstone aggregate formed by the secondary crusher, so that the product quality is improved.
In order to solve the technical problem, the utility model discloses following technical scheme has been taken and has been realized:
a crushing system for manufacturing gravel aggregate comprises a primary crusher and a secondary crusher, wherein a primary screening device is arranged at an inlet of the primary crusher, and a first conveying device is arranged at an inlet of the primary screening device; the outlet of the primary screening device comprises a primary screening discharge port and a primary screening discharge port, and the primary screening discharge port is arranged above the inlet of the primary crusher; a second conveying device is arranged below the outlet of the primary crusher and the primary screening discharge port, the output end of the second conveying device is arranged above the inlet of the secondary crusher, a third conveying device is arranged below the outlet of the secondary crusher, and the output end of the third conveying device is arranged above the feeding port of the secondary screening device; the second grade screening plant is equipped with second grade screening return feed mouth and second grade screening discharge gate, and second grade screening return feed mouth below is equipped with fourth conveyer, and fourth conveyer's output setting is in secondary breaker entry top, and second grade screening discharge gate below is equipped with fifth conveyer.
In a preferred scheme, the primary screening device comprises a diversion screening plate, one end of the diversion screening plate is a primary screening discharge hole, and the other end of the diversion screening plate is arranged below the output end of the first conveying device; the two sides of the diversion screening plate are provided with guardrails, and the diversion screening plate is provided with primary screening holes; a protective shell is arranged below the diversion screening plate, and an outlet at the bottom of the protective shell is a primary screening discharge opening.
In a preferred scheme, the primary screening holes are strip-shaped holes.
In a preferred scheme, the secondary screening device comprises a casing, the casing comprises a lower casing and an upper casing, the junction of the lower casing and the upper casing is an inclined plane, the junction of the lower casing and the upper casing is connected with a guide rail in a matching way through a roller, the guide rail is arranged along the upper edge of the lower casing, and the roller is arranged along the lower edge of the upper casing; one end of the upper machine shell is driven by a driving device to do reciprocating motion, the driving device is fixed on a first platform, and the first platform is fixed on the side wall of the lower machine shell;
a feeding port of the secondary screening device is positioned at the top of the upper shell, a screen is arranged in the upper shell, the screen is arranged obliquely downwards, the oblique direction of the screen is the same as that of the guide rail, a secondary screening material returning port is positioned on the side surface of the upper shell, and the secondary screening material returning port is positioned at the lower edge of the screen; the inside guide plate that is equipped with of lower casing, the guide plate slope sets up downwards, and second grade screening discharge gate is located the lower casing side, and second grade screening discharge gate is located the guide plate lower limb.
In a preferred scheme, the driving device comprises a driving motor, the front shaft end of the driving motor is connected with a reduction gearbox, an output gear of the reduction gearbox is in meshing transmission with a rotating shaft, the rotating shaft is fixed through a bearing seat, and the bearing seat and the driving motor are both fixed on the first platform; the axis of rotation level sets up and the axis of rotation both ends all are equipped with the cam, and the cam is articulated with the connecting rod, and the connecting rod is articulated with the spud pile, and the spud pile is fixed at last casing outer wall.
In a preferred scheme, a second platform is arranged on the side surface of the lower shell, and a buffer device is arranged on the second platform; the second platform and the first platform are respectively positioned on the opposite side surfaces of the lower shell.
In a preferred scheme, the first platform is positioned at the upper end of the guide rail, and the second platform is positioned at the lower end of the guide rail; the buffer device comprises a fixed base, the fixed base is fixed on the second platform, a cylinder shell is arranged at the top end of the fixed base and is horizontally arranged, one end of the cylinder shell, facing the upper shell, is of an opening structure, and the other end of the cylinder shell is of a sealing structure; a movable rod is inserted in the cylinder shell, a spring is arranged in the cylinder shell, one end of the spring is connected with the bottom of the cylinder shell, and the other end of the spring is connected with the movable rod; one end of the movable rod facing the upper shell is connected with the first collision plate.
In a preferred scheme, a water inlet is formed in the top of the upper shell, a water outlet is formed in the bottom of the lower shell, and a plurality of water permeable holes are formed in the guide plate.
In the preferred scheme, a first material baffle plate is arranged on the inner wall of the lower shell and is positioned above the secondary screening discharge hole; and a second material retaining plate is arranged on the inner wall of the upper shell and is positioned below the screen mesh.
In a preferred scheme, the primary crusher is a jaw crusher, and the secondary crusher is a double-roll crusher.
This patent can reach following beneficial effect:
1. the system crushes the stones collected by the mine twice through the primary crusher and the secondary crusher, so that the crushing effect is good; before primary crushing, the small crushed stones are directly screened into the secondary crusher by the primary screening device, so that the load of the primary crusher is reduced, and the working efficiency is improved; the secondary screening device is used for further screening the gravel aggregate formed by the secondary crusher, and unqualified products are returned to the secondary crusher for secondary crushing, so that the quality of the products can be ensured, and the quality of the products is improved;
2. the shell comprises a lower shell and an upper shell, wherein the lower shell is a static part, and the upper shell is a vibrating part; one end of the upper shell is driven by the driving device to do reciprocating motion, and compared with the traditional screening device, the device can reduce the acting force on the driving device when the upper shell vibrates, and can reduce the load of the driving device;
3. the screen is used for screening qualified sandstone aggregates, and the sandstone aggregates smaller than the aperture of the screen reach the guide plate through the screen and are discharged from the secondary screening discharge hole; the sandstone aggregate which does not meet the aperture size can be discharged through the secondary screening return port, the upper shell can play a role in shaking in the vertical direction and the left direction and the right direction, and the screening effect is good;
4. the water pipe is arranged above the water inlet, and because the sandstone aggregate can carry a certain amount of soil, the soil is mixed into the sandstone aggregate, so that the market value is reduced; on the other hand, the soil blocks the screen, so the soil can be cleaned in a water washing mode, and the cleaned sludge water is discharged through the water outlet; the grit aggregate that this system produced is cleaner, can improve the quality of product.
Drawings
The invention will be further explained with reference to the following figures and examples:
FIG. 1 is a schematic view of the system flow of the present invention;
FIG. 2 is a structural diagram of the primary screening device of the present invention;
FIG. 3 is a schematic view of the installation effect of the fourth transportation device of the present invention;
FIG. 4 is a side view of the second stage screening device of the present invention;
FIG. 5 is an enlarged view of the point A in FIG. 4 according to the present invention;
fig. 6 is a first perspective three-dimensional view of the secondary screening device of the present invention;
fig. 7 is a second perspective three-dimensional view of the secondary screening device of the present invention;
FIG. 8 is a structural view of a lower casing of the secondary screening device of the present invention;
fig. 9 is a structural view of the upper casing of the secondary screening device of the present invention, wherein the view angle is inclined downward;
fig. 10 is a structural view of the upper casing of the secondary screening device of the present invention, in which the viewing angle is in an oblique direction;
FIG. 11 is a force analysis diagram of the upper housing assuming vertical vibration of the upper housing;
fig. 12 is a force analysis diagram when the upper case is vibrated at a tilt.
In the figure: the screening device comprises a primary screening device 1, a primary screening discharge port 101, a primary screening discharge port 102, a diversion screening plate 103, a guardrail 104, a primary screening hole 105, a protective shell 106, a primary crusher 2, a secondary crusher 3, a secondary screening device 4, a secondary screening return port 401, a secondary screening discharge port 402, a guide rail 403, a roller 404, a driving device 405, a driving motor 4051, a reduction gearbox 4052, a rotating shaft 4053, a bearing seat 4054, a cam 4055, a connecting rod 4056, a fixing pile 4057, a screen 406, a guide plate 407, a buffer device 408, a fixing base 4081, a barrel housing 4082, a movable rod 4083, a first collision plate 4084, a water inlet 409, a water outlet 410, a first transportation device 501, a second transportation device 502, a third transportation device 503, a fourth transportation device 504, a fifth transportation device 505, a first material baffle 601 and a second material baffle plate 602.
Detailed Description
A preferred embodiment as shown in fig. 1 to 3, a crushing system for manufacturing sand aggregate comprises a primary crusher 2 and a secondary crusher 3, wherein a primary screening device 1 is arranged at an inlet of the primary crusher 2, and a first conveying device 501 is arranged at an inlet of the primary screening device 1; the outlet of the primary screening device 1 comprises a primary screening discharge port 101 and a primary screening discharge port 102, and the primary screening discharge port 101 is arranged above the inlet of the primary crusher 2; a second conveying device 502 is arranged below the outlet of the primary crusher 2 and the primary screening discharge opening 102, the output end of the second conveying device 502 is arranged above the inlet of the secondary crusher 3, a third conveying device 503 is arranged below the outlet of the secondary crusher 3, and the output end of the third conveying device 503 is arranged above the feeding opening of the secondary screening device 4; the secondary screening device 4 is provided with a secondary screening return port 401 and a secondary screening discharge port 402, a fourth transportation device 504 is arranged below the secondary screening return port 401, the output end of the fourth transportation device 504 is arranged above the inlet of the secondary crusher 3, and a fifth transportation device 505 is arranged below the secondary screening discharge port 402;
the first conveying device 501 is used for conveying materials to be crushed, the materials are stones to be crushed, the stones are collected by mine blasting, the size difference of the stones is large, the stones with large diameters need to be crushed by the primary crusher 2, and crushed stones generated by blasting have smaller diameters and can directly enter the secondary crusher 3 for crushing without primary crushing; the primary screening discharge port 102 is used for discharging screened materials, and particularly, smaller crushed stones are discharged through the primary screening discharge port 102, and stones with large diameters are discharged into the primary crusher 2 through the primary screening discharge port 101;
after the stones are crushed twice by the primary crusher 2 and the secondary crusher 3, the sandstone aggregate is formed, and the sandstone aggregate is screened by the secondary screening device 4.
The first transportation device 501, the second transportation device 502, the third transportation device 503, the fourth transportation device 504 and the fifth transportation device 505 can adopt belt conveyors or scraper conveyors;
the fourth transportation device 504 needs to complete the lifting transportation, and then more than two belt conveyors or scraper conveyors can be adopted for linking conversion, as shown in fig. 3, the two belt conveyors or scraper conveyors are all inclined and arranged upwards, and a certain rotation angle is arranged between the two belt conveyors or scraper conveyors.
Further, the primary screening device 1 comprises a flow guide screening plate 103, one end of the flow guide screening plate 103 is a primary screening discharge hole 101, and the other end of the flow guide screening plate 103 is arranged below the output end of the first transportation device 501; two sides of the diversion screening plate 103 are provided with guardrails 104, and the diversion screening plate 103 is provided with primary screening holes 105; a protective shell 106 is arranged below the diversion screening plate 103, and an outlet at the bottom of the protective shell 106 is a primary screening discharge opening 102;
the smaller crushed stones fall to the protective shell 106 through the primary screening holes 105 on the diversion screening plate 103 and are discharged to the second transportation device 502 through the primary screening discharge port 102.
Further, the primary screening holes 105 are strip-shaped holes; the strip-shaped holes are arranged along the material gliding direction, so that the falling of small crushed stones is facilitated.
Preferably, as shown in fig. 4 to 10, the secondary screening device 4 includes a casing, the casing includes a lower casing and an upper casing, a junction of the lower casing and the upper casing is an inclined surface, the junction of the lower casing and the upper casing is connected by a roller 404 and a guide rail 403 in a matching manner, the guide rail 403 is arranged along an upper edge of the lower casing, and the roller 404 is arranged along a lower edge of the upper casing; one end of the upper shell is driven by a driving device 405 to do reciprocating motion, the driving device 405 is fixed on a first platform, and the first platform is fixed on the side wall of the lower shell;
a feeding port of the secondary screening device 4 is positioned at the top of the upper shell, a screen 406 is arranged in the upper shell, the screen 406 is arranged obliquely downwards, the oblique direction of the screen 406 is the same as that of the guide rail 403, a secondary screening return port 401 is positioned on the side surface of the upper shell, and the secondary screening return port 401 is positioned at the lower edge of the screen 406; the inside guide plate 407 that is equipped with of lower casing, guide plate 407 slope set up downwards, and second grade screening discharge gate 402 is located the lower casing side, and second grade screening discharge gate 402 is located guide plate 407 lower limb.
The screen 406 is used for screening qualified sandstone aggregates, and the sandstone aggregates smaller than the aperture of the screen 406 reach the guide plate 407 through the screen 406 and are discharged from the secondary screening discharge port 402; the sandstone aggregate which does not meet the aperture size is discharged through the secondary screening return port 401, and the sandstone aggregate discharged from the secondary screening return port 401 is returned to the secondary crusher 3 through the fourth transportation device 504 to be crushed again;
the guide plate 407 mainly collects screened sand aggregate to the secondary screening discharge port 402 quickly, the screen 406 mainly serves the purpose of screening, and unqualified sand aggregate needs to be collected to the secondary screening return port 401; the slope of the deflector 407 is greater than the slope of the screen 406, preferably between 20 ° and 30 ° from horizontal and about 5 ° from horizontal for the screen 406.
Further, the driving device 405 includes a driving motor 4051, a front shaft end of the driving motor 4051 is connected with a reduction box 4052, an output gear of the reduction box 4052 is in meshing transmission with a rotating shaft 4053, the rotating shaft 4053 is fixed by a bearing seat 4054, and the bearing seat 4054 and the driving motor 4051 are both fixed on the first platform; the rotating shaft 4053 is horizontally arranged, the two ends of the rotating shaft 4053 are provided with cams 4055, the cams 4055 are hinged with the connecting rod 4056, the connecting rod 4056 is hinged with the fixing pile 4057, and the fixing pile 4057 is fixed on the outer wall of the upper casing;
the rotating shaft 4053 is driven by the driving motor 4051 to rotate through the reduction box 4052, the rotating shaft 4053 drives the cam 4055 to rotate, the cam 4055 and the rotating shaft 4053 are welded and fixed, the cam 4055 drives the connecting rod 4056 to move, and the connecting rod 4056 drives the upper shell to slide along the guide rail 403 in a reciprocating manner, so that the purpose of vibration is achieved.
Furthermore, a second platform is arranged on the side surface of the lower shell, and a buffer device 408 is arranged on the second platform; the second platform and the first platform are respectively positioned on the opposite side surfaces of the lower shell.
Further, a first platform is located at the upper end of the guide rail 403, and a second platform is located at the lower end of the guide rail 403.
Further, the buffering device 408 comprises a fixed base 4081, the fixed base 4081 is fixed on the second platform, a cylindrical shell 4082 is arranged at the top end of the fixed base 4081, the cylindrical shell 4082 is horizontally arranged, one end of the cylindrical shell 4082 facing the upper machine shell is of an opening structure, and the other end of the cylindrical shell 4082 is of a sealing structure; a movable rod 4083 is inserted in the cylinder housing 4082, a spring is arranged in the cylinder housing 4082, one end of the spring is connected with the bottom of the cylinder housing 4082, and the other end of the spring is connected with the movable rod 4083; the movable bar 4083 is connected to the first collision plate 4084 toward one end of the upper case.
The damping device 408 primarily counteracts a portion of the downward motion of the upper housing, thereby reducing the force between the linkage 4056 and the cam 4055 and the spud 507.
Furthermore, a second collision plate is arranged on the side surface of the upper shell, and the second collision plate is matched with the first collision plate 4084;
the second collision plate is provided to prevent the first collision plate 4084 from directly colliding with the side surface of the upper case.
Further, a water inlet 409 is arranged at the top of the upper shell, a water outlet 410 is arranged at the bottom of the lower shell, and a plurality of water permeable holes are arranged on the guide plate 407;
a water pipe is arranged above the water inlet 409, and because the sandstone aggregate can carry a certain amount of soil, the soil is mixed into the sandstone aggregate, so that the market value is reduced; on the other hand, since the soil blocks the screen 406, the soil can be cleaned by washing with water, and the cleaned sludge water is discharged through the water outlet 410.
Further, the inlet of the secondary screening device is arranged above the upper edge of the screen 406, and the water inlet 409 is arranged beside the inlet side of the secondary screening device; therefore, the sand aggregate entering from the inlet of the secondary screening device can be sufficiently screened, and the washing range can be enlarged.
Further, a secondary screening discharge port 402 and a secondary screening return port 401 are respectively located on two opposite side surfaces of the casing; this design can make the entry of secondary screening device and the secondary screening return port 401 ejection of compact can not mutual interference.
Further, a first material baffle 601 is arranged on the inner wall of the lower shell, and the first material baffle 601 is positioned above the secondary screening discharge hole 402; a second baffle plate 602 is arranged on the inner wall of the upper shell, and the second baffle plate 602 is positioned below the screen mesh 406;
because the upper housing and the lower housing can be dislocated from each other in the reciprocating sliding process of the upper housing, the first striker plate 601 and the second striker plate 602 can prevent sand aggregate from leaking.
Further, the primary crusher is a jaw crusher, and the secondary crusher is a double-roller crusher; the jaw crusher is mainly used for crushing various ores and large materials with medium granularity and is widely applied to industries such as mines, smelting, building materials, highways, railways, water conservancy, chemical engineering and the like. The highest compression strength of the crushed materials is 320 MPa. The performance characteristics are large crushing ratio, uniform product granularity, simple structure, reliable performance, simple and convenient maintenance and low operation cost. The double-roller crusher enables crushed materials to fall between the two rollers through the feeding port, extrusion crushing is conducted, and finished materials naturally fall down. When the roller crusher is over-hard or non-crushable objects, the roller of the roller crusher can automatically retreat under the action of a hydraulic cylinder or a spring, so that the roller gap is increased, and the over-hard or non-crushable objects fall down, thereby protecting the machine from being damaged. The two rollers rotating in opposite directions have a certain gap, and the maximum discharge particle size of the product can be controlled by changing the gap.
The design objective of the secondary screening device 4 in the present system is described below in connection with figures 11 and 12:
because the conventional screening device vibrates vertically, as shown in fig. 8, G represents the gravity of the vibrating object and the device can understand G as the gravity of the upper housing, and it is assumed that the upper housing vibrates vertically, and F represents the upward lifting force; when F is larger than G, the requirement of lifting and vibrating the vibrating object can be met;
the vibration mode adopted by the device is oblique sliding, as shown in fig. 9, wherein F1 and F2 respectively indicate that F is the decomposition acting force in two axial directions because the friction force between the roller 404 and the guide rail 403 is small and can be ignored, specifically, F1 is the pulling force along the guide rail 403, and F2 is the supporting force of the guide rail 403;
it can be seen that the magnitude of the F1 force is significantly less than F, so the device can provide power savings, and in particular, reduce the load on the drive 405; if the upper shell is simply slid back and forth along the horizontal direction, although F1 is smaller and more labor-saving, the upper shell lacks the process of up-and-down movement, and the vibrating screening effect is poor;
therefore, the device can simultaneously vibrate up and down and left and right, and the screening effect is good.
The workflow of the system is introduced as follows:
the first conveying device 501 is used for conveying stones to be crushed, the stones have large size difference, large stones contain small broken stones, the large stones pass through the diversion screening plate 103 of the primary screening device 1 and then enter the primary crusher 2 from the primary screening discharge port 101 to be crushed, and the small broken stones pass through the primary screening holes 105 to the second conveying device 502;
crushed stones behind the primary crusher 2 and crushed stones at the primary screening discharge opening 102 enter the secondary crusher 3 through the second conveying device 502 for crushing; the secondary crusher 3 further crushes the crushed stones to form gravel aggregates, and the gravel aggregates are conveyed to the secondary screening device 4 by the third conveying device 503 for screening treatment;
the secondary screening device 4 discharges the sand aggregate with qualified size from the secondary screening discharge port 402, and transports the sand aggregate to a factory warehouse through a fifth transport device 505, and the unqualified sand aggregate is transported to the secondary crusher 3 through a fourth transport device 504 to be crushed again.
Claims (10)
1. A crushing system for manufacturing sand aggregates, comprising a primary crusher (2) and a secondary crusher (3), characterized in that: a primary screening device (1) is arranged at an inlet of the primary crusher (2), and a first conveying device (501) is arranged at an inlet of the primary screening device (1); the outlet of the primary screening device (1) comprises a primary screening discharge port (101) and a primary screening discharge port (102), and the primary screening discharge port (101) is arranged above the inlet of the primary crusher (2); a second conveying device (502) is arranged below an outlet of the primary crusher (2) and the primary screening discharge opening (102), an output end of the second conveying device (502) is arranged above an inlet of the secondary crusher (3), a third conveying device (503) is arranged below an outlet of the secondary crusher (3), and an output end of the third conveying device (503) is arranged above a feeding opening of the secondary screening device (4); the secondary screening device (4) is provided with a secondary screening return port (401) and a secondary screening discharge port (402), a fourth transportation device (504) is arranged below the secondary screening return port (401), the output end of the fourth transportation device (504) is arranged above the inlet of the secondary crusher (3), and a fifth transportation device (505) is arranged below the secondary screening discharge port (402).
2. The crushing system for manufacturing sand aggregate of claim 1, wherein: the primary screening device (1) comprises a flow guide screening plate (103), one end of the flow guide screening plate (103) is a primary screening discharge hole (101), and the other end of the flow guide screening plate (103) is arranged below the output end of the first conveying device (501); two sides of the diversion screening plate (103) are provided with guardrails (104), and the diversion screening plate (103) is provided with primary screening holes (105); a protective shell (106) is arranged below the diversion screening plate (103), and an outlet at the bottom of the protective shell (106) is a primary screening discharge opening (102).
3. A crushing system for producing sand aggregate according to claim 2, wherein: the primary screening holes (105) are strip-shaped holes.
4. The crushing system for manufacturing sand aggregate of claim 1, wherein: the secondary screening device (4) comprises a machine shell, the machine shell comprises a lower machine shell and an upper machine shell, the junction of the lower machine shell and the upper machine shell is an inclined plane, the junction of the lower machine shell and the upper machine shell is connected with a guide rail (403) in a matching mode through a roller (404), the guide rail (403) is arranged along the upper edge of the lower machine shell, and the roller (404) is arranged along the lower edge of the upper machine shell; one end of the upper machine shell is driven by a driving device (405) to do reciprocating motion, the driving device (405) is fixed on a first platform, and the first platform is fixed on the side wall of the lower machine shell;
a feeding port of the secondary screening device (4) is positioned at the top of the upper shell, a screen (406) is arranged in the upper shell, the screen (406) is arranged obliquely downwards, the oblique direction of the screen (406) is the same as that of the guide rail (403), a secondary screening return port (401) is positioned on the side surface of the upper shell, and the secondary screening return port (401) is positioned at the lower edge of the screen (406); the inside guide plate (407) that is equipped with of lower casing, guide plate (407) slope sets up downwards, and second grade screening discharge gate (402) are located the lower casing side, and second grade screening discharge gate (402) are located guide plate (407) lower limb.
5. A crushing system for use in the manufacture of sand aggregate according to claim 4, wherein: the driving device (405) comprises a driving motor (4051), the front shaft end of the driving motor (4051) is connected with a reduction gearbox (4052), an output gear of the reduction gearbox (4052) is in meshing transmission with a rotating shaft (4053), the rotating shaft (4053) is fixed through a bearing seat (4054), and the bearing seat (4054) and the driving motor (4051) are fixed on a first platform; rotation axis (4053) level setting and rotation axis (4053) both ends all are equipped with cam (4055), and cam (4055) are articulated with connecting rod (4056), and connecting rod (4056) are articulated with spud pile (4057), and spud pile (4057) is fixed at last casing outer wall.
6. A crushing system for use in the manufacture of sand aggregate according to claim 4, wherein: a second platform is arranged on the side surface of the lower shell, and a buffer device (408) is arranged on the second platform; the second platform and the first platform are respectively positioned on the opposite side surfaces of the lower shell.
7. A crushing system for use in the manufacture of sand aggregate according to claim 6, wherein: the first platform is positioned at the upper end of the guide rail (403), and the second platform is positioned at the lower end of the guide rail (403); the buffer device (408) comprises a fixed base (4081), the fixed base (4081) is fixed on the second platform, a cylinder shell (4082) is arranged at the top end of the fixed base (4081), the cylinder shell (4082) is horizontally arranged, one end, facing the upper shell, of the cylinder shell (4082) is of an opening structure, and the other end of the cylinder shell (4082) is of a sealing structure; a movable rod (4083) is inserted in the cylinder shell (4082), a spring is arranged in the cylinder shell (4082), one end of the spring is connected with the bottom of the cylinder shell (4082), and the other end of the spring is connected with the movable rod (4083); the movable bar (4083) is connected to a first striker plate (4084) at one end facing the upper housing.
8. A crushing system for use in the manufacture of sand aggregate according to claim 4, wherein: the top of the upper machine shell is provided with a water inlet (409), the bottom of the lower machine shell is provided with a water outlet (410), and the guide plate (407) is provided with a plurality of water permeable holes.
9. A crushing system for use in the manufacture of sand aggregate according to claim 4, wherein: a first material baffle (601) is arranged on the inner wall of the lower shell, and the first material baffle (601) is positioned above the secondary screening discharge hole (402); and a second material retaining plate (602) is arranged on the inner wall of the upper shell, and the second material retaining plate (602) is positioned below the screen (406).
10. The crushing system for manufacturing sand aggregate of claim 1, wherein: the primary crusher (2) is a jaw crusher, and the secondary crusher (3) is a double-roll crusher.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201920944075.3U CN210411069U (en) | 2019-06-21 | 2019-06-21 | Crushing system for manufacturing sandstone aggregate |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201920944075.3U CN210411069U (en) | 2019-06-21 | 2019-06-21 | Crushing system for manufacturing sandstone aggregate |
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| CN210411069U true CN210411069U (en) | 2020-04-28 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201920944075.3U Expired - Fee Related CN210411069U (en) | 2019-06-21 | 2019-06-21 | Crushing system for manufacturing sandstone aggregate |
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Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111940111A (en) * | 2020-06-22 | 2020-11-17 | 苏州上建杭鑫混凝土有限公司 | Recycled aggregate screening and crushing equipment and process method thereof |
| CN112439489A (en) * | 2020-10-19 | 2021-03-05 | 平和县鑫泰德远矿业有限公司 | Pyrophyllite crushing method capable of producing multi-grain-grade products |
-
2019
- 2019-06-21 CN CN201920944075.3U patent/CN210411069U/en not_active Expired - Fee Related
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111940111A (en) * | 2020-06-22 | 2020-11-17 | 苏州上建杭鑫混凝土有限公司 | Recycled aggregate screening and crushing equipment and process method thereof |
| CN111940111B (en) * | 2020-06-22 | 2022-01-18 | 苏州上建杭鑫混凝土有限公司 | Recycled aggregate screening and crushing equipment and process method thereof |
| CN112439489A (en) * | 2020-10-19 | 2021-03-05 | 平和县鑫泰德远矿业有限公司 | Pyrophyllite crushing method capable of producing multi-grain-grade products |
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