CN213020957U - Double-chamber kiln feeding device - Google Patents
Double-chamber kiln feeding device Download PDFInfo
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- CN213020957U CN213020957U CN202021416715.2U CN202021416715U CN213020957U CN 213020957 U CN213020957 U CN 213020957U CN 202021416715 U CN202021416715 U CN 202021416715U CN 213020957 U CN213020957 U CN 213020957U
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- kiln
- chute
- vibrating feeder
- kiln top
- hopper
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Abstract
The utility model discloses a double-chamber kiln feeding device, which relates to the field of steel smelting and comprises a kiln top weighing hopper, a first kiln top vibrating feeder and a steel plate supporting platform; the outlet of the kiln top weighing hopper is communicated with a three-way receiving port, a discharge port in the middle of the three-way receiving port is communicated with a first kiln top vibrating feeder, and discharge ports on two sides of the three-way receiving port are respectively communicated with a second kiln top vibrating feeder and a third kiln top vibrating feeder; the discharge port of the second kiln top vibrating feeder and the discharge port of the third kiln top vibrating feeder are respectively communicated with the discharge port, positioned above the charging port of the rotary hopper, and are respectively provided with a first chute and a second chute which are arranged on the steel plate supporting platform. The utility model discloses can solve current feeding device and have the switching-over belt easily "the off tracking", there is falling the stone sediment bottom the bearing roller, the belt appears tearing easily and leads to the problem that on-the-spot intensity of labour is big and the equipment maintenance frequency is high and the equipment maintenance degree of difficulty is big.
Description
Technical Field
The utility model belongs to the technical field of the iron and steel smelting technique and specifically relates to a feeding device for giving double-chamber kiln is reinforced.
Background
In the operation process of steel smelting production, the vibrating feeder is started by the lower end of a lime stone bin in front of a kiln and a belt in front of the kiln, and the lime stone raw material is conveyed into a weighing hopper in front of the kiln to be weighed. As shown in attached figures 1 to 3, when the weight of the interior of the weighing hopper 1 in front of the kiln reaches a set weight value, and the single-bucket trolley 3 reaches the bottom of the inclined bridge track 4, the gate plate 2 at the bottom of the weighing hopper in front of the kiln is opened, and limestone raw materials are placed in the single-bucket trolley 3. Under the action of the winch, the single-bucket trolley 3 pours the limestone raw material into the kiln top weighing hopper 5.
When one kiln chamber of the double-chamber kiln is calcined, the other heat-accumulating kiln chamber is fed under the control of the system, namely when the No. 1 chamber of the double-chamber kiln is calcined, the system needs to feed into the heat-accumulating chamber 2. At the moment, limestone raw materials enter a first kiln top vibrating feeder 6 from a kiln top weighing hopper 5 through a single-pass receiving port 12 and are conveyed to a second rotating hopper 9 corresponding to the top of the kiln barrel of the chamber No. 2 through a bidirectional belt 7. In the feeding process, in order to ensure that the second rotary hopper 9 is filled with enough stones and keep the material level horizontal, a motor of the second rotary hopper 9 drives a speed reducer to rotate the second rotary hopper 9; when the set weight in the second rotary hopper 9 is reached, the first kiln top vibrating feeder 6, the bidirectional belt 7 and the rotary hopper stop running. When the charging time set by the system is up, a kiln cylinder closing cover plate of the chamber 2, namely a second kiln cylinder closing cover plate 11 is opened, and the limestone raw materials in the hopper are downwards put into the chamber 2 of the double-chamber kiln by the second rotary hopper 9 under the action of the hydraulic cylinder (as shown in figure 1). After the feeding is finished, the second rotary hopper 9 is lifted upwards, and then the kiln cylinder closing cover plate of the No. 2 chamber, namely the second kiln cylinder closing cover plate 11 is closed. Thus, in one combustion period, feeding is realized for 2-3 times.
When the double-hearth kiln is reversed, the original hearth 1 is changed into a heat storage hearth, the system changes the running direction of the bidirectional belt 7, and the materials are fed into the first rotary hopper 8 of the hearth 1 (shown in attached figures 2 and 3). Because the length of the bidirectional belt is short, the reversing belt on the kiln top needs to be continuously switched to the running direction, so that the requirement of respectively feeding materials to two kiln cylinders in different running periods is met, and the feeding mode has the problems that the reversing belt is easy to deflect, stone slag falls off from the bottom of a carrier roller, the belt is easy to tear, the equipment is difficult to maintain and the like; increasing the field labor intensity and the equipment maintenance frequency.
SUMMERY OF THE UTILITY MODEL
The utility model aims to solve the technical problem that a two thorax kiln feeding device is provided, it can solve current feeding device and have the switching-over belt easily "off tracking", there is falling the stone sediment bottom the bearing roller, the belt appears tearing easily and leads to the problem that on-the-spot intensity of labour is big and the plant maintenance frequency is high and the plant maintenance degree of difficulty is big.
In order to solve the above problem, the technical scheme of the utility model is that: the double-chamber kiln feeding device comprises a kiln top weighing hopper, a first kiln top vibrating feeder arranged above a bidirectional belt and a steel plate supporting platform arranged above the first rotating hopper and the second rotating hopper, wherein the outlet of the kiln top weighing hopper is communicated with a three-way material receiving port, the middle discharge port of the three-way material receiving port is communicated with the first kiln top vibrating feeder, and the discharge ports on the two sides of the three-way material receiving port are respectively communicated with the second kiln top vibrating feeder and a third kiln top vibrating feeder; the discharge port of the second kiln top vibrating feeder is communicated with a first chute, and the discharge port of the first chute is positioned above the feed port of the first rotary hopper; the discharge port of the third kiln top vibrating feeder is communicated with a second chute, and the discharge port of the second chute is positioned above the feed port of the second rotary hopper; the first chute and the second chute are mounted on the steel plate support platform.
In the above technical solution, a more specific solution may also be: a channel steel support frame is fixedly welded on the circumference of the bottom of the receiving port of the kiln top weighing hopper, and a support rod for supporting the channel steel support frame is respectively connected between two sides of the channel steel support frame and two receiving ports of the three-way receiving port; the end heads of the channel steel support frames on two sides are respectively provided with a lifting hook, and each lifting hook is respectively hooked and connected with a kiln top vibrating feeder through a vibration reduction hook, namely the second kiln top vibrating feeder and the third kiln top vibrating feeder.
Further: the included angle between the bottom plate of the second kiln top vibrating feeder and the horizontal plane is adjusted to be 15-45 degrees; and the included angle between the bottom plate of the third kiln top vibrating feeder and the horizontal plane is 15-45 degrees.
Further: the first chute with the second chute divides the both sides of putting the tee bend material receiving mouth, first chute with the structure of second chute is the same, includes by the base welding the last chute support frame of steel sheet supporting platform and the chute bottom plate that is supported by the chute support frame, the welding has wear-resisting material on the chute bottom plate.
Further: the included angle between the chute bottom plate of the first chute and the horizontal plane is 40-90 degrees; and the included angle between the chute bottom plate of the second chute and the horizontal is 40-90 degrees.
The utility model discloses three well kiln crown vibrating feeder structure effects are the same, for the description make things convenient for the hat to distinguish with showing with "first", "second" and "third".
Due to the adoption of the technical scheme, compare with prior art the utility model discloses following beneficial effect has:
the utility model discloses the material receiving mouth is the tee bend material receiving mouth, three vibrating feeder is connected to three material receiving mouth lower extreme, it coexists to have realized "two-way belt feeding mode" and "vibrating feeder chute feeding mode" two kinds of feeding modes, the effectual stability that improves the feeding system, the fracture of original motor catcher has been avoided, the belt off tracking, the belt tears easily to appear, there is falling stone sediment bottom the bearing roller, trouble such as fender glue change, kiln crown feeding system trouble obtains reducing, the manual maintenance intensity has been reduced, the worker needn't clean two-way belt health every day, two-way belt is as reserve feeding equipment simultaneously, can be when the batcher breaks down, guarantee reinforced smoothly, the stability of feeding system has been improved.
Drawings
FIG. 1 is a schematic view of a charging route of a prior art dual-chamber kiln;
FIG. 2 is a schematic front view of a bidirectional belt feeding of a kiln top of a conventional double-chamber kiln;
FIG. 3 is a schematic side view of a conventional bi-directional belt feeding on the top of a dual-chamber kiln;
FIG. 4 is a schematic view of the structure of the three-way charging hole of the present invention;
FIG. 5 is a schematic perspective view of the three-way charging hole of the present invention;
FIG. 6 is a schematic front view of the chute of the present invention;
FIG. 7 is a schematic side view of the chute of the present invention;
FIG. 8 is a schematic view of the feeding front side of the kiln top vibrating feeder of the utility model;
figure 9 is the feeding overhead schematic view of the kiln top vibrating feeder of the utility model.
The reference numbers in the figures denote: 1. Weighing hopper before the kiln, 2, weighing hopper flashboard before the kiln, 3, single-bucket dolly, 4, oblique bridge track, 5, kiln crown weighing hopper, 6, first kiln crown vibrating feeder, 7, two-way belt, 8, first rotatory hopper, 9, second rotatory hopper, 10, first kiln letter closing cover plate, 11, second kiln letter closing cover plate, 12, single-pass material receiving port, 13, steel sheet supporting platform, 14, tee bend charge door, 15, channel-section steel, 16, bracing piece, 17, lifting hook, 18, damping couple, 19, second kiln crown vibrating feeder, 20, third kiln crown vibrating feeder, 21, first chute, 22, second chute, 23, chute support frame.
Detailed Description
The invention will be further described with reference to the following figures and examples:
fig. 1, fig. 2 and fig. 3 are schematic structural diagrams of a feeding route and a feeding device of a double-hearth kiln in the prior art, and the structure and the existing problems of the feeding route and the feeding device are explained in the background art part and are not described again.
The double-hearth kiln feeding device of fig. 4 to 9 comprises a kiln top weighing hopper 5, a first kiln top vibrating feeder 6 and a steel plate supporting platform 13 arranged above the first rotary hopper 8 and the second rotary hopper 9; the outlet of the kiln top weighing hopper 5 is communicated with a three-way material receiving port 14, a middle material outlet of the three-way material receiving port 14 is communicated with the first kiln top vibrating feeder 6, and material outlets at two sides are respectively communicated with the second kiln top vibrating feeder 19 and the third kiln top vibrating feeder 20; a discharge port of the second kiln top vibrating feeder 19 is communicated with a first chute 21, and a discharge port of the first chute 21 is positioned above a feed port of the first rotary hopper 8; the discharge port of the third kiln top vibrating feeder 20 is communicated with a second chute 22, and the discharge port of the second chute 22 is positioned above the feed port of the second rotary hopper 9; the first chute 21 and the second chute 22 are mounted on the steel plate support platform 13.
As shown in fig. 8 and 9, a channel steel support frame 15 is fixedly welded on the circumference of the bottom of the receiving port of the kiln top weighing hopper 5, and a support rod 16 for supporting the channel steel support frame 15 is respectively connected between two sides of the channel steel support frame 15 and two receiving ports of the three-way receiving port 14; the ends of the channel steel support frames 15 on the two sides are respectively provided with a hook 17, and each hook 17 is hooked and connected with a kiln top vibrating feeder through a vibration reduction hook 18, namely a second kiln top vibrating feeder 19 and a third kiln top vibrating feeder 20.
In order to facilitate smooth flowing and supply of materials, the included angle between the bottom plate of the second kiln top vibrating feeder 19 and the horizontal plane is adjusted to be in the range of 15-45 degrees; the included angle between the third kiln top vibrating feeder 20 and the horizontal is in the range of 15-45 degrees.
As shown in fig. 6 and 7, the first chute 21 and the second chute 22 are respectively arranged at two sides of the three-way receiving port 14, the two chutes have the same structure, each chute comprises a chute support frame 23 welded on the steel plate support platform 13 by a base and a chute bottom plate supported by the chute support frame 23, and the chute bottom plate is welded with a wear-resistant material, so that the chute inclination is kept in the range of 40 degrees to 90 degrees to facilitate smooth flowing of the materials. Namely, the included angle between the chute bottom plate of the first chute 21 and the horizontal is 40 degrees to 90 degrees, and the included angle between the chute bottom plate of the second chute 22 and the horizontal is 40 degrees to 90 degrees.
In order to conveniently control the switching of the feeding modes, namely selecting the use of a 'bidirectional belt' or a 'chute feeding mode' of a vibrating feeder for feeding, a switching control program for controlling the feeding modes is arranged on a computer control operation interface.
When the system is set to be in a vibrating feeder chute feeding mode for feeding, when the system controls feeding to the 1# chamber of the double-chamber kiln, the first rotary hopper 8 is started, and the second kiln top vibrating feeder 19 on the 1# chamber vibrates, so that stones in the kiln top weighing hopper 5 are fed into the first rotary hopper 8 of the 1# chamber through the first chute 21; when the feeding time set by the system is up, the first kiln simple closing cover plate 10 is opened, and the first rotary hopper 8 downwards puts the limestone raw materials in the hopper into the heat storage chamber of the double-chamber kiln under the action of the hydraulic cylinder; after the feeding is finished, the first rotary hopper 8 is lifted upwards, and then the first kiln simple closing cover plate 10 is closed; thus, in one combustion period, feeding is realized for 2-3 times. After the kiln barrel is switched to the double-chamber kiln for calcination, if the system controls the feeding to the 2# chamber of the double-chamber kiln, the second rotary hopper 9 is started, and the third kiln top vibrating feeder 20 on the 2# chamber vibrates, so that stones in the kiln top weighing hopper 5 are fed into the second rotary hopper 9 on the 2# chamber through the second chute 22. When the charging time set by the system is up, the second kiln simple closing cover plate 11 is opened, and the second rotary hopper 9 downwards puts the limestone raw materials in the hopper into the heat storage chamber of the double-chamber kiln under the action of the hydraulic cylinder. After the feeding is completed, the second rotary hopper 9 is lifted upwards, and then the second kiln cover plate 11 is closed.
When the system is set to be in a bidirectional belt feeding mode, feeding of the first kiln top vibrating feeder 6 is achieved through the original bidirectional belt 7.
Claims (5)
1. The utility model provides a two thorax kiln feeding device, includes kiln crown weighing hopper (5), sets up first kiln crown vibrating feeder (6) in two-way belt (7) top, sets up steel sheet supporting platform (13) in first rotatory hopper (8) and second rotatory hopper (9) top, its characterized in that: the outlet of the kiln top weighing hopper (5) is communicated with a three-way receiving port (14), the middle discharge port of the three-way receiving port (14) is communicated with the first kiln top vibrating feeder (6), and the discharge ports at two sides of the three-way receiving port (14) are respectively communicated with the second kiln top vibrating feeder (19) and the third kiln top vibrating feeder (20); the discharge port of the second kiln top vibrating feeder (19) is communicated with a first chute (21), and the discharge port of the first chute (21) is positioned above the feed port of the first rotary hopper (8); the discharge port of the third kiln top vibrating feeder (20) is communicated with a second chute (22), and the discharge port of the second chute (22) is positioned above the feed port of the second rotary hopper (9); the first chute (21) and the second chute (22) are mounted on the steel plate support platform (13).
2. The charging device for a dual-bore kiln according to claim 1, characterized in that: a channel steel support frame (15) is fixedly welded on the circumference of the bottom of a receiving port of the kiln top weighing hopper (5), and support rods (16) are connected between two sides of the channel steel support frame (15) and two receiving ports of the three-way receiving port (14); the end of the channel steel support frame (15) is provided with a lifting hook (17), and the lifting hook (17) is respectively hooked and connected with the second kiln top vibrating feeder (19) and the third kiln top vibrating feeder (20) through a vibration reduction hook (18).
3. The charging device for a dual-bore kiln according to claim 2, characterized in that: the included angle between the bottom plate of the second kiln top vibrating feeder (19) and the horizontal plane is 15-45 degrees; and the included angle between the bottom plate of the third kiln top vibrating feeder (20) and the horizontal is 15-45 degrees.
4. The charging device for a dual-bore kiln according to claim 1, 2 or 3, characterized in that: first chute (21) with second chute (22) branch puts the both sides that the tee bend received material mouth (14), first chute (21) with the structure of second chute (22) is the same, include by the base welding spout support frame (23) and the chute bottom plate on steel sheet supporting platform (13), the welding has wear-resisting material on the chute bottom plate.
5. The charging device for a dual-bore kiln according to claim 4, characterized in that: the included angle between the chute bottom plate of the first chute (21) and the horizontal plane is 40-90 degrees; the included angle between the chute bottom plate of the second chute (22) and the horizontal direction is 40-90 degrees.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021416715.2U CN213020957U (en) | 2020-07-17 | 2020-07-17 | Double-chamber kiln feeding device |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021416715.2U CN213020957U (en) | 2020-07-17 | 2020-07-17 | Double-chamber kiln feeding device |
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| Publication Number | Publication Date |
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| CN213020957U true CN213020957U (en) | 2021-04-20 |
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202021416715.2U Active CN213020957U (en) | 2020-07-17 | 2020-07-17 | Double-chamber kiln feeding device |
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| CN (1) | CN213020957U (en) |
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN113758277A (en) * | 2021-08-27 | 2021-12-07 | 广西柳钢新材料科技有限公司 | Double-chamber kiln charging method |
| CN115043180A (en) * | 2022-05-25 | 2022-09-13 | 华能伊敏煤电有限责任公司 | Flow-dividing type hydraulic spile door protection device |
-
2020
- 2020-07-17 CN CN202021416715.2U patent/CN213020957U/en active Active
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN113758277A (en) * | 2021-08-27 | 2021-12-07 | 广西柳钢新材料科技有限公司 | Double-chamber kiln charging method |
| CN115043180A (en) * | 2022-05-25 | 2022-09-13 | 华能伊敏煤电有限责任公司 | Flow-dividing type hydraulic spile door protection device |
| CN115043180B (en) * | 2022-05-25 | 2023-11-03 | 华能伊敏煤电有限责任公司 | But split-flow type hydraulic plugboard door protector |
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