High-efficiency submerged chain conveyor driving mechanism
By using a combination of dual drive motors and cycloidal reducers on the slag remover, the problem of chain imbalance caused by single drive was solved, achieving consistent chain length and efficient and safe operation of the equipment, reducing equipment failures and maintenance downtime.
Patent Information
- Application Number
- CN202422936003.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-29
- Publication Date
- 2025-11-04
- Estimated Expiration
- 2034-11-29
AI Technical Summary
When the head drive of the slag remover is a single drive, the chain is prone to uneven running, which can lead to chain derailment and equipment failure. Furthermore, during maintenance, it may cause problems such as increased slag volume, motor overload, and damage to the reducer.
The system adopts a dual-drive structure, using first and second drive motors to drive first and second cycloidal reducers respectively. Combined with the buffer seat plate and drive assembly, it achieves uniform force distribution on the chain and improves the contact of the force-bearing surface through the cycloidal reducer, thereby reducing equipment failure.
This ensures consistent chain length, preventing chain slippage and equipment malfunctions, improving the operational stability and safety of the slag remover, and reducing equipment downtime for maintenance.
Smart Images

Figure CN223512124U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to a drive mechanism technical field of a slag conveyor, concretely is a kind of efficient slag conveyor drive mechanism. BACKGROUND
[0002] The slag conveyor is a continuous, efficient mechanical slag removal equipment, it can handle the ash produced after boiler combustion, the head position of slag conveyor is often provided with drive mechanism, however, there are still some problems in actual use of this kind of drive mechanism.
[0003] The head drive mode of slag conveyor is generally single drive, the single drive type slag conveyor drive mechanism can appear the problem that driving side chain is longer than driven side chain in running process, the length of two side chains is not the same, which can cause chain to be easily off when running to the tail of machine, seriously affect the stable operation of slag conveyor, in addition, when the slag of slag conveyor is cut into adjacent system slag conveyor due to the maintenance of a slag conveyor in the field, the slag amount of slag conveyor can increase, the motor overload protection of drive mechanism can cause the shutdown of slag conveyor, and the phenomenon of motor and speed reducer reverse rotation, thereby causing the breakage of speed reducer base, the reduction or shutdown of gasifier, to solve the above problems, we propose a new efficient slag conveyor drive mechanism. SUMMARY
[0004] The utility model is to provide a kind of efficient slag conveyor drive mechanism to solve the problems presented in the above background art.
[0005] To achieve the above object, the utility model provides the following technical scheme: a kind of efficient slag conveyor drive mechanism, including the main body of slag conveyor, the two sides of the main body of slag conveyor are respectively welded with first buffer seat plate and second buffer seat plate, the top of first buffer seat plate and second buffer seat plate is respectively equipped with first cycloidal reducer and second cycloidal reducer, the input end of first cycloidal reducer and second cycloidal reducer is respectively equipped with first drive motor and second drive motor, first drag assembly and second drag assembly are connected between the main body of slag conveyor and first drive motor and second drive motor, the two sides of first cycloidal reducer and second cycloidal reducer are respectively connected with input shaft and output shaft, the first cycloidal reducer, second cycloidal reducer inside between input shaft and output shaft are all equipped with cycloidal curve disc, first drag assembly and second drag assembly are all provided with drag sprocket and drag chain.
[0006] Preferably, the bottom of first cycloidal reducer and first buffer seat plate are connected by screw to constitute dismounting and mounting structure.
[0007] Preferably, the bottom of second cycloidal reducer and second buffer seat plate are connected by screw to constitute dismounting and mounting structure.
[0008] Preferably, the top of the first and second cushion seat plates is provided with a silicone rubber damping layer.
[0009] Preferably, the bottom of the first and second cushion seat plates is provided with an aluminum alloy base layer.
[0010] Preferably, the top of the aluminum alloy base layer is uniformly connected with a energy dissipation expansion piece.
[0011] Preferably, the first protective chain cover matched with the first dragging assembly is installed on the slag conveyor body through screws, so that the first protective chain cover is used to protect the first dragging assembly from collision and pollution, and the installation structure formed by the screws facilitates independent disassembly and cleaning of the first protective chain cover.
[0012] Preferably, the second protective chain cover matched with the second dragging assembly is installed on the slag conveyor body through screws, so that the second protective chain cover is used to protect the second dragging assembly from collision and pollution, and the installation structure formed by the screws facilitates independent disassembly and cleaning of the second protective chain cover.
[0013] Compared with the prior art, the utility model has the advantages that:
[0014] (1), the efficient slag conveyor drive mechanism is installed with the second dragging assembly, so that the performance of the device is optimized, the slag conveyor body is changed into double drive composed of the first drive motor and the second drive motor, the dragging components on the slag conveyor body are more uniformly stressed, specifically, the first drive motor and the second drive motor are started, cooperate with the transmission of the first dragging assembly and the second dragging assembly, drive the slag conveyor body to run, the two dragging sprockets on the first dragging assembly and the second dragging assembly have no master-slave relationship, which is helpful to avoid inconsistent wear of the dragging sprocket teeth, and further helps the dragging mechanism composed of the first dragging assembly and the second dragging assembly to be uniformly stressed, the two sides dragging chains composed of the first dragging assembly and the second dragging assembly are uniformly stressed, uniformly worn, which avoids the situation that the two sides chain structures are not of the same length, so that the double drive ensures that the two sides chain structures are of the same length, and further makes the scraper on the slag conveyor body not to be inclined, the tensioning device is also synchronously tensioned and will not appear the phenomenon of one high and one low, and further makes the slag conveyor body to realize efficient and safe operation.
[0015] (2), the high efficient drag reducer drive mechanism through the installation of second cycloidal reducer etc., so that the device is used, by respectively adding first cycloidal reducer and second cycloidal reducer on the first drive motor and the second drive motor, the reducer component is changed from the original gear box structure to the cycloidal structure, the first cycloidal reducer and the second cycloidal reducer are curve disc, face contact when rotating, one third of the arc is stressed, while the traditional gear box reducer is tooth contact, which makes the device can withstand greater impact force, in addition, the first cycloidal reducer and the second cycloidal reducer will not gear when impacted, there is no devastating failure, while the gear on the traditional reducer will gear when impacted, once the gear is stopped, secondly, the traditional drag reducer reducer is a large speed ratio reducer, the gear box needs four or five stage reduction, large volume, while the cycloidal reducer structure can be applied to the working condition, the self volume is small, convenient daily maintenance and repair, when the device structure fault, another can continue to run through the reduction of slag load, reduce the gasification furnace production or parking times caused by drag reducer failure, optimize the use effect;
[0016] (3), the high efficient drag reducer drive mechanism through the installation of first buffer seat plate etc., so that the device optimizes the structure, by respectively adding first buffer seat plate and second buffer seat plate under the two groups of drive structure, using the aluminum alloy base layer set at the bottom of the first buffer seat plate and the second buffer seat plate, realizing the welding fixing with the main frame of the drag reducer, and the elastic buffer effect of the silicon rubber damping layer on the first buffer seat plate and the second buffer seat plate and the effect of converting kinetic energy into friction internal energy when the energy expansion component expands, the two groups of drive structure can be better buffered and protected. BRIEF DESCRIPTION OF DRAWINGS
[0017] Figure 1 It is a top view structure schematic view of the utility model;
[0018] Figure 2 It is a front view sectional structure schematic view of the utility model;
[0019] Figure 3 It is a top view structure schematic view of the second drive motor of the utility model;
[0020] Figure 4 It is a rear view partial sectional structure schematic view of the second cycloidal reducer of the utility model;
[0021] Figure 5 It is a side wall sectional structure schematic view of the second buffer seat plate of the utility model.
[0022] In the figure: 1, the main body of the slag conveyor; 2, the second buffer seat plate; 3, the first buffer seat plate; 4, the first drive motor; 5, the first cycloid reducer; 6, the first dragging assembly; 7, the first protective chain cover; 8, the second drive motor; 9, the second cycloid reducer; 10, the second protective chain cover; 11, the second dragging assembly; 12, the output shaft; 13, the cycloid curve disc; 14, the input shaft; 15, the aluminum alloy base layer; 16, the silicone rubber damping layer; 17, the energy-consuming expansion piece; 18, the dragging sprocket; 19, the dragging chain. DETAILED DESCRIPTION
[0023] The technical solutions in the embodiments of the utility model will be clearly and completely described below with reference to the drawings in the embodiments of the utility model. Based on the embodiments in the utility model, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the utility model.
[0024] Please refer to Figures 1-5 The utility model provides an embodiment: a kind of efficient slag conveyor drive mechanism, including the main body of the slag conveyor 1, the both sides of the main body of the slag conveyor 1 are respectively welded with first buffer seat plate 3 and second buffer seat plate 2, and the top of first buffer seat plate 3 and second buffer seat plate 2 is respectively equipped with first cycloid reducer 5 and second cycloid reducer 9;
[0025] The input end of first cycloid reducer 5 and second cycloid reducer 9 is respectively equipped with first drive motor 4 and second drive motor 8;
[0026] The main body of the slag conveyor 1 is connected with first dragging assembly 6 and second dragging assembly 11 between first drive motor 4 and second drive motor 8;
[0027] The both sides of first cycloid reducer 5 and second cycloid reducer 9 are respectively connected with input shaft 14 and output shaft 12, and the inside of first cycloid reducer 5, second cycloid reducer 9 between input shaft 14 and output shaft 12 is all equipped with cycloid curve disc 13;
[0028] First dragging assembly 6 and second dragging assembly 11 are all provided with dragging sprocket 18 and dragging chain 19;
[0029] The bottom of first cycloid reducer 5 and first buffer seat plate 3 are constituted dismounting and mounting structure by screw;
[0030] The bottom of second cycloid reducer 9 and second buffer seat plate 2 are constituted dismounting and mounting structure by screw;
[0031] When in use, the double driving formed by the first driving motor 4 and the second driving motor 8 is used instead of the slag conveyor body 1, the drag components on the slag conveyor body 1 are more evenly stressed, specifically, the first driving motor 4 and the second driving motor 8 are started, the transmission of the first drag assembly 6 and the second drag assembly 11 is cooperated, the slag conveyor body 1 is driven to run, the two drag sprockets 18 on the first drag assembly 6 and the second drag assembly 11 have no master-slave relationship, which is beneficial to avoid the inconsistent wear of the teeth of the drag sprocket 18, and further helps the drag mechanism formed by the first drag assembly 6 and the second drag assembly 11 to be evenly stressed, the two side drag chains 19 formed by the first drag assembly 6 and the second drag assembly 11 are evenly stressed and uniformly worn, which avoids the situation that the lengths of the two side chains are different, thereby the double driving ensures that the lengths of the two side chains are consistent, and further makes the scraper on the slag conveyor body 1 have no inclination, the tensioning device is also synchronously tensioned and has no high-low phenomenon, and further makes the slag conveyor body 1 realize efficient and safe running;
[0032] The top of the first buffer seat plate 3 and the second buffer seat plate 2 is provided with a silicon rubber damping layer 16;
[0033] The bottom of the first buffer seat plate 3 and the second buffer seat plate 2 is provided with an aluminum alloy base layer 15;
[0034] The top of the aluminum alloy base layer 15 is uniformly connected with an energy-consuming expansion piece 17;
[0035] When in use, the first buffer seat plate 3 and the second buffer seat plate 2 are respectively installed below the two groups of driving structures, the aluminum alloy base layer 15 at the bottom of the first buffer seat plate 3 and the second buffer seat plate 2 is used to realize the welding and fixing with the rack of the slag conveyor body 1, and the elastic buffering effect of the silicon rubber damping layer 16 on the first buffer seat plate 3 and the second buffer seat plate 2 and the effect that the energy-consuming expansion piece 17 converts kinetic energy into friction internal energy and consumes the energy when stretching and contracting are used to better protect the two groups of driving structures;
[0036] The first protective chain cover 7 matched with the first drag assembly 6 is installed on the slag conveyor body 1 through screws, so that the first protective chain cover 7 is used to protect the first drag assembly 6 from collision and pollution, and the installation structure formed by the screws is used to realize the independent disassembly and cleaning of the first protective chain cover 7.
[0037] The second protective chain cover 10 matched with the second drag assembly 11 is installed on the slag conveyor body 1 through screws, so that the second protective chain cover 10 is used to protect the second drag assembly 11 from collision and pollution, and the installation structure formed by the screws is used to realize the independent disassembly and cleaning of the second protective chain cover 10.
[0038] The embodiment of the application is used as follows: first, an external power supply and a control device are connected, and after the double drive formed by the first driving motor 4 and the second driving motor 8, the drag components on the slag conveyor main body 1 are more evenly stressed. Specifically, the first driving motor 4 and the second driving motor 8 are started, and cooperate with the transmission of the first drag assembly 6 and the second drag assembly 11 to drive the slag conveyor main body 1 to run. The two drag sprockets 18 on the first drag assembly 6 and the second drag assembly 11 have no master-slave relationship, which is conducive to avoiding inconsistent wear of the teeth of the drag sprocket 18, and further helps the drag mechanism formed by the first drag assembly 6 and the second drag assembly 11 to be evenly stressed. The two side drag chains 19 formed by the first drag assembly 6 and the second drag assembly 11 are evenly stressed and uniformly worn, which avoids the situation that the two side chain structures are of different lengths, thereby ensuring that the two side chain structures are of the same length through double drive, and further making the scraper on the slag conveyor main body 1 have no inclination phenomenon, and the tensioning device is also synchronously tensioned and cannot have the phenomenon of one being high and the other being low, thereby making the slag conveyor main body 1 realize efficient and safe operation. At the same time, the first cycloidal reducer 5 and the second cycloidal reducer 9 are respectively installed on the first driving motor 4 and the second driving motor 8, the reducer components are changed from the original gear box structure to the cycloidal structure, the inside of the first cycloidal reducer 5 and the second cycloidal reducer 9 is a curve disc, and the face contact is rotated, and one-third of the arc is stressed. The traditional gear box reducer is tooth contact, which makes the device can withstand greater impact force. In addition, the first cycloidal reducer 5 and the second cycloidal reducer 9 will not gear when impacted, and there is no devastating failure. When the gears on the traditional reducer are instantaneously impacted, they will gear, and once geared, they will stop. Secondly, the traditional slag conveyor reducer is a large speed ratio reducer, and the gear box needs four or five stages of reduction, and the volume is large. This type of cycloidal reducer structure can be applied to working conditions with two-stage reduction, and the self-volume is small, which is convenient for daily maintenance and repair. When a reducer structure on the device fails during actual operation, the other one can continue to run by reducing the slag load, reducing the number of times of gasification furnace production or shutdown caused by slag conveyor failure, and optimizing the use effect.
Claims
1. A high efficiency drag conveyer drive mechanism characterized by, The slag remover includes a main body (1), on which a first buffer plate (3) and a second buffer plate (2) are welded respectively to both sides. A first cycloidal reducer (5) and a second cycloidal reducer (9) are respectively installed on the top of the first buffer plate (3) and the second buffer plate (2). A first drive motor (4) and a second drive motor (8) are respectively installed at the input ends of the first cycloidal reducer (5) and the second cycloidal reducer (9). The slag remover main body (1) is connected to the first drive motor (4) and the second drive motor (8) respectively. The machine (8) is connected by a first drive assembly (6) and a second drive assembly (11). The first cycloidal reducer (5) and the second cycloidal reducer (9) are respectively connected to an input shaft (14) and an output shaft (12). The first cycloidal reducer (5) and the second cycloidal reducer (9) between the input shaft (14) and the output shaft (12) are both equipped with cycloidal curve discs (13). The first drive assembly (6) and the second drive assembly (11) are both equipped with drive sprockets (18) and drive chains (19).
2. A high efficiency dredge drive mechanism as claimed in claim 1 wherein: The bottom of the first cycloidal reducer (5) and the first buffer seat plate (3) are connected by screws to form a disassembly and installation structure.
3. The high-efficiency slag removal machine drive mechanism according to claim 1, characterized in that: The bottom of the second cycloidal reducer (9) and the second buffer seat plate (2) are connected by screws to form a disassembly and installation structure.
4. The high-efficiency slag removal machine drive mechanism according to claim 1, characterized in that: The top of both the first buffer plate (3) and the second buffer plate (2) is provided with a silicone rubber damping layer (16).
5. The high-efficiency slag removal machine drive mechanism according to claim 1, characterized in that: The bottom of both the first buffer seat plate (3) and the second buffer seat plate (2) is provided with an aluminum alloy base layer (15).
6. The high-efficiency slag removal machine drive mechanism according to claim 5, characterized in that: The top of the aluminum alloy base layer (15) is uniformly connected with energy-dissipating expansion joints (17).
7. The high-efficiency slag removal machine drive mechanism according to claim 1, characterized in that: The main body (1) of the slag remover is fitted with a first protective chain cover (7) that matches the first drive assembly (6) by screws.
8. The high-efficiency slag removal machine drive mechanism according to claim 1, characterized in that: The main body (1) of the slag remover is fitted with a second protective chain guard (10) that matches the second drive assembly (11) by screws.