A device for transporting dried lepidolite residue

Abstract

The application discloses a kind of scale bucket dry residue conveying devices, bearing component is equipped on synchronous component, baffle component is equipped on the both sides of bearing component, first support component is equipped on bearing component, its both sides are limit groove sliding connection with baffle component, first support component bottom and bearing component are hinged connection;Driving component's driving part is connected with the input component of synchronous component;Buffering component is equipped on bearing component, reverse stop device is connected with the driving part of driving component, frequency conversion device is connected with synchronous component;Through buffering component supports first support component, then offset the impact force suffered by first support component;By adopting reverse stop device, prevent the rotation of conveying belt, then ensure safety, by adopting frequency conversion device, make reverse stop device and frequency conversion device can be used in cooperation, so that the application has the characteristics of effectively reducing material impact force, preventing the rotation of conveying belt and facilitating the adjustment of rotating speed.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of conveying equipment, more particularly to a scale hopper dry residue conveying device. BACKGROUND

[0002] The scale hopper conveying belt, also known as a scale hopper conveying belt, is used for carrying and conveying materials in a belt conveyor. The conveying belt is widely used in cement, coking, metallurgy, chemical industry, steel industry and other industries for conveying short-distance and small-quantity materials or articles. The conveying belt is widely used in agriculture, mining enterprises and transportation industry for conveying solid block-shaped and powder-shaped materials or articles. The conveying belt can realize continuous, high-efficiency and large-angle conveying. The conveying belt is safe to operate, easy to use and maintain, low in transportation cost, and can shorten the transportation distance and save labor and resources.

[0003] The scale hopper conveying belt in the prior art often has a damage of tearing the transverse plate. According to statistical research, the tearing of the transverse plate is often caused by the cracks and openings on the transverse plate, and the cracks and openings are often caused by the impact of the materials.

[0004] The existing scale hopper conveying belt lacks a buffer device. When the block-shaped material with sharp edges or sharp edges falls on the upper surface of the conveying belt, the transverse plate is easily impacted, and the continuous cumulative impact can cause cracks in the transverse plate, thereby causing the conveying belt to be easily torn.

[0005] In the working state of the existing scale hopper conveying belt, the weight of the material cannot be accurately controlled, which can cause the overall carrying capacity to exceed the rated carrying capacity of the conveying belt, causing damage to the conveying belt, rotation of the conveying belt, and damage to the driving motor. SUMMARY

[0006] Therefore, the present application provides a scale hopper dry residue conveying device which can reduce the impact force of the material on the transverse plate and avoid rotation.

[0007] To achieve the above-mentioned purpose, the present application provides a scale hopper dry residue conveying device, which comprises:

[0008] The fixed frame is a frame structure;

[0009] The synchronization component is arranged on the fixed frame;

[0010] The bearing component is arranged on the synchronization component and is fixedly connected with the synchronization component;

[0011] The baffle component is arranged on both sides of the bearing component and is fixedly connected with the bearing component;

[0012] The first supporting component is arranged on the bearing component and is slidably connected with the limiting groove of the baffle component at both sides, and the bottom of the first supporting component is hingedly connected with the bearing component;

[0013] The driving component is connected with the input component of the synchronous component;

[0014] The driving component drives the synchronous component to rotate, and the bearing component rotates synchronously, and the first supporting component and the baffle component form a containing groove, and the first supporting component is convenient to change the angle through the hinge connection at the bottom, and is suitable for use in multiple slopes.

[0015] The baffle component is composed of a plurality of plate components;

[0016] The plate component is a reverse trapezoidal plate structure;

[0017] The first groove part is arranged on one side of the plate component;

[0018] The second groove part is arranged on the other side of the plate component;

[0019] The fixed part is arranged at the bottom of the plate component and is connected with the bearing component;

[0020] The first sliding groove component is arranged on the plate component.

[0021] Preferably, in the above-mentioned dry quenching slag conveying device, a buffer component is further arranged on the bearing component and is slidably connected with the first supporting component;

[0022] The buffer component comprises:

[0023] The supporting plate component is slidably connected with the bearing component at the bottom;

[0024] The second supporting component is internally provided with a mounting cavity and is fixedly connected with the bearing component;

[0025] The first elastic component is arranged between the supporting plate component and the second supporting component and is symmetrically arranged;

[0026] The limiting rod component is arranged on the supporting plate component and is fixedly connected with the supporting plate component;

[0027] The first connecting component is provided with the first sliding groove component, and the first sliding groove component is slidably connected with the limiting rod component;

[0028] The second elastic component is arranged between the limiting rod component and the sliding groove;

[0029] A second connecting component, which is hingedly connected with the first connecting component;

[0030] A turning component, which is arranged in the mounting cavity of the second supporting component and is hingedly connected with the mounting cavity, and is also hingedly connected with the second connecting component;

[0031] The turning component is of a symmetrical structure, and cam components are arranged on both sides of the turning component;

[0032] A main rod component, which is arranged between the cam components and is hingedly connected with the small-diameter ends of the cam components, and is hingedly connected with the second connecting component;

[0033] The large-diameter ends of the cam components are hingedly connected with the mounting cavity.

[0034] Preferably, in the above-mentioned dry quenching slag conveying device, sleeve components are arranged on the second supporting component in a symmetrical manner;

[0035] The supporting plate component is provided with an embedding component;

[0036] The two ends of the first elastic member are arranged in the sleeve component and the embedding component, respectively.

[0037] To achieve the above-mentioned purpose, some embodiments of the present application further comprise a non-reversing device;

[0038] The input component of the non-reversing device is connected with the driving component, and the output component is connected with the input component of the synchronizing component;

[0039] The non-reversing device comprises:

[0040] A box body, which is arranged on the fixed frame and is provided with a mounting cavity inside;

[0041] A first main shaft component, which is arranged in the mounting cavity and is connected with the driving component;

[0042] A second main shaft component, which is arranged in the mounting cavity and is in parallel with the first main shaft component;

[0043] A third main shaft component, which is arranged in the mounting cavity and is in parallel with the second main shaft;

[0044] A first rotating component, which is arranged on the first main shaft component;

[0045] A second rotating component, which is arranged on the second main shaft component and is meshingly connected with the first rotating component;

[0046] A third rotating component is arranged on the third main shaft component, and the third main shaft component is engaged with the second rotating component;

[0047] The third rotating component is further provided with a driven component, which is engaged with the input component of the synchronous component;

[0048] A rotating shaft component is arranged in the mounting cavity;

[0049] A reverse stopping component is arranged on the rotating shaft component and is in sliding connection with the first rotating component;

[0050] A third elastic component is arranged inside the rotating shaft component;

[0051] The first rotating component is a gear structure, which is provided with teeth arranged in a fan shape;

[0052] The second rotating component and the third rotating component are gear structures.

[0053] The first rotating component, the second rotating component and the third rotating component are in the same plane.

[0054] To achieve the above-mentioned purpose, some embodiments of the present application further comprise a frequency conversion device;

[0055] The frequency conversion device is arranged inside the reverse stopping device;

[0056] The frequency conversion device comprises:

[0057] A pushing component is arranged in the mounting cavity of the box body, and the telescopic component is fixedly connected with the second main shaft component through the connecting component;

[0058] A first rotating component is arranged on the first main shaft component;

[0059] A secondary rotating component is arranged on the first main shaft component;

[0060] A third rotating component is arranged on the third main shaft component, and the third rotating component is a double gear structure, and there is a gap between the gears;

[0061] The first rotating component is a gear structure, which is provided with a single set of teeth arranged in a fan shape;

[0062] The secondary rotating component is a gear structure, which is provided with a plurality of sets of teeth arranged in a fan shape;

[0063] The pushing component pushes the second main shaft component to move, so that the second rotating component on the second main shaft component is in the same plane with the first rotating component, the secondary rotating component and the two gears of the third rotating component, respectively.

[0064] The single set of teeth on the secondary rotating component corresponds to the position of the single set of teeth of the first rotating component.

[0065] Compared with the prior art, the application has the advantages that the first supporting component is supported by the buffering component to offset the impact force, the reversing of the conveying belt is prevented by the reversing preventing device to ensure safety, the reversing preventing device and the frequency conversion device are used in cooperation to effectively reduce the impact force of the material, prevent the reversing of the conveying belt and facilitate the adjustment of the rotating speed. BRIEF DESCRIPTION OF DRAWINGS

[0066] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the drawings needed to be used in the embodiments or the prior art description will be briefly introduced. Obviously, the drawings in the following description are only embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative effort on the basis of the provided drawings.

[0067] Figure 1 The drawing is a side view structural schematic diagram of the conveying device of the present application.

[0068] Figure 2 The drawing is a top view structural schematic diagram of the conveying device of the present application.

[0069] Figure 3 The drawing is a partial structural schematic diagram of the bearing component of the present application.

[0070] Figure 4 The drawing is an installation schematic diagram of the plate-shaped component of the present application.

[0071] Figure 5 The drawing is a structural schematic diagram of the plate-shaped component of the present application.

[0072] Figure 6 The drawing is an internal structural schematic diagram of the buffering component of the present application.

[0073] Figure 7 The drawing is a structural schematic diagram of the direction changing component of the present application.

[0074] Figure 8 The drawing is an engagement schematic diagram of the first rotating component and the second rotating component of the present application.

[0075] Figure 9 The drawing is an engagement schematic diagram of the secondary rotating component and the second rotating component of the present application.

[0076] Figure 10The drawing is a schematic diagram of a first main shaft component structure of the application.

[0077] Figure 11 The drawing is a schematic diagram of a second main shaft component structure of the application.

[0078] Figure 12 The drawing is a schematic diagram of a third main shaft component structure of the application. DETAILED DESCRIPTION

[0079] The specific embodiments of the application will be further described in conjunction with the drawings and examples. The following examples are used to illustrate the application, but are not used to limit the scope of the application.

[0080] In the description of the present application, it should be understood that the terms "center", "upper", "lower", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer" and the like indicate the orientation or positional relationship shown in the drawings based on the orientation or positional relationship shown in the drawings, and are only used to facilitate the description of the present application and simplify the description, and therefore cannot be understood as indicating or implying that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the present application.

[0081] The terms "first", "second" are only used for descriptive purposes, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the technical features indicated. Therefore, the features defined with "first", "second" can explicitly or implicitly include one or more of the features. In the description of the present application, unless otherwise specified, the meaning of "a plurality of" is two or more.

[0082] In the description of the present application, it should be noted that, unless otherwise specified and limited, the terms "mounting", "connecting", "connection" should be understood broadly, for example, it can be fixed connection, or detachable connection, or integral connection; it can be mechanical connection, or electrical connection; it can be direct connection, or indirect connection through intermediate medium, or internal communication of two elements. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

[0083] In order to better understand the purpose, structure and function of the present application, the present application will be further described in detail in conjunction with the drawings.

[0084] Please refer to the drawings Figures 1-7 A scale hopper dry residue conveying device is disclosed, characterized in that it comprises:

[0085] The fixed frame 1 is a frame structure.

[0086] Synchronization component 2, which is provided on the fixed frame 1;

[0087] Bearing component 3, which is provided on the synchronization component 2, is fixedly connected with the synchronization component 2;

[0088] Baffle component 5, which is provided on both sides of the bearing component 3, is fixedly connected with the bearing component 3;

[0089] First support component 6, which is provided on the bearing component 3, is slidingly connected with the limiting groove of the baffle component 5 on both sides, and the bottom of the first support component 6 is hingedly connected with the bearing component 3;

[0090] Driving component 4, wherein the driving component 4 is connected with the input component of the synchronization component 2;

[0091] The driving component 4 drives the synchronization component 2 to rotate, and the bearing component 3 rotates synchronously, and the first support component 6 and the baffle component 5 form a containing groove, and the first support component 6 is convenient to change the angle through the hinge connection at the bottom, and is suitable for use in multiple slopes.

[0092] The fixed frame 1 and the first support component 6 are preferably made of metal;

[0093] The driving component 4 is preferably a stepping motor, which is convenient to control and provide large torque;

[0094] In order to further optimize the above technical solution, the baffle component 5 is composed of a plurality of plate-shaped components 51;

[0095] Plate-shaped component 51, which is a reverse trapezoidal plate structure;

[0096] First recessed groove part 52, which is provided on one side of the plate-shaped component 51;

[0097] Second recessed groove part 53, which is provided on the other side of the plate-shaped component 51;

[0098] Fixed part 55, which is provided at the bottom of the plate-shaped component 51, is connected with the bearing component 3;

[0099] First sliding groove component 54, which is provided on the plate-shaped component 51.

[0100] The plate-shaped component 51 is preferably a metal plate, and is fixed to the bearing component 3. The first recessed groove part 52 of two adjacent plate-shaped components 51 is fitted into the second recessed groove part 53 of another plate-shaped component 51, facilitating the combination and separation of the bearing component 3 during movement. Meanwhile, the fixing part 55 is fixed to both sides of the bearing component 3 by bolts, forming a clamping channel structure. The first sliding groove part 54 on the plate-shaped component 51 limits the first supporting component 6, so that the first supporting component 6 can only be angularly transformed in the first sliding groove part 54, avoiding the forward inclination of the first supporting component 6.

[0101] Specifically, in use, the first supporting component 6 and the buffer component 7 can be installed on the bearing component 3, thereby meeting the use in various situations. If the bearing component 3 is damaged, only the first supporting component 6 needs to be replaced to complete the repair, which is not only convenient but also lower in cost.

[0102] In some embodiments of the present application, a buffer component 7 is further provided, which is arranged on the bearing component 3 and is in sliding connection with the first supporting component 6.

[0103] The buffer component 7 comprises:

[0104] A supporting plate component 71, which is in sliding connection with the bearing component 3 at the bottom;

[0105] A second supporting component 72, which has an installation cavity inside and is in fixed connection with the bearing component 3;

[0106] A first elastic component, which is arranged between the supporting plate component 71 and the second supporting component 72 and is symmetrically arranged;

[0107] A limiting rod component 73, which is arranged on the supporting plate component 71 and is in fixed connection with the supporting plate component 71;

[0108] A first connecting component 74, which has the first sliding groove part 54 arranged thereon, and the first sliding groove part 54 is in sliding connection with the limiting rod component 73;

[0109] A second elastic component, which is arranged between the limiting rod component 73 and the sliding groove;

[0110] A second connecting component 75, which is hingedly connected with the first connecting component 74;

[0111] A direction-changing component 76, which is arranged in the installation cavity of the second supporting component 72 and is hingedly connected with the installation cavity, and is also hingedly connected with the second connecting component 75;

[0112] The turning component 76 is a symmetrical structure, and cam components 761 are arranged on both sides of the turning component 76;

[0113] A main rod component 762 is arranged between the cam components 761, and the main rod component 762 is hingedly connected to small-diameter ends of the cam components 761. The main rod component 762 is hingedly connected to the second connecting component 75.

[0114] Large-diameter ends of the cam components 761 are hingedly connected to the mounting cavity.

[0115] The second connecting component 75 specifically has a sleeve 752 at one end and a rotating shaft 751 at the other end. The sleeve 752 is sleeved on the main rod component 762, so as to facilitate rotation of the second connecting component 75 and the cam components 761.

[0116] The first connecting component 74 has a first sliding groove component 54 at one end and a clamping groove 742 at the other end. The rotating shaft 752 of the second connecting component 75 is arranged in the clamping groove 742 and is hingedly connected to the clamping groove 742. A limiting rod component 73 is arranged in the first sliding groove component 54, so as to facilitate sliding and limiting of the limiting rod component 73.

[0117] The supporting plate component 71 and the second supporting component 72 are preferably made of metal. The supporting plate component 71 is specifically a straight plate that is in contact with the first supporting component 6. When the straight plate receives an impact force from the first supporting component 6, a first elastic component on the straight plate is compressed, the limiting rod component 73 moves downward, and then drives the first connecting component 74 and the second connecting component 75 to move. The second connecting component 75 is driven to rotate by the impact force of the first supporting component 6, and then generates an opposite force. The opposite force is transmitted to the limiting rod component 73 through the first connecting component 74 and the second connecting component 75, so that the limiting rod component 73 can return to the supporting plate component 71 based on the elastic force of a second elastic component and the opposite force, and then offset the impact force of the first supporting component 6.

[0118] When the first elastic component is compressed, the limiting rod component 73 is reset under the action of the first elastic component and the second elastic component as the first step of buffering.

[0119] The turning component 76 adopts a symmetrical cam structure, which is convenient for reversing and offsetting the impact force.

[0120] The overall structure adopts a split design, which is convenient for maintenance and replacement and reduces costs.

[0121] In order to further optimize the above technical solutions, the second supporting component 72 is provided with symmetrically arranged sleeve components.

[0122] The supporting plate component 71 is provided with an embedded component.

[0123] Both ends of the first elastic component are arranged in the sleeve components and the embedded component, respectively.

[0124] By providing the sleeve component and the fitting component, movement and abnormal deformation of the first elastic member during compression are avoided, thereby providing a premise for improving the buffering effect.

[0125] To further optimize the above technical solutions, please refer to the attached Figure 8 In some embodiments of the present application, a non-return device 84 is further included.

[0126] The input component of the non-return device 84 is connected with the driving component 4, and the output component is connected with the input component of the synchronization component 2.

[0127] The non-return device 84 includes:

[0128] The box 8 is provided on the fixed frame 1, and the box 8 is internally provided with a mounting cavity.

[0129] The first main shaft component 81 is provided in the mounting cavity, and the first main shaft component 81 is connected with the driving component 4.

[0130] The second main shaft component 82 is provided in the mounting cavity, and the second main shaft component 82 is in parallel with the first main shaft component 81.

[0131] The third main shaft component 83 is provided in the mounting cavity, and the third main shaft component 83 is in parallel with the second main shaft.

[0132] The first rotating component 811 is provided on the first main shaft component 81.

[0133] The second rotating component 821 is provided on the second main shaft component 82, and the second rotating component 821 is engaged with the first rotating component 811.

[0134] The third rotating component 831 is provided on the third main shaft component 83, and the third rotating component 831 is engaged with the second rotating component 821.

[0135] The third rotating component 831 is further provided with a driven component, and the driven component is engaged with the input component of the synchronization component 2.

[0136] The rotating shaft component 841 is provided in the mounting cavity.

[0137] The non-return component 84 is provided on the rotating shaft component 841, and the non-return component 84 is in sliding connection with the first rotating component 811. The non-return component 84 is specifically an arc-shaped plate.

[0138] The third elastic component is provided inside the rotating shaft component 841.

[0139] The first rotating component 811 is a gear structure, and the gear teeth are arranged in a fan shape.

[0140] The second rotating component 821 and the third rotating component 831 are gear structures.

[0141] The first rotating component 811, the second rotating component 821 and the third rotating component are in the same plane.

[0142] Specifically, in the normal state, the arc-shaped plate is tangent to the tooth circle of the first rotating component 811, and when the first rotating component 811 rotates, the gear teeth push the arc-shaped plate to retract, and when the gear teeth pass, the arc-shaped plate is reset under the action of the third elastic component; if the first rotating component 811 is reversed in the reverse state, the arc-shaped plate will directly stop the gear teeth to stop the rotation of the first rotating component 811, and then stop the reverse state.

[0143] The driving component 4 drives the first main shaft component 81 to rotate, and the first rotating component 811 on it rotates synchronously, and the second rotating component 821 rotates synchronously under the rotation of the first rotating component 811, at this time the second rotating shaft component 841 is fixed, and the third rotating component 831 is engaged with the second rotating component 821, at this time the third rotating component 831 drives the third main shaft component 83 to rotate, and the driven component on the third main shaft component 83 is simultaneously driven, and then power is provided to the synchronous component 2; Because the first rotating component 811 adopts the structure design of gear teeth arranged in a fan shape, the driving component 4 can provide power to the second rotating component 821 according to a certain frequency, when the reverse rotation occurs, the third rotating component 831 drives the second rotating component 821 to reverse, at this time, due to the special gear tooth design of the first rotating component 811, the second rotating component 821 cannot directly drive the first rotating component 811 to rotate, at this time the first rotating component 811 continues to rotate to reengage the second rotating component 821, and then re-provide power to stop the reverse state;

[0144] When the reverse force is greater than the power of the driving component 4, at this time the primary rotating component is forced to be driven by the secondary rotating component to reverse, at this time the reverse stopping component 84 is expanded under the reverse state of the gear teeth, and the gear teeth are clamped to avoid further rotation.

[0145] In some embodiments of the present application, please refer to the accompanying drawings Figures 9-12 In some embodiments of the present application, it further comprises a frequency conversion device.

[0146] The frequency conversion device is arranged in the reverse stopping device 84.

[0147] The frequency conversion device comprises:

[0148] The pushing component is arranged in the mounting cavity of the box body, and the telescopic component is fixedly connected with the second main shaft component 82 through the connecting component;

[0149] The first rotating component 811 is arranged on the first main shaft component 81;

[0150] The secondary rotating component 812 is arranged on the first main shaft component 81;

[0151] The third rotating component 831 is arranged on the third main shaft component 83, and the third rotating component 831 is a double gear structure with a spacing between the gears, and is a primary gear 8311 and a secondary gear 8312, respectively;

[0152] The first rotating component 811 is a gear structure, and a plurality of teeth arranged in a fan shape are arranged on the gear structure;

[0153] The secondary rotating component 812 is a gear structure, and a plurality of teeth arranged in a fan shape are arranged on the gear structure;

[0154] The pushing component pushes the second main shaft component 82 to move, so that the second rotating component 821 on the second main shaft component 82 is in the same plane with the first rotating component 811, the secondary rotating component 812 and the two gears of the third rotating component 831, respectively; and the single set of teeth on the secondary rotating component 812 corresponds to the position of the single set of teeth on the first rotating component 811.

[0155] The pushing component is a pushing cylinder, and the telescopic part is connected with the second main shaft component 82;

[0156] Specifically, when the rotating speed is adjusted, the second main shaft component 82 is displaced through the pushing component, and then the second rotating component 821 on the second main shaft component 82 changes from engaging with the first rotating component 811 of the first main shaft component 81 to engaging with the secondary rotating component 812 on the first main shaft component 81; at this time, the engagement relationship between the second rotating component 821 and the third rotating component 831 changes at the same time, from engaging with the primary gear 8311 to engaging with the secondary gear 8312, and then the effect of speed change is achieved;

[0157] In order to solve the problem that the same reverse stopping function is achieved before and after the speed change, the reverse stopping component 84 is always in contact with the first rotating component 811, and when the reverse state occurs, the rotation of the first rotating component 811 is stopped, and then the rotation of the first main shaft component 81 is stopped.

[0158] In this way, the effect of adjusting the rotating speed is achieved, and the reverse stopping function is also achieved.

[0159] The different groups of the plurality of teeth arranged in a fan shape on the first rotating component 811 and the secondary rotating component 812 can meet the use in various situations, thereby greatly improving the overall operation efficiency. For example, when the volume of the scale bucket formed between the first supporting component 6 and the baffle component 5 is large at a consistent discharging speed, the first rotating component 811 and the second rotating component 821 are engaged, so as to ensure that the amount of the material contained in the scale bucket is maintained constant within a certain time; when the first supporting component 6 is assumed on the bearing component 3, thereby reducing the volume of the scale bucket, the secondary rotating component 812 and the second rotating component 821 are engaged to achieve that the amount of the material contained is constant within a certain time.

[0160] The various embodiments are described in the present specification by progressive stages, and each embodiment focuses on the difference from other embodiments. The same or similar parts between the various embodiments can be referred to each other. For the device disclosed by the embodiments, since it corresponds to the method disclosed by the embodiments, the description is relatively simple, and the relevant part can be referred to the method part.

[0161] The above description of disclosed embodiments enables those skilled in the art to carry out or use the present application. Various modifications to the embodiments will be apparent to those skilled in the art, and the general principles defined herein can be implemented in other embodiments without departing from the spirit or scope of the present application. Therefore, the present application will not be limited to the embodiments shown herein, but will conform to the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A kraft pulp dry sludge conveying device, characterized in that, The utility model provides a kind of slope support device, including: Fixed frame, the fixed frame is frame structure; Synchronization component, the synchronization component is equipped on fixed frame; Bearing component, the bearing component is equipped on synchronization component, and it is fixed connection with synchronization component; Baffle component, the baffle component is equipped on both sides of bearing component, and it is fixed connection with bearing component; First support component, the first support component is equipped on bearing component, and both sides are slidably connected with the first sliding groove component of baffle component, and the bottom of first support component is hinged with bearing component; Driving component, the driving component is connected with the input component of synchronization component; Driving component drives synchronization component to rotate, bearing component rotates synchronously, and the first support component on it and baffle component form containing groove, and first support component is facilitated to change angle by the hinged connection of bottom, suitable for multi-slope use; It is also equipped with buffer component, the buffer component is equipped on bearing component, and it is slidably connected with first support component; Buffer component includes: Support plate component, the bottom of support plate component is slidably connected with bearing component; Second support component, the second support component is equipped with mounting cavity inside, and it is fixed connection with bearing component; First elastic component, the first elastic component is equipped between the support plate component and the second support component, and it is symmetrically arranged; Limiting rod component, the limiting rod component is equipped on support plate component, and it is fixed connection with support plate component; First connecting component, the first connecting component is equipped with first sliding groove component, and the first sliding groove component is slidably connected with limiting rod component; Second elastic component, the second elastic component is equipped between limiting rod component and sliding groove; Second connecting component, the second connecting component is hinged with first connecting component; Direction-changing component, the direction-changing component is equipped in the mounting cavity of the second support component, and it is hinged with mounting cavity, and the direction-changing component is also hinged on second connecting component; The direction-changing component is symmetric structure, and both sides are equipped with cam component; Main rod component, the main rod component is equipped between cam component, and it is hinged with the small diameter end of cam component, and the main rod component is hinged with second connecting component; The large diameter end of the cam component is hinged with mounting cavity; It also includes: non-reversing device; The input component of non-reversing device is connected with the driving component, and the output component is connected with the input component of synchronization component; Non-reversing device includes: box, the box is equipped on fixed frame, and the box is equipped with mounting cavity inside; First spindle component, the first spindle component is equipped in mounting cavity, and the first spindle component is connected with the driving component; Second spindle component, the second spindle component is equipped in mounting cavity, and it is parallel with first spindle component; Third spindle component, the third spindle component is equipped in mounting cavity, and it is parallel with second spindle; First rotating component, the first rotating component is equipped on first spindle component; Second rotating component, the second rotating component is equipped on second spindle component, and second rotating component is meshingly connected with first rotating component; Third rotating component, the third rotating component is equipped on third spindle component, and third spindle component is meshed with second rotating component; The third rotating part is also provided with a driven part, which is in meshing connection with the input part of the synchronous part; The rotating shaft part is arranged in the mounting cavity; The reverse stopping part is arranged on the rotating shaft part and is in sliding connection with the first rotating part; The third elastic part is arranged inside the rotating shaft part; The first rotating part is a gear structure, which is provided with teeth arranged in a fan shape; The second rotating part and the third rotating part are gear structures; The baffle part is composed of a plurality of plate parts; The plate part is a reverse trapezoidal plate structure; The first groove part is arranged on one side of the plate part; The second groove part is arranged on the other side of the plate part; The fixing part is arranged at the bottom of the plate part and is connected with the bearing part; The first sliding groove part is arranged on the plate part.

2. A quill dry slag delivery device according to claim 1, wherein, The second supporting part is provided with sleeve parts arranged in a symmetrical manner; The supporting plate part is provided with an embedded part; The two ends of the first elastic member are arranged in the sleeve part and the embedded part respectively.

3. A quill dry slag delivery device according to claim 1, wherein, The first rotating part, the second rotating part and the third rotating part are in the same plane.

4. A quill dry slag delivery device according to claim 1, wherein, Further comprising: A frequency conversion device; The frequency conversion device is arranged inside the reverse stopping device; The frequency conversion device comprises a pushing part arranged in the mounting cavity of the box body, and the telescopic part of the pushing part is fixedly connected with the second main shaft part through a connecting part; The first rotating part is arranged on the first main shaft part; The secondary rotating part is arranged on the first main shaft part; The third rotating part is arranged on the third main shaft part, and the third rotating part is a double gear structure, and there is a spacing between the gears; The first rotating part is a gear structure, which is provided with a single set of teeth arranged in a fan shape; The secondary rotating part is a gear structure, which is provided with a plurality of sets of teeth arranged in a fan shape; The pushing part pushes the second main shaft part to move, so that the second rotating part on the second main shaft part is in the same plane with the first rotating part, the secondary rotating part and the two gears of the third rotating part respectively.

5. A spout for dry slag conveying apparatus according to claim 4, wherein The single set of teeth on the secondary rotating part corresponds to the position of the single set of teeth of the first rotating part.

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