Large circulating drying equipment for drying silicon sludge

Abstract

The invention discloses large-scale circulating drying equipment for drying silicon sludge, which is applied to the technical field of silicon sludge drying and comprises a drying mechanism, the drying mechanism comprises a shell, and when the large-scale circulating drying equipment for drying the silicon sludge is used, an operator preferentially moves a door body upwards. The conveying belt drives the rear plate to be close to the direction of the driving roller, at the moment, an operator places silicon sludge on the conveying belt, and the operator gradually pours the silicon sludge to the surface of the conveying belt along with reverse rotation of the rotating motor. And after the rear plate returns to the initial position, the door body seals the shell. Through the arrangement, it is guaranteed that the drying mechanism overcomes the dust raising defect of existing equipment, and the mechanism has the advantage that discharging is convenient. And after the silicon sludge is dried, one end of the conveying belt can be placed on the bearing frame to collect the silicon sludge. And meanwhile, when the equipment is used, the synchronism of the conveying belt and the door body is guaranteed, the complexity of frequent operation in silicon sludge feeding and discharging is reduced, and the flow continuity of the mechanism is improved.

Description

Technical Field

[0001] The invention belongs to the technical field of silicon mud drying, and in particular relates to a large-scale circulating drying device for silicon mud drying. Background Art

[0002] Silica mud is produced by chemical reactions of silicon dioxide. Because silicon dioxide has high chemical reactivity, it can react with other chemicals under certain conditions to form silica mud. The main component of silica mud is SiO2, which can be used in construction, electronics, insulation materials and other fields. Silica mud is usually extracted from quartz minerals, which is a mineral substance containing silicon oxide. In industry, the production process of silica mud is to reduce quartz at high temperature, and then react it with carbon and aluminum oxide to form a silicon-aluminum alloy. After that, the remaining substances of the silicon-aluminum alloy are processed and ground to finally obtain pure silica mud.

[0003] In industrial production, silicon mud is used as raw material and put into electric furnace to smelt metallic silicon. Due to its high moisture content and fine particles, the yield of metallic silicon smelted after being put into the electric furnace is less than 20%. Most of the raw materials are easily oxidized or form other impurities such as silicon oxide, so the silicon mud needs to be dried. At present, the drying technology for silicon mud mostly uses drum drying equipment, but this equipment produces a lot of dust during use, making the production workshop full of dust. Over time, it will cause workers to suffer from pneumoconiosis, and there are certain safety hazards and human discomfort. At the same time, in the drying of silicon mud, there are situations where the drying efficiency is average and the loading and unloading of materials are inconvenient, which brings certain influences and inconveniences to the drying process of silicon mud. Summary of the invention

[0004] The purpose of the present invention is to provide a large-scale circulating drying equipment for drying silicon mud, which has the advantage of being different from the dust-raising disadvantages of existing equipment, and the mechanism has the advantage of convenient unloading, ensuring the synchronization of the conveyor belt and the door body, reducing the tediousness of frequent operations in loading and unloading silicon mud, and increasing the process continuity of the mechanism; effectively improving the drying efficiency of silicon mud, shortening the drying time, and in the use of rack one and rack two, the use cost of the breaking parts for the uniform effect of silicon mud will be reduced, bringing convenience to the drying of silicon mud.

[0005] The above technical purpose of the present invention is achieved through the following technical scheme: a circulating drying equipment for large-scale silicon mud drying, including a drying mechanism, the drying mechanism including an outer shell, an inner frame fixedly installed inside the outer shell, a partition located at the bottom of the inner frame fixedly installed inside the outer shell, a transmission mechanism is provided inside the outer shell, the transmission mechanism includes a transmission component and a linkage component, the linkage component includes a rotating motor, a uniform mechanism is provided inside the outer shell, the uniform mechanism includes a breaking up component, a moving component one, a moving component two, a driving component, a rotating component one and a rotating component two, and the driving component includes a dual-axis motor.

[0006] By adopting the above technical solution, when using the circulating drying equipment for large-scale silicon mud drying, the operator first realizes the open state of the shell through the operation of the linkage component, and then drives the transmission component to operate under the continuous operation of the linkage component. At this time, the operator places the silicon mud on the conveyor belt, and as the linkage component runs in the reverse direction, the transmission component gradually returns to the initial position. The shell will also gradually return to the initial state through the operation of the linkage component, forming a closure on the shell, and the loading of the silicon mud will be completed at this time. The silicon mud is then dried in the drying mechanism. This setting will ensure that the drying mechanism is different from the dust-raising disadvantages of existing equipment, and the mechanism has the advantage of convenient unloading. After the silicon mud is dried, a support frame can be placed on one side of the shell to collect the silicon mud. At the same time, during use, the equipment ensures the synchronization of the transmission component and the linkage component, reduces the cumbersomeness of frequent operations in loading and unloading silicon mud, and increases the process continuity of the mechanism. Furthermore, in the use of the circulating drying equipment for drying large silicon mud, the driving component is operated, and when the moving component one is operating, the rotating component one will be operated, thereby adjusting the working position of the scattering component. Subsequently, when the driving component prompts the moving component two to operate, the rotating component two will be operated, thereby achieving the scattering of the scattering component while moving horizontally, thereby scattering and evenly turning the silicon mud. This setting can effectively improve the drying efficiency of the silicon mud, shorten the drying time, and reduce the use cost of the uniform effect when the rotating component one and the rotating component two are operated, thereby bringing convenience to the drying of the silicon mud.

[0007] The present invention is further configured as follows: an inspection plate is bolted to one side of the outer shell, a shell is fixedly installed on the top of the outer shell, a door body is provided on one side of the outer shell, and limit blocks fixedly connected to the outer shell are clamped on both sides of the door body, an air outlet and an air inlet are respectively provided on the top of the outer shell, a dust filter plate bolted to the outer shell is provided on the top of the air inlet, a fan is fixedly installed on the inner side of the inner frame, a heating wire is fixedly installed on the bottom of the inner frame, and a ventilation hole located at the bottom of the heating wire is provided at the bottom of the inner frame.

[0008] With the above technical solution, the inspection plate facilitates the inspection and maintenance of the inner side of the shell, and the movement of the door body facilitates the closing and opening of the shell, wherein the limit block cooperates with the movement of the door body for guidance, and the operation of the fan draws the air from the top of the shell into the inner frame through the air inlet, and then is heated by the heating wire and blown to the bottom of the inner frame through the ventilation hole. The air then circulates inside the shell and leaves the inner side of the shell from the air outlet, wherein the dust filter screen prevents the dust inside the shell from being brought into the outside air.

[0009] The present invention is further configured as follows: the transmission component includes an active roller and a driven roller, the active roller and the driven roller are rotatably connected to each other through bearings and the outer shell, the surfaces of the active roller and the driven roller are mutually transmission-connected with a conveyor belt, both sides of the surface of the conveyor belt are fixedly adhered with an outer ring, the outer ring is made of soft material, a rear plate is fixedly installed at one end of the top of the conveyor belt, and a front plate is provided at the other end of the top of the conveyor belt, and a connecting plate fixedly connected to the door body is fixedly installed on the top of the front plate.

[0010] With the above technical solution, the rotation of the active roller will drive the driven roller to rotate synchronously through the conveyor belt, and the silicon mud on the surface of the conveyor belt will be transferred and transported. The outer ring will limit the silicon mud on the surface of the conveyor belt to prevent it from slipping. The rear plate and the front plate will limit the subsequent evenly dispersed silicon mud, and the connecting plate will enable the front plate to move synchronously with the door body.

[0011] The present invention is further configured as follows: the rotary motor is fixedly connected to the inner side of the shell, the output end of the rotary motor is fixedly sleeved with a driving rod 1 through a coupling, the surface of the driving rod 1 is fixedly sleeved with a linkage gear 1, both sides of the linkage gear 1 are meshed with linkage gear 2, the insides of the two linkage gears 2 are fixedly sleeved with a rod body 1 rotatably connected to the shell, one end of the rod body 1 is fixedly sleeved with a half gear, the surfaces of the two half gears are respectively meshed with meshing gear 1 and meshing gear 2, the inside of the meshing gear 1 is fixedly sleeved with a rod body 2 rotatably connected to the shell, one end of the rod body 1 and the active roller are respectively penetrated to the shell and one side of the shell and are fixedly sleeved with a synchronous wheel 1, the two synchronous wheels 1 are mutually connected with a synchronous belt 1, the inside of the meshing gear 2 is fixedly sleeved with a rod body 3, both ends of the surface of the rod body 3 are tied with ropes, both sides of the rope are provided with limit rings fixedly sleeved with the rod body 3, the surface of the rope contacts a guide roller fixedly connected to one end of the shell, and one end of the rope is tied to a ring body fixedly connected to the door body.

[0012] With the above technical solution, the operation of the rotating motor will drive the driving rod 1 to rotate, and the driving rod 1 will drive the linkage gear 1 to rotate, thereby driving the two linkage gears 2 to rotate synchronously. The rod body 1 will support the linkage gear 2, and will drive the half gear to rotate during the rotation of the linkage gear 2. In the rotation of the left half gear, the meshing gear 1 will be driven to rotate by the meshing of the teeth, and the meshing gear 1 will drive the rod body 2 to rotate. The rod body 2 will realize the synchronous rotation of the active roller through the setting of the synchronous wheel 1 and the synchronous belt 1. In the rotation of the right half gear, the meshing gear 2 will be driven to rotate by the meshing of the teeth, and the meshing gear 2 will drive the rod body 3 to rotate. The rotation of the rod body 3 will reel and release the rope, and the rope on the guide roller surface contacts the outer shell surface and guides and supports the rope. The reeling of the rope will drive the ring body and the door body to move upward.

[0013] The present invention is further configured as follows: the breaking up component comprises a moving shell, the moving shell is located on the top of the conveyor belt, the inner side of the moving shell is rotatably connected to a rotating rod via a bearing, and a breaking up piece is fixedly mounted on the surface of the rotating rod.

[0014] With the above technical solution, the rotation of the rotating rod will drive the dispersing parts to rotate synchronously, so that the dispersing parts can disperse and stir the silicon mud and achieve uniformity of the silicon mud. When the moving shell moves, the dispersing parts will be driven to move.

[0015] The present invention is further configured as follows: the moving component 1 includes a twisted shaft 1, the top and bottom of the twisted shaft 1 are respectively rotatably connected to a top plate and a bottom plate fixedly connected to the outer shell through bearings, the top of the twisted shaft 1 is fixedly sleeved with a bevel gear 1, the surface of the twisted shaft 1 is sleeved with a moving part 1, the inner side of the moving part 1 is fixedly installed with a clamping part 1 clamped with the twisted shaft 1, a guide rod 1 penetrating the moving part 1 is fixedly installed between the top plate and the bottom plate, the guide rod 1 and the moving part 1 are slidably connected to each other, a clamping plate 1 is fixedly installed on one side of the moving part 1, and a clamping protrusion is fixedly installed on the top of the clamping plate 1.

[0016] By adopting the above technical solution, the rotation of the twisted shaft 1 will drive the movable part 1 to move longitudinally through the setting of the clamping part 1, wherein the top plate and the bottom plate will support the twisted shaft 1 and cooperate with it to rotate smoothly, and the guide rod 1 will guide the movement of the movable part 1, and at the same time, the movement of the movable part 1 will drive the clamping plate 1 to rotate synchronously and move longitudinally.

[0017] The present invention is further configured as follows: the moving component 2 includes a twisted shaft 2, a moving part 2 is sleeved on the surface of the twisted shaft 2, a clamping part 2 clamped with the twisted shaft 2 is fixedly installed on the inner side of the moving part 2, a fixed frame is fixedly installed on the top of the moving shell and penetrates to the bottom of the partition, slide rails are fixedly installed on both sides of the inner side of the fixed frame, slide grooves for cooperating with the slide rails are provided on both sides of the moving part 2, a clamping plate 2 located at the top of the clamping plate 1 is fixedly installed on one side of the fixed frame, a clamping groove for cooperating with the clamping protrusion is provided on the bottom of the clamping plate 2, and guide rods 2 fixedly connected to the bottom plate and the shell are provided on both sides of the twisted shaft 2, the guide rods 2 penetrate the moving part 2 and are slidably connected with the moving part 2.

[0018] By adopting the above technical scheme, the rotation of the twisted shaft 2 will realize the lateral movement of the movable part 2 through the setting of the clamping part 2, wherein the guide rod 2 cooperates with the movement of the movable part 2 for guidance, and at the same time, the fixed frame can realize the longitudinal movement on the surface of the movable part 2 through the setting of the slide rail and the slide groove, and in the lateral movement of the movable part 2, the synchronous lateral movement of the fixed frame and the movable part 2 is still realized through the setting of the slide rail and the slide groove, and the movement of the fixed frame will drive the clamping plate 2 to move, and as the clamping plate 1 and the clamping plate 2 gradually approach each other, the clamping protrusion will gradually clamp with the clamping groove.

[0019] The present invention is further configured as follows: the dual-axis motor is located inside the inner frame and is fixedly connected to the inner side of the outer shell; the output ends of the dual-axis motor are fixedly sleeved with a driving rod 2 through a coupling; both ends of the surface of the driving rod 2 are rotatably connected with a rotating collar through a bearing; one end of the rotating collar located at one end of the driving rod 2 is fixedly connected with a bevel gear 2 meshing with a bevel gear 1; one end of the rotating collar located at the other end of the driving rod 2 is fixedly connected to the surface of the twisted shaft 2 with a synchronous wheel 2; one end of the rotating collar is fixedly installed with a gear sleeved with An internal gear is provided on the surface of the second driving rod, and a movable ring is provided on one side of the internal gear and is sleeved on the surface of the second driving rod. A clamping strip is fixedly installed on the surface of the second driving rod, and a clamping groove used to cooperate with the clamping strip is opened on the inner side of the movable ring. An external gear meshing with the internal gear is fixedly sleeved on the surface of the movable ring. A synchronous belt is connected to each other on the surfaces of the two synchronous wheels. A sleeve plate rotatably sleeved on the movable sleeve is provided on one side of the second driving rod, and an electric telescopic rod fixedly connected to the inner frame is fixedly installed on one side of the sleeve plate.

[0020] By adopting the above technical solution, the operation of the dual-axis motor will drive the second driving rod to rotate, and the rotation of the second driving rod will realize the rotation of the moving collar through the setting of the clamping strip and the clamping groove, wherein the setting of the clamping strip and the clamping groove will enable the moving collar to move laterally on the surface of the second driving rod while rotating synchronously with the second driving rod. The rotation of the moving collar will drive the outer gear to rotate synchronously. During the operation of the electric telescopic rod, the sleeve plate and the moving collar will be driven to move, and when the inner gear is meshed with the inner gear by the movement of the moving collar, the moving collar, the outer gear, the inner gear and the rotating collar will be able to rotate synchronously. Therefore, during the retraction of the electric telescopic rod, the rotating collar at one end of the second driving rod will be rotated, thereby realizing the rotation of the second bevel gear, and the second bevel gear will drive the first bevel gear and the first twisted shaft to rotate synchronously. When the electric telescopic rod is extended, the rotating collar at the other end of the driving rod 2 will rotate, thereby realizing the rotation of the synchronous wheel 2, and the synchronous rotation of the two synchronous wheels 2 and the twisted shaft 2 will be realized through the setting of the synchronous belt 2.

[0021] The present invention is further configured as follows: the rotating component 1 includes a rack 1, the rack 1 is fixedly connected to the inner side of the outer shell, the surface of the rack 1 is meshed with a rotating gear 1, the interior of the rotating gear 1 is fixedly sleeved with a connecting rod 1, one end of the connecting rod 1 is fixedly sleeved with a bevel gear 3, the surface of the bevel gear 3 is meshed with a bevel gear 4, the interior of the bevel gear 4 is fixedly sleeved with a connecting rod 2, the surfaces of the connecting rod 1 and the connecting rod 2 are both rotatably sleeved with a fixing part fixedly connected to the moving shell, the connecting rod 2 and one end of the rotating rod are both fixedly sleeved with a synchronous wheel 3, and the surfaces of the two synchronous wheels 3 are transmission-connected with a synchronous belt 3.

[0022] By adopting the above technical solution, during the longitudinal movement of the movable shell, the fixed part, connecting rod 1 and connecting rod 2 will be driven to move synchronously, wherein the movement of the rotating gear 1 will be realized by meshing with the rack 1, thereby realizing the rotation of the connecting rod 1 and the bevel gear 3, wherein the bevel gear 3 will drive the bevel gear 4 and the connecting rod 2 to rotate synchronously, and the synchronous rotation of the connecting rod 2 and the rotating rod is realized by the setting of the synchronous wheel 3 and the synchronous belt 3.

[0023] The present invention is further configured as follows: the rotating component 2 includes a rack 2, the rack 2 is fixedly connected to the inner side of the outer shell, the surface of the rack 2 is meshed with a rotating gear 2, the interior of the rotating gear 2 is fixedly sleeved with a connecting rod 3 that is rotatably connected to the movable shell, the bottom of the connecting rod 3 is fixedly sleeved with a bevel gear 5, and the surface of the bevel gear 5 is meshed with a bevel gear 6 that is fixedly sleeved with the other end of the rotating rod.

[0024] By adopting the above technical solution, during the lateral movement of the moving shell, the connecting rod three will be driven to move synchronously, wherein the movement of the rotating gear two will be realized by the engagement with the rack two, and the rotating gear two will drive the connecting rod three and the bevel gear five to rotate, and the bevel gear five will drive the bevel gear six and the rotating rod to rotate synchronously.

[0025] In summary, the present invention has the following beneficial effects:

[0026] 1. When using the circulating drying equipment for large-scale silicon mud drying, the operator should first realize the upward movement of the door body. The conveyor belt will drive the rear plate close to the direction of the active roller. At this time, the operator places the silicon mud on the conveyor belt, and as the rotating motor reverses, the operator gradually pours the silicon mud onto the surface of the conveyor belt. After the rear plate returns to the initial position, the door body forms a seal on the outer shell. This setting will ensure that the drying mechanism is different from the dust-raising disadvantages of existing equipment, and the mechanism has the advantage of convenient unloading. After the silicon mud is dried, a support frame can be placed at one end of the conveyor belt to collect the silicon mud. At the same time, when the equipment is in use, the synchronization between the conveyor belt and the door body is guaranteed, the tediousness of frequent operations in loading and unloading silicon mud is reduced, and the process continuity of the mechanism is increased;

[0027] 2. In the use of circulating drying equipment for large-scale silicon mud drying, after the conveyor belt carries the silicon mud and returns to the initial position with the rear plate, it is preferred to realize that the rotating rod rotates while moving longitudinally. At this time, the scattered pieces can penetrate into the thick silicon mud in the rotating state. At this time, the working position of the scattered pieces can be adjusted, and then the rotating rod can be rotated while moving horizontally, so as to break up and evenly flip the silicon mud. This setting can effectively improve the drying efficiency of the silicon mud, shorten the drying time, and reduce the use cost of the scattered pieces for the uniform effect of the silicon mud in the use of rack one and rack two, which brings convenience to the drying of the silicon mud. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;

[0029] Figure 2 is a schematic cross-sectional view of the housing of the present invention;

[0030] Figure 3 is an exploded and enlarged schematic diagram of the transmission component of the present invention;

[0031] Figure 4 It is an enlarged schematic diagram of the transmission mechanism and the uniform mechanism of the present invention;

[0032] Figure 5 It is an exploded and enlarged schematic diagram of the front plate, door body and limit block of the present invention;

[0033] Figure 6 It is an exploded and enlarged schematic diagram of the linkage assembly of the present invention;

[0034] Figure 7 It is an enlarged schematic diagram of the uniform mechanism of the present invention;

[0035] Figure 8 It is an exploded and enlarged schematic diagram of the mobile component 2 and the mobile shell of the present invention;

[0036] Fig. 9 It is an exploded and enlarged schematic diagram of a moving component of the present invention;

[0037] Fig.10 is an enlarged schematic diagram of the drive assembly of the present invention;

[0038] Fig.11 It is an exploded and enlarged schematic diagram of the drive assembly of the present invention;

[0039] Fig.12 It is a schematic diagram of the fixing frame and the partition of the present invention;

[0040] Fig.13 It is an enlarged schematic diagram of the breaking up component, the moving component 2, the rotating component 1 and the rotating component 2 of the present invention;

[0041] Fig.14 It is an enlarged schematic diagram of the breaking up assembly, the rotating assembly 1 and the rotating assembly 2 of the present invention;

[0042] Fig.15 It is an exploded and enlarged schematic diagram of the rotating assembly 1 and the rotating assembly 2 of the present invention;

[0043] Fig.16 It is a schematic diagram of breaking apart parts of the present invention.

[0044] Reference numerals:

[0045] 1. Drying mechanism; 101. Shell; 102. Inspection panel; 103. Shell; 104. Door; 105. Stop block; 106. Air inlet; 107. Air outlet; 108. Dust filter screen; 109. Inner frame; 1010. Fan; 1011. Heating wire; 1012. Ventilation hole; 1013. Partition;

[0046] 2. Transmission mechanism; 201. Transmission assembly; 2011. Active roller; 2012. Driven roller; 2013. Conveyor belt; 2014. Outer ring; 2015. Rear plate; 2016. Front plate; 2017. Connecting plate;

[0047] 202, linkage assembly; 2021, rotating motor; 2022, driving rod 1; 2023, linkage gear 1; 2024, linkage gear 2; 2025, rod body 1; 2026, half gear; 2027, meshing gear 1; 2028, meshing gear 2; 2029, rod body 2; 20210, rod body 3; 20211, synchronous wheel 1; 20212, synchronous belt 1; 20213, limiting ring; 20214, guide roller; 20215, ring body; 20216, rope;

[0048] 3. Even mechanism; 301. Breaking up assembly; 3011. Moving shell; 3012. Rotating rod; 3013. Breaking up parts;

[0049] 302, moving component 1; 3021, twist shaft 1; 3022, top plate; 3023, bottom plate; 3024, bevel gear 1; 3025, moving part 1; 3026, clamping part 1; 3027, guide rod 1; 3028, clamping plate 1; 3029, clamping protrusion;

[0050] 303, moving component 2; 3031, twist shaft 2; 3032, moving component 2; 3033, clamping component 2; 3034, fixed frame; 3035, slide rail; 3036, slide groove; 3037, clamping plate 2; 3038, clamping groove; 3039, guide rod 2;

[0051] 304, driving assembly; 3041, dual-axis motor; 3042, driving rod 2; 3043, rotating collar; 3044, internal gear; 3045, moving collar; 3046, snap-fit ​​strip; 3047, snap-fit ​​groove; 3048, external gear; 3049, bevel gear 2; 30410, synchronous wheel 2; 30411, synchronous belt 2; 30412, sleeve plate; 30413, electric telescopic rod;

[0052] 305, rotating assembly 1; 3051, rack 1; 3052, rotating gear 1; 3053, connecting rod 1; 3054, bevel gear 3; 3055, bevel gear 4; 3056, connecting rod 2; 3057, fixing part; 3058, synchronous wheel 3; 3059, synchronous belt 3;

[0053] 306, rotating assembly 2; 3061, rack 2; 3062, rotating gear 2; 3063, connecting rod 3; 3064, bevel gear 5; 3065, bevel gear 6. DETAILED DESCRIPTION

[0054] The present invention is further described in detail below in conjunction with the accompanying drawings.

[0055] Embodiment 1:

[0056] refer to Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6A large-scale silicon mud drying circulating drying device includes a drying mechanism 1, the drying mechanism 1 includes a shell 101, an inner frame 109 is fixedly installed inside the shell 101, a partition 1013 located at the bottom of the inner frame 109 is fixedly installed inside the shell 101, and a transmission mechanism 2 is arranged inside the shell 101, the transmission mechanism 2 includes a transmission component 201 and a linkage component 202, and the linkage component 202 includes a rotating motor 2021. When the large-scale silicon mud drying circulating drying device is used, the operator first realizes the opening state of the shell 101 through the operation of the linkage component 202, and then the transmission component 201 is driven to operate under the continuous operation of the linkage component 202. At this time, the operator places the silicon mud on the conveyor belt, and as the linkage component 202 runs in the reverse direction, the transmission component 201 gradually returns to the initial position. The shell 101 will also gradually return to the initial state through the operation of the linkage component 202, and the shell 101 is closed, and the silicon mud is loaded at this time. Then the silicon mud is dried in the drying mechanism 1. This arrangement ensures that the drying mechanism 1 is different from the dust-raising disadvantages of existing equipment, and the mechanism has the advantage of convenient material unloading. After the silicon mud is dried, a support frame can be placed on one side of the shell 101 to collect the silicon mud. At the same time, when the device is in use, the synchronization of the transmission component 201 and the linkage component 202 is guaranteed, the tediousness of frequent operations in loading and unloading silicon mud is reduced, and the process continuity of the mechanism is increased.

[0057] refer to Figure 1 , Figure 2 , Figure 5 A maintenance plate 102 is bolted to one side of the shell 101, a shell 103 is fixedly installed on the top of the shell 101, a door body 104 is provided on one side of the shell 101, and limit blocks 105 fixedly connected to the shell 101 are clamped on both sides of the door body 104, an air outlet 107 and an air inlet 106 are respectively opened on the top of the shell 101, and a dust filter screen 108 bolted to the shell 101 is provided on the top of the air inlet 106, a fan 1010 is fixedly installed on the inner side of the inner frame 109, and a heating wire 101 is fixedly installed on the bottom of the inner frame 109. 1. The bottom of the inner frame 109 is provided with a ventilation hole 1012 located at the bottom of the heating wire 1011. The inspection plate 102 facilitates the inspection and maintenance of the inner side of the outer shell 101. The movement of the door body 104 facilitates the closing and opening of the outer shell 101. The stopper 105 guides the movement of the door body 104. The operation of the fan 1010 draws the air from the top of the outer shell 101 into the inner frame 109 through the air inlet 106, and then is heated by the heating wire 1011 and blown to the bottom of the inner frame 109 through the ventilation hole 1012. The air then circulates inside the outer shell 101 for one cycle and leaves the inner side of the outer shell 101 from the air outlet 107. The dust filter plate 108 prevents the dust inside the outer shell 101 from being brought into the outside air.

[0058] refer to Figure 2 , Figure 3 , Figure 4 The transmission component 201 includes an active roller 2011 and a driven roller 2012, which are both rotatably connected to the housing 101 through bearings. The surfaces of the active roller 2011 and the driven roller 2012 are mutually connected with a conveyor belt 2013. Both sides of the surface of the conveyor belt 2013 are fixedly adhered with an outer ring 2014, and the outer ring 2014 is made of soft material. A rear plate 2015 is fixedly installed at one end of the top of the conveyor belt 2013, and a front plate 2016 is provided at the other end of the top of the conveyor belt 2013. A connecting plate 2017 fixedly connected to the door body 104 is fixedly installed on the top of the front plate 2016. The rotation of the active roller 2011 will drive the driven roller 2012 to rotate synchronously through the conveyor belt 2013, and at this time, the transmission and transportation of the silicon mud on the surface of the conveyor belt 2013 will be realized, and the outer ring 2014 limits the silicon mud on the surface of the conveyor belt 2013 to prevent it from slipping. The rear plate 2015 and the front plate 2016 both limit the subsequent uniformly dispersed silicon mud, and the connecting plate 2017 enables the front plate 2016 to move synchronously with the door body 104.

[0059] refer to Figure 1 , Figure 4 , Figure 6The rotating motor 2021 is fixedly connected to the inner side of the shell 103, and the output end of the rotating motor 2021 is fixedly sleeved with a driving rod 1 2022 through a coupling, and a linkage gear 1 2023 is fixedly sleeved on the surface of the driving rod 1 2022, and linkage gear 2 2024 is meshed on both sides of the linkage gear 1 2023. The interiors of the two linkage gears 2024 are fixedly sleeved with a rod body 1 2025 rotatably connected to the shell 103, and a half gear 2026 is fixedly sleeved at one end of the rod body 1 2025, and meshing gear 1 2027 and meshing gear 2 2028 are respectively meshed on the surfaces of the two half gears 2026, and a rod body 2 2029 rotatably connected to the shell 103 is fixedly sleeved inside the meshing gear 1 2027, and the rod body 2 2029 and one end of the active roller 2011 respectively penetrate the shell 103 and the outer shell 103. 1 One side is fixedly sleeved with a synchronous wheel 1 20211, and the two synchronous wheels 1 20211 are mutually connected with a synchronous belt 1 20212 for transmission. The inside of the meshing gear 2028 is fixedly sleeved with a rod body 3 20210, and both ends of the surface of the rod body 3 20210 are connected with ropes 20216. Both sides of the rope 20216 are provided with limit rings 20213 fixedly sleeved with the rod body 3 20210. The surface of the rope 20216 contacts with a guide roller 20214 fixedly connected to one end of the shell 101, and one end of the rope 20216 is connected to a ring body 20215 fixedly connected to the door body 104. The operation of the rotating motor 2021 will drive the driving rod 1 2022 to rotate, and the driving rod 1 2022 will drive the linkage gear 1 2023 to rotate, thereby driving the two linkage gears 2 2024 to rotate synchronously. The rod body 1 2025 will support the linkage gear 2 2024, and will drive the half gear 2026 to rotate when the linkage gear 2 2024 rotates. When the left half gear 2026 rotates, the meshing gear 1 2027 will be driven to rotate through the meshing of teeth, and the meshing gear 1 2027 will drive the rod body 2 2029 to rotate. The rod body 2029 will realize the synchronous rotation of the active roller 2011 through the setting of the synchronous wheel 1 20211 and the synchronous belt 1 20212. During the rotation of the right half gear 2026, the meshing of the teeth will drive the meshing gear 2 2028 to rotate, and the meshing gear 2 2028 will drive the rod body 3 20210 to rotate. The rotation of the rod body 3 20210 will reel in and loosen the rope 20216, and the rope 20216 on the surface of the guide roller 20214 contacts the surface of the outer shell 101 and guides and supports the rope 20216. The reeling of the rope 20216 will drive the ring body 20215 and the door body 104 to move upward.

[0060] Brief description of the use process: When using the large-scale silicon mud drying circulating drying equipment, the operator first drives the driving rod 1 2022 to rotate by rotating the motor 2021, and the driving rod 1 2022 will drive the linkage gear 1 2023 to rotate, thereby driving the two linkage gears 2 2024 to rotate synchronously. The rod body 1 2025 will support the linkage gear 2 2024, and will drive the half gear 2026 to rotate when the linkage gear 2 2024 rotates. During the rotation of the right half gear 2026, the teeth mesh and drive the meshing gear 2028 to rotate, and the meshing gear 2028 drives the rod body 3 20210 to rotate. The rotation of the rod body 3 20210 will reel and release the rope 20216, and the rope 20216 on the surface of the guide roller 20214 contacts the surface of the shell 101 and guides and supports the rope 20216. The reeling of the rope 20216 will drive the ring body 20215 and the door body 104 to move upward. At this time, the shell 101 The motor 2021 is turned on, and then the left half gear 2026 rotates, which drives the meshing gear 1 2027 to rotate through the meshing of teeth, and the meshing gear 1 2027 drives the rod body 2 2029 to rotate. The rod body 2029 realizes the synchronous rotation of the active roller 2011 through the setting of the synchronous wheel 1 20211 and the synchronous belt 1 20212. The rotation of the active roller 2011 drives the driven roller 2012 to rotate synchronously through the conveyor belt 2013. The conveyor belt 2013 drives the rear plate 2015 to approach the active roller 2011. At this time, the operator places the silicon mud on the conveyor belt 2013, and the outer ring 2014 limits the silicon mud on the surface of the conveyor belt 2013 to prevent it from slipping. Then, as the motor 2021 is reversed, the operator gradually pours the silicon mud onto the surface of the conveyor belt 2013 while the rear plate 2015 gradually returns to the initial position, thereby preventing the silicon mud from piling up at the same position on the surface of the conveyor belt 2013. After the rear plate 2015 returns to the initial position, the door body 104 will gradually return to the initial state through the loosening of the rope 20216, and the outer shell 101 will be closed. At this time, the silicon mud will be loaded, wherein the rear plate 2015 and the front plate 2016 both limit the subsequent uniformly broken silicon mud, and the connecting plate 2017 will enable the front plate 2016 to move synchronously with the door body 104. Subsequently, when the fan 1010 is running, the air at the top of the outer shell 101 will be drawn into the inner frame 109 through the air inlet 106, and then heated by the heating wire 1011, and blown to the bottom of the inner frame 109 through the ventilation hole 1012. The air then circulates once inside the housing 101 and leaves the inside of the housing 101 from the air outlet 107, wherein the dust filter plate 108 prevents the dust inside the housing 101 from being brought into the outside air, and the silicon mud is uniformly dried at this time. This arrangement ensures that the drying mechanism 1 is different from the dust-raising disadvantages of existing equipment, and the mechanism has the advantage of convenient material unloading.After the silicon mud is dried, a support frame can be placed at one end of the conveyor belt 2013 to collect the silicon mud. At the same time, the device ensures the synchronization of the conveyor belt 2013 and the door body 104 during use, reduces the cumbersomeness of frequent operations in loading and unloading silicon mud, and increases the process continuity of the mechanism.

[0061] Embodiment 2:

[0062] refer to Figure 1 , Figure 2 , Figure 4 , Figure 7 , Figure 8 , Fig. 9 , Fig.10 , Fig.11 , Fig.12 , Fig.13 , Fig.14 , Fig.15 , Fig.16 A large-scale silicon mud drying circulating drying equipment comprises a drying mechanism 1, a uniform mechanism 3 is arranged inside a shell 101, the uniform mechanism 3 comprises a scattering component 301, a moving component 1 302, a moving component 2 303, a driving component 304, a rotating component 1 305 and a rotating component 2 306, the driving component 304 comprises a dual-axis motor 3041, in the use of the large-scale silicon mud drying circulating drying equipment, the driving component 304 is operated, and when the moving component 1 302 is operated, the rotating component 1 305 is operated, so that the working position of the scattering component 301 is adjusted, and then when the driving component 304 prompts the moving component 2 303 to operate, the rotating component 2 306 is operated, so that the scattering component 301 is moved horizontally and scattered at the same time, so that the silicon mud is scattered and evenly turned over, and the drying efficiency of the silicon mud can be effectively improved and the drying time can be shortened, and the use cost of the uniform effect can be reduced under the operation of the rotating component 1 305 and the rotating component 2 306, which brings convenience to the drying of the silicon mud.

[0063] refer to Figure 2 , Figure 4 , Figure 7 The disintegration assembly 301 includes a moving shell 3011, which is located on the top of the conveyor belt 2013. The inner side of the moving shell 3011 is rotatably connected to a rotating rod 3012 through a bearing. A disintegration piece 3013 is fixedly installed on the surface of the rotating rod 3012. The rotation of the rotating rod 3012 will drive the disintegration piece 3013 to rotate synchronously, so that the disintegration piece 3013 can disintegrate and stir the silicon mud and achieve uniformity of the silicon mud. When the moving shell 3011 moves, the disintegration piece 3013 will be driven to move.

[0064] refer to Figure 2 , Figure 7 , Fig. 9The moving component 302 includes a twisted shaft 3021, the top and bottom of the twisted shaft 3021 are respectively rotatably connected to a top plate 3022 and a bottom plate 3023 fixedly connected to the housing 101 through bearings, the top of the twisted shaft 3021 is fixedly sleeved with a bevel gear 3024, a moving part 3025 is sleeved on the surface of the twisted shaft 3021, a clamping part 3026 clamped with the twisted shaft 3021 is fixedly installed on the inner side of the moving part 3025, a guide rod 3027 penetrating the moving part 3025 is fixedly installed between the top plate 3022 and the bottom plate 3023, and the guide rod 3027 is connected to the moving part 1 3025 are slidably connected to each other, a snap-in plate 3028 is fixedly installed on one side of the moving part 3025, and a snap-in protrusion 3029 is fixedly installed on the top of the snap-in plate 3028. The rotation of the twist shaft 3021 will drive the moving part 3025 to move longitudinally through the setting of the snap-in part 3026, wherein the top plate 3022 and the bottom plate 3023 will support the twist shaft 3021 and cooperate with it to rotate smoothly, and the guide rod 3027 cooperates with the movement of the moving part 3025 to guide, and at the same time, the movement of the moving part 3025 will drive the snap-in plate 3028 to rotate synchronously and move longitudinally.

[0065] refer to Figure 2 , Figure 7 , Figure 8The moving assembly 303 includes a twisted shaft 3031, a moving part 3032 is sleeved on the surface of the twisted shaft 3031, a clamping part 3033 is fixedly installed on the inner side of the moving part 3032, and the clamping part 3033 is fixedly installed on the inner side of the moving part 3032. A fixing frame 3034 is fixedly installed on the top of the moving shell 3011 and penetrates to the bottom of the partition 1013. Both sides of the inner side of the fixing frame 3034 are fixedly installed with slide rails 3035. The moving part 3032 is fixedly installed on the inner side of the moving shell 3011. The two sides of the fixed frame 3034 are provided with a slide groove 3036 for sliding with the slide rail 3035, and a second clamping plate 3037 located on the top of the first clamping plate 3028 is fixedly installed on one side of the fixed frame 3034. The bottom of the second clamping plate 3037 is provided with a clamping groove 3038 for matching the clamping protrusion 3029. The two sides of the twisted shaft 3031 are provided with a guide rod 3039 fixedly connected to the bottom plate 3023 and the housing 101. The second 3039 penetrates the second moving part 3032 and is slidably connected with the second moving part 3032. The rotation of the twisted shaft 3031 will realize the lateral movement of the moving part 3032 through the setting of the second clamping part 3033, wherein the guide rod 3039 cooperates with the movement of the second moving part 3032 for guidance, and at the same time, the fixed frame 3034 can realize the longitudinal movement on the surface of the moving part 3032 through the setting of the slide rail 3035 and the slide groove 3036, and in the lateral movement of the moving part 3032, the synchronous lateral movement of the fixed frame 3034 and the moving part 3032 is still realized through the setting of the slide rail 3035 and the slide groove 3036, and the movement of the fixed frame 3034 will drive the clamping plate 2 3037 to move, and as the clamping plate 1 3028 and the clamping plate 2 3037 gradually approach each other, the clamping protrusion 3029 will gradually clamp with the clamping groove 3038.

[0066] refer to Figure 7 , Fig.10 , Fig.11The dual-axis motor 3041 is located inside the inner frame 109 and is fixedly connected to the inner side of the outer shell 101. The output ends of the dual-axis motor 3041 are fixedly sleeved with the second drive rod 3042 through a coupling. Both ends of the surface of the second drive rod 3042 are rotatably connected with a rotating ring 3043 through a bearing. One end of the rotating ring 3043 located at one end of the second drive rod 3042 is fixedly connected with a second bevel gear 3049 meshing with the first bevel gear 3024. One end of the rotating ring 3043 at the other end of 3042 and the surface of the twisted shaft 2 3031 are fixedly connected with the synchronous wheel 2 30410, one end of the rotating ring 3043 is fixedly installed with an internal gear 3044 sleeved on the surface of the driving rod 2 3042, one side of the internal gear 3044 is provided with a moving ring 3045 sleeved on the surface of the driving rod 2 3042, a clamping strip 3046 is fixedly installed on the surface of the driving rod 2 3042, and the inner side of the moving ring 3045 is provided with a There is a snap-in groove 3047 used in conjunction with the snap-in strip 3046, the surface of the mobile ring 3045 is fixedly sleeved with an outer gear 3048 meshing with the inner gear 3044, the surfaces of the two synchronous wheels 30410 are mutually connected with a synchronous belt 30411, one side of the driving rod 3042 is provided with a sleeve plate 30412 that is rotatably sleeved with the mobile ring 3045, and one side of the sleeve plate 30412 is fixedly installed with an electric telescopic rod fixedly connected to the inner frame 109 30413, the operation of the dual-axis motor 3041 will drive the second driving rod 3042 to rotate, and the rotation of the second driving rod 3042 will realize the rotation of the moving collar 3045 through the setting of the clamping strip 3046 and the clamping groove 3047, wherein the setting of the clamping strip 3046 and the clamping groove 3047 will enable the moving collar 3045 to move laterally on the surface of the second driving rod 3042 while rotating synchronously with the second driving rod 3042. The rotation of the moving collar 3045 will drive the outer gear 3048 to rotate synchronously. During the operation of the electric telescopic rod 30413, the sleeve plate 30412 and the moving collar 3045 will be driven to move. When the inner gear 3044 is meshed with the inner gear 3044 by the movement of the moving collar 3045, the moving collar 3045, the outer gear 3048, the inner gear 3044 and the rotating collar 3043 can be synchronously rotated. Therefore, during the retraction of the electric telescopic rod 30413, the rotating collar 3043 at one end of the driving rod 2 3042 will be rotated, thereby realizing the rotation of the bevel gear 2 3049, and the bevel gear 2 3049 will drive the bevel gear 1 3024 and the twisted shaft 1 3021 to rotate synchronously. When the electric telescopic rod 30413 is extended, the rotating ring 3043 at the other end of the driving rod 3042 will rotate, thereby realizing the rotation of the synchronous wheel 30410. Through the setting of the synchronous belt 30411, the synchronous rotation of the two synchronous wheels 30410 and the twisted shaft 3031 will be realized.

[0067] refer to Fig.13 , Fig.14 , Fig.15 The rotating assembly 1 305 includes a rack 1 3051, the rack 1 3051 is fixedly connected to the inner side of the housing 101, the surface of the rack 1 3051 is meshed with a rotating gear 1 3052, the interior of the rotating gear 1 3052 is fixedly sleeved with a connecting rod 1 3053, one end of the connecting rod 1 3053 is fixedly sleeved with a bevel gear 3 3054, the surface of the bevel gear 3 3054 is meshed with a bevel gear 4 3055, the interior of the bevel gear 4 3055 is fixedly sleeved with a connecting rod 2 3056, the surfaces of the connecting rod 1 3053 and the connecting rod 2 3056 are both rotatably sleeved with a fixing member 3057 fixedly connected to the moving housing 3011, and the connecting rod 2 3056 is fixedly sleeved with one end of the rotating rod 3012 A synchronous wheel three 3058 is sleeved thereon, and the surfaces of the two synchronous wheels three 3058 are mutually connected with a synchronous belt three 3059. During the longitudinal movement of the movable shell 3011, the fixed part 3057, the connecting rod one 3053 and the connecting rod two 3056 will be driven to move synchronously, wherein the movement of the rotating gear one 3052 will be realized by the engagement with the rack one 3051, thereby realizing the rotation of the connecting rod one 3053 and the bevel gear three 3054, wherein the bevel gear three 3054 will drive the bevel gear four 3055 and the connecting rod two 3056 to rotate synchronously, and through the setting of the synchronous wheel three 3058 and the synchronous belt three 3059, the synchronous rotation of the connecting rod two 3056 and the rotating rod 3012 is realized.

[0068] refer to Fig.13 , Fig.14 , Fig.15 The second rotating assembly 306 includes a second rack 3061, the second rack 3061 is fixedly connected to the inner side of the housing 101, the surface of the second rack 3061 is meshed with a second rotating gear 3062, the interior of the second rotating gear 3062 is fixedly sleeved with a third connecting rod 3063 that is rotatably connected to the moving housing 3011, the bottom of the third connecting rod 3063 is fixedly sleeved with a fifth bevel gear 3064, and the surface of the fifth bevel gear 3064 is meshed with another rotating rod 3012. The bevel gear six 3065 fixedly sleeved at the end will drive the connecting rod three 3063 to move synchronously during the lateral movement of the movable shell 3011, wherein the movement of the rotating gear two 3062 will be realized by the engagement with the rack two 3061, and the rotating gear two 3062 will drive the connecting rod three 3063 and the bevel gear five 3064 to rotate, and the bevel gear five 3064 will drive the bevel gear six 3065 and the rotating rod 3012 to rotate synchronously.

[0069] Brief description of the use process: In the use of the large-scale silicon mud drying circulating drying equipment, after the conveyor belt 2013 carries the silicon mud and brings the rear plate 2015 back to the initial position, the double-axis motor 3041 can be operated, and the operation of the double-axis motor 3041 will drive the second driving rod 3042 to rotate. The rotation of the second driving rod 3042 will realize the rotation of the moving ring 3045 through the setting of the clamping strip 3046 and the clamping groove 3047. The setting of the clamping strip 3046 and the clamping groove 3047 will enable the moving ring 3045 to move horizontally on the surface of the second driving rod 3042 while rotating synchronously with the second driving rod 3042. The rotation of the moving ring 3045 will drive the outer gear 3048 to rotate synchronously. During the operation of the electric telescopic rod 30413, the sleeve plate 30412 and the moving collar 3045 will be driven to move. When the inner gear 3044 is meshed with the inner gear 3044 by the movement of the moving collar 3045, the moving collar 3045, the outer gear 3048, the inner gear 3044 and the rotating collar 3043 can be synchronously rotated. Therefore, during the retraction of the electric telescopic rod 30413, the rotating collar 3043 at one end of the driving rod 2 3042 will be rotated, thereby realizing the rotation of the bevel gear 2 3049, and the bevel gear 2 3049 will drive the bevel gear 1 3024 and the twisted shaft 1 3021 to rotate synchronously. The rotation of the twisted shaft 1 3021 will drive the moving part 1 3025 to move longitudinally through the setting of the clamping part 1 3026, wherein the top plate 3022 and the bottom plate 3023 will support the twisted shaft 1 3021 and cooperate with it to rotate smoothly, and the guide rod 1 3027 will guide the movement of the moving part 1 3025, and the movement of the moving part 1 3025 will drive the clamping plate 1 3028 to rotate and move longitudinally synchronously. Through the setting of the clamping protrusion 3029 and the clamping groove 3038, the clamping plate 1 3028 will drive the clamping plate 2 3037, the fixed frame 3034 and the moving shell 3011 to move longitudinally. During the longitudinal movement of the moving shell 3011, the fixing member 3057, the connecting rod 1 3053 and the connecting rod 2 3056 will be driven to move synchronously, wherein the movement of the rotating gear 1 3052 will be realized by meshing with the rack 1 3051, thereby realizing the rotation of the connecting rod 1 3053 and the bevel gear 3 3054, wherein the bevel gear 3 3054 will drive the bevel gear 4 3055 and the connecting rod 2 3056 to rotate synchronously, and the synchronous rotation of the connecting rod 2 3056 and the rotating rod 3012 is realized by setting the synchronous wheel 3 3058 and the synchronous belt 3 3059. The rotating rod 3012 is realized to rotate while moving longitudinally, and at this time, the scattered pieces 3013 are realized to penetrate into the silicon mud with thickness in the rotating state, and the working position of the scattered pieces 3013 can be adjusted at this time.Subsequently, when the electric telescopic rod 30413 is extended, the rotating ring 3043 at the other end of the driving rod 3042 will rotate, thereby realizing the rotation of the synchronous wheel 30410, and the synchronous rotation of the two synchronous wheels 30410 and the twisted shaft 3031 will be realized through the setting of the synchronous belt 30411. During the rotation of the twisted shaft 3031, the lateral movement of the movable part 3032 will be realized through the setting of the clamping part 3033, wherein the guide rod 3039 cooperates with the movement of the movable part 3032 for guidance, and at the same time, the fixed frame 3034 can realize the longitudinal movement on the surface of the movable part 3032 through the setting of the slide rail 3035 and the slide groove 3036, and during the lateral movement of the movable part 3032, the synchronous lateral movement of the fixed frame 3034 and the movable part 3032 is still realized through the setting of the slide rail 3035 and the slide groove 3036, and the movement of the fixed frame 3034 will drive the clamping plate 3037 and the movable shell 3011 to move. During the lateral movement of the moving shell 3011, the connecting rod 3 3063 will be driven to move synchronously, wherein the movement of the rotating gear 2 3062 will be realized by meshing with the rack 2 3061, and the rotating gear 2 3062 will drive the connecting rod 3 3063 and the bevel gear 5 3064 to rotate, and the bevel gear 5 3064 will drive the bevel gear 6 3065 and the rotating rod 3012 to rotate synchronously. Thus, the rotating rod 3012 can rotate while moving horizontally, so as to break up and evenly turn over the silicon mud. This setting can effectively improve the drying efficiency of the silicon mud and shorten the drying time. In addition, the use cost of the breaking piece 3013 for the uniform effect of the silicon mud will be reduced during the use of the rack 1 3051 and the rack 2 3061, which brings convenience to the drying of the silicon mud.

[0070] This specific embodiment is merely an explanation of the present invention and is not a limitation of the present invention. After reading this specification, those skilled in the art may make non-creative modifications to the present embodiment as needed. However, as long as they are within the scope of the claims of the present invention, they are protected by the patent law.

Claims

1. A large-scale circulating drying device for drying silicon mud, comprising a drying mechanism (1), characterized in that: The drying mechanism (1) comprises an outer shell (101), an inner frame (109) is fixedly installed inside the outer shell (101), a partition (1013) located at the bottom of the inner frame (109) is fixedly installed inside the outer shell (101), a transmission mechanism (2) is arranged inside the outer shell (101), the transmission mechanism (2) comprises a transmission component (201) and a linkage component (202), the linkage component (202) comprises a rotating motor (2021), a uniform mechanism (3) is arranged inside the outer shell (101), the uniform mechanism (3) comprises a scattering component (301), a moving component 1 (302), a moving component 2 (303), a driving component (304), a rotating component 1 (305) and a rotating component 2 (306), and the driving component (304) comprises a dual-axis motor (3041).

2. A large-scale circulating drying equipment for drying silicon mud according to claim 1, characterized in that: A maintenance plate (102) is bolted to one side of the outer shell (101), a shell (103) is fixedly installed on the top of the outer shell (101), a door body (104) is provided on one side of the outer shell (101), and limit blocks (105) fixedly connected to the outer shell (101) are clamped on both sides of the door body (104), an air outlet (107) and an air inlet (106) are respectively provided on the top of the outer shell (101), and a dust filter screen (108) bolted to the outer shell (101) is provided on the top of the air inlet (106), a fan (1010) is fixedly installed on the inner side of the inner frame (109), a heating wire (1011) is fixedly installed on the bottom of the inner frame (109), and a ventilation hole (1012) located at the bottom of the heating wire (1011) is provided at the bottom of the inner frame (109).

3. A large-scale silicon mud drying circulating drying equipment according to claim 2, characterized in that: The transmission component (201) comprises an active roller (2011) and a driven roller (2012), wherein the active roller (2011) and the driven roller (2012) are rotatably connected to the housing (101) via bearings, and the surfaces of the active roller (2011) and the driven roller (2012) are connected to each other via a conveyor belt (2013) in a transmission manner, and both sides of the surface of the conveyor belt (2013) are fixedly bonded with an outer ring (2014), and the outer ring (2014) is made of a soft material, and a rear plate (2015) is fixedly installed at one end of the top of the conveyor belt (2013), and a front plate (2016) is provided at the other end of the top of the conveyor belt (2013), and a connecting plate (2017) fixedly connected to the door body (104) is fixedly installed at the top of the front plate (2016).

4. A large-scale silicon mud drying circulating drying equipment according to claim 2, characterized in that: The rotary motor (2021) is fixedly connected to the inner side of the housing (103); the output end of the rotary motor (2021) is fixedly sleeved with a driving rod (2022) via a coupling; the surface of the driving rod (2022) is fixedly sleeved with a linkage gear (2023); both sides of the linkage gear (2023) are meshed with linkage gears (2024); the interiors of the two linkage gears (2024) are fixedly sleeved with a rod body (2025) rotatably connected to the housing (103); one end of the rod body (2025) is fixedly sleeved with a half gear (2026); the surfaces of the two half gears (2026) are respectively meshed with a meshing gear (2027) and a meshing gear (2028); the interior of the meshing gear (2027) is fixedly sleeved with a rod body (2025) rotatably connected to the housing (103); 9), one end of the rod body 2 (2029) and the active roller (2011) respectively penetrates through the shell (103) and one side of the outer shell (101) and is fixedly sleeved with a synchronous wheel 1 (20211), and the two synchronous wheels 1 (20211) are mutually connected by a synchronous belt 1 (20212), the inside of the meshing gear 2 (2028) is fixedly sleeved with a rod body 3 (20210), both ends of the surface of the rod body 3 (20210) are connected with ropes (20216), and both sides of the rope (20216) are provided with limiting rings (20213) fixedly sleeved with the rod body 3 (20210), the surface of the rope (20216) contacts with a guide roller (20214) fixedly connected to one end of the outer shell (101), and one end of the rope (20216) is connected to a ring body (20215) fixedly connected to the door body (104).

5. A large-scale circulating drying equipment for drying silicon mud according to claim 3, characterized in that: The dispersing assembly (301) comprises a movable shell (3011), wherein the movable shell (3011) is located on the top of the conveyor belt (2013), and the inner side of the movable shell (3011) is rotatably connected to a rotating rod (3012) via a bearing, and a dispersing piece (3013) is fixedly mounted on the surface of the rotating rod (3012).

6. A large-scale circulating drying equipment for drying silicon mud according to claim 5, characterized in that: The moving component (302) comprises a twisted shaft (3021), the top and bottom of the twisted shaft (3021) are rotatably connected to a top plate (3022) and a bottom plate (3023) fixedly connected to the housing (101) via bearings, the top of the twisted shaft (3021) is fixedly sleeved with a bevel gear (3024), the surface of the twisted shaft (3021) is sleeved with a moving part (3025), and the inner side of the moving part (3025) is fixedly installed with a A clamping member (3026) is clamped with a twisted shaft (3021); a guide rod (3027) penetrating a moving member (3025) is fixedly installed between the top plate (3022) and the bottom plate (3023); the guide rod (3027) and the moving member (3025) are slidably connected to each other; a clamping plate (3028) is fixedly installed on one side of the moving member (3025); and a clamping protrusion (3029) is fixedly installed on the top of the clamping plate (3028).

7. A large-scale circulating drying equipment for drying silicon mud according to claim 6, characterized in that: The second moving component (303) comprises a second twisted shaft (3031), the surface of the second twisted shaft (3031) is sleeved with a second moving part (3032), the inner side of the second moving part (3032) is fixedly installed with a second clamping part (3033) clamped with the second twisted shaft (3031), the top of the moving shell (3011) is fixedly installed with a fixed frame (3034) penetrating to the bottom of the partition (1013), the inner sides of the fixed frame (3034) are fixedly installed with slide rails (3035), and the two sides of the second moving part (3032) are provided with matching slide rails (3035). 35) a slide groove (3036) for sliding, a second clamping plate (3037) located on the top of the first clamping plate (3028) is fixedly installed on one side of the fixed frame (3034), a clamping groove (3038) used to cooperate with the clamping protrusion (3029) is opened at the bottom of the second clamping plate (3037), and both sides of the second twisted shaft (3031) are provided with a second guide rod (3039) fixedly connected to the bottom plate (3023) and the shell (101), and the second guide rod (3039) passes through the second moving part (3032) and is slidably connected to the second moving part (3032).

8. A large-scale circulating drying equipment for drying silicon mud according to claim 7, characterized in that: The dual-axis motor (3041) is located inside the inner frame (109) and is fixedly connected to the inner side of the outer shell (101); the output ends of the dual-axis motor (3041) are fixedly sleeved with the second driving rod (3042) through a coupling; both ends of the surface of the second driving rod (3042) are rotatably connected with a rotating collar (3043) through bearings; one end of the rotating collar (3043) located at one end of the second driving rod (3042) is fixedly connected with the second bevel gear (3049) meshing with the first bevel gear (3024); one end of the rotating collar (3043) located at the other end of the second driving rod (3042) and the surface of the second twisted shaft (3031) are fixedly connected with the second synchronous gear (30410); one end of the rotating collar (3043) is fixedly installed with an internal gear (3044) sleeved on the surface of the second driving rod (3042) A movable sleeve (3045) is provided on one side of the inner gear (3044) and is sleeved on the surface of the second driving rod (3042); a snap-in strip (3046) is fixedly installed on the surface of the second driving rod (3042); a snap-in groove (3047) used in conjunction with the snap-in strip (3046) is provided on the inner side of the movable sleeve (3045); an outer gear (3048) meshing with the inner gear (3044) is fixedly sleeved on the surface of the movable sleeve (3045); a synchronous belt (30411) is connected to each other on the surfaces of the two synchronous wheels (30410); a sleeve plate (30412) rotatably sleeved on the movable sleeve (3045) is provided on one side of the second driving rod (3042); an electric telescopic rod (30413) fixedly connected to the inner frame (109) is fixedly installed on one side of the sleeve plate (30412).

9. A large-scale circulating drying equipment for drying silicon mud according to claim 5, characterized in that: The rotating assembly 1 (305) includes a rack 1 (3051), the rack 1 (3051) is fixedly connected to the inner side of the housing (101), the surface of the rack 1 (3051) is meshed with a rotating gear 1 (3052), the interior of the rotating gear 1 (3052) is fixedly sleeved with a connecting rod 1 (3053), one end of the connecting rod 1 (3053) is fixedly sleeved with a bevel gear 3 (3054), the surface of the bevel gear 3 (3054) is meshed with a bevel gear 4 ( 3055), the interior of the bevel gear four (3055) is fixedly sleeved with a connecting rod two (3056), the surfaces of the connecting rod one (3053) and the connecting rod two (3056) are both rotatably sleeved with a fixing piece (3057) fixedly connected to the moving shell (3011), one end of the connecting rod two (3056) and the rotating rod (3012) are both fixedly sleeved with a synchronous wheel three (3058), and the surfaces of the two synchronous wheels three (3058) are mutually transmission-connected with a synchronous belt three (3059).

10. A large-scale circulating drying equipment for drying silicon mud according to claim 9, characterized in that: The rotating component 2 (306) includes a rack 2 (3061), and the rack 2 (3061) is fixedly connected to the inner side of the outer shell (101); the surface of the rack 2 (3061) is meshed with a rotating gear 2 (3062); the interior of the rotating gear 2 (3062) is fixedly sleeved with a connecting rod 3 (3063) that is rotatably connected to the movable shell (3011); the bottom of the connecting rod 3 (3063) is fixedly sleeved with a bevel gear 5 (3064); the surface of the bevel gear 5 (3064) is meshed with a bevel gear 6 (3065) that is fixedly sleeved with the other end of the rotating rod (3012).

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