Automatic quantitative discharging equipment for silicon sludge drying

Abstract

The automatic quantitative discharging equipment for silicon sludge drying is applied to the technical field of silicon sludge drying and discharging and comprises a shell mechanism, the shell mechanism comprises a shell, the top of the shell communicates with a feeding pipe, a feeding opening is fixedly formed in the top of the feeding pipe, a discharging pipe is fixedly installed on one side of the shell, and a discharging opening is formed in the other side of the shell; when the automatic quantitative discharging equipment for drying the silicon sludge is used, an operator puts the silicon sludge into the shell mechanism and operates the quantitative assembly, at the moment, the pipe body assembly is driven to achieve butt-joint discharging of the silicon sludge, low-cost quantitative discharging of the silicon sludge can be achieved through the arrangement, the discharging process is intermittent, and the discharging efficiency is improved. The quantitative feeding device is simple in structure, the dependence of an existing quantitative mechanism on a control system is distinguished, inconvenience caused by high-cost use at present is replaced, and meanwhile subsequent maintenance is easy and convenient.

Description

Technical Field

[0001] The invention belongs to the technical field of silicon mud drying and unloading, and in particular relates to automatic quantitative unloading equipment 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] At present, a drying step is required in the processing of silicon mud. After drying, a quantitative feeding mechanism is usually used to feed the silicon mud quantitatively and evenly. However, the current quantitative feeding mechanism is usually complex in structure and needs to be matched with a weighing structure and a control system, which is not convenient for low-cost use. The quantitative feeding mechanism with a simple structure is not convenient for adjusting the feeding amount according to the use requirements. This makes the separation quantitative effect poor and mostly dependent on the control mechanism. This structure cooperates with the weighing structure and the control system to realize the quantitative feeding of silicon mud, which is not only costly to use, but also cumbersome and inconvenient in subsequent maintenance. Summary of the invention

[0004] The purpose of the present invention is to provide an automatic quantitative feeding device for silicon mud drying, which has the advantages of realizing low-cost quantitative feeding of silicon mud, simple structure, different from the existing quantitative mechanism's dependence on the control system, and replacing the inconvenience of the current high cost use, while also having the convenience of simple and easy subsequent maintenance; easy operation, different from the existing high cost of relying on the weighing system to adjust the feeding volume.

[0005] The above technical objectives of the present invention are achieved through the following technical solutions: an automatic quantitative feeding equipment for silicon mud drying, including a shell mechanism, the shell mechanism includes an outer shell, the top of the outer shell is connected to a feed pipe, the top of the feed pipe is fixedly installed with a feed opening, one side of the outer shell is fixedly installed with a discharge pipe, the bottom of the outer shell is fixedly installed with a support leg, the interior of the outer shell is provided with a channel connected to the discharge pipe, the inner side of the outer shell is provided with a shell mechanism, the shell mechanism includes a tube body assembly and a quantitative assembly, and the bottom of the tube body assembly is provided with a moving assembly and a clamping assembly.

[0006] By adopting the above technical scheme, when the automatic quantitative feeding equipment for silicon mud drying is used, the operator puts the silicon mud into the shell mechanism and runs the quantitative component, which will drive the tube body component to realize the docking and feeding of the silicon mud. Through this setting, low-cost quantitative feeding of silicon mud can be realized, and the feeding process is intermittent, which can meet the interval requirements of feeding, wherein the structure is simple, which distinguishes the dependence of the existing quantitative mechanism on the control system, and replaces the inconvenience of the current high-cost use, and also has the convenience of simple and easy subsequent maintenance. And in the use of the automatic quantitative feeding equipment for silicon mud drying, the operator will drive the mobile component to realize the volume change of silicon mud quantitative feeding by adjusting the clamping component. The mechanism is easy to operate and has a simple structure. In the case of inconvenience in observing the inside of the shell mechanism, the setting of the clamping component is convenient to understand the adjustment of the tube body component according to the sound of clicking, increase the use security, and distinguish the high cost of relying on the weighing system when adjusting the volume of the existing material.

[0007] The present invention is further configured as follows: the tube body assembly includes a top plate, a bottom plate is provided at the bottom of the top plate, both sides of the bottom of the top plate are connected with through pipe 1, both sides of the bottom of the bottom of the bottom plate are connected with through pipe 2 which is sleeved on the surface of through pipe 1, and baffles are provided at the bottoms of the two through pipes 2.

[0008] With the above technical solution, the rotation of the top plate and the bottom plate will drive the through pipe 1 and the through pipe 2 to rotate synchronously, wherein when the through pipe 1 is rotating, when the through pipe 1 moves to the bottom of the feed pipe, the silicon mud in the feed pipe will pass through the through pipe 1 to the inside of the through pipe 2, and the baffle will seal and store the silicon mud in the through pipe 2. When the through pipe 1 is rotating and the connection with the bottom of the feed pipe is cancelled, the top plate will contact the bottom of the feed pipe and temporarily seal the silicon mud in the feed pipe.

[0009] The present invention is further configured as follows: a connecting block is fixedly installed on one side of the baffle, a mounting block 1 is fixedly installed on the top of the connecting block, the inner side of the mounting block 1 is rotatably connected to a mounting block 2 via a rotating shaft, and the mounting block 2 is fixedly connected to the surface of the through pipe 2.

[0010] By adopting the above technical solution, the connecting block is installed in conjunction with the baffle plate. When the mounting block 1 and the mounting block 2 are used, it is convenient to adjust the angle between the baffle plate and the through pipe 2, thereby facilitating the discharge and flow of silicon mud in the through pipe 2 by the baffle plate.

[0011] The present invention is further configured as follows: the quantitative component includes a rotary motor, 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 rod body 1 through a coupling, the surface of the rod body 1 is fixedly sleeved with a half gear, the surface of the half gear is meshed with a gear 1, and the interior of the gear 1 is fixedly sleeved with a rod body 2.

[0012] By adopting the above technical solution, the operation of the rotating motor will drive the rod body 1 to rotate, wherein the rotation of the rod body 1 will drive the half gear to rotate synchronously, and the half gear will drive the gear 1 to realize intermittent rotation through tooth meshing, and the gear 1 will drive the rod body 2 to rotate.

[0013] The present invention is further configured as follows: the top of the second rod body passes through the bottom plate and is fixedly connected to the bottom of the top plate, a sleeve rod is sleeved on the surface of the second rod body, the sleeve ring and the bottom plate are rotatably connected to each other through a bearing, a sliding groove is provided on the surface of the sleeve rod, a sliding block slidably connected to the sliding groove is fixedly installed on one side of the connecting block, a clamping strip is fixedly installed on the surface of the second rod body, and a clamping groove for cooperating with the clamping strip is provided on the inner side of the bottom plate.

[0014] By adopting the above technical solution, the rod sleeve on the surface will not be affected during the rotation of the rod body 2. At the same time, when the bottom plate and the top plate rotate, and when the baffle plate and the connecting block rotate, and the rod sleeve angle remains unchanged, the slider will slide inside the slide groove, and the slide groove has an upward arc in the direction close to the discharge pipe, so that when the slider slides to this area, it will move longitudinally and change the angle of the baffle plate in cooperation with the mounting block 1 and the mounting block 2. At the same time, through the setting of the clamping strip and the clamping groove, the synchronous rotation between the bottom plate and the rod body 2 will be realized, and the movement of the bottom plate on the surface of the rod body 2 can be realized, and the coordinated use between the bottom plate and the rod body is guaranteed.

[0015] The present invention is further configured as follows: the moving component includes a socket plate, the socket plate is socketed on the surface of the sleeve rod and fixedly connected to the sleeve rod, a support member 1 is fixedly installed on one end of the socket plate, a support member 2 fixedly connected to the inner side of the outer shell is provided on one side of the support member 1, a rack is fixedly installed on the inner side of the support member 1, a gear 2 is meshed on the surface of the rack, and a rod body 3 rotatably connected to the support member 2 is fixedly socketed inside the gear 2.

[0016] With the above technical solution, the rotation of the rod body 3 will drive the gear 2 to rotate, thereby realizing the movement and meshing of the rack, and the rack will drive the support member 1 to move synchronously during the movement. The movement of the support member 1 and the sleeve plate will drive the sleeve rod to move.

[0017] The present invention is further configured as follows: one end of the rod body three passes through the support member two to the outside of the shell and is fixedly installed with a rocker; the top and bottom of the inner side of the support member two are fixedly installed with a fixing plate one; the top and bottom of the two fixing plates one are fixedly installed with a guide rod; both ends of one side of the support member one are fixedly installed with a fixing plate two sleeved on the surface of the guide rod; the fixing plate two and the guide rod are slidably connected to each other.

[0018] By adopting the above technical solution, the rotation of the rocker wheel will realize the rotation of the rod body three, and the movement of the support member one will be guided by the setting of the fixed plate two and the guide rod. At the same time, the fixed plate one cooperates with the guide rod for support and fixation, and during the longitudinal movement of the sleeve rod, it will be able to drive the bottom plate to move synchronously.

[0019] The present invention is further configured as follows: the clamping assembly includes a ratchet wheel 1 and a ratchet wheel 2, the inside of the ratchet wheel 1 and the ratchet wheel 2 are fixedly sleeved with a ratchet outer ring, the inner side of the ratchet outer ring is bitten with a ratchet inner ring, the ratchet inner ring and the rod body 3 are fixedly sleeved with each other, and one side of the ratchet wheel 1 and the ratchet wheel 2 are respectively clamped with a ratchet block 1 and a ratchet block 2.

[0020] With the above technical solution, the outer ratchet ring and the inner ratchet ring on the inner side of ratchet wheel 1 and ratchet wheel 2 are symmetrically arranged, wherein when rod body 3 realizes clockwise rotation, the inner ratchet ring and the outer ratchet ring on the inner side of ratchet wheel 1 are in a state of mutual engagement, so that the inner ratchet ring and the outer ratchet ring can realize transmission, on the contrary, the inner ratchet ring and the outer ratchet ring on the inner side of ratchet wheel 2 are in a state of non-interference, and the rotation of ratchet wheel 2 will not be caused at this time. During the clockwise rotation of ratchet wheel 1, ratchet block 1 rests on the ratchet teeth of ratchet wheel 1 and makes a clicking sound. During the counterclockwise rotation of rod body 3, the principle is opposite to that above, and the rotation of ratchet wheel 2 and the clamping movement of ratchet block 2 are realized.

[0021] The present invention is further configured as follows: the insides of the ratchet block 1 and the ratchet block 2 are respectively fixedly sleeved with an inner rod 1 and an inner rod 2, the inner rod 1 and the inner rod 2 are both rotatably connected to the support member 2, the surface of the inner rod 1 is fixedly sleeved with a torsion spring 1 fixedly connected to the support member 2, and the surface of the inner rod 2 is fixedly sleeved with a torsion spring 2 fixedly connected to the support member 2.

[0022] By adopting the above technical solution, the movement change of ratchet block 1 and ratchet block 2 caused by the ratchet engagement is carried out around the center of inner rod 1 and inner rod 2 respectively, and the torsion spring 1 and torsion spring 2 cooperate to move the ratchet block 1 and the ratchet block 2 back to the initial position.

[0023] In summary, the present invention has the following beneficial effects:

[0024] 1. When using the automatic quantitative feeding equipment for drying silicon mud, the operator puts the silicon mud into the shell mechanism and runs the quantitative component, which will drive the pipe body component to achieve the docking and feeding of the silicon mud. Through this setting, low-cost quantitative feeding of silicon mud can be achieved, and the feeding process is intermittent, which can meet the interval requirements of feeding. The structure is simple, which distinguishes the existing quantitative mechanism from the dependence on the control system, and replaces the inconvenience of the current high cost use. At the same time, there is also the convenience of simple and easy subsequent maintenance;

[0025] 2. In the use of the automatic quantitative feeding equipment for silicon mud drying, the operator will drive the moving component to achieve the volume change of silicon mud quantitative feeding by adjusting the clamping component. The mechanism is easy to operate and has a simple structure. In the case of inconvenient observation of the inside of the shell mechanism, the setting of the clamping component can facilitate the understanding of the adjustment of the tube body component according to the clicking sound, thereby increasing the security of use and distinguishing the existing high cost of adjusting the feeding volume by relying on the weighing system. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;

[0027] Figure 2 is a schematic cross-sectional view of a housing of the present invention;

[0028] Figure 3 It is a schematic diagram of the feeding pipe and the feeding mechanism of the present invention;

[0029] Figure 4 It is an enlarged cross-sectional schematic diagram of the feed pipe and the feed discharging mechanism of the present invention;

[0030] Figure 5 It is an enlarged schematic diagram of the material discharging mechanism of the present invention;

[0031] Figure 6 It is an exploded and enlarged schematic diagram of the tube body component and the quantitative component of the present invention;

[0032] Figure 7 It is an exploded and enlarged schematic diagram of the quantitative component and the moving component of the present invention;

[0033] Figure 8 It is an enlarged schematic diagram of the moving assembly and the card-connecting assembly of the present invention;

[0034] Fig. 9 It is an exploded and enlarged schematic diagram of the moving assembly and the clamping assembly of the present invention;

[0035] Fig.10 It is an exploded and enlarged schematic diagram of the clamping assembly of the present invention;

[0036] Fig.11 It is an enlarged schematic diagram of the ratchet inner ring and the ratchet outer ring of the present invention.

[0037] Reference numerals:

[0038] 1. Shell mechanism; 101. Shell; 102. Feed pipe; 103. Feed opening; 104. Discharge pipe; 105. Leg; 106. Channel;

[0039] 2. Feeding mechanism; 201. Tube assembly; 2011. Top plate; 2012. Bottom plate; 2013. Through pipe 1; 2014. Through pipe 2; 2015. Baffle; 2016. Connecting block; 2017. Mounting block 1; 2018. Mounting block 2; 202. Dosing assembly; 2021. Rotating motor; 2022. Rod 1; 2023. Half gear; 2024. Gear 1; 2025. Rod 2; 2026. Sleeve rod; 2027. Slide; 2028. Slider; 2029. Snap-on strip; 20210. Snap-on groove; 203. Moving assembly; 20 31. socket plate; 2032. support member 1; 2033. rack; 2034. gear 2; 2035. rod body 3; 2036. rocker; 2037. fixed plate 1; 2038. guide rod; 2039. fixed plate 2; 20310. support member 2; 204. snap-fit ​​assembly; 2041. ratchet wheel 1; 2042. ratchet wheel 2; 2043. ratchet inner ring; 2044. ratchet outer ring; 2045. ratchet block 1; 2046. ratchet block 2; 2047. inner rod 1; 2048. inner rod 2; 2049. torsion spring 1; 20410. torsion spring 2. DETAILED DESCRIPTION

[0040] The present invention is further described in detail below in conjunction with the accompanying drawings.

[0041] Embodiment 1:

[0042] refer to Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 An automatic quantitative feeding device for silicon mud drying comprises a shell mechanism 1, the shell mechanism 1 comprises a shell 101, the top of the shell 101 is connected with a feed pipe 102, the top of the feed pipe 102 is fixedly installed with a feed opening 103, one side of the shell 101 is fixedly installed with a discharge pipe 104, the bottom of the shell 101 is fixedly installed with a support leg 105, the inside of the shell 101 is provided with a channel 106 connected with the discharge pipe 104, the inner side of the shell 101 is provided with a shell mechanism 1, the shell mechanism 1 comprises a tube body assembly 201 and a quantitative Component 202, when using the automatic quantitative feeding equipment for drying silicon mud, the operator puts the silicon mud into the shell mechanism 1 and runs the quantitative component 202, which will drive the tube body component 201 to realize the docking and feeding of the silicon mud. Through this setting, low-cost quantitative feeding of silicon mud can be achieved, and the feeding process is intermittent, which can meet the interval requirements of feeding. The structure is simple, which distinguishes the existing quantitative mechanism from the dependence on the control system, and replaces the inconvenience of the current high cost use. At the same time, there is also the convenience of simple and easy subsequent maintenance.

[0043] refer to Figure 1 , Figure 2 , Figure 3 The tube body assembly 201 includes a top plate 2011, a bottom plate 2012 is provided at the bottom of the top plate 2011, both sides of the bottom of the top plate 2011 are connected with a through pipe 1 2013, both sides of the bottom of the bottom plate 2012 are connected with a through pipe 2 2014 sleeved on the surface of the through pipe 1 2013, and baffles 2015 are provided at the bottom of the two through pipes 2014. The rotation of the top plate 2011 and the bottom plate 2012 will respectively drive the through pipe 1 2013 and the through pipe 2 2014 to rotate synchronously. During the rotation of the through pipe 1 2013, when the through pipe 1 2013 moves to the bottom of the feed pipe 102, the silicon mud in the feed pipe 102 will pass through the through pipe 1 2013 to the inside of the through pipe 2 2014, and the baffle 2015 seals and stores the silicon mud in the through pipe 2 2014. When the through pipe 2013 is rotating and the connection with the bottom of the feed pipe 102 is cancelled, the top plate 2011 will contact the bottom of the feed pipe 102 and temporarily seal the silicon mud in the feed pipe 102.

[0044] refer to Figure 4 , Figure 5 , Figure 6 A connecting block 2016 is fixedly installed on one side of the baffle 2015, a mounting block 1 2017 is fixedly installed on the top of the connecting block 2016, and a mounting block 2018 is rotatably connected to the inner side of the mounting block 1 2017 through a rotating shaft. The mounting block 2018 and the surface of the through pipe 2 2014 are fixedly connected to each other, and the connecting block 2016 is installed in conjunction with the baffle 2015. In the use of the mounting block 1 2017 and the mounting block 2 2018, it is convenient to adjust the angle between the baffle 2015 and the through pipe 2 2014, thereby facilitating the discharge and circulation of silicon mud in the through pipe 2 2014 by the baffle 2015.

[0045] refer to Figure 4 , Figure 5 , Figure 7 The quantitative component 202 includes a rotary motor 2021, which is fixedly connected to the inner side of the housing 101. The output end of the rotary motor 2021 is fixedly sleeved with a rod body 2022 through a coupling. A half gear 2023 is fixedly sleeved on the surface of the rod body 2022. A gear 1 2024 is meshed on the surface of the half gear 2023. A rod body 2025 is fixedly sleeved inside the gear 1 2024. The operation of the rotary motor 2021 will drive the rod body 1 2022 to rotate, wherein the rotation of the rod body 1 2022 will drive the half gear 2023 to rotate synchronously. The half gear 2023 will drive the gear 1 2024 to realize intermittent rotation through tooth meshing, and the gear 1 2024 drives the rod body 2 2025 to rotate.

[0046] refer to Figure 4 , Figure 5 , Figure 6 The top of the second rod body 2025 passes through the bottom plate 2012 and is fixedly connected to the bottom of the top plate 2011. The surface of the second rod body 2025 is sleeved with a sleeve rod 2026. The sleeve ring and the bottom plate 2012 are rotatably connected to each other through a bearing. The surface of the sleeve rod 2026 is provided with a slide groove 2027. A slider 2028 slidably connected to the slide groove 2027 is fixedly installed on one side of the connecting block 2016. A clamping strip 2029 is fixedly installed on the surface of the second rod body 2025. A clamping groove 20210 used for clamping with the clamping strip 2029 is provided on the inner side of the bottom plate 2012. 025, will not affect the sleeve rod 2026 on its surface, while the bottom plate 2012 and the top plate 2011 rotate, and the baffle plate 2015 and the connecting block 2016 rotate, while the sleeve rod 2026 angle remains unchanged, the slider 2028 will slide inside the slide groove 2027, and the slide groove 2027 has an upward arc in the direction close to the discharge pipe 104, so that when the slider 2028 slides to this area, it will move longitudinally and cooperate with the mounting block 1 2017 and the mounting block 2 2018 to achieve the angle change of the baffle plate 2015. At the same time, through the setting of the clamping strip 2029 and the clamping groove 20210, the synchronous rotation between the bottom plate 2012 and the rod body 2025 can be achieved, and the movement of the bottom plate 2012 on the surface of the rod body 2025 can be achieved, and the coordination between the bottom plate 2012 and the rod body is guaranteed.

[0047] Brief description of the use process: When using the automatic quantitative feeding device for drying silicon mud, the operator puts the silicon mud into the feeding opening 103, and then the silicon mud will enter the feeding pipe 102. Then the rotating motor 2021 is operated to drive the rod body 1 2022 to rotate, wherein the rotation of the rod body 1 2022 will drive the half gear 2023 to rotate synchronously, and the half gear 2023 will drive the gear 1 2024 to achieve intermittent rotation through tooth meshing, and the gear 1 2024 drives the rod body 2 2025 to rotate. During the rotation of the rod body 2025, it will not affect the sleeve rod 2026 on its surface, and can drive the top plate 2011 and the bottom plate 2012 to rotate synchronously. The rotation of the top plate 2011 and the bottom plate 2012 will respectively drive the through pipe 1 2013 and the through pipe 2 2014 to rotate synchronously, wherein during the rotation of the through pipe 1 2013, when the through pipe 1 2013 moves to the right below the feed pipe 102, the silicon mud in the feed pipe 102 will pass through the through pipe 1 2013 to the inside of the through pipe 2 2014, and the baffle 2015 will seal and store the silicon mud in the through pipe 2 2014. When the through pipe 1 2013 is rotating and the connection with the bottom of the feed pipe 102 is cancelled, the top plate 2011 will contact the bottom of the feed pipe 102 and temporarily seal the silicon mud in the feed pipe 102. During the continuous rotation of the bottom plate 2012 and the top plate 2011, during the rotation of the baffle plate 2015 and the connecting block 2016, when the angle of the sleeve rod 2026 remains unchanged, the slider 2028 will slide inside the chute 2027, and the chute 2027 has an upward arc in the direction close to the discharge pipe 104, so that when the slider 2028 slides to this area, there will be a longitudinal movement change, wherein the use of the mounting block 1 2017 and the mounting block 2 2018 will facilitate the angle adjustment between the baffle plate 2015 and the through pipe 2 2014, at this time, the rotating baffle plate 2015 is located in the direction of the discharge pipe 104, so as to facilitate the baffle plate 2015 to discharge the silicon mud in the through pipe 2 2014. The silicon mud in the discharge will come to the discharge pipe 104 through the channel 106, and the silicon mud discharge link is realized. This arrangement can realize low-cost quantitative feeding of silicon mud, and the feeding process is intermittent, which can meet the interval requirements of feeding. The structure is simple, which is different from the existing quantitative mechanism's dependence on the control system and replaces the inconvenience of the current high cost use. At the same time, it also has the convenience of simple and easy subsequent maintenance.

[0048] Embodiment 2:

[0049] refer to Figure 1 , Figure 2 , Figure 4 , Figure 5 , Figure 7 , Figure 8 , Fig. 9 , Fig.10 , Fig.11, an automatic quantitative feeding device for silicon mud drying, comprising a shell mechanism 1, a moving component 203 and a clamping component 204 are arranged at the bottom of a tube body component 201, and in the use of the automatic quantitative feeding device for silicon mud drying, the operator adjusts the clamping component 204 to drive the moving component 203 to achieve volume changes of silicon mud quantitative feeding. The mechanism is easy to operate and has a simple structure. In the case where it is not convenient to observe the inside of the shell mechanism 1, the setting of the clamping component 204 makes it easy to understand the adjustment of the tube body component 201 according to the clicking sound, thereby increasing the security of use and distinguishing the high cost of the existing adjustment of the feeding volume by relying on the weighing system.

[0050] refer to Figure 7 , Figure 8 , Fig. 9 The moving component 203 includes a socket plate 2031, which is socketed on the surface of the sleeve rod 2026 and fixedly connected with the sleeve rod 2026. A support member 2032 is fixedly installed on one end of the socket plate 2031. A support member 20310 fixedly connected to the inner side of the shell 101 is provided on one side of the support member 2032. A rack 2033 is fixedly installed on the inner side of the support member 2032. A gear 2034 is meshed on the surface of the rack 2033. A rod body 3 2035 rotatably connected to the support member 2 20310 is fixedly socketed inside the gear 2034. When the rod body 3 2035 rotates, the gear 2 2034 will be driven to rotate, thereby realizing the movement and meshing of the rack 2033. The rack 2033 will drive the support member 1 2032 to move synchronously during the movement. The movement of the supporting member 2032 and the sleeve plate 2031 will drive the sleeve rod 2026 to move.

[0051] refer to Figure 8 , Fig. 9 , Fig.10 One end of the rod body three 2035 passes through the support piece two 20310 to the outside of the shell 101 and is fixedly installed with a rocking wheel 2036. The top and bottom of the inner side of the support piece two 20310 are fixedly installed with a fixing plate one 2037. The top and bottom of the two fixing plates one 2037 are fixedly installed with a guide rod 2038. Both ends of one side of the support piece one 2032 are fixedly installed with a fixing plate two 2039 sleeved on the surface of the guide rod 2038. The fixing plate two 2039 and the guide rod 2038 are slidably connected to each other. The rotation of the rocking wheel 2036 will realize the rotation of the rod body three 2035. The movement of the support piece one 2032 will be guided by the setting of the fixing plate two 2039 and the guide rod 2038. At the same time, the fixing plate one 2037 cooperates with the guide rod 2038 for support and fixation, and during the longitudinal movement of the sleeve rod 2026, it will be able to drive the bottom plate 2012 to move synchronously.

[0052] refer to Fig. 9 , Fig.10, Fig.11 The clamping assembly 204 includes a ratchet wheel 1 2041 and a ratchet wheel 2042. The ratchet wheels 1 2041 and 2042 are both fixedly sleeved with a ratchet outer ring 2044. The inner side of the ratchet outer ring 2044 is engaged with a ratchet inner ring 2043. The ratchet inner ring 2043 and the rod body 3 2035 are fixedly sleeved with each other. One side of the ratchet wheel 1 2041 and the ratchet wheel 2 2042 are respectively clamped with a ratchet block 1 2045 and a ratchet block 2 2046. The ratchet wheel 1 2041 and the ratchet wheel 2 204 The outer ratchet ring 2044 and the inner ratchet ring 2043 on the inner side of the rod body 2035 are symmetrically arranged. When the rod body 3 2035 rotates clockwise, the inner ratchet ring 2043 and the outer ratchet ring 2044 on the inner side of the ratchet wheel 1 2041 are in a state of mutual engagement, so that the inner ratchet ring 2043 and the outer ratchet ring 2044 can achieve transmission. On the contrary, the inner ratchet ring 2043 and the outer ratchet ring 2044 on the inner side of the ratchet wheel 2042 are in a state of non-interference with each other, and the rotation of the ratchet wheel 2042 will not be caused at this time. When the ratchet wheel 1 2041 rotates clockwise, the ratchet block 1 2045 rests on the ratchet teeth of the ratchet wheel 1 2041 and makes a clicking sound. When the rod body 3 2035 rotates counterclockwise, the principle is opposite to the above, and the rotation of the ratchet wheel 2 2042 and the clamping movement of the ratchet block 2 2046 are achieved.

[0053] refer to Figure 8 , Fig. 9 , Fig.10 The ratchet block 1 2045 and the ratchet block 2046 are respectively fixedly sleeved with an inner rod 1 2047 and an inner rod 2 2048, and the inner rod 1 2047 and the inner rod 2 2048 are rotatably connected to each other with the support member 2 20310. The surface of the inner rod 1 2047 is fixedly sleeved with a torsion spring 1 2049 fixedly connected to the support member 2 20310, and the surface of the inner rod 2 2048 is fixedly sleeved with a torsion spring 2 20410 fixedly connected to the support member 2 20310. In the movement change caused by the ratchet block 1 2045 and the ratchet block 2 2046 being engaged with the ratchet, the movement is carried out around the center of the inner rod 1 2047 and the inner rod 2 2048, respectively, and the torsion spring 1 2049 and the torsion spring 2 20410 cooperate to move the ratchet block 1 2045 and the ratchet block 2 2046 back to their initial positions.

[0054] Brief description of the use process: In the use of the automatic quantitative feeding equipment for silicon mud drying, when the feeding volume of silicon mud needs to be adjusted, the operator rotates the rocker 2036, and the rotation of the rocker 2036 will realize the rotation of the rod body 3 2035. The rotation of the rod body 3 2035 will drive the gear 2 2034 to rotate, thereby realizing the movement and engagement of the rack 2033, and the rack 2033 will drive the support member 1 2032 to move synchronously during the movement. The movement of the support member 1 2032 and the sleeve plate 2031 will drive the sleeve rod 2026 to move. The movement of the support member 1 2032 will be guided by the setting of the fixed plate 2 2039 and the guide rod 2038, and the fixed plate 1 2037 cooperates with the guide rod 2038 to support and fix. During the longitudinal movement of the sleeve rod 2026, the bottom plate 2012 can be driven to move synchronously, thereby changing the distance between the top plate 2011 and the bottom plate 2012, and changing the position of the through pipe 2 2014 on the surface of the through pipe 1 2013. By changing the position of the baffle 2015, the volume of silicon mud sealed inside the through pipe 1 2013 and the through pipe 2 2014 through the baffle 2015 can be changed, thereby achieving the adjustment of the silicon mud volume in the quantitative feeding of the feeding setting. And when the rod body 3 2035 realizes clockwise rotation, the ratchet inner ring 2043 and the ratchet outer ring 2044 inside the ratchet wheel 1 2041 are in a state of mutual engagement, so that the ratchet inner ring 2043 and the ratchet outer ring 2044 can realize transmission. The outer ratchet ring 2044 and the inner ratchet ring 2043 of the ratchet wheel 1 2041 and the ratchet wheel 2 2042 are symmetrically arranged. On the contrary, the inner ratchet ring 2043 and the outer ratchet ring 2044 of the ratchet wheel 2 2042 do not interfere with each other, and the rotation of the ratchet wheel 2 2042 will not be caused. When the ratchet wheel 1 2041 rotates clockwise, the ratchet block 1 2045 rests on the ratchet teeth of the ratchet wheel 1 2041 and makes a clicking sound. When the rod body 3 2035 rotates counterclockwise, the principle is opposite to the above, and the rotation of the ratchet wheel 2 2042 and the clamping movement of the ratchet block 2 2046 are realized. The click sound generated by the ratchet engagement can indicate the rotation range of the rod body 3 2035 caused by the click in the early installation, and can derive the movement trend range of the rack 2033, so that when it is inconvenient to observe the inside of the housing 101, through this setting, the adjustment of the bottom plate 2012 can be understood, so as to adjust to the required quantitative silicon mud. The mechanism is easy to operate, simple in structure, and can increase the security of use, while different from the high cost of the existing weighing system when adjusting the material volume.

[0055] 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. An automatic quantitative feeding device for drying silicon mud, comprising a housing mechanism (1), characterized in that: The shell mechanism (1) comprises a shell (101), the top of the shell (101) is connected to a feed pipe (102), the top of the feed pipe (102) is fixedly mounted with a feed opening (103), one side of the shell (101) is fixedly mounted with a discharge pipe (104), the bottom of the shell (101) is fixedly mounted with a support leg (105), the inside of the shell (101) is provided with a channel (106) connected to the discharge pipe (104), the inner side of the shell (101) is provided with a shell mechanism (1), the shell mechanism (1) comprises a tube body component (201) and a quantitative component (202), and the bottom of the tube body component (201) is provided with a moving component (203) and a snap-on component (204).

2. The automatic quantitative feeding equipment for drying silicon mud according to claim 1, characterized in that: The tube body assembly (201) comprises a top plate (2011), a bottom plate (2012) is provided at the bottom of the top plate (2011), both sides of the bottom of the top plate (2011) are connected to a through pipe 1 (2013), both sides of the bottom of the bottom of the bottom plate (2012) are connected to a through pipe 2 (2014) sleeved on the surface of the through pipe 1 (2013), and baffles (2015) are provided at the bottoms of the two through pipes 2 (2014).

3. The automatic quantitative feeding equipment for drying silicon mud according to claim 2, characterized in that: A connecting block (2016) is fixedly mounted on one side of the baffle (2015), a mounting block 1 (2017) is fixedly mounted on the top of the connecting block (2016), the inner side of the mounting block 1 (2017) is rotatably connected to a mounting block 2 (2018) via a rotating shaft, and the mounting block 2 (2018) and the surface of the through pipe 2 (2014) are fixedly connected to each other.

4. The automatic quantitative feeding equipment for drying silicon mud according to claim 3, characterized in that: The quantitative component (202) comprises a rotary motor (2021), wherein the rotary motor (2021) is fixedly connected to the inner side of the housing (101), and the output end of the rotary motor (2021) is fixedly sleeved with a rod body 1 (2022) via a coupling, a half gear (2023) is fixedly sleeved on the surface of the rod body 1 (2022), a gear 1 (2024) is meshed on the surface of the half gear (2023), and a rod body 2 (2025) is fixedly sleeved inside the gear 1 (2024).

5. The automatic quantitative feeding equipment for drying silicon mud according to claim 4, characterized in that: The top of the second rod body (2025) passes through the bottom plate (2012) and is fixedly connected to the bottom of the top plate (2011); a sleeve rod (2026) is sleeved on the surface of the second rod body (2025); the sleeve ring and the bottom plate (2012) are rotatably connected to each other via a bearing; a sliding groove (2027) is provided on the surface of the sleeve rod (2026); a slider (2028) slidably connected to the sliding groove (2027) is fixedly installed on one side of the connecting block (2016); a clamping strip (2029) is fixedly installed on the surface of the second rod body (2025); and a clamping groove (20210) for clamping with the clamping strip (2029) is provided on the inner side of the bottom plate (2012).

6. The automatic quantitative feeding equipment for drying silicon mud according to claim 5, characterized in that: The moving assembly (203) comprises a sleeve plate (2031), wherein the sleeve plate (2031) is sleeved on the surface of the sleeve rod (2026) and is fixedly connected to the sleeve rod (2026); a support member 1 (2032) is fixedly mounted on one end of the sleeve plate (2031); a support member 2 (20310) fixedly connected to the inner side of the housing (101) is provided on one side of the support member 1 (2032); a rack (2033) is fixedly mounted on the inner side of the support member 1 (2032); a gear 2 (2034) is meshed on the surface of the rack (2033); a rod body 3 (2035) rotatably connected to the support member 2 (20310) is fixedly sleeved inside the gear 2 (2034).

7. The automatic quantitative feeding equipment for drying silicon mud according to claim 6, characterized in that: One end of the rod body three (2035) passes through the support member two (20310) to the outside of the housing (101) and is fixedly mounted with a rocker (2036); the top and bottom of the inner side of the support member two (20310) are fixedly mounted with a fixing plate one (2037); the top and bottom of the two fixing plates one (2037) are fixedly mounted with a guide rod (2038); both ends of one side of the support member one (2032) are fixedly mounted with a fixing plate two (2039) sleeved on the surface of the guide rod (2038); the fixing plate two (2039) and the guide rod (2038) are slidably connected to each other.

8. The automatic quantitative feeding equipment for drying silicon mud according to claim 1, characterized in that: The clamping assembly (204) comprises a ratchet wheel 1 (2041) and a ratchet wheel 2 (2042); the ratchet wheel 1 (2041) and the ratchet wheel 2 (2042) are both fixedly sleeved with a ratchet outer ring (2044) inside, the inner side of the ratchet outer ring (2044) is engaged with a ratchet inner ring (2043), the ratchet inner ring (2043) and the rod body 3 (2035) are fixedly sleeved with each other, and the ratchet wheel 1 (2041) and the ratchet wheel 2 (2042) are respectively clamped with a ratchet block 1 (2045) and a ratchet block 2 (2046) on one side.

9. The automatic quantitative feeding equipment for drying silicon mud according to claim 1, characterized in that: The ratchet block 1 (2045) and the ratchet block 2 (2046) are respectively fixedly sleeved with an inner rod 1 (2047) and an inner rod 2 (2048); the inner rod 1 (2047) and the inner rod 2 (2048) are both rotatably connected to the support member 2 (20310); the surface of the inner rod 1 (2047) is fixedly sleeved with a torsion spring 1 (2049) fixedly connected to the support member 2 (20310); the surface of the inner rod 2 (2048) is fixedly sleeved with a torsion spring 2 (20410) fixedly connected to the support member 2 (20310).

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