Energy-saving and environmentally friendly fumigation furnace charging device

Abstract

The present invention provides an energy-saving and environmentally friendly fuming furnace feeding device, which relates to the technical field of fuming furnace feeding, including a waste heat drying part, on which a wall-adhering auxiliary part is installed; the wall-adhering auxiliary part is used to promote the heating of coal powder; an exhaust auxiliary part is installed on the waste heat drying part; the exhaust auxiliary part is used to discharge moisture; a rotary discharge part is installed on the waste heat drying part; the rotary discharge part is used to discharge coal powder; a closed cleaning part is installed inside the rotary discharge part, and waste heat is used to dry the coal powder, which is more energy-saving. At the same time, the coal powder can be guided to be transported along the wall, thereby improving the uniformity of heating of the coal powder, solving the problems that the current fuming furnace feeding device is not convenient for comprehensively drying the coal powder by utilizing waste heat, the comprehensiveness of the coal powder drying is not good, and the overall structure is not energy-saving enough.

Description

Technical Field

[0001] The invention relates to the technical field of fumigation furnace charging, and in particular to an energy-saving and environmentally friendly fumigation furnace charging device. Background Art

[0002] The fuming furnace is a furnace that blows coal powder into the liquid slag to volatilize the valuable metals in the slag in the form of metals, oxides or sulfides, thereby realizing the recovery and reuse of metals. The fuming furnace was originally used to treat lead blast furnace slag, and was later widely used in non-ferrous metal smelting fields such as tin smelting slag. In the actual heating work of the fuming furnace, coal powder needs to be added in a quantitative manner to promote combustion. The liquid slag inside the fuming furnace will boil at high temperature and accelerate volatilization. The current fuming furnace feeding device needs to put coal powder on top of the material. The utilization rate of coal powder combustion is low. The method of directly blowing coal powder into the slag with a blower is easy to mix with the gas in the furnace, affecting the comprehensiveness of coal powder heating. A large amount of coal powder will be discharged by the exhaust system, resulting in large losses. At the same time, it is not convenient to automatically control the stopping of feeding. It relies on the staff to observe the boiling degree. The material is prone to over-boiling, which is unsafe. At the same time, it is not convenient to use waste heat to fully dry the coal powder. The comprehensiveness of coal powder drying is not good, and the overall structure is not energy-efficient. Summary of the Invention

[0003] The disclosed embodiments relate to an energy-saving and environmentally friendly fuming furnace feeding device, wherein the wall-adhering auxiliary part thereof utilizes waste heat to dry the pulverized coal, which is more energy-efficient. At the same time, the pulverized coal can be guided to be transported along the wall, thereby improving the uniformity of heating of the pulverized coal. This solves the problems that the current fuming furnace feeding device is not convenient for utilizing waste heat to fully dry the pulverized coal, the pulverized coal drying is not comprehensive, and the overall structure is not energy-efficient enough.

[0004] The present invention provides an energy-saving and environmentally friendly fuming furnace feeding device, comprising a waste heat drying part, on which a wall-adhering auxiliary part is installed; the wall-adhering auxiliary part is used to promote the heating of coal powder; an exhaust auxiliary part is installed on the waste heat drying part; the exhaust auxiliary part is used to discharge moisture; a rotary discharge part is installed on the waste heat drying part; the rotary discharge part is used to discharge coal powder; a closed cleaning part is installed inside the rotary discharge part; the closed cleaning part is used to clean the rotary discharge part; a boiling control part is installed on the rotary discharge part Parts, and the boiling control part is used to control the rotation of the rotary discharge part; a reaction test part is installed on the waste heat drying part; the reaction test part is used to test the boiling degree; a particle isolation part is installed on the waste heat drying part; the waste heat drying part includes: a heat conduction discharge pipe, a coal powder feeding pipe and a floating connecting frame, the heat conduction discharge pipe is used to be installed in the fuming furnace; the coal powder feeding pipe is fixedly installed at the end of the heat conduction discharge pipe; a floating connecting frame is fixedly installed on the heat conduction discharge pipe; the heat conduction discharge pipe is used to discharge coal powder at the bottom of the fuming furnace.

[0005] In at least some embodiments, the rotary discharge component includes: a rotating sleeve, a guide groove, a discharge rod, a discharge port, an electric heating wire and a buoyancy stop column, and the rotating sleeve is rotatably sleeved on the heat-conducting discharge pipe; a circle of guide grooves is provided on the rotating sleeve, and each circle of guide grooves is a bevel groove; a discharge rod is fixedly installed at the bottom of the rotating sleeve, and a discharge port is provided at the bottom of the discharge rod, and the two sides of the discharge port are respectively bevel structures; an electric heating wire is embedded in the bottom of the discharge rod; the buoyancy stop column is located inside the discharge port; the buoyancy stop column is used to close and fit the discharge port; the buoyancy stop column is a ceramic pore structure; the buoyancy stop column is used to float in the liquid material inside the fumigation furnace.

[0006] In at least some embodiments, the waste heat drying element further includes: a pulverized coal connecting pipe and a pulverizing motor, wherein the pulverized coal connecting pipe is fixedly mounted on the pulverized coal feed pipe and is provided with a flange; the pulverized coal connecting pipe is externally connected to a pulverized coal hopper; a pulverizing motor is mounted on the pulverized coal feed pipe, and the output shaft of the pulverizing motor passes through the pulverized coal feed pipe; and a pulverizing impeller is provided on the output shaft of the pulverizing motor.

[0007] In at least some embodiments, the particle separator includes: an isolation mounting frame and an electromagnet. The isolation mounting frame is fixedly mounted inside the pulverized coal feed pipe; and the electromagnet is fixedly mounted on the isolation mounting frame.

[0008] In at least some embodiments, the closed cleaning component includes: a lifting connecting frame, a stop ring, a lifting column, a closing plug and a cleaning brush, the lifting connecting frame is fixedly installed inside the heat-conducting discharge pipe; the stop ring is fixedly installed inside the heat-conducting discharge pipe; the lifting connecting frame is slidably sleeved with a lifting column, and a closing plug is rotatably installed on the top of the lifting column; the closing plug is used to close the stop ring; the stop ring and the closing plug are connected by a tension spring; a cleaning brush is fixedly installed at the bottom of the lifting column, and bristles are provided on both sides of the cleaning brush; the cleaning brush is located inside the discharge port.

[0009] In at least some embodiments, the reaction test piece includes: a fixed block and a power-connecting spring, wherein the fixed block is fixedly mounted on the floating connecting frame; the power-connecting spring is fixedly mounted on the fixed block; and the power-connecting spring is located above the lifting slide shaft on the same side.

[0010] In at least some embodiments, the wall-adhering auxiliary component includes: a wall-adhering connecting frame and a diffusion cover, a row of wall-adhering connecting frames are fixedly installed inside the heat-conducting exhaust pipe, and a diffusion cover is fixedly installed on each row of wall-adhering connecting frames; a circle of through grooves is provided on the diffusion cover; the diffusion cover is a beveled elastic steel sheet structure.

[0011] In at least some embodiments, the boiling control component includes: a lifting slide shaft, a connecting disk, a buoyancy ring, a one-way bearing, a control inner ring and a dial ball. There are two lifting slide shafts, and the two lifting slide shafts are respectively slidably installed on the floating connecting frame; the two lifting slide shafts are fixedly installed with a connecting disk at the bottom; the connecting disk is fixedly installed with a buoyancy ring at the bottom; the outer ring of the one-way bearing is fixedly sleeved on the connecting disk; the inner ring of the one-way bearing is fixedly sleeved with the control inner ring; a circle of dial balls is embedded in the inside of the control inner ring, and a circle of dial balls respectively rolls and fits on the inner side of a circle of guide grooves; the buoyancy ring is a hollow structure, and the buoyancy ring is used to float the liquid material inside the fumigation furnace.

[0012] In at least some embodiments, the exhaust auxiliary component includes: an exhaust pipe, a stop ring and an air pressure sealing ball. The exhaust pipe is fixedly installed on the heat-conducting exhaust pipe; a stop ring is fixedly installed inside the exhaust pipe; the inside of the stop ring has inclined surfaces on both sides; the air pressure sealing ball is located on the inside of the stop ring; the air pressure sealing ball is used to seal the stop ring; and a hose is connected to the outside of the exhaust pipe.

[0013] In at least some embodiments, the particle isolation member also includes: a stop disk, a repulsion electromagnet and a closed tension spring, the stop disk is located inside the coal powder feed pipe; the front end of the stop disk is a sloped structure; a repulsion electromagnet is fixedly installed on the back of the stop disk, and the repulsion electromagnet is slidably installed on the isolation mounting frame; the electromagnet is aligned with the repulsion electromagnet; the closed tension spring is located outside the repulsion electromagnet; one end of the closed tension spring is connected to the stop disk, and the other end of the closed tension spring is connected to the isolation mounting frame; the power-connected spring, the lifting slide shaft, the repulsion electromagnet and the electromagnet are electrically connected.

[0014] The present invention provides an energy-saving and environmentally friendly fuming furnace charging device, which has the following beneficial effects:

[0015] The heat-conducting discharge pipe used in the present invention can make full use of the heat of the furnace body, realize waste heat recovery, be more energy-saving and environmentally friendly, reduce the energy consumption of coal powder drying, reduce the humidity requirement of coal powder in the early stage of drying, and improve the combustion quality of coal powder. The diffusion cover set up utilizes the inclined structure. When the coal powder is discharged inside the heat-conducting discharge pipe, the row of diffusion covers used can make the coal powder be transported along the inner wall of the heat-conducting discharge pipe, which can improve the uniformity of coal powder drying; the air pressure sealing ball used can automatically discharge moisture, and can automatically seal when the coal powder is discharged by air pressure, thereby ensuring the dehumidification quality and sealing quality.

[0016] In addition, by using closed cleaning parts in conjunction with rotary discharge parts, this structure can discharge coal powder at the bottom of the liquid material inside the fumigation furnace, which can promote better mixing of liquid material with coal powder for combustion, and more complete combustion of internal metal slag. Full contact with slag also helps to save coal powder usage, reduce coal powder flying in the furnace body, and reduce the loss of coal powder being discharged. This structure uses buoyancy stop columns to avoid slag backflow, and the cleaning brush used can be used to clean coal powder attached to the discharge port, further ensuring the sealing quality and ensuring the applicability of the coal powder discharged in the slag used in this structure.

[0017] In addition, the use of boiling control components can adapt to the liquid slag inside the fumigation furnace. The rising thrust of the boiling gas pressure can be used to control the rotation and discharge of the discharge rod, thereby improving the comprehensiveness of coal powder delivery.

[0018] In addition, the reaction test piece can automatically detect the reaction degree between coal powder and slag, which can avoid the problem of excessive combustion reaction caused by excessive coal powder. This structure ensures the quality of slag reaction and avoids excessive reaction. No manual operation, monitoring and observation are required. The particle isolation piece can use magnetic force to quickly control the pause, which effectively improves the safety of the fumigation furnace and avoids the problem that manual detection and observation methods are not direct enough and are prone to missed detection. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings of the embodiments are briefly introduced below.

[0020] The drawings described below only relate to some embodiments of the present invention, but are not intended to limit the present invention.

[0021] In the attached figure:

[0022] Figure 1 A schematic diagram showing the overall structure of the present application;

[0023] Figure 2 A cross-sectional view showing the internal structure of the present application;

[0024] Figure 3 A schematic diagram showing the overall structure of the bottom of the present application is shown;

[0025] Figure 4 A schematic diagram showing the structure of the waste heat drying element of the present application is shown;

[0026] Figure 5 A schematic diagram showing the structure of the wall-adhesion auxiliary component of the present application is shown;

[0027] Figure 6 Shows the application Figure 2 A magnified view of the structure of the middle B region;

[0028] Figure 7 A schematic diagram showing the rotary discharge member structure of the present application is shown;

[0029] Figure 8 Shows a schematic diagram of the installation position of the buoyancy stop column of the present application;

[0030] Figure 9 A schematic diagram showing a cross-sectional structure of a closed cleaning member of the present application;

[0031] Figure 10 A schematic diagram showing the structure of the boiling control element of the present application is shown;

[0032] Figure 11 A schematic diagram showing the particle separator structure of the present application is shown;

[0033] Figure 12 A schematic diagram of the installation position of the cleaning brush of the present application is shown.

[0034] List of reference numerals:

[0035] 1. Waste heat drying unit; 101. Heat conduction discharge pipe; 1011. Pulverized coal feed pipe; 102. Floating connecting frame; 103. Pulverized coal connecting pipe; 104. Crushing motor; 2. Wall-attaching auxiliary unit; 201. Wall-attaching connecting frame; 202. Diffuser cover; 3. Exhaust auxiliary unit; 301. Exhaust pipe; 302. Stop ring; 303. Air pressure sealing ball; 4. Rotary discharge unit; 401. Rotating sleeve; 4011. Guide groove; 402. Discharge rod; 4021. Discharge port; 4022. Electric heating wire; 403. Buoyancy stop column; 5. Sealing Cleaning parts; 501, lifting connecting frame; 502, stop ring; 503, lifting column; 5031, closing plug; 504, cleaning brush; 6, boiling control part; 601, lifting slide shaft; 602, connecting plate; 603, buoyancy ring; 604, one-way bearing; 605, control inner ring; 606, moving ball; 7, reaction test piece; 701, fixing block; 702, power spring; 8, particle isolation part; 801, isolation mounting frame; 802, electromagnet; 803, stop plate; 8031, repulsion electromagnet; 804, closing tension spring. DETAILED DESCRIPTION

[0036] To make the purpose, technical solutions, and advantages of the embodiments of the present invention more clear, the technical solutions of the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the described embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0037] Example 1: Please refer to Figures 1 to 12 :

[0038] The present invention proposes an energy-saving and environmentally friendly fuming furnace charging device, comprising a waste heat drying element 1, on which a wall-adhering auxiliary element 2 is installed; the wall-adhering auxiliary element 2 is used to promote the heating of coal powder; an exhaust auxiliary element 3 is installed on the waste heat drying element 1; the exhaust auxiliary element 3 is used to discharge moisture; a rotary discharge element 4 is installed on the waste heat drying element 1; the rotary discharge element 4 is used to discharge coal powder; a closed cleaning element 5 is installed inside the rotary discharge element 4; the closed cleaning element 5 is used to clean the rotary discharge element 4; a boiling control element 6 is installed on the rotary discharge element 4, and the boiling control element 6 is used to control the rotary discharge element 4 Rotation; a reaction test piece 7 is installed on the waste heat drying piece 1; the reaction test piece 7 is used to test the boiling degree; a particle isolation piece 8 is installed on the waste heat drying piece 1; the waste heat drying piece 1 includes: a heat conduction discharge pipe 101, a coal powder feeding pipe 1011 and a floating connecting frame 102, the heat conduction discharge pipe 101 is used to be installed in the fuming furnace; the coal powder feeding pipe 1011 is fixedly installed at the end of the heat conduction discharge pipe 101; the floating connecting frame 102 is fixedly installed on the heat conduction discharge pipe 101; the heat conduction discharge pipe 101 is used to discharge coal powder at the bottom of the fuming furnace; the heat conduction discharge pipe 101 is a bent forming structure.

[0039] In the embodiment of the present disclosure, the waste heat drying unit 1 further includes: a pulverized coal connecting pipe 103 and a pulverizing motor 104. The pulverized coal connecting pipe 103 is fixedly mounted on the pulverized coal feeding pipe 1011 and is provided with a flange; the pulverized coal connecting pipe 103 is externally connected to the pulverized coal hopper; the pulverizing motor 104 is mounted on the pulverized coal feeding pipe 1011, and the output shaft of the pulverizing motor 104 passes through the pulverized coal feeding pipe 1011; a pulverizing impeller is provided on the output shaft of the pulverizing motor 104; the wall-adhering auxiliary unit 2 includes: a wall-adhering connecting frame 20 1 and diffusion cover 202, a row of wall-attached connecting frames 201 are fixedly installed inside the heat-conducting exhaust pipe 101, and a row of wall-attached connecting frames 201 are respectively fixedly installed with diffusion covers 202; a circle of through grooves is provided on the diffusion cover 202; the diffusion cover 202 is a bevel elastic steel sheet structure; the exhaust auxiliary component 3 includes: an exhaust pipe 301, a stop ring 302 and an air pressure sealing ball 303, the exhaust pipe 301 is fixedly installed on the heat-conducting exhaust pipe 101; a stop ring 302 is fixedly installed inside the exhaust pipe 301; the stop ring 302 The two sides of the interior are inclined structures respectively; the air pressure sealing ball 303 is located on the inner side of the stop ring 302; the air pressure sealing ball 303 is used to seal the stop ring 302; the heat conduction discharge pipe 101 is a bent structure, which can increase the heat conduction area in the furnace and increase the coal powder drying effect; the exhaust pipe 301 is connected to a hose, and the use of the heat conduction discharge pipe 101 can make full use of the heat of the furnace body to realize waste heat recovery, which is more energy-saving and environmentally friendly, can reduce the energy consumption of coal powder drying, can reduce the early drying humidity requirements of coal powder, and improve the combustion quality of coal powder. The structure is simple and the diffusion cover 202 is arranged in conjunction with the arrangement. The inclined surface structure is used. When the pulverized coal is discharged from the heat conduction discharge pipe 101, a row of diffusion covers 202 can make the pulverized coal be transported along the inner wall of the heat conduction discharge pipe 101, thereby improving the uniformity of the pulverized coal drying and avoiding the problem of relatively low heating temperature of the pulverized coal in the middle of the heat conduction discharge pipe 101 and uneven drying. The air pressure sealing ball 303 used can automatically discharge moisture and can automatically seal when the pulverized coal is discharged by air pressure, thereby ensuring the dehumidification quality and sealing quality.

[0040] In the embodiment of the present disclosure, the rotary discharge member 4 includes: a rotating sleeve 401, a guide groove 4011, a discharge rod 402, a discharge port 4021, an electric heating wire 4022 and a buoyancy stop column 403. The rotating sleeve 401 is rotatably sleeved on the heat-conducting discharge pipe 101; a circle of guide grooves 4011 is provided on the rotating sleeve 401, and the circle of guide grooves 4011 are respectively inclined grooves; the discharge rod 402 is fixedly installed at the bottom of the rotating sleeve 401, and the discharge port 4021 is provided at the bottom of the discharge rod 402, and the two sides of the interior of the discharge port 4021 are inclined structures respectively; the electric heating wire 4022 is embedded in the bottom of the discharge rod 402; the buoyancy stop column 403 is located inside the discharge port 4021; the buoyancy stop column 403 is located inside the discharge port 4021; The stop column 403 is used to close the discharge port 4021; the buoyancy stop column 403 is a ceramic pore structure; the buoyancy stop column 403 is used to float in the liquid material inside the fumigation furnace; the closed cleaning part 5 includes: a lifting connection frame 501, a stop ring 502, a lifting column 503, a closing plug 5031 and a cleaning brush 504, the lifting connection frame 501 is fixedly installed inside the heat conduction discharge pipe 101; the stop ring 502 is fixedly installed inside the heat conduction discharge pipe 101; the lifting column 503 is slidably sleeved on the lifting connection frame 501, and the closing plug 5031 is rotatably installed on the top of the lifting column 503; the closing plug 5031 is used to close the stop ring 502; there is communication between the stop ring 502 and the closing plug 5031. The cleaning brush 504 is fixedly installed at the bottom of the lifting column 503, and bristles are provided on both sides of the cleaning brush 504; the cleaning brush 504 is located inside the discharge port 4021, and a closed cleaning member 5 is used in conjunction with a rotary discharge member 4. This structure can discharge coal powder at the bottom of the liquid material inside the fuming furnace, which can promote better mixing of the liquid material with the coal powder for combustion, improve the heating quality, and at the same time, burn more directly, and the internal metal slag burns more fully. Full contact with the slag also helps to save coal powder, reduce the flying of coal powder in the furnace body, and reduce the loss of coal powder being discharged. This structure uses the buoyancy stop column 403 to automatically block the discharge port 4021 when the coal powder is stopped, ensuring a tight seal. Sealing, to avoid slag backflow, the cleaning brush 504 used can be used to clean the coal powder attached to the discharge port 4021, which plays a positive role in promoting the full combustion of the coal powder fumigation furnace. This structure uses the air pressure when the coal powder enters the heat conduction discharge pipe 101, which can continuously discharge the coal powder, and the slag will not flow into the discharge port 4021. After completing a coal powder addition, the air pressure in the heat conduction discharge pipe 101 disappears, and the tension spring between the stop ring 502 and the closing plug 5031 can pull the cleaning brush 504 up. At this time, the cleaning brush 504 can be driven to rise and brush the inner slope of the discharge port 4021. The buoyancy stop column 403 below will also rise rapidly under the action of buoyancy to close the discharge port 4021.

[0041] In the embodiment of the present disclosure, the boiling control member 6 includes: a lifting slide 601, a connecting plate 602, a buoyancy ring 603, a one-way bearing 604, a control inner ring 605 and a toggle ball 606. There are two lifting slides 601, and the two lifting slides 601 are respectively slidably mounted on the floating connecting frame 102; the bottom of the two lifting slides 601 is fixedly mounted with a connecting plate 602; the bottom of the connecting plate 602 is fixedly mounted with a buoyancy ring 603; the outer ring of the one-way bearing 604 is fixedly sleeved on the connecting plate 60 2; the inner ring of the one-way bearing 604 is fixedly sleeved with a control inner ring 605; a circle of toggle balls 606 are embedded inside the control inner ring 605, and a circle of toggle balls 606 are respectively rolled and fitted on the inner side of a circle of guide grooves 4011; the buoyancy ring 603 is a hollow structure, and the buoyancy ring 603 is used to float on the liquid material inside the fuming furnace. The boiling control member 6 can be used to adapt to the liquid slag inside the fuming furnace, and can be fitted on the liquid surface when the liquid slag inside the fuming furnace boils. The upward thrust of the boiling gas pressure can be used to control the discharge rod 402 to rotate and discharge, thereby improving the comprehensiveness of coal powder delivery and further improving the uniformity of slag combustion. The structure is simple to control and automatically controls the lifting and lowering according to the boiling degree. When the liquid slag boils, the buoyancy ring 603 can be pushed upward. At this time, the one-way bearing 604 is in a locked state. The upward push of the buoyancy ring 603 can drive the upward movement of the toggle ball 606 on the inner ring 605, and the guide groove 4011 can be toggled. , driving the rotating sleeve 401 to rotate, thereby controlling the rotation of the discharge rod 402. Because the lifting column 503 is rotatably connected to the closing plug 5031, when the discharge rod 402 rotates, the cleaning brush 504 also drives the lifting column 503 to rotate on the closing plug 5031, and there will be no jamming. When the buoyancy ring 603 falls, the one-way bearing 604 is in a non-locked state and can automatically adapt to the rotation, ensuring that the discharge rod 402 can be controlled to rotate continuously as the slag boiling control of the buoyancy ring 603 fluctuates.

[0042] Example 2, based on Example 1, the reaction test piece 7 includes: a fixed block 701 and a power spring 702, the fixed block 701 is fixedly mounted on the floating connecting frame 102; the power spring 702 is fixedly mounted on the fixed block 701; the power spring 702 is located above the lifting slide 601 on the same side; the particle isolation member 8 includes: an isolation mounting frame 801 and an electromagnet 802, the isolation mounting frame 801 is fixedly mounted inside the coal powder feeding pipe 1011; the electromagnet 802 is fixedly mounted on the isolation mounting frame 801; the particle isolation member 8 also includes: a stop The stopper 803, the repelling electromagnet 8031 ​​and the closed tension spring 804, the stopper 803 is located inside the pulverized coal feed pipe 1011; the front end of the stopper 803 is a bevel structure; the back of the stopper 803 is fixedly mounted with the repelling electromagnet 8031, and the repelling electromagnet 8031 ​​is slidably mounted on the isolation mounting frame 801; the electromagnet 802 is aligned with the repelling electromagnet 8031; the closed tension spring 804 is located outside the repelling electromagnet 8031; the end of the closed tension spring 804 is connected to the stopper 803, and the other end of the closed tension spring 804 is connected to the isolation mounting frame 80 1; the electrical spring 702, the lifting slide shaft 601, the repelling electromagnet 8031 ​​and the electromagnet 802 are electrically connected, and the reaction test piece 7 can automatically detect the reaction degree of coal powder and slag, which can avoid the problem of excessive combustion reaction caused by excessive coal powder. This structure ensures the quality of slag reaction and avoids excessive reaction. The structure control is direct and efficient, and the automatic control does not require manual operation, monitoring and observation. The particle isolation piece 8 can use magnetic force to quickly control the pause, effectively improving the safety of the fuming furnace and avoiding the indirectness of manual detection and observation. It is also easy to miss the problem, and manual control of feeding is required. This structure can directly stop the coal powder feeding when excessive boiling occurs, ensuring that the boiling degree of the slag inside the fumigation furnace is within a reasonable range. If the buoyancy ring 603 fluctuates greatly due to excessive slag boiling, the buoyancy ring 603 drives the lifting slide shaft 601 to touch the power-connected spring piece 702. At this time, the repelling electromagnet 8031 ​​and the electromagnet 802 are energized, and repulsion occurs, driving the stop plate 803 to close the end of the coal powder feed pipe 1011, achieving temporary closure to reduce the amount of coal powder added and reduce the degree of slag reaction.

[0043] The working principle of this embodiment is as follows: the heat-conducting discharge pipe 101 is pre-buried and installed inside the fuming furnace, one end of the coal powder feeding pipe 1011 on the heat-conducting discharge pipe 101 passes through the fuming furnace and is left outside the fuming furnace, the coal powder connecting pipe 103 is connected to the coal powder hopper, and the feeding blower on the coal powder hopper connected to the coal powder connecting pipe 103 is started to realize the coal powder feeding work. At this time, the coal powder can be driven by the crushing impeller to rotate by the crushing motor 104, crushed twice, and pneumatically conveyed to the bottom of the fuming furnace through the heat-conducting discharge pipe 101. A row of diffusion covers 202 can make the coal powder be conveyed along the inner wall of the heat-conducting discharge pipe 101 to promote comprehensive heating and drying. During the process, the air pressure sealing ball 303 is sealed at the upper inclined surface of the stop ring 302 under the action of air pressure. When the conveying is completed, the air pressure acting on the air pressure sealing ball 303 disappears. At this time, the air pressure sealing ball 303 can fall and no longer close the stop ring 302. At this time, the stop ring 302 can play the role of discharging moisture to ensure dehumidification. Continuity, during the process, the coal powder inside the heat-conducting discharge pipe 101 can be continuously dried, and the air pressure of the heat-conducting discharge pipe 101 can push the closing plug 5031, stretching the tension spring between the stop ring 502 and the closing plug 5031, and at the same time, the buoyancy stop column 403 will also move downward under the action of air pressure and separate from the discharge port 4021, and no longer be closed. After completing one round of coal powder addition, the air pressure in the heat-conducting discharge pipe 101 disappears, and between the stop ring 502 and the closing plug 5031, the air pressure in the heat-conducting discharge pipe 101 disappears. The tension spring between them can pull the cleaning brush 504 upward, and at this time, the cleaning brush 504 can be driven to rise and brush the inner inclined surface of the discharge port 4021 to ensure that the inner inclined surface of the discharge port 4021 can be fully closed and fitted by the buoyancy stop column 403 below. The buoyancy stop column 403 below will also rise rapidly under the action of buoyancy to close the discharge port 4021. When the pulverized coal is discharged from the discharge port 4021, the electric heating wire 4022 can continue to heat the pulverized coal to promote the combustion of the pulverized coal.

[0044] When the liquid slag is boiling, the buoyancy ring 603 can be pushed up. At this time, the one-way bearing 604 is in a locked state. The buoyancy ring 603 can be pushed up to drive the dial ball 606 on the inner ring 605 to rise, and the guide groove 4011 can be dialed to drive the rotating sleeve 401 to rotate, thereby controlling the rotation of the discharge rod 402. When the buoyancy ring 603 falls, the one-way bearing 604 is in an unlocked state and can automatically adapt to the rotation to ensure that the discharge rod 402 can be controlled to rotate in one direction continuously with the slag boiling control fluctuation of the buoyancy ring 603. When the pulverized coal feed pipe 1011 is fed, the closed tension spring 8 04 Under strong pulling, the stop plate 803 and the coal powder feed pipe 1011 are in a separated state, which will not affect the discharge of coal powder. If the buoyancy ring 603 fluctuates greatly due to excessive boiling of the slag, the buoyancy ring 603 drives the lifting slide shaft 601 to touch the power-connected spring piece 702, and the circuit is in a pass state. At this time, the repulsion electromagnet 8031 ​​and the electromagnet 802 are energized and repulsion occurs. At this time, the repulsion electromagnet 8031 ​​slides outward on the isolation mounting frame 801, thereby driving the stop plate 803 to close the end of the coal powder feed pipe 1011, achieving temporary closure to reduce the input of coal powder and reduce the degree of slag combustion and boiling.

[0045] In this article, there are several points to note:

[0046] 1. The drawings of the embodiments of the present disclosure only relate to the structures related to the embodiments of the present disclosure. Other structures may refer to conventional designs.

[0047] 2. In the absence of conflict, the embodiments of the present disclosure and the features therein may be combined with each other to form new embodiments.

[0048] The above are only specific embodiments of the present disclosure, but the scope of protection of the present disclosure is not limited thereto. Any changes or substitutions that can be easily conceived by a person skilled in the art within the technical scope disclosed in this disclosure should be included in the scope of protection of the present disclosure. Therefore, the scope of protection of the present disclosure should be based on the scope of protection of the claims.

Claims

1. An energy-saving and environmentally friendly fumigation furnace feeding device, comprising a waste heat drying element (1), wherein a wall-adhering auxiliary element (2) is installed on the waste heat drying element (1); characterized in that: The wall-adhering auxiliary component (2) is used to promote the heating of the coal powder; an exhaust auxiliary component (3) is installed on the waste heat drying component (1); the exhaust auxiliary component (3) is used to discharge moisture; A rotary discharge member (4) is installed on the waste heat drying member (1); the rotary discharge member (4) is used to discharge coal powder; a closed cleaning member (5) is installed inside the rotary discharge member (4); the closed cleaning member (5) is used to clean the rotary discharge member (4); A boiling control member (6) is installed on the rotary discharge member (4), and the boiling control member (6) is used to control the rotation of the rotary discharge member (4); A reaction test piece (7) is installed on the waste heat drying element (1); the reaction test piece (7) is used to test the boiling degree; a particle isolation piece (8) is installed on the waste heat drying element (1); The waste heat drying element (1) comprises: a heat conduction discharge pipe (101), a pulverized coal feeding pipe (1011) and a floating connecting frame (102); the heat conduction discharge pipe (101) is used to be installed in a fuming furnace; the pulverized coal feeding pipe (1011) is fixedly installed at the end of the heat conduction discharge pipe (101); the floating connecting frame (102) is fixedly installed on the heat conduction discharge pipe (101); the heat conduction discharge pipe (101) is used to discharge pulverized coal at the bottom of the fuming furnace; The wall-attaching auxiliary component (2) comprises: a wall-attaching connecting frame (201) and a diffusion cover (202); a row of wall-attaching connecting frames (201) are fixedly installed inside the heat-conducting discharge pipe (101), and a diffusion cover (202) is fixedly installed on each row of wall-attaching connecting frames (201); a circle of through grooves is provided on the diffusion cover (202); the diffusion cover (202) is a bevel elastic steel sheet structure; The rotary discharge member (4) comprises: a rotary sleeve (401), a guide groove (4011), a discharge rod (402), a discharge port (4021), an electric heating wire (4022) and a buoyancy stop column (403); the rotary sleeve (401) is rotatably sleeved on the heat-conducting discharge pipe (101); a circle of guide grooves (4011) is provided on the rotary sleeve (401), and each circle of guide grooves (4011) is a bevel groove; the discharge rod (402) is fixedly installed at the bottom of the rotary sleeve (401), A discharge port (4021) is provided at the bottom of the discharge rod (402), and both sides of the inside of the discharge port (4021) are inclined structures; an electric heating wire (4022) is embedded at the bottom of the discharge rod (402); the buoyancy stop column (403) is located inside the discharge port (4021); the buoyancy stop column (403) is used to seal and fit the discharge port (4021); the buoyancy stop column (403) is a ceramic pore structure; the buoyancy stop column (403) is used to float in the liquid material inside the fumigation furnace; The boiling control member (6) comprises: a lifting slide shaft (601), a connecting plate (602), a buoyancy ring (603), a one-way bearing (604), a control inner ring (605) and a toggle ball (606). The lifting slide shafts (601) are provided with two, and the two lifting slide shafts (601) are respectively slidably mounted on the floating connecting frame (102); the bottom of the two lifting slide shafts (601) is fixedly mounted with a connecting plate (602); the bottom of the connecting plate (602) is fixedly mounted with a A buoyancy ring (603); the outer ring of the one-way bearing (604) is fixedly sleeved on the connecting plate (602); the inner ring of the one-way bearing (604) is fixedly sleeved with a control inner ring (605); a circle of moving balls (606) is embedded in the control inner ring (605), and the circle of moving balls (606) respectively rolls and fits on the inner side of a circle of guide grooves (4011); the buoyancy ring (603) is a hollow structure, and the buoyancy ring (603) is used to float the liquid material inside the fumigation furnace.

2. The energy-saving and environmentally friendly fuming furnace charging device according to claim 1, characterized in that: The waste heat drying element (1) further comprises: a pulverized coal connecting pipe (103) and a pulverizing motor (104); the pulverized coal connecting pipe (103) is fixedly mounted on the pulverized coal feeding pipe (1011), and a flange is provided on the pulverized coal connecting pipe (103); the pulverized coal connecting pipe (103) is externally connected to a pulverized coal hopper; the pulverizing motor (104) is mounted on the pulverized coal feeding pipe (1011), and an output shaft of the pulverizing motor (104) passes through the pulverized coal feeding pipe (1011); and a pulverizing impeller is provided on the output shaft of the pulverizing motor (104).

3. The energy-saving and environmentally friendly fuming furnace charging device according to claim 1, characterized in that: The exhaust auxiliary component (3) comprises: an exhaust pipe (301), a stop ring (302) and an air pressure sealing ball (303); the exhaust pipe (301) is fixedly mounted on the heat-conducting exhaust pipe (101); a stop ring (302) is fixedly mounted inside the exhaust pipe (301); both sides of the inside of the stop ring (302) are inclined surface structures; the air pressure sealing ball (303) is located inside the stop ring (302); the air pressure sealing ball (303) is used to seal the stop ring (302); and a hose is externally connected to the exhaust pipe (301).

4. The energy-saving and environmentally friendly fuming furnace charging device according to claim 1, characterized in that: The closed cleaning member (5) comprises: a lifting connection frame (501), a stop ring (502), a lifting column (503), a closing plug (5031) and a cleaning brush (504); the lifting connection frame (501) is fixedly mounted inside the heat-conducting discharge pipe (101); the stop ring (502) is fixedly mounted inside the heat-conducting discharge pipe (101); the lifting column (503) is slidably sleeved on the lifting connection frame (501), and a closing plug (5031) is rotatably mounted on the top of the lifting column (503); the closing plug (5031) is used to close the stop ring (502); the stop ring (502) and the closing plug (5031) are connected by a tension spring; a cleaning brush (504) is fixedly mounted on the bottom of the lifting column (503), and bristles are respectively provided on both sides of the cleaning brush (504); the cleaning brush (504) is located inside the discharge port (4021).

5. The energy-saving and environmentally friendly fuming furnace charging device according to claim 1, characterized in that: The reaction test piece (7) comprises: a fixed block (701) and an electrical connection spring (702); the fixed block (701) is fixedly mounted on the floating connection frame (102); the electrical connection spring (702) is fixedly mounted on the fixed block (701); the electrical connection spring (702) is located above the lifting slide shaft (601) on the same side.

6. The energy-saving and environmentally friendly fuming furnace charging device according to claim 5, characterized in that: The particle separator (8) comprises: an isolation mounting frame (801) and an electromagnet (802); the isolation mounting frame (801) is fixedly mounted inside the pulverized coal feed pipe (1011); and the electromagnet (802) is fixedly mounted on the isolation mounting frame (801).

7. The energy-saving and environmentally friendly fuming furnace charging device according to claim 6, characterized in that: The particle isolation member (8) further comprises: a stop disk (803), a repelling electromagnet (8031) and a closed tension spring (804), wherein the stop disk (803) is located inside the coal powder feed pipe (1011); the front end of the stop disk (803) is a sloped structure; the back of the stop disk (803) is fixedly mounted with a repelling electromagnet (8031), and the repelling electromagnet (8031) is slidably mounted on the isolation mounting frame (801); the electromagnet (802) is aligned with the repelling electromagnet (8031); the closed tension spring (804) is located outside the repelling electromagnet (8031); one end of the closed tension spring (804) is connected to the stop disk (803), and the other end of the closed tension spring (804) is connected to the isolation mounting frame (801); the power-connecting spring (702), the lifting slide shaft (601), the repelling electromagnet (8031) and the electromagnet (802) are electrically connected.

Images