Production device and production method for improving acetylene conversion rate in VCM workshop

Abstract

The invention discloses a production device and a production method for improving acetylene conversion rate in a VCM workshop, the production device comprises a carrying and assembling assembly and a crushing, grinding and feeding part, the top side of the middle part of the carrying and assembling assembly is provided with an opening and closing shell part which is installed in an inserted manner, and the top end of the opening and closing shell part is provided with a communicating and purifying assembly which is connected in a bolt sleeving manner. According to the device disclosed by the invention, the crushing motor on the crushing cabin outputs power to drive the output end to operate, so that the crushing tooth group crushes materials; a grinding base on the grinding cabin enables a rotating motor to output power to drive a connecting arm at the output end to be matched with an upper grinding roller rod to grind the grinding base into powder, and a rotating shaft rod, a flower stand, a turning piece and an inner flower strip on an upper mixing and stirring mechanism are matched for full mixing operation, so that the conversion rate of products is increased; and the danger caused by leakage is prevented by communicating with the purification assembly.

Description

Technical Field

[0001] The invention relates to the technical field of organic chemical engineering, in particular to a production device and a production method for improving the acetylene conversion rate in a VCM workshop. Background Art

[0002] VCM is the department responsible for product appearance inspection. The work content of finished product inspectors includes performance testing, appearance inspection, checking various labels, instructions, certificates, packing lists, etc. of air conditioners, affixing the factory code paper of finished products and entering them into the system for inspection. Acetylene is an organic compound with the chemical formula C2H2, commonly known as wind coal or calcium carbide gas. It is the smallest member of the alkyne compounds. It is a colorless gas at room temperature and pressure. It is slightly soluble in water, soluble in ethanol, acetone, chloroform, benzene, and miscible in ether. It is one of the important raw materials for organic synthesis and a monomer for synthetic rubber, synthetic fiber and plastic. It can also be used for oxyacetylene welding and cutting. Acetylene can be used for lighting, welding and cutting metal (oxyacetylene flame). It is also the basic raw material for manufacturing acetaldehyde, acetic acid, benzene, synthetic rubber, synthetic fiber, etc. Acetylene is mainly used for industrial purposes, used in the chemical industry, especially in welding metals. Acetylene can generate high temperatures when burned. The temperature of the oxyacetylene flame can reach about 3200 degrees Celsius. When used for cutting and welding metals, it can be completely burned to emit bright white light if supplied with an appropriate amount of air. It can be used as a lighting source in places where electric lights are not popular or there is no electricity. Acetylene has active chemical properties and can undergo addition reactions with many reagents. Acetylene is the most important raw material for organic synthesis. For example, when it is added with hydrogen chloride, hydrocyanic acid, and acetic acid, it can generate raw materials for producing polymers. Acetylene can undergo different polymerization reactions under different conditions to generate vinyl acetylene or divinyl acetylene respectively. The former can be added with hydrogen chloride to obtain the raw material for making chloroprene rubber. Acetylene can undergo cyclic trimerization to generate benzene at high temperatures of 400 to 500 degrees Celsius; cyclooctatetraene can be generated with nickel cyanide as a catalyst. Acetylene is weakly acidic. When it is passed into silver nitrate or cuprous chloride ammonia solution, white silver acetylene and reddish-brown cuprous acetylene precipitates are immediately generated, which can be used for the qualitative identification of acetylene. When these two metal acetylides are dried, they are prone to explosion when heated or impacted.

[0003] When the production device for improving the acetylene conversion rate in the existing VCM workshop is used, such as CN201110112566.X, it relates to a production device for chemical products, specifically a synthesis converter for generating vinyl chloride by reacting acetylene with hydrogen chloride. The synthesis converter for generating vinyl chloride by reacting acetylene with hydrogen chloride is a shell-and-tube converter, which can be used alone or in series, and the raw material gas flow direction can be adjusted so that the raw material gas enters the synthesis converter from the top or the bottom. The reaction tubes are provided with turbulent components which can effectively enhance heat transfer. The radial temperature distribution in the reaction tubes is uniform, and the axial temperature distribution is smooth and controllable. The shortcomings of uneven radial temperature distribution in the reaction tubes of traditional synthetic converters and the failure to quickly remove heat from the central area of ​​the reaction tubes to form local overheating and result in high-temperature sublimation loss of the catalyst are overcome. The service life of the catalyst is extended, the flux and conversion rate of the raw gas are improved, the production efficiency is high, and the operation flexibility is large. However, in the above-mentioned technology, factors such as the purity of the raw gas, the quality of the raw materials, the spatial flow rate of the converter, the molecular ratio of acetylene and hydrogen chloride, and the bed reaction temperature of the converter have a poor effect on the conversion rate. In addition, the raw materials of the equipment are prone to leakage, and the safety is poor. Therefore, we propose a production device and a production method for improving the conversion rate of acetylene in a VCM workshop to solve the above-mentioned problems. Summary of the invention

[0004] In view of the above problems, the present invention proposes a production device and a production method for improving the acetylene conversion rate in a VCM workshop. The production device and the production method for improving the acetylene conversion rate in a VCM workshop mainly utilize the output power of the pulverizing motor on the pulverizing chamber to drive the output end to operate so that the pulverizing tooth group pulverizes the material, and the grinding base on the grinding chamber is driven by the output power of the rotating motor to drive the connecting arm of the output end to cooperate with the grinding roller rod to grind the grinding base into powder, and cooperate with the rotating shaft rod, flower rack, flip sheet and inner flower strip on the mixing and stirring mechanism to fully mix and operate so that the conversion rate of the product can be improved, and the connected purification component is used to prevent the danger of leakage.

[0005] To achieve the above object, the present invention provides the following technical solutions: A production device and a production method for improving the acetylene conversion rate in a VCM workshop, comprising a mounted assembly component and a crushing and grinding feeding component, wherein a plug-in opening and closing shell component is arranged on the middle top side of the mounted assembly component, and a bolt-sleeved connecting and purification component is arranged on the top of the opening and closing shell component, a bolt-sleeved mixing and stirring mechanism is arranged on the inner side of the connecting and purification component, and a socket-mounted crushing and grinding feeding component is arranged on the inner side of the top of the mounted assembly component.

[0006] As a further technical solution, the mounting assembly includes a cushion block, a bottom support plate, a bolt base, a duct sleeve, a plug-in joint block, a slotted frame and an upper support arm, a bottom support plate is arranged on the top of the cushion block, and a bolt base for bolt assembly is arranged on the top side of the bottom support plate, a duct sleeve is arranged above the middle of the bolt base, and a plug-in joint block is arranged on the top side of the duct sleeve, slotted frames are arranged above both ends of the bolt base, and an upper support arm is arranged above the side of the slotted frame.

[0007] As a further technical solution, the opening and closing shell component includes a receiving bracket, a bolt cleaning plug, a conical bracket, a reactor, an inner tube, an electrode seat, an outer sleeve plate, an insulation layer cabin, an output valve block, a duct pipe, a filter ball seat and an output valve pipe. The receiving bracket is arranged on the top side of the plug-in terminal block, and a bolt cleaning plug with a bolt sleeve is arranged on the inner side of the receiving bracket. A conical bracket is arranged above the side of the receiving bracket, and a reactor is arranged on the top side of the conical bracket, and an inner tube for installing the electrode seat is arranged on the inner side of the reactor.

[0008] As a further technical solution, an outer sleeve plate for installing an insulation layer cabin is provided on the outer side of the reactor, an output valve block is provided at the output end of the reactor, and a duct pipe connected by bolts is provided at the output end of the output valve block, a filter ball seat is provided on the inner side of the duct pipe, and an output valve pipe connected by bolts is provided at the output end of the duct pipe.

[0009] As a further technical solution, the connecting purification component includes an upper cover, a powder connecting pipe, a control valve cabin, a drain pipe, a control valve block, a purification cabin, an isolation screen, a filter element group and an exhaust pipe port. The upper cover is arranged on the top side of the reactor, a powder connecting pipe is arranged above one end of the upper cover, and a control valve cabin installed in a sleeve is arranged on the inner side of the powder connecting pipe.

[0010] As a further technical solution, a drain pipe is arranged above the side of the upper cover, and the drain pipe is installed with a purification cabin through a control valve block, an isolation screen is arranged on the inner side of the purification cabin, and a filter element group is arranged on the opposite side of the isolation screen, and an exhaust pipe port is arranged at the output end of the purification cabin.

[0011] As a further technical solution, the mixing and stirring mechanism includes a gearbox, a drive motor, a meshing gear set, a hanging shaft seat, a rotating shaft rod, a flower stand, a flip plate and an inner flower strip. The gearbox is arranged above the inner side of the upper cover, and a meshing gear set connected to the output end of the drive motor is arranged inside the gearbox, and a hanging shaft seat is arranged at the output end of the meshing gear set.

[0012] As a further technical solution, a rotating shaft rod is arranged below the lifting shaft seat, and a flower rack is arranged on the inner side of the rotating shaft rod, a flap is arranged on the outer side of the flower rack, and an inner flower strip is arranged on the inner side of the flower rack.

[0013] As a further technical solution, the crushing and grinding feeding components include a crushing chamber, a feed port, an isolation rod group, a crushing motor, a crushing tooth group, a lower connecting pipe, a grinding chamber, a grinding base, a coupling rod, a rotating motor, a connecting arm, a grinding roller rod and a fixed base. The crushing chamber is arranged on the opposite side of the upper supporting arm, and a feed port is arranged at the top of the crushing chamber, an isolation rod group is arranged on the upper inner side of the crushing chamber, a crushing tooth group connected to the output end of the crushing motor is arranged inside the crushing chamber, the bottom end of the crushing chamber is connected to the grinding chamber through the lower connecting pipe sleeve, a grinding base is arranged inside the grinding chamber, and a coupling rod connected to the output end of the rotating motor is arranged on the inner side of the grinding base, a connecting arm is arranged at the top of the coupling rod, and a grinding roller rod is arranged on the inner side of one end of the connecting arm, and fixed bases are arranged below both ends of the grinding chamber.

[0014] As a further technical solution, when in use, the equipment is placed at the processing site through the pad and the bottom support plate, so that a duct sleeve is set above the middle of the bottom support plate to carry the output end of the opening and closing shell component, and the bolt base is installed with a slotted frame and an upper support arm to connect the purification component, the mixing and stirring mechanism, and the crushing and grinding feeding components to achieve the effect of assembly. When feeding is required, the feed port is used to input the material, so that the material is input into the crushing cabin through the feed port, and then the output power of the crushing motor output end is used to drive the crushing tooth group at the output end of the crushing motor to rotate in the opposite direction, so that the crushing tooth group cooperates with the isolation rod group to achieve The material is initially crushed, and then the material is input into the grinding base inside the grinding chamber through the lower connecting pipe through the crushing chamber. Then the output power of the rotating motor is used to drive the output end to operate. After the output power of the rotating motor is running, the connecting arm drives the grinding roller rod to rotate. After the rotation, the crushed material is finely ground into powder. The material is input into the powder connecting pipe. After the powder connecting pipe inputs the material, the output power of the control valve chamber is used to drive the output end to operate, so that the material is input to the bottom of the upper cover under the powder connecting pipe. When the material is input into the reactor under the upper cover, the storage effect can be achieved. Then Sufficient amount of electrolyte liquid is added. When cleaning is needed, the bolt cleaning plug is used for cleaning, and the plug-in bracket is used to open the reactor to achieve the cleaning effect. When processing is needed, the electrode holder on the inner tube is used to open it to achieve the effect of electric shock output. Then the output power of the driving motor is used to drive the output end to operate, so that the output power of the driving motor can drive the meshing gear set in the gearbox to perform meshing transmission operation. When the meshing gear set performs meshing transmission operation, the lifting shaft seat drives the rotating shaft rod to operate. When the lifting shaft seat drives the rotating shaft rod to operate, the flower stand, flip sheet and inner flower strip can be fully rotated. The material and the electrolyte are fully stirred and reacted during the operation, so as to achieve the effect of preparing acetylene. In the preparation of acetylene, when pollution occurs, the control valve block is opened, so that the polluted gas is input into the purification cabin through the sewage pipe, and passes through the isolation screen and the filter element group to achieve the effect of sufficient reaction. After the reaction, the purified exhaust gas is discharged from the equipment through the exhaust pipe at the output end of the purification cabin to achieve the sewage discharge effect. When the preparation of acetylene is completed, the output valve block is opened, so that acetylene is input into the filter ball seat through the duct pipe at the output end of the output valve block for filtering. After filtering, the product is finally output to the target container through the output valve pipe.

[0015] Compared with the prior art, the present invention has the following beneficial effects: The device of the invention mainly utilizes the output power of the crushing motor on the crushing chamber to drive the output end to operate so that the crushing tooth group can crush the material, and the grinding base on the grinding chamber is driven by the output power of the rotating motor to drive the connecting arm of the output end to cooperate with the grinding roller rod to grind the grinding base into powder, and cooperates with the rotating shaft rod, flower rack, flip plate and inner flower strip on the mixing and stirring mechanism to fully mix and operate to improve the conversion rate of the product, and uses the connecting purification component to prevent the risk of leakage. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural schematic diagram of a production device and a production method for improving the acetylene conversion rate in a VCM workshop; Figure 2 It is a bottom-up three-dimensional structural schematic diagram of the present invention; Figure 3 It is a schematic diagram of the three-dimensional structure of the opening and closing shell component of the present invention; Figure 4 Schematic diagram of the duct pipe and filter ball seat structure of the present invention Figure 5 It is a schematic diagram of the three-dimensional structure of the connected purification component of the present invention; Figure 6 It is a schematic diagram of the three-dimensional structure of the mixing and stirring mechanism of the present invention; Figure 7 It is a schematic diagram of the three-dimensional structure of the crushing and grinding feeding component of the present invention.

[0017] Among them: 1. Carrying assembly components; 101. Pad; 102. Bottom support plate; 103. Bolt base; 104. Duct sleeve; 105. Plug joint block; 106. Slotted frame; 107. Upper support arm; 2. Open and close shell components; 201. Plug-in support seat; 202. Bolt cleaning plug; 203. Round table support seat; 204. Reactor; 205. Inner tube; 206. Electrode seat; 207. Outer plate; 208. Insulation layer cabin; 209. Output valve block; 2010. Duct pipe; 2011. Filter ball seat; 2012. Output valve pipe; 3. Connecting purification components; 301. Upper cover; 302. Powder connecting pipe; 303. Control valve cabin; 304. Drain pipe; 305. Control valve block ; 306, purification cabin; 307, isolation screen; 308, filter element group; 309, exhaust pipe port; 4, mixing and stirring mechanism; 401, gearbox; 402, drive motor; 403, meshing gear group; 404, lifting shaft seat; 405, rotating shaft rod; 406, flower rack; 407, flip plate; 408, inner flower strip; 5, crushing and grinding feeding parts; 501, crushing cabin; 502, feeding port; 503, isolation rod group; 504, crushing motor; 505, crushing tooth group; 506, lower connecting pipe; 507, grinding cabin; 508, grinding base; 509, connecting rod; 5010, rotating motor; 5011, connecting arm; 5012, grinding roller rod; 5013, fixed base. DETAILED DESCRIPTION

[0018] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside" and the like indicate positions or positional relationships based on the positions or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, the terms "first", "second", and the like are only used for descriptive purposes, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first", "second", and the like may explicitly or implicitly include one or more of the features. In the description of the present invention, unless otherwise specified, "multiple" means two or more.

[0019] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "connected", and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood by specific circumstances.

[0020] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in 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 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.

[0021] See also Figure 1-7 In an embodiment of the present invention, a production device for improving the acetylene conversion rate in a VCM workshop includes a carrying assembly component 1 and a crushing and grinding feeding component 5, wherein a plug-in opening and closing shell component 2 is arranged on the top side of the middle part of the carrying assembly component 1, and a bolt-sleeved connecting and purification component 3 is arranged on the top of the opening and closing shell component 2, a bolt-sleeved mixing and stirring mechanism 4 is arranged on the inner side of the connecting and purification component 3, and a socket-mounted crushing and grinding feeding component 5 is arranged on the inner side of the top of the carrying assembly component 1.

[0022] The mounting assembly component 1 includes a cushion block 101, a bottom support plate 102, a bolt base 103, a duct sleeve 104, a plug-in connector block 105, a slotted frame 106 and an upper support arm 107. The bottom support plate 102 is arranged on the top of the cushion block 101, and the bolt base 103 assembled with bolts is arranged on the top side of the bottom support plate 102, the duct sleeve 104 is arranged above the middle part of the bolt base 103, and the plug-in connector block 105 is arranged on the top side of the duct sleeve 104, slotted frames 106 are arranged above both ends of the bolt base 103, and upper support arms 107 are arranged above the sides of the slotted frames 106.

[0023] In the embodiment of the present invention, when in use, the equipment is placed at the processing site through the pad 101 and the bottom support plate 102, so that the duct sleeve 104 is set above the middle of the bottom support plate 102 to carry the output end of the opening and closing shell component 2, and the bolt base 103 is installed with the slotted frame 106 and the upper support arm 107 to connect the purification component 3, the mixing mechanism 4, and the crushing and grinding feeding component 5 to achieve the purpose of assembly.

[0024] The opening and closing shell component 2 includes a receiving bracket 201, a bolt cleaning plug 202, a truncated cone bracket 203, a reactor 204, an inner tube 205, an electrode seat 206, an outer sleeve plate 207, an insulation layer cabin 208, an output valve block 209, a duct pipe 2010, a filter ball seat 2011 and an output valve pipe 2012. The receiving bracket 201 is arranged on the top side of the plug-in connector block 105, and a bolt cleaning plug 202 with a bolt sleeve is arranged on the inner side of the receiving bracket 201. A truncated cone bracket 203 is arranged above the side of the receiving bracket 201, and a reactor 204 is arranged on the top side of the truncated cone bracket 203, and an inner tube 205 for installing the electrode seat 206 is arranged on the inner side of the reactor 204.

[0025] In an embodiment of the present invention, when the material is input into the reactor 204 below the upper cover 301 to achieve the storage effect, then a sufficient amount of electrolyte liquid is added. When cleaning is required, the bolt cleaning plug 202 is used for cleaning, so that the plug-in bracket 201 opens the reactor 204 to achieve the cleaning effect. When processing is required, the electrode holder 206 on the inner tube 205 is used to open it to achieve the effect of electric shock output.

[0026] An outer jacket plate 207 for installing an insulation layer cabin 208 is arranged on the outer side of the reactor 204, an output valve block 209 is arranged on the output end of the reactor 204, and a duct pipe 2010 with bolt sleeve is arranged on the output end of the output valve block 209, a filter ball seat 2011 is arranged on the inner side of the duct pipe 2010, and an output valve pipe 2012 with bolt sleeve is arranged on the output end of the duct pipe 2010.

[0027] In the embodiment of the present invention, when acetylene is prepared, the output valve block 209 is opened so that acetylene is input into the filter ball seat 2011 through the duct pipe 2010 at the output end of the output valve block 209 for filtering. After filtering, the product is finally output to the target container through the output valve pipe 2012.

[0028] The connecting purification component 3 includes an upper cover 301, a powder connecting pipe 302, a control valve cabin 303, a drain pipe 304, a control valve block 305, a purification cabin 306, an isolation screen 307, a filter element group 308 and an exhaust pipe port 309. The upper cover 301 is arranged on the top side of the reactor 204, and a powder connecting pipe 302 is arranged above one end of the upper cover 301, and a control valve cabin 303 installed in a sleeve is arranged on the inner side of the powder connecting pipe 302.

[0029] In the embodiment of the present invention, after the powder connecting pipe 302 inputs the material, the control valve cabin 303 is used to output power to drive the output end to operate, so that the material is input to the lower part of the upper cover 301 under the powder connecting pipe 302 .

[0030] A sewage pipe 304 is arranged above the side of the upper cover 301, and the sewage pipe 304 is installed with a purification cabin 306 through a control valve block 305, an isolation screen 307 is arranged on the inner side of the purification cabin 306, and a filter element group 308 is arranged on the opposite side of the isolation screen 307, and an exhaust pipe port 309 is arranged at the output end of the purification cabin 306.

[0031] In an embodiment of the present invention, during the preparation of acetylene, when pollution occurs, the control valve block 305 is opened so that the polluted gas is input into the purification chamber 306 through the sewage pipe 304, and passes through the isolation screen 307 and the filter element group 308 to achieve a sufficient reaction effect. After the reaction, the purified exhaust gas is discharged from the equipment through the exhaust pipe port 309 at the output end of the purification chamber 306, thereby achieving the sewage discharge effect.

[0032] The mixing and stirring mechanism 4 includes a gearbox 401, a driving motor 402, a meshing gear set 403, a hanging shaft seat 404, a rotating shaft rod 405, a flower stand 406, a flip plate 407 and an inner flower strip 408. The gearbox 401 is arranged above the inner side of the upper cover 301. The interior of the gearbox 401 is provided with a meshing gear set 403 connected to the output end of the driving motor 402, and the output end of the meshing gear set 403 is provided with a hanging shaft seat 404.

[0033] In an embodiment of the present invention, the drive motor 402 is then used to output power to drive the output end to operate, so that the output power of the drive motor 402 can drive the meshing gear set 403 in the gearbox 401 to perform meshing transmission operation. After the meshing gear set 403 performs meshing transmission operation, the lifting shaft seat 404 drives the rotating shaft rod 405 to operate.

[0034] A rotating shaft rod 405 is arranged below the lifting shaft seat 404 , and a flower rack 406 is arranged on the inner side of the rotating shaft rod 405 , a flap 407 is arranged on the outer side of the flower rack 406 , and an inner flower strip 408 is arranged on the inner side of the flower rack 406 .

[0035] In the embodiment of the present invention, when the hoisting shaft seat 404 drives the rotating shaft rod 405 to operate, the flower rack 406, the flip plate 407 and the inner flower strip 408 can fully rotate, so that the material and the electrolyte can be fully stirred and reacted to achieve the effect of preparing acetylene.

[0036] The crushing and grinding feeding component 5 includes a crushing cabin 501, a feeding port 502, an isolation rod group 503, a crushing motor 504, a crushing tooth group 505, a lower connecting pipe 506, a grinding cabin 507, a grinding base 508, a connecting rod 509, a rotating motor 5010, a connecting arm 5011, a grinding roller rod 5012 and a fixed base 5013. The crushing cabin 501 is arranged on the opposite side of the upper supporting arm 107, the top of the crushing cabin 501 is provided with a feeding port 502, the upper inner side of the crushing cabin 501 is provided with an isolation rod group 503, and the crushing cabin 50 1 is provided with a crushing tooth group 505 connected to the output end of the crushing motor 504, the bottom end of the crushing cabin 501 is sleeved and connected with the grinding cabin 507 through the lower connecting pipe 506, the grinding base 508 is provided inside the grinding cabin 507, and the inner side of the grinding base 508 is provided with a connecting rod 509 connected to the output end of the rotating motor 5010, the top of the connecting rod 509 is provided with a connecting arm 5011, and the inner side of one end of the connecting arm 5011 is provided with a grinding roller rod 5012, and fixed bases 5013 are provided below the two ends of the grinding cabin 507.

[0037] In an embodiment of the present invention, when feeding is required, the feed port 502 is used to input the material, so that the material is input into the crushing chamber 501 through the feed port 502, and then the output power of the crushing motor 504 output end is used to drive the crushing tooth group 505 at the output end of the crushing motor 504 to rotate in opposite directions, so that the crushing tooth group 505 cooperates with the isolation rod group 503 to achieve the effect of preliminary crushing of the material, and through the crushing of the crushing chamber 501, the material is input into the grinding base 508 inside the grinding chamber 507 through the lower connecting pipe 506, and then the rotating motor 5010 is used to output power to drive the output end to operate, so that after the rotating motor 5010 outputs power and runs, the connecting arm 5011 drives the grinding roller rod 5012 to rotate, and after rotation, the crushed material is finely ground into powder, and the material is input into the powder connecting pipe 302.

[0038] A production method of a production device for improving acetylene conversion rate in a VCM workshop is as follows: when in use, the device is placed at a processing location through a cushion block 101 and a bottom support plate 102, so that a duct sleeve seat 104 is arranged above the middle of the bottom support plate 102 to carry the output end of the opening and closing shell component 2, and a slotted frame 106 and an upper support arm 107 are installed on a bolt base 103 to connect a purification component 3, a mixing and stirring mechanism 4, and a crushing and grinding feeding component 5 to achieve the effect of assembly. When feeding is required, a feed port 502 is used to input materials, so that the materials are input into a crushing chamber 501 through the feed port 502, and then the output power of a crushing motor 504 is used to drive a crushing tooth group 505 at the output end of the crushing motor 504 to perform The grinding teeth group 505 cooperates with the isolation rod group 503 to achieve the effect of preliminary crushing of the material. Through the crushing of the crushing chamber 501, the material is input to the grinding base 508 inside the grinding chamber 507 through the lower connecting pipe 506. Then, the rotating motor 5010 is used to output power to drive the output end to operate. After the rotating motor 5010 outputs power to operate, the connecting arm 5011 drives the grinding roller rod 5012 to rotate. After the rotation, the crushed material is finely ground into powder and input into the powder connecting pipe 302. After the powder connecting pipe 302 inputs the material, the control valve chamber 303 is used to output power to drive the output end to operate, so that the material is input into the powder connecting pipe 302. Below the upper cover 301, when the material is input into the reactor 204 below the upper cover 301 to achieve the storage effect, then add a sufficient amount of electrolyte liquid. When cleaning is required, use the bolt cleaning plug 202 to clean it, so that the plug-in bracket 201 opens the reactor 204 to achieve the cleaning effect. When processing is required, use the electrode holder 206 on the inner tube 205 to open it to achieve the effect of electric shock output, and then use the drive motor 402 to output power to drive the output end to operate, so that the drive motor 402 output power can drive the meshing gear set 403 in the gearbox 401 to mesh and drive. After the meshing gear set 403 is meshed and driven, the lifting shaft seat 404 drives the rotating shaft rod 405 to operate. After the lifting shaft seat 404 drives the rotating shaft rod 405 to operate, the flower rack 406, the flip sheet 407 and the inner flower strip 408 can fully rotate, so that the material and the electrolyte can be fully stirred and reacted to achieve the effect of preparing acetylene. In the preparation of acetylene, when pollution occurs, the control valve block 305 is opened, so that the polluted gas is input into the purification cabin 306 through the sewage pipe 304, and passes through the isolation screen 307 and the filter element group 308 to achieve the effect of full reaction. After the reaction, the purified exhaust gas is discharged from the equipment through the exhaust pipe port 309 at the output end of the purification cabin 306 to achieve the effect of sewage discharge. When the preparation of acetylene is completed, the output valve block 209 is opened.The acetylene is input into the filter ball seat 2011 through the duct pipe 2010 at the output end of the output valve block 209 for filtering. After filtering, the product is finally output to the target container through the output valve pipe 2012.

[0039] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0040] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A production device for improving acetylene conversion rate in a VCM workshop, comprising a mounting assembly component (1) and a crushing and grinding feeding component (5), characterized in that: An insert-mounted opening and closing housing component (2) is disposed on the top side of the middle portion of the carrying assembly component (1), and a bolt-sleeved connecting and purification component (3) is disposed on the top end of the opening and closing housing component (2), a bolt-sleeved mixing and stirring mechanism (4) is disposed on the inner side of the connecting and purification component (3), and a sleeve-mounted crushing and grinding feeding component (5) is disposed on the inner side of the top end of the carrying assembly component (1).

2. A production device for improving acetylene conversion rate in a VCM workshop according to claim 1, characterized in that: The mounting assembly component (1) comprises a cushion block (101), a bottom support plate (102), a bolt base (103), a duct sleeve (104), a plug connector block (105), a slotted frame (106) and an upper support arm (107); the top of the cushion block (101) is provided with a bottom support plate (102), and the top side of the bottom support plate (102) is provided with a bolt base (103) for bolt assembly; the middle of the bolt base (103) is provided with a duct sleeve (104), and the top side of the duct sleeve (104) is provided with a plug connector block (105); the slotted frames (106) are provided above both ends of the bolt base (103), and the upper support arm (107) is provided above the side of the slotted frame (106).

3. A production device for improving acetylene conversion rate in a VCM workshop according to claim 2, characterized in that: The opening and closing housing component (2) comprises a receiving socket (201), a bolt cleaning plug (202), a truncated cone socket (203), a reactor (204), an inner tube (205), an electrode seat (206), an outer sleeve (207), an insulation layer cabin (208), an output valve block (209), a duct pipe (2010), a filter ball seat (2011) and an output valve pipe (2012); the receiving socket (201) is arranged on the top side of the plug connector block (105); a bolt cleaning plug (202) sleeved with bolts is arranged on the inner side of the receiving socket (201); a truncated cone socket (203) is arranged above the side of the receiving socket (201); a reactor (204) is arranged on the top side of the truncated cone socket (203); and an inner tube (205) for mounting the electrode seat (206) is arranged on the inner side of the reactor (204).

4. A production device for improving acetylene conversion rate in a VCM workshop according to claim 3, characterized in that: An outer jacket plate (207) for installing a thermal insulation layer cabin (208) is arranged on the outer side of the reactor (204), an output valve block (209) is arranged on the output end of the reactor (204), and a duct pipe (2010) sleeved with bolts is arranged on the output end of the output valve block (209), a filter ball seat (211) is arranged on the inner side of the duct pipe (2010), and an output valve pipe (212) sleeved with bolts is arranged on the output end of the duct pipe (2010).

5. The production device for improving acetylene conversion rate in a VCM workshop according to claim 3, characterized in that: The connecting purification component (3) comprises an upper cover (301), a powder connecting pipe (302), a control valve cabin (303), a sewage pipe (304), a control valve block (305), a purification cabin (306), an isolation screen (307), a filter element group (308) and an exhaust pipe port (309), wherein the upper cover (301) is arranged on the top side of the reaction kettle (204), a powder connecting pipe (302) is arranged above one end of the upper cover (301), and a control valve cabin (303) is arranged on the inner side of the powder connecting pipe (302) and is sleeved and installed.

6. A production device for improving acetylene conversion rate in a VCM workshop according to claim 5, characterized in that: A sewage discharge pipe (304) is arranged above the side of the upper cover (301), and the sewage discharge pipe (304) is sleeved with a purification cabin (306) via a control valve block (305); an isolation screen (307) is arranged on the inner side of the purification cabin (306), and a filter element group (308) is arranged on the opposite side of the isolation screen (307); and an exhaust pipe port (309) is arranged at the output end of the purification cabin (306).

7. The production device for improving acetylene conversion rate in a VCM workshop according to claim 5, characterized in that: The mixing and stirring mechanism (4) comprises a gearbox (401), a drive motor (402), a meshing gear set (403), a hanging shaft seat (404), a rotating shaft rod (405), a flower stand (406), a flip plate (407) and an inner flower strip (408); the gearbox (401) is arranged above the inner side of the upper cover (301); a meshing gear set (403) connected to the output end of the drive motor (402) is arranged inside the gearbox (401); and a hanging shaft seat (404) is arranged at the output end of the meshing gear set (403).

8. A production device for improving acetylene conversion rate in a VCM workshop according to claim 7, characterized in that: A rotating shaft rod (405) is arranged below the lifting shaft seat (404), and a flower stand (406) is arranged on the inner side of the rotating shaft rod (405), a flap (407) is arranged on the outer side of the flower stand (406), and an inner flower strip (408) is arranged on the inner side of the flower stand (406).

9. The production device for improving acetylene conversion rate in a VCM workshop according to claim 2, characterized in that: The crushing and grinding feeding component (5) comprises a crushing chamber (501), a feeding port (502), an isolation rod group (503), a crushing motor (504), a crushing tooth group (505), a lower connecting pipe (506), a grinding chamber (507), a grinding base (508), a connecting rod (509), a rotating motor (5010), a connecting arm (5011), a grinding roller rod (5012) and a fixed base (5013); the crushing chamber (501) is arranged on the opposite side of the upper supporting arm (107); the top of the crushing chamber (501) is provided with a feeding port (502); the upper inner side of the crushing chamber (501) is provided with an isolation rod group (503); the crushing chamber (501) is provided with a grinding roller rod (5012); A crushing tooth group (505) connected to the output end of a crushing motor (504) is arranged inside the chamber (501); the bottom end of the crushing chamber (501) is sleeved and connected to a grinding chamber (507) via a lower connecting pipe (506); a grinding base (508) is arranged inside the grinding chamber (507); a connecting rod (509) connected to the output end of a rotating motor (5010) is arranged on the inner side of the grinding base (508); a connecting arm (5011) is arranged at the top end of the connecting rod (509); a grinding roller rod (5012) is arranged on the inner side of one end of the connecting arm (5011); and fixed bases (5013) are arranged below both ends of the grinding chamber (507).

10. A method for producing a production device for improving acetylene conversion rate in a VCM workshop according to any one of claims 1 to 9, characterized in that: When in use, the device is placed at a processing location via a cushion block (101) and a bottom support plate (102), so that a duct sleeve (104) is provided above the middle of the bottom support plate (102) to carry the output end of the opening and closing shell component (2), and the bolt base (103) is installed with an upper slotted frame (106) and an upper support arm (107) to connect the purification component (3), the mixing and stirring mechanism (4), and the crushing and grinding feeding component (5) to achieve the purpose of assembly. When feeding is required, the feed port (502) is used to input the material, so that the material is input into the crushing chamber (501) through the feed port (502), and then the output power of the crushing motor (504) is used to drive the crushing tooth group (505) at the output end of the crushing motor (504) ... ) are rotated in opposite directions, so that the crushing tooth group (505) cooperates with the isolation rod group (503) to achieve the effect of preliminary crushing of the material. Through the crushing of the crushing chamber (501), the material is input into the grinding base (508) inside the grinding chamber (507) through the lower connecting pipe (506), and then the rotating motor (5010) is used to output power to drive the output end to operate. After the rotating motor (5010) outputs power to operate, the connecting arm (5011) drives the grinding roller rod (5012) to rotate. After the rotation, the crushed material is finely ground into powder, and the material is input into the powder connecting pipe (302). After the powder connecting pipe (302) inputs the material, the control valve chamber (303) is used to output power. After driving the output end to operate, the material is input to the lower part of the upper cover (301) below the powder connecting tube (302). When the material is input into the reactor (204) below the upper cover (301), a storage effect is achieved. Then, a sufficient amount of electrolytic liquid is added. When cleaning is required, the bolt cleaning plug (202) is used to clean the reactor (204), so that the plug-in bracket (201) opens the reactor (204) to achieve a cleaning effect. When processing is required, the electrode holder (206) on the inner tube (205) is used to open the reactor to achieve an electric shock output effect. Then, the output power of the driving motor (402) is used to drive the output end to operate, so that the output power of the driving motor (402) can drive the gearbox (401). The meshing gear set (403) is meshed and driven. When the meshing gear set (403) is meshed and driven, the hoisting shaft seat (404) drives the rotating shaft rod (405) to operate. When the hoisting shaft seat (404) drives the rotating shaft rod (405) to operate, the flower rack (406), the flip plate (407) and the inner flower strip (408) are fully rotated, so that the material and the electrolyte can be fully stirred and reacted to achieve the effect of preparing acetylene. During the preparation of acetylene, when pollution is generated, the control valve block (305) is opened to allow the polluted gas to be input into the purification cabin (306) through the sewage pipe (304), and pass through the isolation screen (307) and the filter element group (308) to achieve the effect of full reaction.After the reaction, the purified waste gas is discharged from the equipment through the exhaust pipe port (309) at the output end of the purification chamber (306), thereby achieving the effect of sewage discharge. When the acetylene preparation is completed, the output valve block (209) is opened, so that the acetylene is input into the filter ball seat (211) through the duct pipe (210) at the output end of the output valve block (209) for filtering. After filtering, the product is finally output to the target container through the output valve pipe (212).

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