A water purifier polymerization reaction heating device and production process

Abstract

The invention relates to the field of heating devices, and discloses a water purifier polymerization reaction heating device and a production process, including a heating device body for heating a mixed liquid, wherein the heating device body includes a heating tank body, a steam heating generator, a high-temperature cleaning device and an arched heat circulation plate body. In the invention, the high-temperature gas flow in the heating tank body can be guided and received by a connecting pipe 2, and discharged outwardly through a heating channel to form a high-speed gas flow effect. In this process, water in a water tank is drawn by a pump 1 to flow along a connecting pipe 4, and the high-temperature gas in the heating channel is used to heat and preheat the water in the connecting pipe 4, and the temperature of the connecting pipe 4 is reduced by the water in the water tank to achieve a temperature difference, thereby further accelerating the flow of the high-temperature gas in the connecting pipe 2, increasing the gas flow speed in the heating tank body, and balancing the temperature in the heating tank body by accelerating the gas flow speed.

Description

Technical Field

[0001] The invention relates to the field of heating devices, in particular to a water purifier polymerization reaction heating device and a production process. Background Art

[0002] Water purifier is a general term for polymers in a broad sense. Through polymerization reaction, it can adsorb and remove impurities and pollutants in water, thereby improving the purity and cleanliness of water quality. In the existing water purifier production process, water and water purifier are usually added to the reaction tank, and the temperature in the tank is increased by heating to promote the polymerization reaction. However, the traditional heating method has some shortcomings. First, when heating the tank, the gas in the tank cannot flow, so that the air flow speed on the surface of the mixed liquid in the tank is slow, causing the mixed liquid of the polymerization reaction to be static as a whole. In addition, the heating temperature in the tank is uneven due to the heating by electric heating, resulting in unstable heating efficiency.

[0003] Before the valve is opened, the mixed liquid will accumulate in the lower inner part of the tank body, and the mixed liquid will be heated from the outside to the inside by electric heating, so that the overall temperature of the mixed liquid rises slowly. After the reaction tank discharges the mixed liquid, some mixed liquid will remain in the reaction tank. Due to the accelerated gas flow and high temperature, the liquid in the remaining mixed liquid will be evaporated, causing the water content of the mixed liquid to decrease, and it will solidify in the tank body and cannot be effectively removed and discharged. Summary of the invention

[0004] The present invention provides a water purifier polymerization reaction heating device and a production process, which overcome the shortcomings described in the background technology.

[0005] The technical solution adopted by the present invention to solve its technical problem is:

[0006] A water purifier polymerization reaction heating device, comprising a heating device body for heating a mixed liquid, the heating device body comprising a heating tank body, a steam heating generator, a high-temperature cleaning device and an arcuate heating circulation plate body, the arcuate heating circulation plate body is installed in the heating tank body, the arcuate heating circulation plate body is an arcuate structure, and the steam heating generator and the high-temperature cleaning device are both arranged outside the heating tank body;

[0007] The arcuate heat circulation plate body comprises a plurality of inclined plates, wherein two adjacent inclined plates above and below are connected to form a flared structure through a connecting plate, and the large-diameter ends of the two adjacent flared structures above and below face oppositely, and except for the inclined plate located at the bottom, the upper surfaces of the other inclined plates have inwardly concave step edges, and the lower ends of all the step edges are provided with strip-shaped openings penetrating downward;

[0008] The steam heating generator includes a steam generator, a connecting pipe and a steam nozzle. The steam nozzles are respectively arranged on the surface of the heating tank body at corresponding positions close to each flared structure, and the steam nozzles are arranged close to the side of the large diameter of the flared structure. The steam nozzles extend into the heating tank body and are arranged toward the flared structure. The steam generator is arranged at the lower part of the heating tank body, and the steam generator is connected to an external water pump for water supply. The steam generator is connected to the inner end of the heating tank body through a steam delivery pipe. The steam generator is connected to each steam nozzle through a connecting pipe, so that water is heated by the steam generator, and the water is delivered to each steam nozzle and the steam delivery pipe through the connecting pipe, and water and steam are sprayed toward the surface of the heating tank body.

[0009] A preferred technical solution, the high-temperature cleaning device includes a heat recovery component, a water tank, and a water flow nozzle. The heat recovery component is connected to the upper end of the heating tank body through a connecting pipe 2, and the heat recovery component is connected to the water flow nozzle through a connecting pipe 3. The water tank is connected to the lower end of the heat recovery component to guide the steam in the heating tank body to the heat recovery component through the connecting pipe 2. The heat recovery component is provided with a heating channel and a connecting pipe 4, and the connecting pipe 4 runs through the heating channel. The water tank is connected to the connecting pipe 3 through the connecting pipe 4, and a pump 1 is provided on the side of the connecting pipe 4 close to the connecting pipe 3 to pump the water in the water tank to the connecting pipe 3 through the pump 1;

[0010] One end of the heating channel is connected to the connecting pipe 2, and the other end extends out of the surface of the heat recovery component, so that the steam is guided into the heating channel through the connecting pipe 2 to heat the connecting pipe 4, and then discharged out of the heat recovery component.

[0011] A preferred technical solution is that there are multiple water flow nozzles, and two adjacent water flow nozzles are connected to each other through a connecting pipe. The water flow nozzles are arranged on the surface of the heating tank body near the small-diameter end of each flared structure. Each water flow nozzle has a plurality of nozzles on the side, each nozzle extends into the heating tank body and passes through the connecting plate, and each nozzle is inclined toward the step edge.

[0012] A preferred technical solution is that a bow-shaped chamber is formed in the heating tank body by an arched heat circulation plate body, and there are gaps for steam flow between the left and right sides of the arched heat circulation plate body and the heating tank body. When the steam generator produces steam and discharges the steam into the heating tank body through the steam delivery pipe, the steam will flow upward along the strip openings and the gaps.

[0013] A preferred technical solution is that a material lifting pipe is also provided in the middle of the arched heat circulation plate body, and the material lifting pipe passes through the arched heat circulation plate body from bottom to top. The material lifting pipe includes a tube body and a threaded rod. The threaded rod is arranged in the tube body, and the threaded rod is installed on the output shaft of a motor. An adaptive groove is provided on the surface of the inclined plate located at the lower side. A lower discharge port is provided at the lower part of the tube body near the adaptive groove, and an upper discharge port is provided at the upper part of the tube body near the inclined plate located at the upper side, so that the mixed liquid can flow into the tube body through the lower discharge port, and then be lifted upward by the rotating threaded rod, and discharged through the upper discharge port to the step edge provided on the surface of the inclined plate located at the upper side.

[0014] A preferred technical solution is that an electric push rod is provided at the lower part of the tube body near the lower discharge port, and a closed tube body is connected to the output shaft of the electric push rod. The closed tube body is sleeved outside the tube body near the lower discharge port, so that the opening and closing of the lower discharge port can be adjusted by controlling the lifting of the closed tube body through the electric push rod.

[0015] A preferred technical solution, the adaptive groove includes a guide groove and an overflow groove, the guide groove and the overflow groove are both arranged in an inclined shape, and the depth of the guide groove is deeper than the depth of the overflow groove, the overflow groove is connected to the lower end of the guide groove, the lower end edge of the lower outlet is arranged at the connecting end of the guide groove and the overflow groove, and the lower end edge of the lower outlet is flush with the surface of the guide groove. When the guide groove guides the mixed liquid to flow downward, it flows into the tube body through the lower outlet. When the electric push rod drives the closed tube body to close the lower outlet, the mixed liquid on the surface of the guide groove will gather at its lowest point and continue to rise until it flows into the overflow groove;

[0016] The overflow groove extends to the edge of the inclined plate. When the mixed liquid flows into the overflow groove, it will continue to flow and drip downward until it is discharged into the arched heat circulation plate body set at the bottom of the heating tank body.

[0017] Among them, the circulation equipment includes pump 2, which is connected to the lower inner part of the heating tank body near the overflow groove surface through a receiving pipe, so that the mixed liquid dripping from the overflow groove can be received by pump 2. The pump 2 is also connected to the upper part of the heating tank body through a connecting pipe 6, so that the received mixed liquid can be extracted by pump 2 and discharged to the upper part of the heating tank body along the connecting pipe 6.

[0018] A production process for a water purifier polymerization reaction heating device is applied to the water purifier polymerization reaction heating device, and is characterized in that a solid raw material bin is filled with solid raw materials for preparing water purifiers, and a liquid raw material bin is filled with liquid raw materials for preparing water purifiers, and the solid raw materials and liquid raw materials are respectively discharged into a mixing bin through a conveyor belt and a feed pipe to be mixed and stirred into a mixed liquid, and then the mixed liquid is transported to a heating device body for heating, and then the mixed liquid is subjected to solid-liquid separation treatment by a solid-liquid separator connected to the heating device body, and samples in the solid-liquid separator are continuously and intermittently extracted by a sampling machine until the samples are qualified and discharged into a finished product tank for storage.

[0019] Compared with the background technology, this technical solution has the following advantages:

[0020] In the present invention, the high-temperature steam flow in the heating tank can be guided and received through the connecting pipe two. Due to the large temperature difference between the inside and outside of the heating tank, the high-temperature and high-pressure air will flow towards the low-temperature and low-pressure air. Therefore, the connecting pipe two can guide the high-temperature steam to flow along the heating channel and be discharged outwardly through the heating channel to form a high-speed gas flow effect. In this process, the water in the water tank is drawn by the pump one to flow along the connecting pipe four, and the high-temperature gas in the heating channel is used to heat and preheat the water in the connecting pipe four, avoiding the water discharged into the heating tank along the connecting pipe three, and excessively lowering the temperature in the heating tank. This is mainly to achieve the recovery and application of the high-temperature gas in the heating tank, and to reduce the temperature of the connecting pipe four by the water in the water tank to achieve a temperature difference, thereby further accelerating the flow of the high-temperature gas in the connecting pipe two, increasing the gas flow rate in the heating tank, and balancing the temperature in the heating tank by accelerating the gas flow rate.

[0021] In the present invention, the mixed liquid can be continuously guided to flow through the arcuate heat circulation plate body, and the temperature of the entire mixed liquid can be balanced by allowing the mixed liquid to flow, so that the mixed liquid is heated evenly, and after the mixed liquid is discharged, the high-temperature cleaning device can be used to spray liquid to flush the residues attached to the surface of the arcuate heat circulation plate body. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] The present invention will be further described below in conjunction with the accompanying drawings and embodiments.

[0023] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0024] Figure 2 A schematic diagram of the heating device body.

[0025] Figure 3 for Figure 3 A three-dimensional schematic diagram of .

[0026] Figure 4 for Figure 3Schematic diagram of half section.

[0027] Figure 5 for Figure 4 A front view schematic diagram of .

[0028] Figure 6 Schematic diagram of the steam heating generator and high temperature cleaning device.

[0029] Figure 7 Schematic diagram of the heat recovery component.

[0030] Figure 8 for Figure 7 A front view schematic diagram of .

[0031] Fig. 9 It is a schematic diagram of the bow-shaped heat circulation plate and the heating tank.

[0032] Fig.10 It is a schematic diagram of the arched heat circulation plate and the material lifting pipe.

[0033] Fig.11 This is a schematic diagram of the lower outlet being opened.

[0034] Fig.12 This is a schematic diagram of the lower row opening when it is closed.

[0035] Fig.13 Schematic diagram of the diversion trough and overflow trough.

[0036] Fig.14 Schematic diagram of the material lifting pipe.

[0037] In the figure: solid raw material bin 100, conveyor belt 101, liquid raw material bin 200, feed pipe 201, mixing bin 300, heating device body 400, solid-liquid separator 500, sampling machine 600;

[0038] Heating tank 41, steam heating generator 42, high temperature cleaning device 43, arcuate heating circulation plate 44, material lifting pipe 45, circulation equipment 46;

[0039] Steam generator 421, steam delivery pipe 4211, connecting pipe 1 422, steam nozzle 423;

[0040] Heat recovery component 431, connecting pipe 2 4311, connecting pipe 3 4312, heating channel 311, connecting pipe 4 312, pump 1 313, water tank 432, water flow nozzle 433, connecting pipe 5 4331;

[0041] Step edge 441, strip opening 442, adaptive groove 443, guide groove 4431, overflow groove 4432;

[0042] Tube body 451, upper outlet 4511, lower outlet 4512, threaded rod 452, motor 4521, electric push rod 453, closed tube body 454;

[0043] Pump two 461, receiving pipe 462, connecting pipe six 463. DETAILED DESCRIPTION

[0044] like Figure 1-Figure 14 As shown, a water purifier polymerization reaction heating device and production process include a heating device body 400 for heating a mixed liquid, the heating device body 400 includes a heating tank body 41, a steam heating generator 42, a high-temperature cleaning device 43 and a bow-shaped heated circulation plate body 44, the bow-shaped heated circulation plate body 44 is installed in the heating tank body 41, the bow-shaped heated circulation plate body 44 is a bow-shaped structure, the steam heating generator 42 and the high-temperature cleaning device 43 are both arranged on the outside of the heating tank body 41, and the bow-shaped heated circulation plate body 44 adopts a bow-shaped structure. This design allows steam and heat to be more evenly distributed in the heating tank body 41, avoiding the problem of resource waste caused by the floating of hot air in traditional steam heating.

[0045] The arcuate heat circulation plate body 44 includes a plurality of inclined plates, and two adjacent upper and lower inclined plates form a flared structure through a connecting plate, and the large-diameter ends of the two adjacent upper and lower flared structures face oppositely. Except for the inclined plate located at the lowest side, the upper surfaces of the other inclined plates have an inwardly recessed step edge 441, and the lower ends of all the step edges 441 are provided with a strip opening 442 that penetrates downward. The design of the strip opening allows steam and heat to flow between adjacent inclined plates through the opening, further improving the heat utilization rate and the heating efficiency of the mixed liquid.

[0046] The steam heating generator 42 includes a steam generator 421, a connecting pipe 422 and a steam nozzle 423. The steam nozzles 423 are respectively arranged on the surface of the heating tank body 41 near the corresponding positions of each flared structure, and the steam nozzles 423 are arranged near the side with a large diameter of the flared structure. This layout allows the steam to be directly sprayed toward the flared structure, thereby heating the mixed liquid more efficiently. The steam nozzles 423 extend into the heating tank body 41 and are arranged toward the flared structure. The steam The steam generator 421 is arranged at the lower part of the heating tank body 41. The steam generator 421 is connected to an external water pump for water supply. The steam generator 421 is connected to the inner end of the heating tank body 41 through a steam delivery pipe 4211. The steam generator 421 is connected to each steam nozzle 423 through a connecting pipe 422, so that water is heated by the steam generator 421, and the water is delivered to each steam nozzle 423 and the steam delivery pipe 4211 through the connecting pipe 422, and water and steam are sprayed toward the surface of the heating tank body 41;

[0047] When the mixed liquid needs to be heated, the steam generator 421 starts to work, and heats the water provided by the water pump into steam. The steam is transported to each steam nozzle 423 through the connecting pipe 1 422, and sprayed to the arcuate heating circulation plate body 44 in the heating tank body 41. The steam and heat circulate in the arcuate heating circulation plate body 44 to uniformly heat the mixed liquid. After the polymerization reaction is completed, the high-temperature cleaning device 43 performs high-temperature cleaning on the heating tank body 41 and the arcuate heating circulation plate body 44.

[0048] Further, the high-temperature cleaning device 43 includes a heat recovery component 431, a water tank 432, and a water flow nozzle 433. The heat recovery component 431 is connected to the upper end of the heating tank body 41 through a connecting pipe 2 4311, and the heat recovery component 431 is connected to the water flow nozzle 433 through a connecting pipe 3 4312. The water tank 432 is connected to the lower end of the heat recovery component 431 to guide the steam in the heating tank body 41 to the heat recovery component 431 through the connecting pipe 2 4311. The heat recovery component 431 is provided with a heating channel 311 and a connecting pipe 4 312. The connecting pipe 4 312 passes through the heating channel 311. The water tank 432 is connected to the connecting pipe 3 4312 through the connecting pipe 4 312, and a pump 1 313 is provided on the side of the connecting pipe 4 312 close to the connecting pipe 3 4312 to pump the water in the water tank 432 to the connecting pipe 3 4312 through the pump 1 313.

[0049] One end of the heating channel 311 is connected to the second connecting pipe 4311, and the other end extends out of the surface of the heat recovery component 431, so as to guide the steam into the heating channel 311 through the second connecting pipe 4311 to heat the connecting pipe 4 312, and then discharge it out of the heat recovery component 431;

[0050] The warm cleaning device 43 plays a vital role in the steam heating device for the polymerization reaction of the water purifier. It can not only recycle and utilize the remaining steam in the heating tank body 41, but also can efficiently clean the equipment with the heated water. During the heating process, steam will continue to exist in the heating tank body 41. This part of the steam will be guided to the heat recovery component 431 through the connecting pipe 2 4311. After the steam enters the heating channel 311 of the heat recovery component 431, it will heat the connecting pipe 4 312. In this process, the heat of the steam is fully utilized and converted into the thermal energy of water. The water in the water tank 432 is pumped to the connecting pipe 3 4312 by the pump 1 313 through the connecting pipe 4 312. In the connecting pipe 3, the water is further heated to reach a high temperature state. The heated water is sprayed onto the surface of the heating tank body 41 or the bow-shaped heated circulation plate body 44 through the water flow nozzle 433. The high-temperature water flow can quickly dissolve and flush away the residue on the surface to achieve efficient cleaning.

[0051] The cleaning process is as follows:

[0052] After the polymerization reaction is completed, the steam supply of the heating tank body 41 is turned off, and a period of time is waited to allow the steam pressure in the heating tank body to drop to a safe range, and the pump 313 is started to pump the water in the water tank 432 to the connecting pipe 3 4312 through the connecting pipe 4 312. When the water temperature in the water flow nozzle 433 reaches the set value, the water flow nozzle is turned on to spray the high-temperature water flow onto the surface of the step edge 441 of the arched heated circulation plate body 44. The high-temperature water flow quickly dissolves the residue on the surface of the step edge and washes it away. At the same time, the water flow flows along the inclined direction of the step edge to ensure uniform cleaning of the entire surface. The spraying angle and spraying time of the water flow nozzle can be adjusted as needed to ensure the cleaning effect. After the cleaning is completed, the water flow nozzle 433 and the pump 313 are turned off, the remaining water in the water tank 432 is discharged, and the water tank and the connecting pipe are cleaned to avoid the residue from affecting the next cleaning. The cleaning effect of the heating tank body 41 and the arched heated circulation plate body 44 is checked, and a secondary cleaning is performed if necessary.

[0053] Furthermore, there are multiple water nozzles 433, and two adjacent water nozzles 433 are connected by a connecting pipe 4331. The water nozzles 433 are arranged on the surface of the heating tank body 41 close to the small-diameter end of each flared structure. Each water nozzle 433 has a plurality of nozzles on the side, each nozzle extends into the heating tank body 41 and passes through the connecting plate, and each nozzle is inclined toward the step edge 441.

[0054] In addition, a bow-shaped chamber is formed in the heating tank body 41 by the bow-shaped heat circulation plate body 44. There are gaps for steam flow between the left and right sides of the bow-shaped heat circulation plate body 44 and the heating tank body 41. When the steam generator 421 produces steam and discharges the steam into the heating tank body 41 through the steam delivery pipe 4211, the steam will flow upward along the strip openings 442 and the gaps.

[0055] In addition, a material lifting pipe 45 is further provided in the middle of the arched heat circulation plate body 44. The material lifting pipe 45 passes through the arched heat circulation plate body 44 from bottom to top. The material lifting pipe 45 includes a tube body 451 and a threaded rod 452. The threaded rod 452 is arranged in the tube body 451 and installed on the output shaft of a motor 4521. An adaptive groove 443 is arranged on the surface of the inclined plate at the lowermost side. A lower discharge port 4512 is arranged near the adaptive groove 443 at the lower part of the tube body 451. An upper discharge port 4511 is arranged near the inclined plate at the uppermost side, so that the mixed liquid flows into the tube body 451 through the lower discharge port 4512, and then is lifted upward by the rotating threaded rod 452, and discharged to the step edge 441 arranged on the surface of the inclined plate at the uppermost side through the upper discharge port 4511.

[0056] In addition, an electric push rod 453 is provided at the lower part of the tube body 451 near the lower outlet 4512, and a closed tube body 454 is connected to the output shaft of the electric push rod 453. The closed tube body 454 is sleeved outside the tube body 451 near the lower outlet 4512, so that the electric push rod 453 controls the lifting of the closed tube body 454 to adjust the opening and closing of the lower outlet 4512;

[0057] The mixed liquid is first discharged into the heating tank body 41 through the tank body opening provided at the upper part of the heating tank body 41, enters above the uppermost inclined plate of the arcuate heat circulation plate body 44, and flows downward along the inclined plate. During the flow process, the mixed liquid exchanges heat with the wall surface of the arcuate heat circulation plate body, absorbs heat and heats up. When the mixed liquid reaches the guide groove 4431, it is ensured that the mixed liquid can smoothly flow into the lower discharge port 4512 of the material lifting pipe 45. The mixed liquid entering the material lifting pipe 45 gradually rises along the inner wall of the pipe body 451 under the push of the threaded rod. During the rising process, although the mixed liquid does not directly contact the heating source, the pipe body itself may be subjected to external heating or heat preservation measures, so the mixed liquid can still maintain a certain temperature or continue to heat up. When the mixed liquid reaches the upper discharge port 4511, it is evenly discharged on the uppermost inclined plate surface of the arcuate heat circulation plate body 44, ready for the next round of heating and flow.

[0058] Through the above process, the mixed liquid forms a circulating flow between the arched heated circulation plate and the material lifting pipe, continuously absorbing heat and rising in temperature. This circulating heating method can significantly improve the efficiency of the polymerization reaction, because the mixed liquid can absorb heat more fully when passing through the heating area multiple times. At the same time, by adjusting the opening and closing degree of the electric push rod and the closed tube body, the circulation speed and heating time of the mixed liquid can be flexibly controlled to further optimize the heating effect.

[0059] Furthermore, the adaptive groove 443 includes a guide groove 4431 and an overflow groove 4432, the guide groove 4431 and the overflow groove 4432 are both arranged in an inclined shape, and the depth of the guide groove 4431 is deeper than the depth of the overflow groove 4432, the overflow groove 4432 is connected to the lower end of the guide groove 4431, the 451 is arranged at the connecting end of the guide groove 4431 and the overflow groove 4432, the lower end edge of the lower outlet 4512 is flush with the surface of the guide groove 4431, when the guide groove 4431 guides the mixed liquid to flow downward, it flows into the tube body 451 through the lower outlet 4512, when the electric push rod 453 drives the closing tube body 454 to close the lower outlet 4512, the mixed liquid on the surface of the guide groove 4431 will gather at its lowest point, and continue to rise until it flows into the overflow groove 4432;

[0060] The overflow groove 4432 extends to the edge of the inclined plate. When the mixed liquid flows into the overflow groove 4432, it will continue to flow and drip downward until it is discharged into the circulation device 46 provided at the bottom of the heating tank 41.

[0061] The circulation device 46 includes a second pump 461, which is connected to the surface of the lower inner side of the heating tank body 41 near the overflow groove 4432 through a receiving pipe 462, so as to receive the mixed liquid dripping from the overflow groove 4432 through the second pump 461, and the second pump 461 is also connected to the upper part of the heating tank body 41 through a sixth connecting pipe 463, so as to extract the received mixed liquid through the second pump 461 and discharge it to the upper part of the heating tank body 41 along the sixth connecting pipe 463;

[0062] When the closed tube body 454 is in an open state, the lower outlet 4512 is unobstructed, and the mixed liquid can freely flow from the guide groove 4431 into the tube body 451 of the material lifting pipe 45. The guide groove 4431 mainly plays the role of guiding the flow of the mixed liquid at this time, ensuring that the mixed liquid can accurately flow into the lower outlet to avoid blockage or leakage.

[0063] When the closed tube body 454 closes the lower discharge port 4512, the mixed liquid can no longer flow into the material lifting pipe through the lower discharge port. At this time, the mixed liquid on the surface of the guide groove 4431 will gather at its lowest point and continue to rise as the mixed liquid continues to flow in. When the liquid level of the mixed liquid reaches or exceeds a certain height of the guide groove 4431, due to the action of gravity or the guidance of the system design, the mixed liquid will begin to flow into the overflow groove 4432 connected thereto. The design of the overflow groove allows the mixed liquid to continue to flow when the closed tube body is closed, and avoids excessive accumulation in the guide groove 4431 to cause overflow or backflow.

[0064] In addition, the present invention also proposes a production process of a water purifier polymerization reaction heating device, which is applied to the water purifier polymerization reaction heating device, and is characterized in that the solid raw material bin 100 is filled with solid raw materials for preparing water purifiers, and the liquid raw material bin 200 is filled with liquid raw materials for preparing water purifiers, and the solid raw materials and liquid raw materials are respectively discharged into the mixing bin 300 through the conveyor belt 101 and the feed pipe 201 to be mixed and stirred into a mixed liquid, and then the mixed liquid is transported to the heating equipment body 400 for heating, and then the mixed liquid is subjected to solid-liquid separation treatment by the solid-liquid separator 500 connected to the heating equipment body 400, and the sample in the solid-liquid separator 500 is continuously and intermittently extracted by the sampling machine 600 until the sample is qualified and discharged into the finished product tank for storage.

[0065] The above description is only a preferred embodiment of the present invention, and therefore cannot be used to limit the scope of the present invention. That is, equivalent changes and modifications made according to the patent scope of the present invention and the contents of the specification should still fall within the scope of the present invention.

Claims

1. A water purifier polymerization reaction heating device, characterized in that: The heating device body (400) comprises a heating tank body (41), a steam heating generator (42), a high-temperature cleaning device (43) and a bow-shaped heat-receiving circulation plate body (44); the bow-shaped heat-receiving circulation plate body (44) is installed in the heating tank body (41); the bow-shaped heat-receiving circulation plate body (44) is a bow-shaped structure; the steam heating generator (42) and the high-temperature cleaning device (43) are both arranged outside the heating tank body (41); The arcuate heat circulation plate body (44) comprises a plurality of inclined plates, wherein two adjacent inclined plates above and below form a flared structure through a connecting plate, wherein the large-diameter ends of the two adjacent flared structures above and below face oppositely, and except for the inclined plate located at the bottom, the upper surfaces of the other inclined plates all have inwardly recessed step edges (441), and the lower ends of all the step edges (441) are provided with strip-shaped openings (442) penetrating downward, and a material lifting pipe (45) is also provided in the middle of the arcuate heat circulation plate body (44); The steam heating generator (42) comprises a steam generator (421), a connecting pipe (422) and a steam nozzle (423), wherein the steam nozzles (423) are respectively arranged at corresponding positions of the surface of the heating tank body (41) close to each flared structure, and the steam nozzles (423) are arranged close to the side with a large diameter of the flared structure. The steam nozzles (423) extend into the heating tank body (41) and are arranged toward the flared structure. The steam generator (421) is arranged at the heating tank body (41). At the lower part of the heating tank body (41), the steam generator (421) is connected to an external water pump to supply water. The steam generator (421) is connected to the inner end of the heating tank body (41) via a steam delivery pipe (4211). The steam generator (421) is connected to each steam nozzle (423) via a connecting pipe 1 (422), so that water is heated by the steam generator (421) and the water is delivered to each steam nozzle (423) and the steam delivery pipe (4211) via the connecting pipe 1 (422); The high-temperature cleaning device (43) comprises a heat recovery component (431), a water tank (432), and a water flow nozzle (433); the heat recovery component (431) is connected to the upper end of the heating tank body (41) via a second connecting pipe (4311), and the heat recovery component (431) is connected to the water flow nozzle (433) via a third connecting pipe (4312); the water tank (432) is connected to the lower end of the heat recovery component (431) so as to guide the steam in the heating tank body (41) to the heat tank body (41) via the second connecting pipe (4311). The heat recovery component (431) is provided with a heating channel (311) and a connecting pipe (312), the connecting pipe (312) passes through the heating channel (311), the water tank (432) is connected to the connecting pipe (4312) through the connecting pipe (312), and a pump (313) is provided on a side of the connecting pipe (312) close to the connecting pipe (4312) so as to pump water in the water tank (432) to the connecting pipe (4312) through the pump (313); One end of the heating channel (311) is connected to the second connecting pipe (4311), while the other end extends out of the surface of the heat recovery component (431) so as to guide the steam into the heating channel (311) through the second connecting pipe (4311) to heat the fourth connecting pipe (312) before discharging the steam out of the heat recovery component (431).

2. A water purifier polymerization reaction heating device according to claim 1, characterized in that: A plurality of water flow nozzles (433) are provided, and two adjacent water flow nozzles (433) are connected via a connecting pipe (4331). The water flow nozzles (433) are provided on the surface of the heating tank body (41) near the small-diameter end of each flared structure. A plurality of nozzles are provided on the side of each water flow nozzle (433), and each nozzle extends into the heating tank body (41) and passes through the connecting plate, and each nozzle is arranged obliquely toward the step edge (441).

3. A water purifier polymerization reaction heating device according to any one of claims 1-2, characterized in that: The heating tank body (41) forms a bow-shaped chamber through the bow-shaped heat circulation plate body (44), and there are gaps for steam flow between the left and right sides of the bow-shaped heat circulation plate body (44) and the heating tank body (41). When the steam generator (421) generates steam and discharges the steam into the heating tank body (41) through the steam delivery pipe (4211), the steam flows upward along the strip-shaped openings (442) and the gaps.

4. A water purifier polymerization reaction heating device according to claim 3, characterized in that: The material lifting pipe (45) passes through the arched heat circulation plate body (44) from bottom to top, and comprises a pipe body (451) and a threaded rod (452). The threaded rod (452) is arranged in the pipe body (451), and the threaded rod (452) is mounted on the output shaft of a motor (4521). An adaptive groove (443) is arranged on the surface of the inclined plate at the lowest side. A lower discharge port (4512) is arranged at the lower part of the pipe body (451) near the adaptive groove (443), and an upper discharge port (4511) is arranged at the upper part of the pipe body (451) near the inclined plate at the highest side, so that the mixed liquid flows into the pipe body (451) through the lower discharge port (4512), and then is lifted upward by the rotating threaded rod (452), and is discharged to the step edge (441) arranged on the surface of the inclined plate at the highest side through the upper discharge port (4511); The adaptive groove (443) comprises a guide groove (4431) and an overflow groove (4432); the guide groove (4431) and the overflow groove (4432) are both arranged in an inclined shape, and the depth of the guide groove (4431) is deeper than the depth of the overflow groove (4432); the overflow groove (4432) is connected to the lower end of the guide groove (4431); the tube body (451) is arranged at the connecting end of the guide groove (4431) and the overflow groove (4432); and the lower end edge of the lower discharge port (4512) is flush with the surface of the guide groove (4431).

5. A water purifier polymerization reaction heating device according to claim 4, characterized in that: An electric push rod (453) is provided at the lower part of the tube body (451) near the lower discharge port (4512); the output shaft of the electric push rod (453) is connected to a closed tube body (454); the closed tube body (454) is sleeved outside the tube body (451) near the lower discharge port (4512), so that the electric push rod (453) controls the lifting of the closed tube body (454) to adjust the opening and closing of the lower discharge port (4512).

6. A water purifier polymerization reaction heating device according to claim 5, characterized in that: When the guide groove (4431) guides the mixed liquid to flow downward, it flows into the tube body (451) through the lower outlet (4512); when the electric push rod (453) drives the closing tube body (454) to close the lower outlet (4512), the mixed liquid on the surface of the guide groove (4431) gathers at its lowest point and continues to rise until it flows into the overflow groove (4432); The overflow groove (4432) extends to the edge of the inclined plate. When the mixed liquid flows into the overflow groove (4432), it will continue to flow and drip downward until it is discharged into the circulation device (46) provided at the bottom of the heating tank (41); The circulation device (46) includes a second pump (461), which is connected to the surface of the lower inner side of the heating tank body (41) near the overflow groove (4432) through a receiving pipe (462) so as to receive the mixed liquid dripping from the overflow groove (4432) through the second pump (461). The second pump (461) is also connected to the upper part of the heating tank body (41) through a connecting pipe (463) so as to extract the received mixed liquid through the second pump (461) and discharge it to the upper part of the heating tank body (41) along the connecting pipe (463).

7. A production process of a water purifier polymerization reaction heating device, applied to a water purifier polymerization reaction heating device according to any one of claims 4 to 6, characterized in that: The solid raw material bin (100) is filled with solid raw materials for preparing a water purifier, while the liquid raw material bin (200) is filled with liquid raw materials for preparing a water purifier. The solid raw materials and the liquid raw materials are respectively discharged into a mixing bin (300) through a conveyor belt (101) and a feed pipe (201) to be mixed and stirred into a mixed liquid. The mixed liquid is then transported to a heating device body (400) for heating. Subsequently, the mixed liquid is subjected to solid-liquid separation by a solid-liquid separator (500) connected to the heating device body (400). Samples in the solid-liquid separator (500) are continuously and intermittently extracted by a sampling machine (600) until the samples are qualified and discharged into a finished product tank for storage.

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