Ozone liquefaction separation device with waste liquid recovery function
By designing an ozone liquefaction and separation device and the synergistic effect of various mechanical devices, efficient ozone recovery and automated cleaning of precipitates were achieved, solving the clogging problem caused by impurity mixing during ozone recovery and improving the system's operating efficiency and safety.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-11
- Publication Date
- 2026-03-06
AI Technical Summary
In existing technologies, when ozone is recovered and needs to be separated, impurities and precipitates mix, affecting precipitate collection and treatment, causing blockages, and impacting collection efficiency and the operation of the precipitate tank.
An ozone liquefaction and separation device was designed, including an ozone generator, compressor, condenser, evaporator, and separation tank. It combines various mechanical devices such as motor-driven threaded screws, pulleys, and scrapers to achieve efficient ozone liquefaction and separation and automated cleaning of precipitates. It also utilizes various filter materials to purify waste liquid.
It improves ozone recovery efficiency, avoids the harm of high concentrations of ozone to human health and the environment, ensures the normal operation of the sedimentation tank, reduces impurity accumulation and clogging, and improves sedimentation and filtration efficiency.
Smart Images
Figure CN223973874U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of ozone liquefaction technology, specifically to an ozone liquefaction separation device with waste liquid recovery function. Background Technology
[0002] Ozone is an allotrope of oxygen, with the chemical formula O3 and a molecular weight of 48.00. It is a pale blue gas, a dark blue liquid, and a purplish-black solid. It has a fishy smell, and at high concentrations, it smells similar to chlorine. Ozone has strong oxidizing properties; for example, it can oxidize silver to silver peroxide, lead sulfide to lead sulfate, and react with potassium iodide to produce iodine. Turpentine, coal gas, and other substances can spontaneously combust in ozone.
[0003] In the process of realizing this utility model, the inventors discovered the following problems with the existing technology: 1. High concentrations of ozone can harm human health. It can irritate and damage the respiratory tract, leading to symptoms such as cough, sore throat, and wheezing. It can also reduce lung function. Long-term exposure to high concentrations of ozone may cause chronic respiratory diseases and even damage the cardiovascular system. As for the ecological environment, ozone can damage plants. It can interfere with plant photosynthesis, causing spots and necrosis on plant leaves, inhibiting plant growth, reducing crop yields, and causing pollution of the ecological environment. 2. After ozone is recovered, it needs to be separated. A sedimentation tank and filter are used. When impurities and sediments are mixed together, it will not only affect the subsequent collection and treatment of sediments, but also interfere with the normal operation of the sedimentation tank, such as reducing sedimentation efficiency and clogging the drain outlet. Utility Model Content
[0004] The purpose of this utility model is to provide an ozone liquefaction and separation device with waste liquid recovery function, to solve the problem mentioned in the background art that after ozone recovery, it needs to be separated, which involves the use of sedimentation tanks and filters. When impurities and sediments are mixed together, it not only affects the subsequent collection and treatment of sediments, but also causes blockage during collection, affecting the collection process. To achieve the above objective, this utility model provides the following technical solution: an ozone liquefaction and separation device with waste liquid recovery function, including an ozone generator, a compressor on one side of the ozone generator, a condenser and an evaporator on the other side of the compressor, an evaporator in front of the condenser, a separation tank in front of the evaporator, a waste liquid collection tank in front of the separation tank, a waste liquid transfer pump on one side of the waste liquid collection tank, a filter box on one side of the waste liquid transfer pump, a storage tank on the other side of the filter box, and a sedimentation tank on one side of the storage tank;
[0005] The filter box is internally fitted with a first aluminum-based honeycomb, a first silicon carbide foam ceramic is fitted to one side of the first aluminum-based honeycomb, a first foamed ceramic is fitted to the other side of the first silicon carbide foam ceramic, a first activated carbon is fitted to one side of the first foamed ceramic, a second activated carbon is fitted to the other side of the first activated carbon, a second foamed ceramic is fitted to one side of the second activated carbon, a second silicon carbide foam ceramic is fitted to the other side of the second foamed ceramic, and a second aluminum-based honeycomb is fitted to one side of the second silicon carbide foam ceramic.
[0006] The sedimentation tank has a first motor housing screwed onto one side. A threaded screw is screwed onto the output shaft of the first motor. A slider is threaded onto the outer wall of the threaded screw. A fixing groove is screwed onto the lower part of the slider. A scraper is screwed onto the inside of the fixing groove. A connecting plate is welded onto the top of the fixing groove. A proximity switch is screwed onto the top of the connecting plate. A partition is screwed onto the inside of the sedimentation tank. A filter cloth is screwed onto the inside of the sedimentation tank. A connecting shaft is rotatably connected to the inside of the sedimentation tank. An opening / closing plate is rotatably connected to the inside of the connecting shaft. A sensing element is glued onto the inside of the sedimentation tank. A rotating shaft is rotatably connected to the inside of the sedimentation tank. A blade is screwed onto the inside of the rotating shaft. A waste box is screwed onto one side of the sedimentation tank. A second motor housing is screwed onto one side of the sedimentation tank. The output shaft of the second motor is inserted into the internal drive shaft of the first pulley. The first and second pulleys are connected by a drive belt to form a belt drive connection. A stepper motor and a signal generator are screwed onto the rear of the sedimentation tank. The signal generator is located on one side of the stepper motor.
[0007] In a further preferred embodiment, the threaded screw forms a rotating structure via a first motor, and the internal thread of the slider is consistent with the external thread structure of the threaded screw. The lower part of the slider is fixed to the fixing groove with screws, and the fixing groove forms a horizontal sliding structure via the slider.
[0008] More preferably, the housing of the first pulley is installed on the outer wall of the sedimentation tank by screws, the central drive shaft of the first pulley is connected to the output shaft of the second motor, the central drive shaft of the first pulley forms a rotating structure through the second motor, and the drive belt forms a rotating structure through the first pulley, and the second pulley forms a rotating structure through the drive belt. The first pulley and the second pulley are respectively rotatably connected to two connecting shafts. The connecting shaft connected to the first pulley and the other rotating shaft connected to the second pulley are horizontally distributed, and the rotating shaft forms a rotating structure through the central drive shaft of the first pulley. The rotating shaft has several blades horizontally distributed on its surface wall.
[0009] More preferably, the connecting shaft forms a rotating structure via a stepper motor, and the opening and closing plate also forms a rotating structure via the connecting shaft.
[0010] More preferably, two connecting plates and proximity switches are horizontally installed above the fixing slot. One side of the proximity switch is connected to a signal generator via a cable, and the signal generator is connected to the stepper motor via a cable. The other proximity switch is connected to the first motor via a cable, and the proximity switches are connected to the sensing plate in a non-contact sensing manner.
[0011] More preferably, the first silicon carbide foam ceramic and the second silicon carbide foam ceramic are respectively attached to both sides of the inner wall of the filter box, and the external structural dimensions of the first aluminum-based honeycomb and the second aluminum-based honeycomb are consistent, and the external structural dimensions of the first foam ceramic and the second foam ceramic are consistent, and the first activated carbon and the second activated carbon are attached to the middle of the filter box.
[0012] More preferably, the ozone generator is connected to the compressor via a pipeline, the compressor is connected to the condenser and evaporator via a pipeline, the evaporator is connected to the separation tank via a pipeline, the waste liquid collection tank is connected to the waste liquid transfer pump via a pipeline, the waste liquid transfer pump is connected to the sedimentation tank via a pipeline, the sedimentation tank is connected to the filter box via a pipeline, and the filter box is connected to the storage tank via a pipeline.
[0013] Compared with the prior art, the beneficial effects of this utility model are as follows:
[0014] In this invention, during the ozone recovery process, after ozone is generated by an ozone generator, it is effectively liquefied and separated in a separation tank using equipment such as a compressor, condenser, and evaporator. This system's process design helps improve ozone recovery efficiency. It fully considers the physical properties of ozone and utilizes the synergistic effect of multiple devices, such as compression to increase pressure and condensation to liquefy, to more accurately separate ozone from the mixed system, reducing ozone waste and thus better addressing the harm of ozone to human health and the ecological environment. For example, in scenarios where high concentrations of ozone are generated, an efficient recovery system can prevent ozone from being directly emitted into the environment, reducing damage to the respiratory and cardiovascular systems of surrounding people and minimizing interference with plant photosynthesis.
[0015] In this invention, the sedimentation tank utilizes the synergistic action of multiple mechanical devices. For example, a first motor drives a threaded screw to rotate, causing a scraper to remove impurities from the filter cloth. A second motor drives a pulley to rotate, causing blades on the shaft to stir the waste liquid. This effectively prevents sediment from accumulating on the filter cloth and accelerates the sedimentation process. It also avoids interference from the mixing of impurities and sediments with subsequent treatment. For instance, it prevents filter cloth blockage due to sediment accumulation, thus avoiding a decrease in sedimentation efficiency. This ensures the normal operation of the sedimentation tank and allows the settled impurities to fall smoothly into the waste box, providing a good foundation for further filtration and purification of the waste liquid. Attached Figure Description
[0016] Figure 1 This is a top view schematic diagram of the new structure of this utility model;
[0017] Figure 2 This is a front view structural diagram of the present invention;
[0018] Figure 3 This is a schematic diagram of the internal structure of the filter box of this utility model;
[0019] Figure 4 This is a schematic diagram of the internal structure of the sedimentation tank of this utility model;
[0020] Figure 5 This is a schematic diagram of the rear structure of the sedimentation tank of this utility model.
[0021] In the diagram: 1. Ozone generator; 2. Compressor; 3. Condenser; 4. Evaporator; 5. Separator; 6. Waste liquid collection tank; 7. Waste liquid transfer pump; 8. Filter box; 801. First silicon carbide foam ceramic; 802. First aluminum-based honeycomb; 803. First foamed ceramic; 804. First activated carbon; 805. Second activated carbon; 806. Second foamed ceramic; 807. Second aluminum-based honeycomb; 808. Second silicon carbide foam ceramic; 9. Storage tank; 10. Sedimentation tank; 1001. First motor; 1002. Leaf 1003, Plate; 1004, Filter cloth; 1005, Threaded screw; 1006, Slider; 1007, Proximity switch; 1008, Sensing plate; 1009, Connecting plate; 1010, Rotating shaft; 1011, Opening and closing plate; 1012, Fixing groove; 1013, Connecting shaft; 1014, Scraper; 1015, Drive belt; 1016, Signal generator; 1017, Stepper motor; 1018, First pulley; 1019, Second motor; 1020, Second pulley; 1021, Waste box. Detailed Implementation
[0022] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present utility model.
[0023] Please see Figures 1 to 5 This utility model provides a technical solution: an ozone liquefaction and separation device with waste liquid recycling function, including an ozone generator 1, a compressor 2 on one side of the ozone generator 1, a condenser 3 and an evaporator 4 on the other side of the compressor 2, an evaporator 4 in front of the condenser 3, a separation tank 5 in front of the evaporator 4, a waste liquid collection tank 6 in front of the separation tank 5, a waste liquid transfer pump 7 on one side of the waste liquid collection tank 6, a filter box 8 on one side of the waste liquid transfer pump 7, a storage tank 9 on the other side of the filter box 8, and a sedimentation tank 10 on one side of the storage tank 9.
[0024] The interior of the filter box 8 is fitted with a first aluminum-based honeycomb 802, a first silicon carbide foam ceramic 801 is fitted to one side of the first aluminum-based honeycomb 802, a first foamed ceramic 803 is fitted to the other side of the first silicon carbide foam ceramic 801, a first activated carbon 804 is fitted to one side of the first foamed ceramic 803, a second activated carbon 805 is fitted to the other side of the first activated carbon 804, a second foamed ceramic 806 is fitted to one side of the second activated carbon 805, a second silicon carbide foam ceramic 808 is fitted to the other side of the second foamed ceramic 806, and a second aluminum-based honeycomb 807 is fitted to one side of the second silicon carbide foam ceramic 808.
[0025] The housing of a first motor 1001 is screwed onto one side of the sedimentation tank 10. A threaded screw 1005 is screwed onto the output shaft of the first motor 1001. A slider 1006 is threaded onto the outer wall of the threaded screw 1005. A fixing groove 1012 is screwed onto the lower part of the slider 1006. A scraper 1014 is screwed onto the inside of the fixing groove 1012. A connecting plate 1009 is welded onto the upper part of the fixing groove 1012. A proximity switch 1007 is screwed onto the upper part of the connecting plate 1009. A partition 1003 is screwed onto the inside of the sedimentation tank 10. A filter cloth 1004 is screwed onto the inside of the sedimentation tank 10. A connecting shaft 1013 is rotatably connected to the inside of the sedimentation tank 10. The settling tank 10 is rotatably connected to an opening and closing plate 1011. An induction plate 1008 is glued inside the settling tank 10. A rotating shaft 1010 is rotatably connected inside the settling tank 10. A blade 1002 is installed inside the rotating shaft 1010 by screws. A waste box 1021 is installed on one side of the settling tank 10 by screws. The housing of a second motor 1019 is installed on one side of the settling tank 10 by screws. The output shaft of the second motor 1019 is inserted into the internal drive shaft of the first pulley 1018. The first pulley 1018 and the second pulley 1020 are connected by a belt drive 1015. A stepper motor 1017 and a signal generator 1016 are installed at the rear of the settling tank 10 by screws. The signal generator 1016 is located on one side of the stepper motor 1017.
[0026] In this embodiment, as Figure 1 , Figure 2 and Figure 4 As shown, the threaded screw 1005 forms a rotating structure through the first motor 1001, and the internal thread of the slider 1006 is consistent with the external thread structure of the threaded screw 1005. The lower part of the slider 1006 is fixed to the fixing groove 1012 with screws, and the fixing groove 1012 forms a horizontal sliding structure through the slider 1006. The first motor 1001 drives the threaded screw 1005 to rotate. Due to the threaded engagement between the slider 1006 and the threaded screw 1005, the slider 1006 drives the fixing groove 1012 to slide horizontally. The scraper 1014 in the fixing groove 1012 can scrape off impurities on the filter cloth 1004, preventing the accumulation of sediment on the filter cloth 1004 from affecting the filtration effect. This realizes automatic cleaning of sediment on the filter cloth 1004, ensuring the filtration efficiency of the sedimentation tank 10, reducing the workload of manual cleaning. Through threaded transmission, the motion precision is high, and the position of the scraper 1014 can be stably controlled.
[0027] In this embodiment, as Figure 4 and Figure 5As shown, the housing of the first pulley 1018 is mounted to the outer wall of the sedimentation tank 10 with screws. The central drive shaft of the first pulley 1018 is connected to the output shaft of the second motor 1019. The central drive shaft of the first pulley 1018 forms a rotating structure through the second motor 1019, and the drive belt 1015 forms a rotating structure through the first pulley 1018. The second pulley 1020 forms a rotating structure through the drive belt 1015. The first pulley 1018 and the second pulley 1020 are rotatably connected to two connecting shafts 1013 respectively. The connecting shaft 101 connected to the first pulley 1018... 3. Another rotating shaft 1010 connected to the second pulley 1020 is horizontally distributed, and the rotating shaft 1010 is driven by the middle drive shaft of the first pulley 1018 to form a rotating structure. Several blades 1002 are horizontally distributed on the surface of the rotating shaft 1010. The second motor 1019 drives the first pulley 1018 to rotate, and drives the second pulley 1020 to rotate synchronously through the drive belt 1015, thereby driving the rotating shaft 1010 and the blades 1002 to rotate, stirring the waste liquid and accelerating the sedimentation process. The synchronous rotation of the two rotating shafts 1010 is achieved by belt drive, the stirring is more uniform, and the sedimentation efficiency is improved.
[0028] In this embodiment, as Figure 4 and Figure 5 As shown, the connecting shaft 1013 forms a rotating structure through the stepper motor 1017, and the opening and closing plate 1011 forms a rotating structure through the connecting shaft 1013. The stepper motor 1017 drives the connecting shaft 1013 to rotate, thereby controlling the opening and closing of the opening and closing plate 1011, facilitating the discharge of sediment. The action of the opening and closing plate 1011 can be precisely controlled, and sediment can be discharged in a timely manner as needed.
[0029] In this embodiment, as Figure 4 and Figure 5As shown, two connecting plates 1009 and a proximity switch 1007 are horizontally mounted above the fixing slot 1012. One side of the proximity switch 1007 is connected to a signal generator 1016 via a cable, and the signal generator 1016 is connected to the stepper motor 1017 via a cable. The other proximity switch 1007 is connected to the first motor 1001 via a cable, and the proximity switches 1007 and 1008 are connected in a non-contact sensing manner. The non-contact sensing between switch 1007 and sensor 1008 is achieved. One proximity switch 1007 is connected to the first motor 1001 to control the movement of scraper 1014, and another proximity switch 1007 is connected to signal generator 1016. Signal generator 1016 is then connected to stepper motor 1017 to control the movement of opening and closing plate 1011, thus realizing automated control. The non-contact sensing method improves the reliability and stability of the system and reduces mechanical wear. At the same time, the scraper 1014 and opening and closing plate 1011 are controlled separately according to different sensing signals, which improves the intelligence of the system.
[0030] In this embodiment, as Figure 1 , Figure 2 and Figure 3 As shown, the first silicon carbide foam ceramic 801 and the second silicon carbide foam ceramic 808 are respectively attached to the inner walls of the filter box 8. The external structural dimensions of the first aluminum-based honeycomb 802 and the second aluminum-based honeycomb 807 are consistent, and the external structural dimensions of the first foamed ceramic 803 and the second foamed ceramic 806 are consistent. The first activated carbon 804 and the second activated carbon 805 are attached to the middle of the filter box 8. The first silicon carbide foam ceramic 801 and the second silicon carbide foam ceramic 808 adsorb large particulate impurities and some harmful substances in the waste liquid. The first aluminum-based honeycomb 802 and the second aluminum-based honeycomb 807 play a supporting role and increase the filtration area. The first foamed ceramic 803 and the second foamed ceramic 806 further filter fine particles. The first activated carbon 804 and the second activated carbon 805 adsorb organic matter and odors, etc., improving the purification effect of the waste liquid. The combination of multiple filter materials can effectively filter different types of impurities, improving the filtration accuracy and efficiency. At the same time, the synergistic effect of different materials makes the filtration effect of the filter box 8 more comprehensive.
[0031] In this embodiment, as Figure 1 and Figure 2As shown, ozone generator 1 is connected to compressor 2 via a pipe, compressor 2 is connected to condenser 3 and evaporator 4 via a pipe, evaporator 4 is connected to separator 5 via a pipe, waste liquid collection tank 6 is connected to waste liquid transfer pump 7 via a pipe, waste liquid transfer pump 7 is connected to sedimentation tank 10 via a pipe, sedimentation tank 10 is connected to filter box 8 via a pipe, and filter box 8 is connected to storage tank 9 via a pipe. The pipes connecting the various components enable the orderly execution of a series of processes, including ozone generation, compression, liquefaction, separation, and waste liquid collection, transportation, sedimentation, filtration, and storage.
[0032] The usage and advantages of this utility model: The ozone liquefaction separation device with waste liquid recovery function operates as follows:
[0033] like Figure 1 , Figure 2 , Figure 3 , Figure 4 and Figure 5As shown, ozone generator 1 first produces ozone gas, providing a strong oxidant for subsequent wastewater treatment. The generated ozone enters compressor 2 through a pipeline, where it is compressed to increase pressure, making it easier to liquefy in condenser 3. The compressed ozone then enters condenser 3 and evaporator 4 through pipelines. Condenser 3 lowers the temperature of the ozone to liquefy it, while evaporator 4 assists in the phase change. The liquefied ozone and other substances enter separation tank 5 through pipelines. Separation tank 5 utilizes the differences in the physical properties of different substances to separate ozone from the mixed system for subsequent recycling and utilization. The wastewater is collected in wastewater collection tank 6 as a temporary storage container, and wastewater transfer pump 7 pumps the wastewater from wastewater collection tank 6. Waste liquid is transported to sedimentation tank 10 via pipeline. Waste liquid transfer pump 7 provides power for the flow of waste liquid. In sedimentation tank 10, first motor 1001 drives threaded screw 1005 to rotate. Slider 1006, due to the matching internal thread size with the external thread structure of threaded screw 1005, drives the fixing groove 1012 below, which is fixed by screws, to slide horizontally. Scraper 1014 in fixing groove 1012 can scrape off impurities on filter cloth 1004, separating impurities in sedimentation tank 10 by filter cloth 1004 and preventing sediment from accumulating on filter cloth 1004. Second motor 1019 drives first pulley 1018 to rotate, and drives second pulley 1020 to rotate synchronously via drive belt 1015. First pulley 1018 and second pulley 1020 rotate synchronously. Wheel 1020 is rotatably connected to two shafts 1010. The shaft 1010 connected to the first pulley 1018 and the other shaft 1010 connected to the second pulley 1020 are horizontally distributed. The shafts 1010 are driven by the central drive shaft of the first pulley 1018, forming a rotating structure. Several blades 1002 horizontally distributed on the surface of the shaft 1010 stir the waste liquid, accelerating the sedimentation process. Stepper motor 1017 drives the connecting shaft 1013 to rotate, thereby controlling the opening and closing of the opening and closing plate 1011 to facilitate the discharge of sediment. When the proximity switch 1007 above the fixed tank 1012 senses the sensing element 1008, it triggers a corresponding control signal. One proximity switch 1007 is connected to the first motor 1001 via a cable. The movement of the scraper 1014 is controlled by a proximity switch 1007, which is connected to a signal generator 1016 via a cable. The signal generator 1016 is then connected to a stepper motor 1017 to control the movement of the opening and closing plate 1011. The settled impurities can fall into the waste box 1021. The waste liquid after sedimentation treatment enters the filter box 8 through a pipe. The first silicon carbide foam ceramic 801 and the second silicon carbide foam ceramic 808 are respectively attached to the inner wall of the filter box 8, which can adsorb large particulate impurities and some harmful substances in the waste liquid. The first aluminum-based honeycomb 802 and the second aluminum-based honeycomb 807 play a supporting role and increase the filtration area, making the filtration more uniform and effective. The first foamed ceramic 803 and the second foamed ceramic 806 further filter fine particles.The first activated carbon 804 and the second activated carbon 805, bonded together in the middle of the filter box 8, can adsorb organic matter and odors in the waste liquid, improving the purification effect. The filtered waste liquid enters the storage tank 9 through a pipe for further treatment or discharge.
[0034] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely preferred examples and are not intended to limit the utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.
Claims
1. An ozone liquefaction separation device with waste liquid recovery function, comprising an ozone generator (1), characterized in that: One side of the ozone generator (1) is provided with a compressor (2), the other side of the compressor (2) is respectively provided with a condenser (3) and an evaporator (4), the front of the condenser (3) is provided with an evaporator (4), the front of the evaporator (4) is provided with a separation tank (5), the front of the separation tank (5) is provided with a waste liquid collecting tank (6), one side of the waste liquid collecting tank (6) is provided with a waste liquid conveying pump (7), one side of the waste liquid conveying pump (7) is provided with a filter box (8), the other side of the filter box (8) is provided with a storage box (9), one side of the storage box (9) is provided with a sedimentation tank (10); The inside of the filter box (8) is attached with a first aluminum-based honeycomb (802), one side of the first aluminum-based honeycomb (802) is attached with a first silicon carbide foam ceramic (801), the other side of the first silicon carbide foam ceramic (801) is attached with a first foamed ceramic (803), one side of the first foamed ceramic (803) is attached with a first activated carbon (804), the other side of the first activated carbon (804) is attached with a second activated carbon (805), one side of the second activated carbon (805) is attached with a second foamed ceramic (806), the other side of the second foamed ceramic (806) is attached with a second silicon carbide foam ceramic (808), one side of the second silicon carbide foam ceramic (808) is attached with a second aluminum-based honeycomb (807); The side of the precipitation tank (10) is provided with the shell of the first motor (1001) through screwing, one side of the first motor (1001) is provided with the threaded lead screw (1005) through screwing, the outer wall of the threaded lead screw (1005) is threadedly connected with the sliding block (1006), the lower portion of the sliding block (1006) is provided with the fixed groove (1012) through screwing, the inside of the fixed groove (1012) is provided with the scraper (1014) through screwing, the upper portion of the fixed groove (1012) is welded with the connecting plate (1009), the upper portion of the connecting plate (1009) is provided with the proximity switch (1007) through screwing, the inside of the precipitation tank (10) is provided with the partition plate (1003) through screwing, the inside of the precipitation tank (10) is provided with the filter cloth (1004) through screwing, the inside of the precipitation tank (10) is rotatably connected with the connecting shaft (1013), the inside of the connecting shaft (1013) is rotatably connected with the opening and closing plate (1011), the inside of the precipitation tank (10) is glued with the inductive sheet (1008), the inside of the precipitation tank (10) is rotatably connected with the rotating shaft (1010), the inside of the rotating shaft (1010) is provided with the blade (1002) through screwing, one side of the precipitation tank (10) is provided with the waste box (1021) through screwing, one side of the precipitation tank (10) is provided with the shell of the second motor (1019) through screwing, the output shaft of the second motor (1019) is inserted into the inner drive shaft of the first pulley (1018), the first pulley (1018) and the second pulley (1020) are connected through the drive belt (1015) to form a belt transmission connection, the rear of the precipitation tank (10) is provided with the stepping motor (1017) and the signal generator (1016) through screwing, and the side of the stepping motor (1017) is provided with the signal generator (1016).
2. The ozone liquefaction separation apparatus with waste liquid recovery function according to claim 1, characterized in that: The threaded lead screw (1005) is rotatably connected with the first motor (1001), the inside of the sliding block (1006) is threadedly connected with the threaded lead screw (1005), the lower portion of the sliding block (1006) is screw-fixed with the fixed groove (1012), and the fixed groove (1012) is horizontally slidably connected with the sliding block (1006).
3. The ozone liquefaction separation device with waste liquid recovery function according to claim 1, characterized in that: The shell of the first belt pulley (1018) is mounted on the outer wall of the sediment tank (10) by screws, the middle drive shaft of the first belt pulley (1018) is connected with the output shaft of the second motor (1019), the middle drive shaft of the first belt pulley (1018) forms a rotating structure through the second motor (1019), the drive belt (1015) forms a rotating structure through the first belt pulley (1018), the second belt pulley (1020) forms a rotating structure through the drive belt (1015), and the first belt pulley (1018) and the second belt pulley (1020) are respectively rotatably connected with two rotating shafts (1010), the rotating shaft (1010) connected with the first belt pulley (1018) and the other rotating shaft (1010) connected with the second belt pulley (1020) form a horizontal distribution, the rotating shaft (1010) forms a rotating structure through the middle drive shaft of the first belt pulley (1018), and the surface wall of the rotating shaft (1010) is horizontally distributed with a plurality of blades (1002).
4. The ozone liquefaction separation apparatus with waste liquid recovery function according to claim 1, characterized in that: The connecting shaft (1013) forms a rotating structure through the stepping motor (1017), and the opening and closing plate (1011) forms a rotating structure through the connecting shaft (1013).
5. The ozone liquefaction separation device with waste liquid recovery function according to claim 1, characterized in that: The upper part of the fixed groove (1012) is horizontally mounted with two connecting plates (1009) and proximity switches (1007), one side of the proximity switch (1007) is connected with a signal generator (1016) through a cable, and the signal generator (1016) and the stepping motor (1017) are connected through a cable, the other proximity switch (1007) is connected with the first motor (1001) through a cable, and the proximity switch (1007) and the induction sheet (1008) are connected in a non-contact induction mode, and the other proximity switch (1007) and the induction sheet (1008) are connected in a non-contact induction mode.
6. The ozone liquefaction separation device with waste liquid recovery function according to claim 1, characterized in that: The first silicon carbide foam ceramic (801) and the second silicon carbide foam ceramic (808) are respectively attached to the inner walls of the filter box (8), the external structural dimensions of the first aluminum-based honeycomb (802) and the second aluminum-based honeycomb (807) are consistent, the external structural dimensions of the first foamed ceramic (803) and the second foamed ceramic (806) are consistent, and the first activated carbon (804) and the second activated carbon (805) are attached to the middle part of the filter box (8).
7. The ozone liquefaction separation device with waste liquid recovery function according to claim 1, characterized in that: The ozone generator (1) and the compressor (2) are connected through a pipeline, the compressor (2) and the condenser (3), the evaporator (4) are connected through a pipeline, the evaporator (4) and the separation tank (5) are connected through a pipeline, the waste liquid collection tank (6) and the waste liquid delivery pump (7) are connected through a pipeline, the waste liquid delivery pump (7) and the sediment tank (10) are connected through a pipeline, the sediment tank (10) and the filter box (8) are connected through a pipeline, and the filter box (8) and the storage box (9) are connected through a pipeline.