A laboratory high-concentration comprehensive wastewater treatment all-in-one machine

Abstract

The invention relates to the technical field of wastewater treatment, and in particular to an integrated laboratory high-concentration comprehensive wastewater treatment machine. The technical scheme is as follows: the machine comprises an outer shell, an inner chamber cover is arranged at the center of the outer shell, a Raman spectrometer is arranged on the inner wall of the inner chamber cover which is not connected to the short side of the outer shell, a plurality of small slides are rotatably arranged at the middle of the inner chamber cover, a dosing funnel is arranged below the small slide, and a reaction chamber is connected to the lower end of the dosing funnel. The invention measures the main components of wastewater in each wastewater cup by a Raman spectrometer, and then classifies the wastewater by a conveying roller and a propulsion structure, and starts one or more small slides according to actual conditions, and adds the beneficial wastewater in the wastewater cup on the small slide into the reaction chamber and participates in a chemical treatment step, so that some special wastewater that can participate in the chemical treatment process of other wastewater can be reused for a second time, and a positive effect is achieved.

Description

Technical Field

[0001] The invention relates to the technical field of wastewater treatment, and in particular to an integrated machine for treating high-concentration comprehensive wastewater in a laboratory. Background Art

[0002] Laboratory wastewater treatment is an important part of ensuring laboratory environmental safety and compliance with environmental protection requirements. In laboratories in the chemical, pharmaceutical, environmental protection, food and other industries, the composition of wastewater is usually complex and varied, and contains a variety of toxic and harmful substances; although the wastewater discharge volume of various laboratories is small, the number of discharges is large, the concentration is variable, and the composition is complex. Therefore, the existing laboratory high-concentration integrated wastewater treatment machine may cause a mixture of multiple wastewaters in the process of collecting, storing and treating wastewater of different components, thereby triggering some violent and harmful chemical reactions, and even causing secondary pollution or more complex hazards;

[0003] In addition, the existing laboratory wastewater treatment machines mostly adopt direct filtration, and the specific steps are pretreatment, chemical treatment, activated carbon adsorption and reverse osmosis membrane separation. After a variety of filtration methods, toxic and harmful substances in wastewater can be effectively removed; however, in the actual treatment process, some special wastewater may be able to participate in the chemical treatment process of other wastewater and play a positive effect (for example, acidic and alkaline wastewater can be mixed to neutralize their pH values, which not only helps to reduce the acidity and alkalinity of the wastewater, but also promotes subsequent precipitation reactions); and the existing laboratory wastewater treatment machines are difficult to effectively utilize this part of useful wastewater. On the contrary, new chemical agents need to be added to the chemical treatment process, which may lead to waste of agents, not only increasing resource consumption, but also aggravating the environmental burden in the wastewater treatment process, and significantly increasing the cost of wastewater treatment, further bringing additional economic burden;

[0004] Therefore, it is necessary to invent an all-in-one laboratory high-concentration comprehensive wastewater treatment machine. Summary of the invention

[0005] In order to achieve the above-mentioned purpose, the present invention provides the following technical scheme: a laboratory high-concentration comprehensive wastewater treatment integrated machine, comprising an outer shell, the outer shell is a box body structure with upper and lower openings, an inner cabin cover is arranged in the center of the outer shell, one side of the short side of the inner cabin cover is fixedly connected to the inner wall of the outer shell, the other short side of the inner cabin cover and the bottom surface of one of the long sides are fixedly installed with an L-shaped side panel, the bottom surface of the other long side of the inner cabin cover is fixedly installed with an arched strip, a plurality of conveying rollers are rotatably installed between the inner wall of the outer shell and the arched strip and the L-shaped side panel, a plurality of cup body bases are placed on the conveying rollers, a waste water cup is fixedly installed on the top surface of the cup body base, a feeding structure is arranged above the conveying rollers on the short sides of the outer shell, the feeding structure is used to collect waste water from each laboratory and inject it into different waste water cups, and the inner cabin cover is not connected to the outer shell. A Raman spectroscopic device is arranged on the inner wall of the short side, and the Raman spectroscopic device is used to detect the components of the wastewater in the wastewater cup; a plurality of small slides are rotatably arranged on the middle part of the inner chamber cover, and the small slides are used to place the wastewater cups containing beneficial wastewater; a plurality of large slides are rotatably arranged on the inner wall of the short side of the inner chamber cover connected to the outer shell, and the large slides are used to classify and place the wastewater cups; a plurality of propulsion structures are installed on one side of the outer wall of the outer shell, and the propulsion structures are used to push the cup base and the wastewater cup into the small slide or the large slide; a dosing funnel is arranged below the small slide, and a reaction chamber is connected to the lower end of the dosing funnel; a coarse filtration cabin is arranged below the large slide, and one side of the coarse filtration cabin is through-connected with the reaction chamber; a fine filtration system is installed on the coarse filtration cabin and the side of the reaction chamber, and the fine filtration system is used to further filter the liquid in the reaction chamber.

[0006] Preferably, the feeding structure includes a U-shaped baffle, which is arranged above the conveying roller located on the short side of the outer shell, and the U-shaped baffle is fixedly installed on the inner cabin cover and the top surface of the outer shell, and a plurality of wastewater conduits are inserted and installed on the top surface of the U-shaped baffle, and the wastewater conduits extend from one end of the U-shaped baffle to be connected to the wastewater collection port of each laboratory, an overflow prevention cover is fixedly installed on the side of the top surface of the inner cabin cover away from the arched strips, and a cleaning cover is fixedly installed on the side of the top surface of the inner cabin cover close to the arched strips, and a high-pressure nozzle is fixedly installed on the inner wall of the cleaning cover.

[0007] Preferably, six openings are arranged on one side of the inner cabin cover connected to the arched strip, six grooves corresponding to the openings of the inner cabin cover are arranged on the top surface of the arched strip, seven sockets are arranged on the side of the inner cabin cover away from the arched strip, seven slots corresponding to the sockets of the inner cabin cover are arranged on the top surface of the L-shaped side panel, the six sockets of the inner cabin cover except the one closest to the U-shaped baffle correspond to the six openings on the other side of the inner cabin cover, and seven openings are arranged on the side of the outer wall of the outer shell away from the arched strip, and the seven openings of the outer shell correspond to the seven sockets of the arched strip.

[0008] Preferably, the Raman spectroscopy device includes a first C-type plate, which is fixedly mounted on the outer wall of the opening of the outer shell closest to the U-shaped baffle, and a number of conveying rollers located on the side of the first C-type plate are replaced by light-transmitting rollers, and the light-transmitting rollers are roller-shaped structures with the middle part cut off, an inner splint is arranged in the socket of the inner cabin cover closest to the U-shaped baffle, and an outer splint is arranged in the opening of the outer shell closest to the U-shaped baffle, the inner splint and the outer splint are used to clamp the two sides of the cup base, and a second hydraulic rod is fixedly mounted in the middle of the first C-type plate, and the output end of the second hydraulic rod is fixedly connected to the outer splint.

[0009] Preferably, the Raman spectroscopic device includes a spectrometer, which is fixedly mounted on the side of the top surface of the inner wall of the inner cabin cover close to the U-shaped baffle, a second C-type plate is fixedly mounted on the side of the spectrometer close to the first C-type plate, a laser generator is fixedly mounted on the bottom surface of the second C-type plate, a reflector is fixedly mounted below the light-transmitting roller, an emitting end of the laser generator faces the center of the reflector, a light-transmitting hole is provided on the bottom surface of the cup base, a concave mirror is fixedly mounted on the top surface of the outer clamping plate, a lens group is fixedly mounted on the side of the second C-type plate away from the spectrometer, a first hydraulic rod is inserted into the second C-type plate below the lens group, and the output end of the first hydraulic rod is fixedly connected to the inner clamping plate.

[0010] Preferably, the propulsion structure includes a third C-shaped plate, and the outer walls of the remaining six openings of the outer shell except the opening closest to the U-shaped baffle are all installed with the third C-shaped plate, and a third hydraulic rod is fixedly installed on the middle part of the side of the third C-shaped plate away from the outer shell, and a propulsion plate is fixedly installed on the third hydraulic rod near the output end of the outer shell, and the propulsion plate is used to push the cup base and the waste water cup into the socket on the surface of the inner cabin cover.

[0011] Preferably, a rotating shaft is installed on the bottom surface of the large slide, and the rotating shaft on the bottom surface of the large slide is rotatably installed between four grooves of the arched strip away from the U-shaped baffle and four slots of the L-shaped side plate away from the U-shaped baffle, and a second motor is fixedly installed on one end of the rotating shaft on the bottom surface of the large slide close to the arched strip, and a rotating shaft is installed on the bottom surface of the small slide, and a first motor is fixedly installed on one end of the rotating shaft on the bottom surface of the small slide close to the arched strip, and three of the small slides are arranged in a group, and the two groups of small slides are respectively arranged between two openings on the inner wall of the inner cabin cover close to the U-shaped baffle and the corresponding sockets, and one end of the rotating shaft on the bottom surface of the small slide in the same group that is not connected to the first motor is rotatably connected to the first motor on the bottom surface of the adjacent small slide, and one end of the rotating shaft on the bottom surface of the small slide closest to the L-shaped side plate in the small slide in the same group that is not connected to the first motor is rotatably connected to the L-shaped side plate, and the first motor on the bottom surface of the small slide closest to the arched strip in the small slide in the same group is fixedly connected to the arched strip.

[0012] Preferably, three concave holes are arranged on the top surface of the large slide, and a concave hole is arranged in the center of the top surface of the small slide. Springs are installed in the concave holes of the small slide and the large slide. A limit plate is fixedly installed on the upper end of the spring. The limit plate is used to embed upward into the light-transmitting hole of the cup base. A rubber roller is rotatably installed on the bottom surface of each groove of the arched strip. The top of the rubber roller penetrates the arched strip to the top surface of the groove of the arched strip. A third motor is fixedly installed on one end of the rotating shaft of the rubber roller.

[0013] Preferably, the coarse filtration cabin is fixedly installed on the L-shaped side plate and the bottom surface of the arched strip plate below the large slide seat, and the inner wall of the coarse filtration cabin is sequentially installed with a primary filter plate, a secondary filter plate and a tertiary filter plate from top to bottom, and a first delivery pump is fixedly installed on the side of the inner wall of the coarse filtration cabin close to the reaction chamber, and the first delivery pump is connected to the reaction chamber, and the dosing funnel is fixedly installed on the L-shaped side plate and the bottom surface of the arched strip plate below the small slide seat, and a screen and a drip baffle are sequentially installed on the inner wall of the dosing funnel from top to bottom, and a plurality of small holes are provided on the surface of the drip baffle, a stirring rack is rotatably installed on the bottom surface of the inner wall of the reaction chamber, and a second delivery pump is fixedly installed on one side of the inner wall of the reaction chamber.

[0014] Preferably, the fine filtration system includes a raw water pipe, one end of the raw water pipe passes through the reaction chamber and is connected to the second delivery pump, the other end of the raw water pipe is fixedly connected to an activated carbon adsorption tank, a plurality of activated carbon adsorption tanks are arranged in groups and installed on the side of the coarse filtration cabin, one end of the activated carbon adsorption tank away from the raw water pipe is fixedly connected to a conduit, one end of the conduit away from the activated carbon adsorption tank is fixedly connected to a reverse osmosis membrane filter tank, the reverse osmosis membrane filter tanks are arranged in groups and installed on the side of the coarse filtration cabin, one end of the reverse osmosis membrane filter tank away from the conduit is fixedly connected to a clean water pipe, and a sewage pipe is fixedly connected to the side of the reverse osmosis membrane filter tank.

[0015] The beneficial effects of the present invention are as follows: first, wastewater from each laboratory is collected through a feeding structure and injected into different wastewater cups for storage; then, the conveying roller drives each wastewater cup to pass through a Raman spectrometer in turn to measure the main components of the wastewater in each wastewater cup; then, the wastewater cups that cannot produce a violent reaction are classified by means of a conveying roller and a propulsion structure; first, wastewater cups that cannot produce a violent reaction are arranged and stored on the same large slide seat; then, wastewater cups that can be used are stored on a small slide seat; then, each large slide seat is started one by one; wastewater cups on different large slide seats are poured into a coarse filtration chamber in batches at intervals for pretreatment; and then, the waste liquid in the coarse filtration chamber is input into a reaction chamber; at this time, one or more small slide seats are started according to actual needs. , the beneficial wastewater in the wastewater cup on the small slide is evenly added to the reaction chamber through the dosing funnel and participates in the chemical treatment step. Finally, the liquid in the reaction chamber is introduced into the fine filtration system for thorough filtration and then discharged, so as to avoid the mixed treatment of multiple wastewaters that may react, and eliminate some violent and harmful chemical reactions in the wastewater treatment process; at the same time, it can also allow some special wastewater that can participate in the chemical treatment process of other wastewaters to be reused and play a positive effect, reducing the waste of certain wastewater components, effectively improving the utilization rate of wastewater, reducing resource consumption, alleviating the environmental burden in the wastewater treatment process, and reducing the cost of wastewater treatment. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 A side view of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0017] Figure 2 Another side view of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0018] Figure 3 An exploded view of a U-shaped baffle and an anti-overflow cover plate of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0019] Figure 4 A schematic diagram of the internal structure of an inner cabin cover of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0020] Figure 5 A cross-sectional view of the feed structure of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0021] Figure 6 A cross-sectional view of a cleaning cover of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0022] Figure 7 A schematic diagram of the structure of a Raman spectroscopic device of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0023] Figure 8 A schematic plan view of a Raman spectroscopic device of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0024] Fig. 9 Bottom view of a small slide and a large slide of a laboratory high-concentration comprehensive wastewater treatment machine provided by the present invention;

[0025] Fig.10 A schematic diagram of the structure of a small slide and a large slide of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0026] Fig.11 A schematic diagram of the internal structure of the arched strips of a laboratory high-concentration comprehensive wastewater treatment machine provided by the present invention;

[0027] Fig.12 A cross-sectional view of a small slide and a cup base of a laboratory high-concentration comprehensive wastewater treatment machine provided by the present invention;

[0028] Fig.13 A schematic diagram of the structure of a fine filtration system of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0029] Fig.14 A cross-sectional view of a coarse filtration chamber, a dosing funnel and a reaction chamber of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention;

[0030] Fig.15 A schematic diagram of the internal structure of a dosing funnel and a reaction chamber of a laboratory high-concentration comprehensive wastewater treatment integrated machine provided by the present invention.

[0031] In the figure: outer shell 11, U-shaped baffle 12, wastewater conduit 13, overflow cover 14, inner cabin cover 15, conveying roller 16, light-transmitting roller 17, L-shaped side plate 18, arched strip 19, first C-shaped plate 20, spectrometer 21, second C-shaped plate 22, lens group 23, laser generator 24, reflector 25, first hydraulic rod 26, inner clamping plate 27, outer clamping plate 28, concave mirror 29, second hydraulic rod 30, third C-shaped plate 31, third hydraulic rod 32, push plate 33, small slide 34, first motor 35, large slide Seat 36, second motor 37, rubber roller 38, third motor 39, cup base 40, waste water cup 41, limit plate 42, spring 43, cleaning cover 44, high pressure nozzle 45, coarse filtration cabin 51, dosing funnel 52, reaction chamber 53, primary filter plate 54, secondary filter plate 55, tertiary filter plate 56, screen 57, drip baffle 58, first delivery pump 59, stirring rotary frame 60, second delivery pump 61, raw water pipe 62, activated carbon adsorption tank 63, conduit 64, reverse osmosis membrane filter tank 65, clean water pipe 66, sewage pipe 67. DETAILED DESCRIPTION

[0032] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0033] Embodiment 1, as Figure 1 - Figure 4 , Fig. 9 , Fig.11 and Fig.13 As shown, a laboratory high-concentration comprehensive wastewater treatment integrated machine in an embodiment of the first aspect of the present invention includes an outer shell 11, and the outer shell 11 is a box structure with upper and lower openings. An inner cabin cover 15 is arranged in the center of the outer shell 11, and one side of the short side of the inner cabin cover 15 is fixedly connected to the inner wall of the outer shell 11, and the other short side of the inner cabin cover 15 and the bottom surface of one of the long sides are fixedly installed with an L-shaped side panel 18, and the bottom surface of the other long side of the inner cabin cover 15 is fixedly installed with an arched strip 19, and a plurality of conveying rollers 16 are rotatably installed between the inner wall of the outer shell 11 and the arched strip 19 and the L-shaped side panel 18, and a plurality of cup bases 40 are placed on the conveying rollers 16, and a wastewater cup 41 is fixedly installed on the top surface of the cup base 40, and a feeding structure is arranged above the conveying rollers 16 on the short side of the outer shell 11, and the feeding structure is used to collect wastewater from each laboratory and inject it into different wastewater cups 41, and the inner cabin cover 15 is not connected to the inner wall of the short side of the outer shell 11 A Raman spectroscopic device is provided, and the Raman spectroscopic device is used to detect the composition of the wastewater in the wastewater cup 41. A plurality of small slides 34 are rotatably provided in the middle of the inner cabin cover 15, and the small slides 34 are used to place the wastewater cup 41 containing beneficial wastewater. A plurality of large slides 36 are rotatably provided on the inner wall of the short side of the inner cabin cover 15 connected to the outer shell 11, and the large slides 36 are used to classify and place the wastewater cups 41. A plurality of propulsion structures are installed on one side of the outer wall of the outer shell 11, and the propulsion structures are used to push the cup base 40 and the wastewater cup 41 into the small slides 34 or the large slides 36. A dosing funnel 52 is provided below the small slide 34, and a reaction chamber 53 is connected to the lower end of the dosing funnel 52. A coarse filtration cabin 51 is provided below the large slide 36, and one side of the coarse filtration cabin 51 is connected to the reaction chamber 53 through-connection. A fine filtration system is installed on the sides of the coarse filtration cabin 51 and the reaction chamber 53, and the fine filtration system is used to further filter the liquid in the reaction chamber 53.

[0034] In the above embodiment, it should be noted that a motor is installed at the end of the rotating shaft of each conveying roller 16, and each motor can independently control and drive each conveying roller 16 to flexibly drive the cup body base 40 and the waste water cup 41 to move; the cup body base 40 is made of plastic material, and the cup body base 40 is made of chemically stable and corrosion-resistant glass material; in the initial state, the empty waste water cup 41 and the cup body base 40 are placed on the conveying roller 16 below the feeding structure;

[0035] First, the wastewater generated in each laboratory is collected through the feeding structure and injected into different wastewater cups 41 for storage. Then, the conveying roller 16 motor is started to drive the conveying roller 16 to drive each wastewater cup 41 to pass through the Raman spectrometer in turn. The Raman spectrometer measures the main components of the wastewater in each wastewater cup 41. Then, the wastewater cups 41 containing wastewater that cannot react violently with each other are classified by the conveying roller 16 and the propulsion structure. First, the wastewater cups 41 containing wastewater that cannot react violently with each other are transported to the side of the large slide 36. Then, the propulsion structure is started to push them together with the cup base 40 and arrange them on the same large slide 36. Similarly, the wastewater cups 41 containing wastewater that can be used are pushed and stored on the small slide 34. Then, each large slide 36 is rotated one by one, and the wastewater cups on different large slides 36 are poured into the coarse filtration cabin 51 in batches for pretreatment at intervals. The waste liquid in the filter cabin 51 is input into the reaction chamber 53. At this time, one or more small slides 34 are started according to the actual needs, and the beneficial wastewater in the wastewater cup 41 on the small slide 34 is evenly added to the reaction chamber 53 through the dosing funnel 52 and participates in the chemical treatment step. Finally, the liquid in the reaction chamber 53 is introduced into the fine filtration system for thorough filtration and then discharged, so as to avoid the mixed treatment of multiple wastewaters that may react, and prevent some violent and harmful chemical reactions from occurring during the wastewater treatment process; at the same time, it can also allow some special wastewater that can participate in the chemical treatment process of other wastewaters to be reused and play a positive effect, reducing the waste of some wastewater components, effectively improving the utilization rate of wastewater, reducing resource consumption, alleviating the environmental burden in the wastewater treatment process, and reducing the cost of wastewater treatment.

[0036] Embodiment 2, as Figure 1 - Figure 7 and Fig. 9As shown, a laboratory high-concentration comprehensive wastewater treatment integrated machine includes embodiment 1. In addition, the feeding structure includes a U-shaped baffle 12, which is arranged above the conveying roller 16 located on the short side of the outer shell 11, and the U-shaped baffle 12 is fixedly installed on the inner cabin cover 15 and the top surface of the outer shell 11. A plurality of wastewater pipes 13 are inserted and installed on the top surface of the U-shaped baffle 12, and the wastewater pipes 13 extend away from one end of the U-shaped baffle 12 and are connected to the wastewater collection port of each laboratory. An overflow-proof cover plate 14 is fixedly installed on the side of the top surface of the inner cabin cover 15 away from the arched strip 19, and a cleaning cover shell 44 is fixedly installed on the side of the top surface of the inner cabin cover 15 close to the arched strip 19. The cleaning cover shell 44 A high-pressure nozzle 45 is fixedly installed on the inner wall, six openings are arranged on the side where the inner cabin cover 15 is connected to the arched strip 19, six grooves corresponding to the openings of the inner cabin cover 15 are arranged on the top surface of the arched strip 19, seven sockets are arranged on the side of the inner cabin cover 15 away from the arched strip 19, seven slots corresponding to the sockets of the inner cabin cover 15 are arranged on the top surface of the L-shaped side plate 18, and the six sockets of the inner cabin cover 15 except the socket closest to the U-shaped baffle 12 correspond to the six openings on the other side of the inner cabin cover 15, and seven openings are arranged on the side of the outer wall of the outer shell 11 away from the arched strip 19, and the seven openings of the outer shell 11 correspond to the seven sockets of the arched strip 19.

[0037] In the above embodiment, it should be noted that the cross-section of the U-shaped baffle 12 is an inverted U-shaped structure, and the cup base 40 and wastewater cups 41 corresponding to the number of wastewater conduits 13 can be stored under the U-shaped baffle 12; the experimenter pours the wastewater into the wastewater collection port of the laboratory in the laboratory, and the wastewater is injected into the corresponding wastewater cup 41 through the wastewater conduit 13, so as to achieve the effect of packaging and storing the wastewater to be treated; one end of the high-pressure nozzle 45 is connected to a water source, and the high-pressure nozzle 45 in the cleaning cover 44 is used to rinse the used wastewater cup 41. When the wastewater cup 41 is emptied of wastewater on the small slide 34 or the large slide 36, the next batch of wastewater cups 41 pushed will squeeze the empty wastewater cups 41 out of the small slide 34 or the large slide 36 and squeeze the empty wastewater cups 41 into the cleaning cover 44. The cover shell 44, at this time, the high-pressure nozzle 45 is started to flush the empty waste water cup 41 to achieve the effect of cleaning the waste water cup 41, the bottom surface of the outer shell 11 below the cleaning cover shell 44 is sealed and connected with a drain pipe for emptying the cleaning waste water, and the cleaned empty waste water cup 41 is then transported back to the bottom of the U-shaped baffle 12 together with the cup body base 40 through the conveying roller 16 for a new round of waste liquid holding; the overflow-proof cover plate 14 is made of corrosion-resistant glass material, and the overflow-proof cover plate 14 is used to resist the upper port of the waste water cup 41 to prevent the waste liquid from overflowing during the movement of the waste water cup 41; the sum of the opening height of the inner cabin cover 15 and the groove height of the arched strip 19 is greater than the height of the waste water cup 41, and the sum of the socket height of the inner cabin cover 15 and the slot height of the L-shaped side plate 18 is greater than the height of the waste water cup 41.

[0038] Embodiment 3, as Figure 4 , Figure 7 and Figure 8 As shown, a laboratory high-concentration comprehensive wastewater treatment integrated machine includes embodiment 2. In addition, the Raman spectroscopic device includes a first C-type plate 20, which is fixedly mounted on the outer wall of the opening of the outer shell 11 closest to the U-shaped baffle 12, and a plurality of conveying rollers 16 located on the side of the first C-type plate 20 are replaced by light-transmitting rollers 17, and the light-transmitting rollers 17 are roller-shaped structures with the middle part cut off. An inner clamping plate 27 is arranged in the socket of the inner cabin cover 15 closest to the U-shaped baffle 12, and an outer clamping plate 28 is arranged in the opening of the outer shell 11 closest to the U-shaped baffle 12. The inner clamping plate 27 and the outer clamping plate 28 are used to clamp the two sides of the cup base 40, and a second hydraulic rod 30 is fixedly mounted in the middle of the first C-type plate 20, and the output end of the second hydraulic rod 30 is fixedly connected to the outer clamping plate 28. The Raman spectroscopic device includes a spectrometer 21, which is fixedly mounted on the top surface of the inner wall of the inner cabin cover 15, close to the U-shaped baffle 12. A second C-shaped plate 22 is fixedly mounted on the side of the spectrometer 21 close to the first C-shaped plate 20. A laser generator 24 is fixedly mounted on the bottom surface of the second C-shaped plate 22. A reflector 25 is fixedly mounted below the light-transmitting roller 17. The emitting end of the laser generator 24 faces the center of the reflector 25. A light-transmitting hole is provided on the bottom surface of the cup base 40. A concave mirror 29 is fixedly mounted on the top surface of the outer clamping plate 28. A lens group 23 is fixedly mounted on the side of the second C-shaped plate 22 away from the spectrometer 21. A first hydraulic rod 26 is inserted into the second C-shaped plate 22 below the lens group 23, and an output end of the first hydraulic rod 26 is fixedly connected to the inner clamping plate 27.

[0039] In the above embodiment, it should be noted that the spectrometer 21 is a device for analyzing substances through the Raman scattering effect, which belongs to the prior art. A light receiving hole is provided on the surface of the spectrometer 21. When the conveying roller 16 conveys the cup base 40 and the waste water cup 41 on its top surface to the top surface of the light-transmitting roller 17, the first hydraulic rod 26 and the second hydraulic rod 30 are started to push the inner clamping plate 27 and the outer clamping plate 28 to clamp the two sides of the cup base 40, and then the laser generator 24 is started to emit laser. After being reflected by the reflector 25, the laser passes through the light-transmitting hole on the bottom surface of the cup base 40 and vertically enters the waste water cup 41. Then the concave mirror 29 collects the scattered light generated by the waste liquid in the waste water cup 41 and inputs it into the light receiving hole of the spectrometer 21 through the lens group 23, so as to achieve the effect of analyzing the chemical composition of the waste liquid in the waste water cup 41.

[0040] Embodiment 4, as Figure 4 , Figure 7 , Fig. 9 - Fig.13As shown, a laboratory high-concentration comprehensive wastewater treatment integrated machine includes embodiment 3. In addition, the propulsion structure includes a third C-type plate 31. The outer walls of the remaining six openings of the outer shell 11 except the opening closest to the U-shaped baffle 12 are all installed with the third C-type plate 31. A third hydraulic rod 32 is fixedly installed in the middle of the side of the third C-type plate 31 away from the outer shell 11. The third hydraulic rod 32 is fixedly installed with a propulsion plate 33 near the output end of the outer shell 11. The propulsion plate 33 is used to push the cup base 40 and the wastewater cup 41 into the plug on the surface of the inner cabin cover 15. The bottom surface of the large slide 36 is provided with a rotating shaft, which is rotatably installed between the four grooves of the arched strip 19 away from the U-shaped baffle 12 and the four slots of the L-shaped side plate 18 away from the U-shaped baffle 12. The end of the bottom surface rotating shaft of the large slide 36 close to the arched strip 19 is fixedly installed with a second motor 37, the bottom surface of the small slide 34 is provided with a rotating shaft, and the end of the bottom surface rotating shaft of the small slide 34 close to the arched strip 19 is fixedly installed with a first motor 35. The three small slides 34 are set as a group, and the two groups of small slides 34 are respectively provided with The inner wall of the inner cabin cover 15 is arranged between the two openings near the U-shaped baffle 12 and the corresponding sockets. The end of the bottom surface of the rotating shaft of the small slide 34 in the same group that is not connected to the first motor 35 is rotatably connected to the first motor 35 on the bottom surface of the adjacent small slide 34. The end of the bottom surface of the rotating shaft of the small slide 34 in the same group that is closest to the L-shaped side plate 18 is rotatably connected to the L-shaped side plate 18. The first motor 35 on the bottom surface of the small slide 34 in the same group that is closest to the arched strip 19 is rotatably connected to the arched strip 19. Fixed connection, three concave holes are arranged on the top surface of the large slide 36, and a concave hole is set in the center of the top surface of the small slide 34. Springs 43 are installed in the concave holes of the small slide 34 and the large slide 36. A limit plate 42 is fixedly installed on the upper end of the spring 43. The limit plate 42 is used to embed upward into the light-transmitting hole of the cup base 40. A rubber roller 38 is rotatably installed on the bottom surface of each groove of the arched strip 19. The top of the rubber roller 38 passes through the arched strip 19 to the top surface of the groove of the arched strip 19, and a third motor 39 is fixedly installed on the rotating shaft end of one end of the rubber roller 38.

[0041] In the above embodiment, it should be noted that when the conveying roller 16 conveys the cup body base 40 and the top waste water cup 41 to the side of the designated inner cabin cover 15 socket, the third hydraulic rod 32 is started to push the propulsion plate 33, and the propulsion plate 33 pushes the cup body base 40 and the top waste water cup 41 into the corresponding inner cabin cover 15 socket, so as to achieve the effect of pushing the waste water cup 41 to the designated small slide 34 or large slide 36; both sides of the inner wall of the small slide 34 and the large slide 36 are provided with track grooves that can be embedded in both sides of the cup body base 40, which can effectively prevent the cup body base 40 and the top waste water cup 41 from escaping from the small slide 34 or the large slide 36 when the small slide 34 and the large slide 36 are flipped over. The length of the three small slides 34 is equal to the length of one large slide 36. When the cup body base 40 slides into the track grooves on both sides of the inner wall of the small slide 34 or the large slide 36 The limiting piece 42 will be squeezed and retracted into the concave hole. When the cup body base 40 slides to the specified position on the top surface of the small slide 34 or the large slide 36, the spring 43 pushes the limiting piece 42 upward to embed into the light-transmitting hole of the cup body base 40, so as to achieve the effect of fixing the cup body base 40; each first motor 35 can independently control the corresponding small slide 34, and drive the small slide 34 to flip by starting the first motor 35, so as to achieve the effect of dumping the waste water in the waste water cup 41 on the top surface of the small slide 34; drive the large slide 36 to flip by starting the second motor 37, so as to achieve the effect of dumping the waste water in the waste water cup 41 on the top surface of the large slide 36; when the next batch of waste water cups 41 pushed out will squeeze the empty waste water cups 41 out of the small slide 34 or the large slide 36, drive the rubber roller 38 to rotate by starting the third motor 39, so as to achieve the effect of accelerating the cup body base 40 and its empty waste water cups 41 to enter the cleaning cover 44.

[0042] Embodiment 5, as Figure 1 , Figure 2 , Fig.13 - Fig.15As shown, a laboratory high-concentration comprehensive wastewater treatment integrated machine includes embodiment 4. In addition, a coarse filter cabin 51 is fixedly installed on the L-shaped side plate 18 and the bottom surface of the arched strip plate 19 below the large slide 36. The inner wall of the coarse filter cabin 51 is sequentially installed with a primary filter plate 54, a secondary filter plate 55 and a tertiary filter plate 56 from top to bottom. A first delivery pump 59 is fixedly installed on the side of the inner wall of the coarse filter cabin 51 close to the reaction chamber 53. The first delivery pump 59 is connected to the reaction chamber 53. The dosing funnel 52 is fixedly installed on the L-shaped side plate 18 and the bottom surface of the arched strip plate 19 below the small slide 34. The inner wall of the dosing funnel 52 is sequentially installed with a screen 57 and a drip baffle 58 from top to bottom. The surface of the drip baffle 58 is provided with a plurality of small holes. The bottom surface of the inner wall of the reaction chamber 53 is rotatably installed with a stirring device. The rotating frame 60 is fixedly installed with a second delivery pump 61 on one side of the inner wall of the reaction chamber 53. The fine filtration system includes a raw water pipe 62. One end of the raw water pipe 62 passes through the reaction chamber 53 and is connected to the second delivery pump 61. The other end of the raw water pipe 62 is fixedly connected to an activated carbon adsorption tank 63. Several activated carbon adsorption tanks 63 are arranged in groups and installed on the side of the coarse filtration cabin 51. One end of the activated carbon adsorption tank 63 away from the raw water pipe 62 is fixedly connected to a conduit 64. One end of the conduit 64 away from the activated carbon adsorption tank 63 is fixedly connected to a reverse osmosis membrane filter tank 65. The reverse osmosis membrane filter tanks 65 are arranged in groups and installed on the side of the coarse filtration cabin 51. One end of the reverse osmosis membrane filter tank 65 away from the conduit 64 is fixedly connected to a clean water pipe 66. The side of the reverse osmosis membrane filter tank 65 is fixedly connected to a sewage pipe 67.

[0043] In the above embodiment, it should be noted that the filtration aperture of the primary filter plate 54 is larger than the filtration aperture of the secondary filter plate 55, and the filtration aperture of the secondary filter plate 55 is larger than the filtration aperture of the tertiary filter plate 56; an independent liquid inlet pipe is arranged on one side of the top of the dosing funnel 52, and when there is no waste water cup 41 with waste liquid available on the small slide 34, the staff needs to add the chemical agent required for the chemical treatment reaction into the dosing funnel 52 through the independent liquid inlet pipe; a columnar block of activated carbon is arranged in the activated carbon adsorption tank 63, and the porous structure of the activated carbon can adsorb impurities in the wastewater, and a wound reverse osmosis membrane material is installed in the reverse osmosis membrane filter tank 65, which belongs to the prior art, and the liquid passes through the reverse osmosis membrane material and is discharged from the clean water pipe 66, and the intercepted impurities are then discharged and collected through the circulating water introduced by the sewage pipe 67;

[0044] The wastewater in the wastewater cup 41 on the top of the large slide 36 is poured into the coarse filter cabin 51 and filtered layer by layer through the primary filter plate 54, the secondary filter plate 55 and the tertiary filter plate 56 to achieve the effect of pre-treating the solid particulate impurities in the wastewater. Then, the first delivery pump 59 is started to introduce the pre-treated wastewater into the reaction chamber 53. Then, the cup base 40 is turned over as needed to pour the available waste liquid into the dosing funnel 52, the particulate impurities are screened out through the screen 57 and the waste liquid is evenly dripped into the reaction chamber 53 through the small holes on the drip baffle 58. Then, the stirring rack 60 is started to rotate to fully mix the two or more wastewaters and promote the reaction rate of the chemical treatment link. After the chemical treatment link is completed, the second delivery pump 61 is started to introduce the liquid through the raw water pipe 62 into the activated carbon adsorption tank 63 for activated carbon adsorption. Finally, the liquid enters the reverse osmosis membrane filter tank 65 through the conduit 64 for reverse osmosis filtration and is discharged from the clean water pipe 66 to complete the thorough filtration of the laboratory wastewater.

[0045] The use process of the present invention is as follows: a person skilled in the art pours wastewater into the wastewater collection port of the laboratory, and the wastewater is injected into the corresponding wastewater cup 41 through the wastewater conduit 13, and then the conveying roller 16 motor is started to drive the conveying roller 16 to drive each wastewater cup 41 to be transported to the top surface of the light-transmitting roller 17 in sequence. When the cup base 40 and the wastewater cup 41 on the top surface thereof are transported to the top surface of the light-transmitting roller 17, the first hydraulic rod 26 and the second hydraulic rod 30 are started to push the inner clamping plate 27 and the outer clamping plate 28 to approach each other and clamp the two sides of the cup base 40, and then the laser generator 24 is started to emit laser, and the laser passes through the cup base 40 after being reflected by the reflector 25. The light transmission hole on the bottom surface vertically irradiates the waste water cup 41, and then the concave mirror 29 collects the scattered light generated by the waste liquid in the waste water cup 41 and inputs it into the light receiving hole of the spectrometer 21 through the lens group 23 to analyze the chemical composition of the waste liquid in the waste water cup 41, and then the conveying roller 16 is started to classify it, and the waste water cup 41 containing waste water that cannot produce violent reaction with each other is first conveyed to the side of the large slide 36, and the third hydraulic rod 32 is started to push the push plate 33, and the push plate 33 pushes the cup base 40 and the top waste water cup 41 into the large slide 36, and then the waste water cup 41 containing waste water that can be used is conveyed to the side of the small slide 34, and the third hydraulic rod 32 is started to push the push plate 33. The push plate 33 pushes the cup base 40 and the top waste water cup 41 into the large slide 36, and then the waste water cup 41 containing waste water that can be used is conveyed to the side of the small slide 34, and then the third hydraulic rod 32 is started to push the push plate 33. The third hydraulic rod 32 is driven to push the push plate 33, and the push plate 33 pushes the cup body base 40 and the waste water cup 41 on the top thereof into the small slide 34, and the second motor 37 is started one by one to drive the large slide 36 to flip, and the waste water cups on different large slides 36 are poured into the coarse filter chamber 51 in batches for pretreatment at intervals. The waste water in the waste water cup 41 on the top of the large slide 36 is poured into the coarse filter chamber 51 and filtered layer by layer through the primary filter plate 54, the secondary filter plate 55 and the tertiary filter plate 56 to treat the solid particulate impurities in the waste water, and then the pretreated waste water is introduced into the reaction chamber 53 by starting the first delivery pump 59, and then according to the actual situation, the waste water is discharged from the reaction chamber 53. To start one or more first motors 35, the first motor 35 drives the small slide 34 to flip, pour the usable waste liquid into the dosing funnel 52, screen out the particulate impurities through the screen 57 and drip evenly into the reaction chamber 53 through the small holes on the drip baffle 58, then start the stirring rotary frame 60 to rotate, so that the two or more wastewaters are fully mixed. After the chemical treatment link is completed, start the second delivery pump 61 to introduce the liquid into the activated carbon adsorption tank 63 through the raw water pipe 62 for activated carbon adsorption, and finally the liquid enters the reverse osmosis membrane filter tank 65 through the conduit 64 for reverse osmosis filtration and is discharged from the clean water pipe 66 to complete the thorough filtration of laboratory wastewater.

[0046] The above is only a preferred embodiment of the present invention. Any person skilled in the art may modify the present invention by using the above technical solution or modify it into an equivalent technical solution. Therefore, any simple modification or equivalent replacement made according to the technical solution of the present invention shall fall within the scope of protection claimed by the present invention.

Claims

1. A laboratory high-concentration comprehensive wastewater treatment integrated machine, comprising an outer shell (11), the outer shell (11) being a box structure with upper and lower openings, an inner chamber cover (15) being arranged in the center of the outer shell (11), one side of the short side of the inner chamber cover (15) being fixedly connected to the inner wall of the outer shell (11), characterized in that: An L-shaped side plate (18) is fixedly mounted on the bottom surface of the other short side and one of the long sides of the inner cabin cover (15), an arched strip plate (19) is fixedly mounted on the bottom surface of the other long side of the inner cabin cover (15), a plurality of conveying rollers (16) are rotatably mounted between the inner wall of the outer shell (11) and the arched strip plate (19) and the L-shaped side plate (18), a plurality of cup bases (40) are placed on the conveying rollers (16), and a waste water cup (41) is fixedly mounted on the top surface of the cup base (40). A feeding structure is arranged above the conveying roller (16) on the short side of the outer shell (11), and the feeding structure is used to collect wastewater from each laboratory and inject it into different wastewater cups (41). A Raman spectrometer is arranged on the inner wall of the short side of the inner chamber cover (15) not connected to the outer shell (11), and the Raman spectrometer is used to detect the components of the wastewater in the wastewater cup (41). A plurality of small slide seats (34) are rotatably arranged in the middle of the inner chamber cover (15), and the small slide seats (34) are rotatably arranged in the middle of the inner chamber cover (15). ) is used to place a wastewater cup (41) containing wastewater that can be utilized, the inner wall of the short side of the inner chamber cover (15) connected to the outer shell (11) is rotatably provided with a plurality of large slide seats (36), the large slide seats (36) are used to place the wastewater cup (41) containing wastewater that cannot produce violent reactions with each other, and a plurality of propulsion structures are installed on one side of the outer wall of the outer shell (11), the propulsion structures are used to push the cup body base (40) and the wastewater cup (41) into the small slide seat (34) or in a large slide seat (36), a dosing funnel (52) is arranged below the small slide seat (34), the lower end of the dosing funnel (52) is connected to a reaction chamber (53), a coarse filtration cabin (51) is arranged below the large slide seat (36), one side of the coarse filtration cabin (51) is connected to the reaction chamber (53), and a fine filtration system is installed on the side of the coarse filtration cabin (51) and the reaction chamber (53), and the fine filtration system is used to further filter the liquid in the reaction chamber (53).

2. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 1 is characterized in that: The feeding structure comprises a U-shaped baffle (12), wherein the U-shaped baffle (12) is arranged above a conveying roller (16) located at a short side of an outer shell (11), and the U-shaped baffle (12) is fixedly mounted on an inner chamber cover (15) and a top surface of the outer shell (11), and a plurality of wastewater conduits (13) are inserted and mounted on the top surface of the U-shaped baffle (12), and the wastewater conduits (13) extend from one end of the wastewater conduits (13) away from the U-shaped baffle (12) and are connected to wastewater collection ports of various laboratories, an anti-overflow cover (14) is fixedly mounted on a side of the top surface of the inner chamber cover (15) away from the arched strip (19), and a cleaning cover (44) is fixedly mounted on a side of the top surface of the inner chamber cover (15) close to the arched strip (19), and a high-pressure nozzle (45) is fixedly mounted on the inner wall of the cleaning cover (44).

3. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 2 is characterized in that: The inner cabin cover (15) is provided with six openings arranged on one side connected to the arch strip (19), the arch strip (19) is provided with six grooves corresponding to the openings of the inner cabin cover (15) on the top surface, the inner cabin cover (15) is provided with seven sockets arranged on the side away from the arch strip (19), the top surface of the L-shaped side plate (18) is provided with seven slots corresponding to the sockets of the inner cabin cover (15), the six sockets of the inner cabin cover (15) except the socket closest to the U-shaped baffle (12) correspond to the six openings on the other side of the inner cabin cover (15), and the outer wall of the outer shell (11) is provided with seven openings on the side away from the arch strip (19), and the seven openings of the outer shell (11) correspond to the seven sockets of the arch strip (19).

4. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 3 is characterized by: The Raman spectroscopic device comprises a first C-shaped plate (20), the first C-shaped plate (20) being fixedly mounted on the outer wall of the opening of the outer shell (11) closest to the U-shaped baffle (12), a plurality of conveying rollers (16) located on the side of the first C-shaped plate (20) being replaced by light-transmitting rollers (17), the light-transmitting rollers (17) being a roller-shaped structure with a truncated middle portion, an inner clamping plate (27) being arranged in the socket of the inner cabin cover (15) closest to the U-shaped baffle (12), an outer clamping plate (28) being arranged in the opening of the outer shell (11) closest to the U-shaped baffle (12), the inner clamping plate (27) and the outer clamping plate (28) being used to clamp two sides of a cup body base (40), a second hydraulic rod (30) being fixedly mounted in the middle of the first C-shaped plate (20), the output end of the second hydraulic rod (30) being fixedly connected to the outer clamping plate (28).

5. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 4 is characterized by: The Raman spectroscopic device comprises a spectrometer (21), the spectrometer (21) being fixedly mounted on a side of the top surface of the inner wall of the inner cabin cover (15) close to the U-shaped baffle (12), a second C-shaped plate (22) being fixedly mounted on a side of the spectrometer (21) close to the first C-shaped plate (20), a laser generator (24) being fixedly mounted on the bottom surface of the second C-shaped plate (22), a reflector (25) being fixedly mounted below the light-transmitting roller (17), an emission end of the laser generator (24) facing the center of the reflector (25), a light-transmitting hole being provided on the bottom surface of the cup body base (40), a concave mirror (29) being fixedly mounted on the top surface of the outer clamping plate (28), a lens group (23) being fixedly mounted on a side of the second C-shaped plate (22) away from the spectrometer (21), a first hydraulic rod (26) being inserted and mounted in the second C-shaped plate (22) below the lens group (23), and an output end of the first hydraulic rod (26) being fixedly connected to the inner clamping plate (27).

6. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 5 is characterized by: The propulsion structure comprises a third C-shaped plate (31). The outer walls of the remaining six openings of the outer shell (11) except the opening closest to the U-shaped baffle (12) are all equipped with the third C-shaped plate (31). A third hydraulic rod (32) is fixedly mounted on the middle part of the side of the third C-shaped plate (31) away from the outer shell (11). A propulsion plate (33) is fixedly mounted on the output end of the third hydraulic rod (32) close to the outer shell (11). The propulsion plate (33) is used to push the cup body base (40) and the waste water cup (41) into the socket on the surface of the inner cabin cover (15).

7. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 6 is characterized by: The large slide (36) has a rotating shaft installed on its bottom surface. The rotating shaft on the bottom surface of the large slide (36) is rotatably installed between four grooves of the arched strip (19) away from the U-shaped baffle (12) and four slots of the L-shaped side plate (18) away from the U-shaped baffle (12). A second motor (37) is fixedly installed on one end of the rotating shaft on the bottom surface of the large slide (36) close to the arched strip (19). The small slide (34) has a rotating shaft installed on its bottom surface. The first motor (35) is fixedly installed on one end of the rotating shaft on the bottom surface of the small slide (34) close to the arched strip (19). The three small slides (34) are arranged as a group. The two groups of small slides (34) are respectively arranged Between the two openings on the inner wall of the inner cabin cover (15) close to the U-shaped baffle (12) and the corresponding sockets, one end of the bottom surface of the rotating shaft of the small slide (34) in the same group that is not connected to the first motor (35) is rotationally connected to the first motor (35) on the bottom surface of the adjacent small slide (34), one end of the bottom surface of the rotating shaft of the small slide (34) closest to the L-shaped side plate (18) in the same group that is not connected to the first motor (35) is rotationally connected to the L-shaped side plate (18), and the first motor (35) on the bottom surface of the small slide (34) closest to the arched strip (19) in the same group is fixedly connected to the arched strip (19).

8. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 7 is characterized by: The top surface of the large slide (36) is provided with three concave holes arranged in an array, and the center of the top surface of the small slide (34) is provided with a concave hole. Springs (43) are installed in the concave holes of the small slide (34) and the large slide (36). A limit plate (42) is fixedly installed on the upper end of the spring (43). The limit plate (42) is used to be embedded upward into the light-transmitting hole of the cup body base (40). A rubber roller (38) is rotatably installed on the bottom surface of each groove of the arched strip (19). The top of the rubber roller (38) passes through the arched strip (19) to the top surface of the groove of the arched strip (19). A third motor (39) is fixedly installed on the rotating shaft end of one end of the rubber roller (38).

9. The high-concentration comprehensive wastewater treatment integrated machine for laboratories according to claim 8, characterized in that: The coarse filter chamber (51) is fixedly mounted on the bottom surface of the L-shaped side plate (18) and the arched strip plate (19) below the large slide seat (36); the inner wall of the coarse filter chamber (51) is sequentially mounted with a primary filter plate (54), a secondary filter plate (55) and a tertiary filter plate (56) from top to bottom; a first delivery pump (59) is fixedly mounted on one side of the inner wall of the coarse filter chamber (51) close to the reaction chamber (53); the first delivery pump (59) is connected to the reaction chamber (53); The dosing funnel (52) is fixedly mounted on the bottom surface of the L-shaped side plate (18) and the arched strip plate (19) below the small slide seat (34); a screen (57) and a drip baffle (58) are sequentially mounted on the inner wall of the dosing funnel (52) from top to bottom; a plurality of small holes are arranged on the surface of the drip baffle (58); a stirring rotating frame (60) is rotatably mounted on the bottom surface of the inner wall of the reaction chamber (53); and a second delivery pump (61) is fixedly mounted on one side of the inner wall of the reaction chamber (53).

10. The integrated laboratory high-concentration wastewater treatment machine according to claim 9, characterized in that: The fine filtration system comprises a raw water pipe (62), one end of the raw water pipe (62) passes through the reaction chamber (53) and is connected to the second delivery pump (61), the other end of the raw water pipe (62) is fixedly connected to an activated carbon adsorption tank (63), a plurality of activated carbon adsorption tanks (63) are arranged in groups and installed on the side of the coarse filtration chamber (51), one end of the activated carbon adsorption tank (63) away from the raw water pipe (62) is fixedly connected to a conduit (64), one end of the conduit (64) away from the activated carbon adsorption tank (63) is fixedly connected to a reverse osmosis membrane filtration tank (65), the reverse osmosis membrane filtration tanks (65) are arranged in groups and installed on the side of the coarse filtration chamber (51), one end of the reverse osmosis membrane filtration tank (65) away from the conduit (64) is fixedly connected to a clean water pipe (66), and the side of the reverse osmosis membrane filtration tank (65) is fixedly connected to a sewage pipe (67).

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