Pipeline type efficient microelectrolysis materialization system

Abstract

The invention discloses a pipeline type efficient microelectrolysis physicochemical system, and relates to the technical field of wastewater treatment. The pipeline type efficient microelectrolysis materialization system comprises an L-shaped frame plate, an electrifying mechanism and an aeration mechanism, three sets of glass pipelines are arranged on the front side of the L-shaped frame plate, a set of water conveying pipes are fixedly connected between every two adjacent sets of sealing covers, and the two ends of the two sets of water conveying pipes communicate with the interiors of the corresponding glass pipelines; and a group of sealing covers are fixedly mounted at the tops of the three groups of glass pipelines. According to the pipeline type efficient micro-electrolysis physicochemical system, through cooperative use of the glass pipeline water conveying pipes, the filler layer mechanism and the electrodes, wastewater can slowly flow through all the glass pipelines and the water conveying pipes, and full micro-electrolysis is completed when the wastewater flows through all the glass pipelines and the water conveying pipes, so that purification treatment and uninterrupted wastewater treatment are achieved, and one-time completion is achieved; time and labor are saved, and the practicability of the system is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of wastewater treatment, and particularly relates to a pipeline-type high-efficiency micro-electrolysis physical and chemical system. Background Art

[0002] Micro-electrolysis refers to electrolysis under low-voltage DC conditions, which can effectively remove calcium and magnesium ions in water to reduce water hardness. At the same time, active hydroxyl free radicals and active chlorine that can sterilize and disinfect are generated during electrolysis, and the adsorption effect on the electrode surface can also kill bacteria. It is particularly suitable for the pretreatment of high-salt, high-COD, and difficult-to-degrade wastewater.

[0003] Chinese patent document CN216764403U discloses a micro-electrolysis treatment device, including a water storage tank. A support frame is fixedly connected to the top of the water storage tank. A mounting plate is fixedly connected to the surface of the support frame. A servo motor is installed on the top of the mounting plate. The output end of the servo motor is fixedly connected to a threaded rod. A threaded cylinder is threadedly connected to the surface of the threaded rod. An electrode head is fixedly connected to the surface of the threaded cylinder. A water inlet pipe and a drain pipe are fixedly connected to the side of the water storage tank. Through the cooperation among the servo motor, the threaded rod, the threaded cylinder, and the mounting plate, the electrode head can be automatically driven to move up and down, making it more convenient to operate during micro-electrolysis, avoiding the need for manual handling, which may easily cause damage due to collision during use, and also causing a burden on human resources and affecting work efficiency.

[0004] However, the above device can only treat a fixed amount of wastewater at a time. For the treatment of a large amount of wastewater, it is necessary to continuously pour and drain water, and the frequent operation is time-consuming and laborious, resulting in low wastewater treatment efficiency. Therefore, we propose a pipeline-type high-efficiency micro-electrolysis physical and chemical system. Summary of the Invention

[0005] The purpose of the present invention is to provide a pipeline-type high-efficiency micro-electrolysis physical and chemical system, which can solve the problem of low wastewater treatment efficiency of some existing devices.

[0006] To achieve the above purpose, the present invention provides the following technical solutions: A pipeline-type high-efficiency micro-electrolysis physical and chemical system, including:

[0007] An L-shaped frame plate, on the front side of which there are three glass pipes. A water delivery pipe is fixedly connected between every two adjacent sealing covers. Both ends of the two water delivery pipes communicate with the interior of the corresponding glass pipes. A sealing cover is fixedly installed on the top of each of the three glass pipes;

[0008] An energizing mechanism, which is arranged on the L-shaped frame plate and is used to improve the automation degree of the system;

[0009] An aeration mechanism, which is arranged on the L-shaped frame plate and the glass pipes and is used to improve the treatment effect of wastewater;

[0010] A packing layer mechanism is arranged at the bottom of each glass pipe, and the packing layer mechanism includes a blocking cover, a material storage barrel, a barrel cover and a water flow trough. A blocking cover is threadedly installed at the bottom of the three groups of glass pipes, a material storage barrel is arranged directly above the three groups of blocking covers, and the three groups of material storage barrels are filled with iron-carbon fillers. A barrel cover is threadedly installed on the top of the three groups of material storage barrels, and at least two groups of water flow troughs are penetrated through the bottom of the three groups of material storage barrels and the three groups of barrel covers.

[0011] Preferably, the packing layer mechanism also includes connecting rods and rotating handles, at least two groups of connecting rods are fixedly installed between the three groups of sealing covers and the corresponding storage barrels, and a group of rotating handles are fixedly installed on the bottom of the three groups of sealing covers. With the cooperation of the glass pipes, the water pipes and the packing layer mechanism, the wastewater can flow slowly through the various glass pipes and water pipes, and complete sufficient micro-electrolysis to achieve purification when flowing through the various glass pipes and water pipes. The wastewater is treated uninterruptedly and completed in one go, saving time and effort, and solving the problem that some existing devices can only treat a certain amount of wastewater at a time, and the treatment of a large amount of wastewater requires continuous pouring and drainage, and frequent operations are time-consuming and labor-intensive, which also leads to the problem of low wastewater treatment efficiency, thereby improving the practicality of the system.

[0012] Preferably, the power-on mechanism comprises a U-shaped fixing plate, a servo motor, a lead screw, a movable block, a fixing rod, a battery cell, a connecting column, a limit slot and a limit rod, a U-shaped fixing plate is fixedly mounted on the front outer surface of the L-shaped frame plate, a group of servo motors are fixedly mounted on the top of the U-shaped fixing plate, a lead screw is rotatably mounted between the inner top and inner bottom of the U-shaped fixing plate, the rotating shaft of the servo motor is transmission-connected to the lead screw, a movable block is threadedly mounted on the lead screw, a fixing rod is fixedly mounted on the front outer surface of the movable block, a group of battery cells are arranged directly above each of the three groups of glass pipes, one end of the fixing rod is fixed to the The corresponding battery cells are fixedly connected, and a group of connecting columns are fixedly installed between adjacent battery cells. Two groups of limit grooves are penetrated on the L-shaped frame plate, and a group of limit rods are fixedly installed on the rear outer surfaces of the two groups of battery cells. The two groups of limit rods are inserted into the corresponding limit grooves. With the cooperation of the power-on mechanism, the pole ears and the power supply port, when treating the wastewater, each pole ear can be automatically and synchronously plugged into the corresponding power supply port to achieve synchronous power-on of each electrode, thereby ensuring the convenience of system operation, ensuring the use effect of the system, and being conducive to the promotion and use of the system.

[0013] Preferably, the aeration mechanism includes a flow splitter plate, an air pump, an air delivery pipe, and an air diffuser pipe. The flow splitter plate and the air pump are fixedly installed on the outer surface of the rear side of the L-shaped frame plate. The output end of the air pump communicates with the inside of the flow splitter plate. Three air delivery pipes are fixedly installed on the outer surface of the front side of the L-shaped frame plate. One end of each of the three air delivery pipes penetrates through the L-shaped frame plate and communicates with the inside of the flow splitter plate. A set of air diffuser pipes that communicate with the inside of the corresponding air delivery pipes are fixedly installed on the outer surfaces of the three air delivery pipes. The three air diffuser pipes all penetrate through the corresponding glass pipes and extend into the inside of the corresponding glass pipes. Under the combined action of the glass pipes and the aeration mechanism, when the wastewater in each glass pipe undergoes micro-electrolysis, aeration is carried out in each glass pipe to increase the dissolved oxygen content in the wastewater, promote the metabolism of microorganisms and the degradation of organic matter, improve the treatment effect of the wastewater, and enhance the functionality of the system.

[0014] Preferably, a set of electrodes are fixedly installed inside the corresponding glass pipes at the inner tops of the three sealing covers. The three electrodes all penetrate through the corresponding sealing covers, and two sets of ear tabs are extended at the tops of the respective sealing covers. Two power supply ports are opened at the bottoms of the three battery cores.

[0015] Preferably, a set of sealing gaskets are fixedly installed on the tops of the three plugging covers. The three sealing gaskets are all in contact with the bottoms of the corresponding glass pipes to ensure the sealing performance of the installation of the plugging covers and prevent the leakage of wastewater.

[0016] Preferably, three connecting columns are fixedly installed on the outer surface of the front side of the L-shaped frame plate. A set of fixing sleeves are fixedly installed on the three connecting columns. The three fixing sleeves are all fixedly sleeved on the outer surfaces of the corresponding glass pipes.

[0017] Preferably, two sets of fixing pieces are fixedly installed on the outer surfaces of both sides of the L-shaped frame plate.

[0018] Preferably, two sets of handles are fixedly installed on the outer surfaces of the front and rear sides of the L-shaped frame plate.

[0019] Preferably, a water inlet pipe and a drain pipe are fixedly installed on the outer surfaces of two of the glass pipes respectively. One ends of the water inlet pipe and the drain pipe communicate with the inside of the corresponding glass pipes. Flange plates are fixedly installed at the other ends of the water inlet pipe and the drain pipe.

[0020] Compared with the prior art, the beneficial effects of the present invention are:

[0021] (1) The pipeline-type high-efficiency micro-electrolysis physicochemical system, through the coordinated use of glass pipes, water pipes, packing layer mechanisms and electrodes, can allow wastewater to flow slowly through each glass pipe and water pipe, and complete sufficient micro-electrolysis to achieve purification when flowing through each glass pipe and water pipe. The wastewater is treated uninterruptedly and completed in one go, saving time and effort. This solves the problem that some existing devices can only treat a certain amount of wastewater at a time, and the treatment of a large amount of wastewater requires continuous pouring and drainage, which is time-consuming and labor-intensive, and also leads to the problem of low wastewater treatment efficiency, thereby improving the practicality of the system.

[0022] (2) The pipeline-type high-efficiency micro-electrolysis system, through the coordinated use of the power-on mechanism, the pole ears and the power supply port, can automatically and synchronously connect each pole ear to the corresponding power supply port when treating wastewater, thereby realizing the synchronous power-on of each electrode, ensuring the convenience of system operation, ensuring the use effect of the system, and facilitating the promotion and use of the system.

[0023] (3) The pipeline-type high-efficiency micro-electrolysis physicochemical system uses glass pipes and aeration mechanisms in coordination. When the wastewater in each glass pipe is micro-electrolyzed, aeration is performed in each glass pipe, thereby increasing the dissolved oxygen content in the wastewater, promoting the metabolism of microorganisms and the degradation of organic matter, improving the wastewater treatment effect, and improving the functionality of the system. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] The present invention is further described below in conjunction with the accompanying drawings and embodiments:

[0025] Figure 1 It is a front perspective view of the present invention;

[0026] Figure 2 is a rear perspective view of the present invention;

[0027] Figure 3 for Figure 2 A magnified view of the structure at center A;

[0028] Figure 4 Schematic diagram of the internal structure of each glass pipe of the present invention;

[0029] Figure 5 for Figure 4 A magnified view of the structure at B in the middle;

[0030] Figure 6 It is a structural schematic diagram of the packing layer mechanism of the present invention;

[0031] Figure 7 It is a structural schematic diagram of the power supply mechanism of the present invention;

[0032] Figure 8 It is a bottom perspective view of the battery cell of the present invention.

[0033] Reference numerals: 1, L-shaped shelf board; 2, glass pipeline; 3, water delivery pipe; 4, sealing cover; 5, packing layer mechanism; 51, plugging cover; 52, storage cylinder; 53, connecting rod; 54, cylinder cover; 55, water overflow tank; 56, turning handle; 6, power-on mechanism; 61, U-shaped fixing plate; 62, servo motor; 63, lead screw; 64, movable block; 65, fixed rod; 66, battery cell; 67, connecting post; 68, limiting groove; 69, limiting rod; 7, aeration mechanism; 71, flow dividing plate; 72, air pump; 73, air delivery pipe; 74, aeration pipe; 8, tab; 9, electrode; 10, power supply port; 11, sealing gasket; 12, connecting column; 13, fixing sleeve; 14, fixing piece; 15, handle; 16, water inlet pipe; 17, drain pipe; 18, flange plate. Detailed implementation manners

[0034] Please refer to Figure 1-8 , the present invention provides a technical solution: a pipeline type high-efficiency micro-electrolysis physical and chemical system, including an L-shaped shelf board 1, a power-on mechanism 6, an aeration mechanism 7 and a packing layer mechanism 5. Three groups of glass pipelines 2 are arranged on the front side of the L-shaped shelf board 1. A group of water delivery pipes 3 are fixedly connected between two adjacent sealing covers 4. Both ends of the two water delivery pipes 3 communicate with the inside of the corresponding glass pipeline 2. A group of sealing covers 4 are fixedly installed on the tops of the three glass pipelines 2. The power-on mechanism 6 is arranged on the L-shaped shelf board 1, and the power-on mechanism 6 is used to improve the automation degree of the system. The aeration mechanism 7 is arranged on the L-shaped shelf board 1 and the glass pipeline 2, and the aeration mechanism 7 is used to improve the treatment effect of wastewater. Three groups of connecting columns 12 are fixedly installed on the outer surface of the front side of the L-shaped shelf board 1. A group of fixing sleeves 13 are fixedly installed on the three groups of connecting columns 12. The three groups of fixing sleeves 13 are fixedly sleeved on the outer surface of the corresponding glass pipeline 2. Two groups of fixing pieces 14 are fixedly installed on the outer surfaces of both sides of the L-shaped shelf board 1. Two groups of handles 15 are fixedly installed on the outer surfaces of the front and rear sides of the L-shaped shelf board 1. A water inlet pipe 16 and a drain pipe 17 are fixedly installed on the outer surfaces of two of the glass pipelines 2 respectively. One ends of the water inlet pipe 16 and the drain pipe 17 communicate with the inside of the corresponding glass pipeline 2. Flange plates 18 are fixedly installed at the other ends of the water inlet pipe 16 and the drain pipe 17.

[0035] The packing layer mechanism 5 is arranged at the bottom of each glass pipeline 2. The packing layer mechanism 5 includes a plugging cover 51, a storage cylinder 52, a cylinder cover 54 and a water overflow tank 55. A group of plugging covers 51 are threadedly installed at the bottoms of the three glass pipelines 2. A group of storage cylinders 52 are arranged directly above the three plugging covers 51. Iron-carbon fillers are filled in the three storage cylinders 52. A group of cylinder covers 54 are threadedly installed at the tops of the three storage cylinders 52. At least two water overflow tanks 55 are penetrated and opened at the bottoms of the three storage cylinders 52 and the three cylinder covers 54.

[0036] The packing layer mechanism 5 also includes connecting rods 53 and rotating handles 56. At least two groups of connecting rods 53 are fixedly installed between the three groups of blocking covers 51 and the corresponding storage barrels 52. A group of rotating handles 56 are fixedly installed at the bottom of the three groups of blocking covers 51. A group of sealing gaskets 11 are fixedly installed on the top of the three groups of blocking covers 51. The three groups of sealing gaskets 11 are all in contact with the bottom of the corresponding glass pipe 2. Through the coordinated use of the glass pipe 2, the water pipe 3, and the packing layer mechanism 5, the wastewater can flow slowly through each glass pipe 2 and the water pipe 3, and complete sufficient micro-electrolysis to achieve purification when flowing through each glass pipe 2 and the water pipe 3. The wastewater is treated uninterruptedly and completed in one go, which saves time and effort. It solves the problem that some existing devices can only treat a certain amount of wastewater at a time, and a large amount of wastewater treatment requires continuous pouring and drainage. Frequent operation is time-consuming and labor-intensive, which also leads to the problem of low wastewater treatment efficiency, thereby improving the practicality of the system.

[0037] The power supply mechanism 6 includes a U-shaped fixed plate 61, a servo motor 62, a lead screw 63, a movable block 64, a fixed rod 65, a battery cell 66, a connecting column 67, a limit groove 68 and a limit rod 69. The U-shaped fixed plate 61 is fixedly installed on the front outer surface of the L-shaped frame plate 1, and a group of servo motors 62 are fixedly installed on the top of the U-shaped fixed plate 61. A lead screw 63 is rotatably installed between the inner top and the inner bottom of the U-shaped fixed plate 61. The rotating shaft of the servo motor 62 is transmission-connected with the lead screw 63. A movable block 64 is threadedly installed on the lead screw 63. A fixed rod 65 is fixedly installed on the front outer surface of the movable block 64. A group of battery cells 66 are arranged directly above the three groups of glass pipes 2. One end of the fixed rod 65 is fixedly connected to the corresponding battery cell 66. A group of connecting columns 67 are fixedly installed between adjacent battery cells 66. Two groups of limiting grooves 68 are provided through the frame plate 1, wherein a group of limiting rods 69 are fixedly installed on the outer surfaces of the rear sides of the two groups of battery cells 66, and the two groups of limiting rods 69 are inserted into the corresponding limiting grooves 68. A group of electrodes 9 are fixedly installed in the corresponding glass pipes 2 on the inner tops of the three groups of sealing covers 4, and the three groups of electrodes 9 pass through the corresponding sealing covers 4 and two groups of pole ears 8 are extended from the top of each sealing cover 4. Two groups of power supply ports 10 are provided at the bottoms of the three groups of battery cells 66. Through the coordinated use of the power-on mechanism 6, the pole ears 8 and the power supply ports 10, when treating wastewater, each pole ear 8 can be automatically and synchronously plugged into the corresponding power supply port 10, so as to realize the synchronous power-on of each electrode 9, thereby ensuring the convenience of system operation and the use effect of the system, which is conducive to the promotion and use of the system.

[0038] The aeration mechanism 7 includes a flow dividing plate 71, an air pump 72, an air delivery pipe 73, and an air diffuser pipe 74. The rear outer surface of the L-shaped frame plate 1 is fixedly installed with the flow dividing plate 71 and the air pump 72. The output end of the air pump 72 communicates with the inside of the flow dividing plate 71. The front outer surface of the L-shaped frame plate 1 is fixedly installed with three groups of air delivery pipes 73. One end of each of the three groups of air delivery pipes 73 penetrates the L-shaped frame plate 1 and communicates with the inside of the flow dividing plate 71. One group of air diffuser pipes 74 that communicate with the inside of the corresponding air delivery pipe 73 is fixedly installed on the outer surface of each of the three groups of air delivery pipes 73. All three groups of air diffuser pipes 74 penetrate the corresponding glass pipes 2 and extend into the inside of the corresponding glass pipes 2. By the combined use of the glass pipes 2 and the aeration mechanism 7, when the wastewater in each glass pipe 2 undergoes micro-electrolysis, aeration is carried out in each glass pipe 2 to increase the dissolved oxygen content in the wastewater, promote the metabolism of microorganisms and the degradation of organic matter, improve the treatment effect of the wastewater, and enhance the functionality of the system.

[0039] Working principle: During installation, the L-shaped frame plate 1 is installed and fixed through the fixing piece 14. The water inlet pipe 16 and the drain pipe 17 are respectively connected to the wastewater source and the drainage location through the flange 18. When the system starts to work, the wastewater enters each glass pipe 2 through the water inlet pipe 16 and continuously flows, and finally discharges from the drain pipe 17. The servo motor 62 will start. The servo motor 62 drives the lead screw 63 to rotate. The lead screw 63 drives the movable block 64 to move downward. The movable block 64 drives the corresponding battery cell 66 to move downward through the connection of the fixing rod 65. This battery cell 66 drives the other two battery cells 66 to move downward synchronously through the connection of two connecting posts 67, so that each tab 8 is inserted into the corresponding power supply port 10 to form an electric circuit, and each electrode 9 conducts electrolysis work. At the same time, the air pump 72 will start, generating air flow that is dispersed into each air delivery pipe 73 through the flow dividing plate 71, and then enters each glass pipe 2 through each air diffuser pipe 74 to aerate the wastewater. Moreover, when the wastewater enters each glass pipe 2, it will first pass through the water passing trough 55 through the iron-carbon filler in the storage cylinder 52. When the iron-carbon filler needs to be replenished, rotate the turning handle 56 to drive the plugging cover 51 to rotate and be spirally removed from the bottom of the corresponding glass pipe 2, and then spirally remove the cylinder cover 54 from the storage cylinder 52. After replenishing the iron-carbon filler in the storage cylinder 52, install it back.

[0040] The above has described the embodiments of the present invention in detail with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the knowledge scope of those of ordinary skill in the art in the said technical field, various changes can be made without departing from the purpose of the present invention.

Claims

1. Pipeline type high-efficiency micro-electrolysis system, characterized by: include: An L-shaped frame plate (1) is provided with three groups of glass pipes (2) on its front side, a group of water pipes (3) is fixedly connected between two adjacent groups of sealing covers (4), both ends of the two groups of water pipes (3) are in communication with the interior of the corresponding glass pipes (2), and a group of sealing covers (4) is fixedly installed on the top of the three groups of glass pipes (2); An energizing mechanism (6) is arranged on the L-shaped frame plate (1), and the energizing mechanism (6) is used to improve the automation level of the system; An aeration mechanism (7) is arranged on the L-shaped frame plate (1) and the glass pipe (2), and the aeration mechanism (7) is used to improve the treatment effect of wastewater; A packing layer mechanism (5) is arranged at the bottom of each glass pipe (2), and the packing layer mechanism (5) comprises a blocking cover (51), a material storage barrel (52), a barrel cover (54) and a water trough (55). A blocking cover (51) is threadedly mounted at the bottom of each of the three groups of glass pipes (2). A material storage barrel (52) is arranged directly above each of the three groups of blocking covers (51). The three groups of material storage barrels (52) are filled with iron-carbon fillers. A barrel cover (54) is threadedly mounted at the top of each of the three groups of material storage barrels (52). At least two groups of water troughs (55) are provided through the bottoms of the three groups of material storage barrels (52) and the three groups of barrel covers (54).

2. The pipeline-type high-efficiency micro-electrolysis system according to claim 1 is characterized in that: The packing layer mechanism (5) further comprises connecting rods (53) and rotating handles (56); at least two groups of connecting rods (53) are fixedly installed between the three groups of sealing covers (51) and the corresponding storage barrels (52); and a group of rotating handles (56) is fixedly installed at the bottom of the three groups of sealing covers (51).

3. The pipeline-type high-efficiency micro-electrolysis system according to claim 2 is characterized in that: The power supply mechanism (6) comprises a U-shaped fixed plate (61), a servo motor (62), a lead screw (63), a movable block (64), a fixed rod (65), a battery cell (66), a connecting column (67), a limit groove (68) and a limit rod (69); the U-shaped fixed plate (61) is fixedly installed on the front outer surface of the L-shaped frame plate (1); a group of servo motors (62) are fixedly installed on the top of the U-shaped fixed plate (61); a lead screw (63) is rotatably installed between the inner top and inner bottom of the U-shaped fixed plate (61); the rotating shaft of the servo motor (62) is transmission-connected to the lead screw (63); the lead screw (63) is fixedly installed on the top of the U-shaped fixed plate (61); the rotating shaft of the servo motor (62) is transmission-connected to the lead screw (63); the lead screw (63) is fixedly installed on the top of the U-shaped fixed plate (61); the lead screw (63) is rotationally installed between the inner top and inner bottom of the U-shaped fixed plate (61); the rotating shaft of the servo motor (62) is transmission-connected to the lead screw (63); the lead screw (63) is rotationally connected ... 3) A movable block (64) is threadedly mounted on the upper surface, a fixing rod (65) is fixedly mounted on the front outer surface of the movable block (64), a group of electric cores (66) are arranged directly above the three groups of glass pipes (2), one end of the fixing rod (65) is fixedly connected to the corresponding electric core (66), a group of connecting columns (67) are fixedly mounted between adjacent electric cores (66), two groups of limiting grooves (68) are penetrated and opened on the L-shaped frame plate (1), wherein a group of limiting rods (69) are fixedly mounted on the rear outer surfaces of the two groups of electric cores (66), and the two groups of limiting rods (69) are inserted into the corresponding limiting grooves (68).

4. The pipeline-type high-efficiency micro-electrolysis system according to claim 3 is characterized in that: The aeration mechanism (7) comprises a flow divider plate (71), an air pump (72), an air delivery pipe (73) and an aeration pipe (74). The flow divider plate (71) and the air pump (72) are fixedly mounted on the rear outer surface of the L-shaped frame plate (1). The output end of the air pump (72) is in communication with the interior of the flow divider plate (71). Three groups of air delivery pipes (73) are fixedly mounted on the front outer surface of the L-shaped frame plate (1). One end of the three groups of air delivery pipes (73) passes through the L-shaped frame plate (1) and is in communication with the interior of the flow divider plate (71). A group of aeration pipes (74) in communication with the interior of the corresponding air delivery pipes (73) is fixedly mounted on the outer surface of the three groups of air delivery pipes (73). The three groups of aeration pipes (74) pass through the corresponding glass pipes (2) and extend to the interior of the corresponding glass pipes (2).

5. The pipeline-type high-efficiency micro-electrolysis system according to claim 4 is characterized in that: A group of electrodes (9) are fixedly installed on the inner top of each of the three groups of sealing covers (4) in the corresponding glass pipe (2); the three groups of electrodes (9) penetrate the corresponding sealing covers (4) and two groups of pole ears (8) are extended from the top of each sealing cover (4); and two groups of power supply ports (10) are opened at the bottom of each of the three groups of battery cells (66).

6. The pipeline-type high-efficiency micro-electrolysis system according to claim 5 is characterized in that: A set of sealing gaskets (11) are fixedly mounted on the tops of the three sets of blocking covers (51), and the three sets of sealing gaskets (11) are all in contact with the bottoms of the corresponding glass pipes (2).

7. The pipeline-type high-efficiency micro-electrolysis system according to claim 6 is characterized in that: Three groups of connection columns (12) are fixedly mounted on the front outer surface of the L-shaped frame plate (1), and a group of fixing sleeves (13) are fixedly mounted on each of the three groups of connection columns (12). The three groups of fixing sleeves (13) are fixedly mounted on the outer surface of the corresponding glass pipe (2).

8. The pipeline-type high-efficiency micro-electrolysis system according to claim 7 is characterized in that: Two sets of fixing plates (14) are fixedly mounted on the outer surfaces of both sides of the L-shaped frame plate (1).

9. The pipeline-type high-efficiency micro-electrolysis system according to claim 8 is characterized in that: Two sets of handles (15) are fixedly mounted on the front and rear outer surfaces of the L-shaped frame plate (1).

10. The pipeline-type high-efficiency micro-electrolysis system according to claim 9, characterized in that: A water inlet pipe (16) and a drain pipe (17) are fixedly mounted on the outer surfaces of the two groups of glass pipes (2); one end of the water inlet pipe (16) and the drain pipe (17) are both connected to the interior of the corresponding glass pipe (2); and a group of flanges (18) are fixedly mounted on the other ends of the water inlet pipe (16) and the drain pipe (17).

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