A device for simultaneously biologically treating wastewater and waste gas from a garbage compression station

Abstract

The present invention relates to a device for simultaneously performing biological treatment on wastewater and waste gas from a garbage compression station, comprising a box assembly and an electromagnetic assembly, wherein a stirring assembly is installed inside the box assembly, and the lower end of the stirring assembly is connected to a connecting assembly, the electromagnetic assembly is located at the lower right end of the box assembly, and the electromagnetic assembly comprises a transmission chain, a micro generator, a connecting wire, an electromagnet and a magnetic ring. The beneficial effects of the present invention are as follows: the device for simultaneously performing biological treatment on wastewater and waste gas from a garbage compression station can drive the turbine to work by the flow rate during gas transportation, generate electricity by the rotation of the turbine, thereby supplying the electromagnet, forming a magnetic field inside the device, affecting the rising speed of bubbles, and facilitating the device to fully utilize oxygen, and at the same time, the stirring structure is driven to work by the impact force when the gas is filled into the device, thereby better breaking up the bubbles, and facilitating the device to utilize the oxygen in the bubbles.

Description

Technical Field

[0001] The present invention relates to the technical field of garbage station treatment, in particular to a device for simultaneously biologically treating wastewater and waste gas from a garbage compression station. Background Art

[0002] In garbage compression stations, the treatment of wastewater and waste gas is a crucial link. If wastewater and waste gas are directly discharged into the external environment, it will cause pollution to the external environment. Therefore, biological treatment equipment is needed to treat the wastewater and waste gas generated by the garbage compression station, so as to avoid wastewater and waste gas being directly discharged into the environment and causing pollution.

[0003] Existing biological treatment equipment uses aeration during operation to enable aerobic bacteria in sewage to work. However, the buoyancy of gas in water is large, which causes the bubbles to rise too quickly, so that the oxygen in the bubbles cannot be well utilized, resulting in low oxygen utilization rate.

[0004] Therefore, it is necessary to design a device that can simultaneously carry out biological treatment of wastewater and waste gas from garbage compression stations in response to the above problems. Summary of the Invention

[0005] The purpose of the present invention is to provide a device for simultaneously biologically treating wastewater and waste gas from a garbage compression station, so as to solve the problems raised in the above-mentioned background technology.

[0006] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: a device for simultaneously biologically treating wastewater and waste gas from a garbage compression station, comprising a box assembly and an electromagnetic assembly, a stirring assembly being installed inside the box assembly, and the lower end of the stirring assembly being connected to a connecting assembly, the electromagnetic assembly being located at the lower right end of the box assembly, and the electromagnetic assembly comprising a transmission chain, a micro-generator, a connecting wire, an electromagnet and a magnetic ring, the right end of the transmission chain being connected to a micro-generator, and the power output end of the micro-generator being connected to a connecting wire, the end of the connecting wire away from the micro-generator being connected to an electromagnet, and the magnetic force generating end of the electromagnet being connected to a magnetic ring, and a voltage stabilizing assembly being installed inside the stirring assembly.

[0007] Furthermore, the lower end of the connecting component is connected to the conveying component, and the lower end of the conveying component is connected to the air supply control component, the lower end of the air supply control component is connected to the air supply pipeline, the middle part of the upper end of the conveying component is connected to the top pressure component, and the top pressure component drives the upper end to be connected to the speed increasing component, and the lower right end of the speed increasing component is connected to the transmission component.

[0008] Furthermore, the box assembly includes a treatment box, an anaerobic biofilm and an aerobic biofilm, and the anaerobic biofilm is installed at the upper end of the interior of the treatment box, and the aerobic biofilm is installed at the lower end of the interior of the treatment box.

[0009] Furthermore, the stirring assembly includes a stirring shaft, a stirring blade and a jet blade, and the stirring blade is installed at the outer upper end of the stirring shaft, and the jet blade is installed at the outer lower end of the stirring shaft. The pressure stabilizing assembly includes a fourth spring and a pressure stabilizing piston, and the lower end of the fourth spring is connected to the pressure stabilizing piston.

[0010] Furthermore, the connecting assembly includes a first connecting head, an external clamping rod, a steel ball and a second connecting head, and the outside of the first connecting head is connected to the external clamping rod, the upper end of the external clamping rod is embedded with a steel ball, and the upper end of the first connecting head is provided with a second connecting head.

[0011] Furthermore, the conveying assembly includes a conveying pipe, a first turbine, a second turbine and a connecting pipe, and the first turbine is installed on the left side of the conveying pipe, the second turbine is installed on the right side of the conveying pipe, and the right end of the conveying pipe is connected to the connecting pipe.

[0012] Furthermore, the air supply control assembly includes a knife gate valve core, a connecting plate, a first spring, a connecting rope and a counterweight block, and the upper end of the knife gate valve core is connected to the connecting plate, the lower ends of the left and right sides of the connecting plate are connected to the first spring, and the upper end of the connecting plate is connected to the connecting rope, and a counterweight block is installed in the middle of the connecting rope.

[0013] Furthermore, the top pressure assembly includes a connecting pipe, a sleeve rod, a movable piston, a push rod and an L-frame, and the upper end of the connecting pipe is connected to the sleeve rod, the movable piston is installed inside the sleeve rod, and the left side of the movable piston is connected to the push rod, and the left end of the push rod is connected to the L-frame.

[0014] Furthermore, the speed increasing assembly includes a slide rail, a fixed plate, a second spring, a mounting frame, a bearing, a rotating rod and a friction wheel, and the left end of the slide rail is connected to the fixed plate, the lower end of the slide rail is slidably connected to the mounting frame, and the left side of the mounting frame is connected to the second spring, the lower end of the mounting frame is installed with a bearing, and the inside of the bearing is installed with a rotating rod, and the upper end of the rotating rod is connected to the friction wheel.

[0015] Furthermore, the transmission assembly includes a connecting plate, a third spring, a telescopic rod, a first docking plate and a second docking plate, and the lower end of the connecting plate is connected to the third spring, the middle part of the third spring is installed with a telescopic rod, and the lower end of the telescopic rod is connected to the first docking plate, and the lower end of the first docking plate is provided with a second docking plate.

[0016] Compared with the prior art, the beneficial effects of the present invention are: the device can drive the turbine to work through the flow rate during the gas delivery process, generate electricity through the rotation of the turbine, thereby supplying the electromagnet, forming a magnetic field inside the device, affecting the rising speed of the bubbles, and facilitating the device to fully utilize the oxygen. At the same time, the impact force when the gas is filled into the device drives the stirring structure to work, thereby better breaking up the bubbles, facilitating the device to utilize the oxygen in the bubbles. When the pressure of the filled gas is insufficient, the gas flow will be utilized through the turbine to rotate and compensate for the stirring structure, facilitating the continuous operation of the rotating structure of the device. The present application can also automatically adjust the supply of oxygen according to the supply amount of exhaust gas. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a front view schematic diagram of the structure of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0018] Figure 2 This is a partial cross-sectional structural diagram of a stirring assembly of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0019] Figure 3 This is a cross-sectional rear view of an enlarged structural diagram of a conveying assembly of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0020] Figure 4 This is a schematic diagram of an enlarged top view of the second turbine of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0021] Figure 5 This is a schematic diagram of an enlarged rear view of the second turbine of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0022] Figure 6 This is an enlarged structural diagram of an air supply control component of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0023] Figure 7 This is an enlarged cross-sectional structural diagram of a top pressure assembly of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0024] Figure 8 This is an enlarged structural diagram of a speed increasing assembly of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention;

[0025] Figure 9 This is an enlarged structural schematic diagram of the transmission components of an apparatus for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to the present invention after connection.

[0026] In the figure: 1. Box assembly; 101. Treatment box; 102. Anaerobic biofilm; 103. Aerobic biofilm; 2. Stirring assembly; 201. Stirring shaft; 202. Stirring blade; 203. Jet blade; 3. Connecting assembly; 301. First connector; 302. External clamping rod; 303. Steel ball; 304. Second connector; 4. Conveying assembly; 401. Conveying pipeline; 402. First turbine; 403. Second turbine; 404. Connecting pipeline; 5. Electromagnetic assembly; 501. Transmission chain; 502. Micro generator; 503. Connecting wire; 504. Electromagnet; 505. Magnetic ring; 6. Air supply pipeline; 7. Air supply control assembly; 701. Knife gate valve core ;702, connecting plate;703, first spring;704, connecting rope;705, counterweight;8, top pressure assembly;801, connecting pipe;802, sleeve rod;803, movable piston;804, push rod;805, L frame;9, speed increasing assembly;901, slide rail;902, fixed plate;903, second spring;904, mounting frame;905, bearing;906, rotating rod;907, friction wheel;10, transmission assembly;1001, connecting disk;1002, third spring;1003, telescopic rod;1004, first docking disk;1005, second docking disk;11, pressure stabilizing assembly;1101, fourth spring;1102, pressure stabilizing piston. DETAILED DESCRIPTION

[0027] like Figure 1 、 Figure 2 and Figure 3 As shown, the present invention provides a technical solution: a device for simultaneously biologically treating wastewater and waste gas from a garbage compression station, comprising a box assembly 1 and an electromagnetic assembly 5, wherein a stirring assembly 2 is installed inside the box assembly 1, and the lower end of the stirring assembly 2 is connected to a connecting assembly 3, the electromagnetic assembly 5 is located at the lower right end of the box assembly 1, and the electromagnetic assembly 5 comprises a transmission chain 501, a micro generator 502, a connecting wire 503, an electromagnet 504 and a magnetic ring 505, the right end of the transmission chain 501 is connected to the micro generator 502, and the power output end of the micro generator 502 is connected to the connecting wire 503, the end of the connecting wire 503 away from the micro generator 502 is connected to the electromagnet 504, and the magnetic force generating end of the electromagnet 504 is connected to the magnetic ring 505, and a voltage stabilizing assembly 11 is installed inside the stirring assembly 2;

[0028] The specific operation is as follows: during operation, the second turbine 403 drives the micro generator 502 through the transmission chain 501, thereby enabling the micro generator 502 to generate electricity, and transmits electricity to the electromagnet 504 through the connecting wire 503, so that the electromagnet 504 generates magnetic force, and the magnetic force is diffused through the magnetic ring 505. Electromagnets 504 and magnetic rings 505 are provided at the upper and lower ends of the box assembly 1, so that a magnetic field from top to bottom can be formed in the box assembly 1. The bubbles are affected by the turbine force, the mechanical effect of the magnetic field, the influence of the magnetic field on the bubble shape, and the magnetizing force, so that the rising speed of the bubbles is slowed down, which facilitates the better integration of oxygen into the wastewater and enables aerobic bacteria to work.

[0029] like Figures 3 to 9 As shown, the lower end of the connecting component 3 is connected to the conveying component 4, and the lower end of the conveying component 4 is connected to the air supply control component 7, the lower end of the air supply control component 7 is connected to the air supply pipeline 6, the middle part of the upper end of the conveying component 4 is connected to the top pressure component 8, and the top pressure component 8 drives the upper end to be connected to the speed increasing component 9, and the lower right end of the speed increasing component 9 is connected to the transmission component 10.

[0030] like Figure 1 As shown, the box assembly 1 includes a treatment box 101 , an anaerobic biofilm 102 and an aerobic biofilm 103 , and the anaerobic biofilm 102 is installed at the upper end of the treatment box 101 , and the aerobic biofilm 103 is installed at the lower end of the treatment box 101 .

[0031] like Figure 1 and Figure 2 As shown, the stirring assembly 2 includes a stirring shaft 201, a stirring blade 202 and an air-jet blade 203, and the stirring blade 202 is installed at the outer upper end of the stirring shaft 201, and the air-jet blade 203 is installed at the outer lower end of the stirring shaft 201;

[0032] The exhaust gas is transported to the inside of the stirring shaft 201 through the conveying component 4, and then ejected from the jet blade 203, thereby driving the stirring blade 202 to rotate and stir the inside of the equipment, making it easier for oxygen and water to mix and facilitate the work of aerobic bacteria.

[0033] like Figure 2 As shown, the pressure stabilizing assembly 11 includes a fourth spring 1101 and a pressure stabilizing piston 1102, and the lower end of the fourth spring 1101 is connected to the pressure stabilizing piston 1102;

[0034] Relying on the elastic structure between the pressure-stabilizing piston 1102 and the fourth spring 1101, the pressure-stabilizing piston 1102 can balance the air pressure inside the stirring shaft 201, thereby reducing the air pressure fluctuation inside the stirring shaft 201, facilitating the stabilization of the gas ejected by the jet blade 203, and thus facilitating the stable stirring work of the stirring blade 202.

[0035] like Figure 3 As shown, the connecting assembly 3 includes a first connecting head 301, an outer clamping rod 302, a steel ball 303 and a second connecting head 304. The outer end of the first connecting head 301 is connected to the outer clamping rod 302, the upper end of the outer clamping rod 302 is embedded with a steel ball 303, and the upper end of the first connecting head 301 is provided with the second connecting head 304.

[0036] The steel ball 303 is embedded in the outer clamping rod 302. Through the structure of the steel ball 303 and the outer clamping rod 302, the second connecting head 304 can be locked, so that the second connecting head 304 is tightly connected to the first connecting head 301 to avoid air leakage. At the same time, the contact characteristics of the steel ball 303 and the second connecting head 304 will not affect the rotation between the second connecting head 304 and the first connecting head 301, thereby realizing the connection between the stirring shaft 201 and the connecting pipe 404 without affecting the rotation of the stirring shaft 201.

[0037] like Figures 3 to 5 As shown, the conveying assembly 4 includes a conveying pipe 401, a first turbine 402, a second turbine 403 and a connecting pipe 404, and the first turbine 402 is installed on the left side of the interior of the conveying pipe 401, the second turbine 403 is installed on the right side of the interior of the conveying pipe 401, and the right end of the conveying pipe 401 is connected to the connecting pipe 404.

[0038] like Figure 6 As shown, the air supply control assembly 7 includes a knife gate valve core 701, a connecting plate 702, a first spring 703, a connecting rope 704 and a counterweight 705. The upper end of the knife gate valve core 701 is connected to the connecting plate 702, the lower ends of the left and right sides of the connecting plate 702 are connected to the first spring 703, and the upper end of the connecting plate 702 is connected to the connecting rope 704, and the middle part of the connecting rope 704 is installed with a counterweight 705.

[0039] When the exhaust gas is transported in large quantities, the rotation speed of the first turbine 402 will be accelerated, thereby increasing the centrifugal force of the counterweight block 705, thereby increasing the upward traction force of the connecting rope 704 on the connecting plate 702, thereby causing the knife gate valve core 701 to move upward, and increasing the amount of air supplied to the air supply pipe 6, thereby avoiding the situation where the aerobic bacteria cannot keep up with the oxygen when the exhaust gas is large, thereby affecting the working effect of the aerobic bacteria.

[0040] like Figure 7 As shown, the top pressure assembly 8 includes a connecting pipe 801, a sleeve rod 802, a movable piston 803, a push rod 804 and an L-frame 805, and the upper end of the connecting pipe 801 is connected to the sleeve rod 802, the movable piston 803 is installed inside the sleeve rod 802, and the left side of the movable piston 803 is connected to the push rod 804, and the left end of the push rod 804 is connected to the L-frame 805.

[0041] like Figure 8 As shown, the speed increasing assembly 9 includes a slide rail 901, a fixed plate 902, a second spring 903, a mounting frame 904, a bearing 905, a rotating rod 906 and a friction wheel 907. The left end of the slide rail 901 is connected to the fixed plate 902, the lower end of the slide rail 901 is slidably connected to the mounting frame 904, and the left side of the mounting frame 904 is connected to the second spring 903. The lower end of the mounting frame 904 is installed with a bearing 905, and the rotating rod 906 is installed inside the bearing 905. The upper end of the rotating rod 906 is connected to the friction wheel 907.

[0042] When the air pressure is lower than a certain level, the air pressure thrust on the moving piston 803 is reduced, so that the second spring 903 pushes the mounting bracket 904, so that the friction wheel 907 contacts the stirring shaft 201. At the same time, the movement of the mounting bracket 904 will also drive the first docking plate 1004 to move, thereby realizing the docking of the first docking plate 1004 and the second docking plate 1005, so that the friction wheel 907 is driven by the second turbine 403 to rotate, thereby compensating for the rotation speed of the stirring shaft 201, so that the stirring shaft 201 can maintain a certain speed when the air pressure is low, avoiding the stirring shaft 201 rotating too slowly when the air pressure is low and having no stirring effect, thereby affecting the operation of the equipment.

[0043] like Figure 9 As shown, the transmission assembly 10 includes a connecting plate 1001, a third spring 1002, a telescopic rod 1003, a first docking plate 1004 and a second docking plate 1005, and the lower end of the connecting plate 1001 is connected to the third spring 1002, the middle part of the third spring 1002 is installed with the telescopic rod 1003, and the lower end of the telescopic rod 1003 is connected to the first docking plate 1004, and the lower end of the first docking plate 1004 is provided with the second docking plate 1005.

[0044] Working principle: First, a certain amount of wastewater is injected into the equipment through the water inlet on the processing box 101, and then waste gas is filled into the delivery pipe 401. The waste gas inside the delivery pipe 401 will drive the first turbine 402 to rotate when passing through the first turbine 402. The rotation of the first turbine 402 can drive multiple connecting ropes 704 to rotate around the central axis of the first turbine 402. During the operation, the connecting ropes 704 will cause the counterweight block 705 to be thrown outward by the centrifugal force, thereby pulling the connecting ropes 704 outward, which will form an upward pulling force on the connecting plate 702, thereby controlling the blocking of the knife gate valve core 701 on the air supply pipe 6. The more waste gas is injected into the delivery pipe 401, the faster the first turbine 402 rotates, thereby making the knife gate valve core 701 rise higher, and the more oxygen is supplied to the air supply pipe 6. The first spring 703 will pull the connecting plate 702, so that when the pulling force of the connecting rope 704 is reduced, the knife gate valve core 701 is easy to move downward.

[0045] The exhaust gas filled into the delivery pipe 401 and the oxygen in the air supply pipe 6 will eventually mix together at the rear of the delivery pipe 401. At this time, the mixed gas is transported to the sleeve rod 802 through the connecting pipe 801, thereby generating a thrust on the movable piston 803, causing the push rod 804 to extend from the sleeve rod 802, so that the push rod 804 drives the mounting frame 904 to move to the left through the L frame 805, thereby separating the first docking plate 1004 from the second docking plate 1005.

[0046] The mixed gas will also drive the second turbine 403 to rotate, thereby driving the micro generator 502 to work through the transmission chain 501. The micro generator 502 supplies power to the electromagnet 504 through the connecting wire 503, thereby making the magnetic ring 505 work. In this way, a magnetic field from top to bottom will be formed inside the processing box 101. The bubbles will be affected by the turbine force, the mechanical effect of the magnetic field, the influence of the magnetic field on the bubble shape, and the magnetizing force, so that the rising speed of the bubbles will be slowed down.

[0047] The explanations of the turbine force, the bulk mechanical effect of the magnetic field, the influence of the magnetic field on the bubble shape, and the magnetizing force are as follows:

[0048] Lorentz force: When a magnetic field exists, moving charged particles (usually various ions in a liquid) are affected by the Lorentz force. For the liquid surrounding the bubble, the movement trajectory of the ions in it changes under the influence of the magnetic field. The movement of these ions interacts with the bubble, thereby affecting the bubble's rising speed.

[0049] Magnetohydrodynamic effect: The magnetic field will induce current in the conductive fluid (in some cases, the liquid has a certain conductivity or contains magnetic particles, etc.). The interaction between the induced current and the magnetic field will generate electromagnetic force, which is the volume force form of the Lorentz force. This volume force will act on the fluid and the bubbles in it. For bubbles in the magnetic fluid, the magnetic field will change the properties of the magnetic fluid, affecting the buoyancy and resistance of the bubbles, resulting in a change in the rising speed of the bubbles.

[0050] The influence of magnetic fields on bubble shape: Under the influence of a magnetic field, bubbles will be affected by the magnetic force and change their shape. The bubble may be stretched along the magnetic field or deformed in other ways. This change in shape affects the force applied to the bubble. For example, the elongated bubble's contact area with the surrounding liquid increases during its ascent, and the resistance it encounters will also increase accordingly, resulting in a decrease in its ascent speed. Alternatively, the change in shape may cause the bubble's center of gravity to change, affecting its ascent stability and speed.

[0051] Magnetizing force: If the bubble itself has a certain degree of magnetism or magnetizability, the magnetic field will produce a direct magnetizing force on the bubble. This magnetizing force will cause the bubble to be subject to additional attraction or repulsion, affecting the upward movement of the bubble.

[0052] After the mixed gas passes through the second turbine 403, it will be transported to the stirring shaft 201 through the connecting pipe 404, and ejected from the jet blades 203, driving the stirring shaft 201 to rotate, thereby causing the stirring blades 202 to rotate, stirring the liquid inside the processing box 101, and relying on the elasticity between the pressure-stabilizing piston 1102 and the fourth spring 1101 to stabilize the air pressure inside the stirring shaft 201, so as to facilitate the rotation speed of the stirring shaft 201 to remain stable.

[0053] When the gas supply is reduced, the gas pressure in the sleeve rod 802 is reduced, so that the thrust of the mobile piston 803 cannot resist the thrust of the second spring 903 on the mounting frame 904. At this time, the mounting frame 904 is moved to the right by relying on the elastic structure formed by the slide rail 901, the second spring 903 and the fixed plate 902. During the movement, the mounting frame 904 will drive the L frame 805 to push the push rod 804, so that the mobile piston 803 moves to the right inside the sleeve rod 802. During the movement of the mounting frame 904, the first docking plate 1004 is also driven to move to the right. When the friction wheel 907 contacts the stirring shaft 201, the friction wheel 907 stops moving. At this time, the first docking plate 1004 is moved to the right. A docking plate 1004 is located just above the second docking plate 1005. Relying on the elastic structure formed between the first docking plate 1004 and the connecting plate 1001 through the telescopic rod 1003 and the third spring 1002, the first docking plate 1004 and the second docking plate 1005 are easily docked. When the amount of mixed gas decreases, the second turbine 403 will still rotate, thereby driving the second docking plate 1005 to rotate, so that the first docking plate 1004 drives the rotating rod 906 that forms a rotating structure between the bearing 905 and the mounting frame 904 to rotate, so that the friction wheel 907 drives the stirring shaft 201, so that the stirring shaft 201 can also perform stirring work when the gas supply is small.

[0054] After the gas enters the treatment box 101, it will be stirred and dispersed by the stirring blades 202. The aerobic bacteria on the aerobic biofilm 103 will first react and remove the organic matter in the wastewater and waste gas. The oxygen is concentrated and consumed at the bottom, and then the residual organic matter in the wastewater and waste gas is removed by the anaerobic biofilm 102 above, thereby realizing biological treatment.

Claims

1. A device for biologically treating wastewater and waste gas from a garbage compression station, characterized in that: The invention comprises a box assembly (1) and an electromagnetic assembly (5), wherein a stirring assembly (2) is installed inside the box assembly (1), and the lower end of the stirring assembly (2) is connected to a connecting assembly (3), the electromagnetic assembly (5) is located at the lower right end of the box assembly (1), and the electromagnetic assembly (5) comprises a transmission chain (501), a micro generator (502), a connecting wire (503), an electromagnet (504) and a magnetic ring (505), the right end of the transmission chain (501) is connected to the micro generator (502), and the power output end of the micro generator (502) is connected to the connecting wire (503), the end of the connecting wire (503) away from the micro generator (502) is connected to the electromagnet (504), and the electromagnet (505) is connected to the connecting wire (503). The magnetic force generating end of the magnet (504) is connected to a magnetic conductive ring (505), a voltage stabilizing assembly (11) is installed inside the stirring assembly (2), the lower end of the connecting assembly (3) is connected to the conveying assembly (4), and the lower end of the conveying assembly (4) is connected to the air supply control assembly (7), the lower end of the air supply control assembly (7) is connected to the air supply pipeline (6), the middle part of the upper end of the conveying assembly (4) is connected to the top pressure assembly (8), and the top pressure assembly (8) drives the upper end to be connected to the speed increasing assembly (9), the lower right end of the speed increasing assembly (9) is connected to the transmission assembly (10), and the conveying assembly (4) includes a conveying pipeline (401), a first turbine (402), a second turbine (403) and a connecting pipeline (404). , and a first turbine (402) is installed on the left side of the interior of the delivery pipe (401), a second turbine (403) is installed on the right side of the interior of the delivery pipe (401), and the right end of the delivery pipe (401) is connected to a connecting pipe (404), the top pressure component (8) includes a connecting pipe (801), a sleeve rod (802), a movable piston (803), a push rod (804) and an L frame (805), and the upper end of the connecting pipe (801) is connected to the sleeve rod (802), the movable piston (803) is installed inside the sleeve rod (802), and the left side of the movable piston (803) is connected to the push rod (804), and the left end of the push rod (804) is connected to the L frame (805), the speed increasing component (9) The micro-generator (902) comprises a slide rail (901), a fixed plate (902), a second spring (903), a mounting frame (904), a bearing (905), a rotating rod (906) and a friction wheel (907). The left end of the slide rail (901) is connected to the fixed plate (902), the lower end of the slide rail (901) is slidably connected to the mounting frame (904), and the left side of the mounting frame (904) is connected to the second spring (903). The lower end of the mounting frame (904) is installed with a bearing (905), and the interior of the bearing (905) is installed with a rotating rod (906), and the upper end of the rotating rod (906) is connected to the friction wheel (907). The second turbine (403) drives the micro-generator (502) to work through the transmission chain (501).

2. The device for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to claim 1 is characterized in that: The box assembly (1) comprises a treatment box (101), an anaerobic biofilm (102) and an aerobic biofilm (103), wherein the anaerobic biofilm (102) is installed at the upper end of the interior of the treatment box (101), and the aerobic biofilm (103) is installed at the lower end of the interior of the treatment box (101).

3. The device for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to claim 1 is characterized in that: The stirring assembly (2) comprises a stirring shaft (201), a stirring blade (202) and an air-jet blade (203), and the stirring blade (202) is installed at the upper end of the stirring shaft (201), and the air-jet blade (203) is installed at the lower end of the stirring shaft (201). The pressure-stabilizing assembly (11) comprises a fourth spring (1101) and a pressure-stabilizing piston (1102), and the lower end of the fourth spring (1101) is connected to the pressure-stabilizing piston (1102).

4. The device for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to claim 1 is characterized in that: The connecting assembly (3) comprises a first connecting head (301), an external clamping rod (302), a steel ball (303) and a second connecting head (304), wherein the outside of the first connecting head (301) is connected to the external clamping rod (302), the upper end of the external clamping rod (302) is embedded with a steel ball (303), and the upper end of the first connecting head (301) is provided with the second connecting head (304).

5. The device for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to claim 1 is characterized in that: The air supply control assembly (7) comprises a knife gate valve core (701), a connecting plate (702), a first spring (703), a connecting rope (704) and a counterweight (705), wherein the upper end of the knife gate valve core (701) is connected to the connecting plate (702), the lower ends of the left and right sides of the connecting plate (702) are connected to the first spring (703), the upper end of the connecting plate (702) is connected to the connecting rope (704), and the middle part of the connecting rope (704) is installed with a counterweight (705).

6. The device for simultaneously biologically treating wastewater and waste gas from a garbage compression station according to claim 1 is characterized in that: The transmission assembly (10) comprises a connecting disk (1001), a third spring (1002), a telescopic rod (1003), a first docking disk (1004) and a second docking disk (1005), wherein the lower end of the connecting disk (1001) is connected to the third spring (1002), the middle part of the third spring (1002) is provided with the telescopic rod (1003), the lower end of the telescopic rod (1003) is connected to the first docking disk (1004), and the lower end of the first docking disk (1004) is provided with the second docking disk (1005).

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