MABR membrane culture mobile station
By designing the MABR membrane bacterial mobile station, the problem of difficulty in moving the MABR membrane aerated biofilm reactor and combined with other sewage treatment devices is solved, and the equipment is conveniently moved and flexible combined use is achieved, which improves its application range and flexibility.
Patent Information
- Application Number
- CN202420833279.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-04-22
- Publication Date
- 2025-04-01
- Estimated Expiration
- 2034-04-22
AI Technical Summary
MABR membrane aerated biofilm reactors are difficult to move and are inconvenient to use in combination with other sewage treatment devices.
A MABR membrane bacterial mobile station was designed to package the MABR membrane aerated biofilm reactor through the equipment base and protective cover, making it easy to move, and a structural interface connecting other sewage treatment machines was added.
The MABR membrane aerated biofilm reactor is realized with convenient movement and flexible use with other sewage treatment machines, which improves the flexibility and application range of equipment.
Smart Images

Figure CN222700128U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of environmental protection, in particular to sewage treatment equipment. Background Art
[0002] MABR membrane aeration biofilm reactor is a new water treatment process that combines gas separation membrane technology and biofilm method. Oxygen is efficiently transmitted in the aeration membrane in the form of oxygen molecules without bubbles, and different biofilm layered structures (aerobic nitrifying bacteria-anoxic denitrifying bacteria) are formed on the membrane surface from the inside to the outside. It can achieve efficient simultaneous nitrification and denitrification in the same reactor, thereby achieving deep denitrification, phosphorus removal, and degradation of organic matter in sewage. It is a new sewage treatment process with high efficiency, low energy consumption and low sludge production. Utility Model Content
[0003] The technical problem solved by the utility model is that the MABR membrane aeration biofilm reactor can be conveniently moved and can be conveniently used in combination with other sewage treatment devices.
[0004] In order to solve the above technical problems, the utility model provides the following technical solutions: a MABR membrane culture mobile station, comprising a MABR membrane reaction tank, a MABR membrane group and an aeration plate arranged in the MABR membrane reaction tank, the MABR membrane group is connected to the membrane box, the membrane box is connected to the culture chamber, the culture chamber is connected to a pumping port, the MABR membrane reaction tank is installed on the equipment base, an equipment protective cover is installed on the equipment base, the equipment protective cover covers the MABR membrane reaction tank and the culture chamber, the culture chamber is located above the MABR membrane reaction tank, a water inlet and an overflow hole are provided on the side wall of the MABR membrane reaction tank, a sewage outlet is provided at the bottom of the MABR membrane reaction tank, a water pumping port clearance hole, a water inlet clearance hole and an overflow port clearance hole are provided on the equipment protective cover, and a sewage outlet clearance hole is provided on the equipment base.
[0005] The equipment base and equipment protective cover of the utility model package the MABR membrane aeration biofilm reactor into a MABR membrane culture mobile station. The MABR membrane culture mobile station is not only convenient to move, but also can be conveniently connected with other sewage treatment devices for combined use.
[0006] The main features of MABR membrane: molecular oxygen transmission, oxygen utilization rate is 2 to 4 times that of traditional aeration; dense non-porous membrane structure, no membrane clogging during use; low-pressure and low-flow aeration, energy saving 50 to 70%; priority reduction of total nitrogen, reducing carbon source addition; simultaneous nitrification / denitrification reaction, reducing / cancelling backflow; sludge production is reduced by 30 to 50%; modular membrane group, small footprint; good effluent water quality, turbidity close to zero, stable water quality; long service life, generally 5 to 8 years.
[0007] There is an observation port on the front of the equipment protection cover. The operation status of the equipment can be observed at any time through the observation port, and emergency cleaning and remedial treatment can be performed for defects such as cracks and discoloration on the surface of the MABR membrane.
[0008] Convection windows are provided on the side walls of the equipment protective cover.
[0009] There is an operating cover on the top of the equipment protective cover. If you need to replace and maintain the nano anaerobic bricks in the aerator and the culture chamber, open the operating cover to perform the operation.
[0010] The membrane box includes an end membrane box and an intermediate membrane box, which are installed on a membrane frame, the MABR membrane group is arranged between the end membrane box and the intermediate membrane box, and the membrane frame is provided with a water flow channel connecting the end membrane box and the intermediate membrane box, and the water flow channel connects the bacterial culture chamber.
[0011] The aerator communicated with the aeration disk is arranged above the bacteria culture chamber and located in the equipment protection cover.
[0012] Several aeration plates are distributed at the bottom of the MABR membrane reactor, and the aeration plates are connected to the aerator through aeration pipes.
[0013] Nano anaerobic bricks are arranged in the culture room. Nano anaerobic bricks: effectively eliminate nitrates; unique technology stimulates the rapid growth of anaerobic bacteria; by cultivating anaerobic bacteria (including denitrifying paracocci and various pseudomonas); nitrates are reduced to nitrogen gas, thus completing the entire nitrogen cycle and taking nitrogen away from the river surface. BRIEF DESCRIPTION OF THE DRAWINGS
[0014] The utility model is further described below in conjunction with the accompanying drawings:
[0015] Figure 1 This is the appearance picture of the MABR membrane culture mobile station;
[0016] Figure 2 This is a schematic diagram of the structure of the MABR membrane culture mobile station.
[0017] Explanation of symbols in the figure:
[0018] 10. MABR membrane reactor; 11. Water inlet; 12. Overflow hole; 13. Sewage outlet;
[0019] 20. MABR membrane group; 21. end membrane box; 22. middle membrane box; 23. membrane frame;
[0020] 30. Aeration plate; 31. Aerator; 32. Aeration pipe;
[0021] 40. Bacteria culture chamber; 41. Water inlet; 42. Nano anaerobic brick; 43. Nano bacteria rack; 44. Water inlet of bacteria chamber;
[0022] 50. Equipment base; 51. Equipment protection cover; 52. Observation port; 53. Convection window; 54. Operation cover. DETAILED DESCRIPTION
[0023] refer to Figure 2 The MABR membrane culture mobile station comprises a MABR membrane reaction tank 10, a MABR membrane group 20 and an aeration plate 30 arranged in the MABR membrane reaction tank, the MABR membrane group is connected to the membrane box, the membrane box is connected to the culture chamber 40, the culture chamber is connected to a pumping port 41, the MABR membrane reaction tank is installed on an equipment base 50, an equipment protection cover 51 is installed on the equipment base, the equipment protection cover covers the MABR membrane reaction tank and the culture chamber, and the culture chamber is located above the MABR membrane reaction tank; a water inlet 11 and an overflow hole 12 are provided on the side wall of the MABR membrane reaction tank, a sewage outlet 13 is provided at the bottom of the MABR membrane reaction tank, a water pumping port clearance hole, a water inlet clearance hole and an overflow hole clearance hole are provided on the equipment protection cover, and a sewage outlet clearance hole is provided on the equipment base.
[0024] An observation port 52 is provided at the front of the equipment protection cover 51 .
[0025] The side wall of the equipment protection cover 51 is provided with a convection window 53
[0026] A work cover 54 is provided on the top of the equipment protection cover 51 .
[0027] The membrane box includes an end membrane box 21 and an intermediate membrane box 22, which are installed on a membrane frame 23, between which the MABR membrane group 20 is arranged, and the membrane frame is provided with a water flow channel connecting the end membrane box and the intermediate membrane box, and the water flow channel connects the bacterial culture chamber 40.
[0028] The aerator 31 communicated with the aeration plate 30 is arranged above the bacterial culture chamber 40 and located in the equipment protection cover 51 .
[0029] A plurality of aeration plates 30 are distributed at the bottom of the MABR membrane reaction tank 10 , and the aeration plates are connected to an aerator 31 through an aeration pipe 32 .
[0030] Nano anaerobic bricks 42 are arranged in the bacterial culture chamber 40 .
[0031] MABR membrane bacterial culture mobile station process flow. The water treated by the front-stage station is injected into the MBAR membrane reaction tank 10 through the water inlet 11, and the aerator 31 starts to work. The aeration is supplied to the bottom aeration plate 30 through the aeration pipe 32, and the MABR membrane reaction tank achieves the purpose of oxygenation. The mixed aqueous solution, under the action of the suction force of the bacterial clean water suction port 41, passes through the capillary pores of the MABR membrane group 20 and is pumped into the inner pores of the MABR membrane group, which greatly improves the solid-liquid separation efficiency. The efficient interception effect of the membrane completely intercepts the microorganisms in the reactor, and realizes the complete separation of the hydraulic retention time (HRT) and the sludge age (SRT) of the reactor, making the operation control more flexible, which is conducive to the growth and reproduction of slowly proliferating nitrifying bacteria, and the nitrification efficiency of the system can be improved. By changing the operation mode, it has the function of denitrification and phosphorus removal. The microorganism mass concentration in the reactor is high and resistant to shock loads.
[0032] The separated aqueous solution is pumped into the end membrane box 21 and the middle membrane box 22 through the inner cavity of the MABR membrane group 20, and then pumped into the sealed bacterial culture chamber 40 through the membrane frame 23. The nano anaerobic bricks 42 in the nano bacterial frame 43 decompose with the aqueous solution.
[0033] The aeration plate 30 continuously aerates, and a large number of tiny bubbles are generated in the MABR membrane reaction tank 10. The tiny bubbles rise in the water, and their volume continues to expand / activate, causing vibrations on the surface of the MABR membrane group 20, thereby achieving the effect of cleaning the MABR membrane group.
[0034] When the aerator 31 and the culture chamber 40 need to be replaced or maintained, the operation cover 54 is opened to perform the operation.
[0035] If the MABR membrane group 20 needs to be replaced, the equipment protection cover 51 needs to be lifted away, and then the membrane frame 23 needs to be lifted to replace the MABR membrane group 20.
[0036] The observation port 52 can be used to observe the operating status of the equipment at any time, and to perform emergency cleaning and remedial treatment on defects such as cracks and discoloration on the surface of the MABR membrane group 20.
[0037] The sewage outlet 13 of the equipment base 50 is drained regularly.
[0038] The above contents are only preferred implementation modes of the present invention. For ordinary technicians in this field, according to the concept of the present invention, there may be changes in the specific implementation mode and application scope. The content of this specification should not be understood as limiting the present invention.
Claims
1. A MABR membrane culture mobile station, comprising a MABR membrane reaction tank (10), a MABR membrane group (20) and an aeration plate (30) arranged in the MABR membrane reaction tank, wherein the MABR membrane group is connected to a membrane box, the membrane box is connected to a culture chamber (40), and the culture chamber is connected to a water pumping port (41), characterized in that: The MABR membrane reaction tank is installed on an equipment base (50), and an equipment protection cover (51) is installed on the equipment base. The equipment protection cover covers the MABR membrane reaction tank and the bacterial culture chamber, and the bacterial culture chamber is located above the MABR membrane reaction tank; the side wall of the MABR membrane reaction tank is provided with a water inlet (11) and an overflow hole (12), and the bottom of the MABR membrane reaction tank is provided with a sewage outlet (13); the equipment protection cover is provided with a water pumping port clearance hole, a water inlet clearance hole and an overflow hole clearance hole, and the equipment base is provided with a sewage outlet clearance hole.
2. The MABR membrane culture mobile station according to claim 1, characterized in that: The front part of the equipment protection cover (51) is provided with an observation port (52).
3. The MABR membrane culture mobile station according to claim 1, characterized in that: A convection window (53) is provided on the side wall of the equipment protection cover (51).
4. The MABR membrane culture mobile station according to claim 1, characterized in that: An operating cover plate (54) is provided on the top of the equipment protection cover (51).
5. The MABR membrane culture mobile station according to claim 1, characterized in that: The membrane box comprises an end membrane box (21) and an intermediate membrane box (22), the end membrane box and the intermediate membrane box are installed on a membrane frame (23), the MABR membrane group (20) is arranged between the end membrane box and the intermediate membrane box, and the membrane frame is provided with a water flow channel connecting the end membrane box and the intermediate membrane box, and the water flow channel is connected to the bacterial culture chamber (40).
6. The MABR membrane culture mobile station according to claim 1, characterized in that: An aerator (31) communicated with the aeration plate (30) is arranged above the bacterial culture chamber (40) and is located in the equipment protection cover (51).
7. The MABR membrane culture mobile station according to claim 6, characterized in that: A plurality of aeration plates (30) are distributed at the bottom of the MABR membrane reaction tank (10), and the aeration plates are connected to an aerator (31) via an aeration pipe (32).
8. The MABR membrane culture mobile station according to claim 1, characterized in that: Nano anaerobic bricks (42) are arranged in the bacterial culture chamber (40).