Method and device for in-situ and interactively relieving biological clogging of artificial wetland
A constructed wetland and interactive technology, applied in chemical instruments and methods, biological water/sewage treatment, special treatment targets, etc., to avoid biological clogging, reduce clogging maintenance costs, and solve the effect of effluent water quality degradation
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Embodiment 1
[0039] An interactive in-situ method for alleviating biological clogging in constructed wetlands, the steps are as follows:
[0040] A. Fill the anode filler layer 2 on the top of the non-conductive filler layer 1, and set the bottom anode collector 6 in the anode filler layer 2;
[0041] B, fill the non-conductive filler separation layer 3 above the anode filler layer 2, the main function of this layer is as a separator between the anode filler layer 2 and the cathode filler layer 4;
[0042] C, fill the cathode filler layer 4 on the top of the non-conductive filler isolation layer 3, set the cathode collector 7 in the cathode filler layer 4, plant wetland plants 5 at the same time, the upper surface of the cathode filler layer 4 and the cathode collector 4 are exposed to the air ;
[0043] D, one end of the anode collector 6 and one end of the cathode collector 7 are connected with a load 9 or an external power supply 10 through a wire 8;
[0044] E, a switch 11 is set in ...
Embodiment 2
[0055] An interactive in-situ device for alleviating biological clogging in constructed wetlands, the device is laid with a non-conductive filler layer 1, an anode filler layer 2, a non-conductive filler isolation layer 3, and a cathode filler layer 4 from bottom to top; it is characterized in that: the anode The filler layer 2 is connected to the non-conductive filler layer 1 and the non-conductive filler isolation layer 3 respectively, the cathode filler layer 4 is connected to the non-conductive filler isolation layer 3, wetland plants 5 are planted in the cathode filler layer 4, and the anode filler layer 2 and the cathode filler layer are connected to each other. An anode collector 6 and a cathode collector 7 are respectively arranged in the packing layer 4, and the anode collector 6 is connected to the cathode collector 7 through a wire 8, a load 9 or an external power source 10, and the switch 11 is adjustable. When the switch connected to the external power source is clo...
Embodiment 3
[0068] For high-concentration COD (600-1000mg / L) sewage, the experiment compares the blockage after 60 days of operation using the method and device of the present invention and the conventional vertical flow constructed wetland (under the open circuit state). The results show that the conventional vertical flow artificial wetland has a porosity of 20-25% and a filtration rate of 20-23mL / s; the device of the present invention has a porosity of 28-31% and a filtration rate of 35-40mL / s. Compared with the conventional vertical flow constructed wetland (under the open circuit state), the relative abundance of Acinetobacter (Acinetobacter) closely related to EPS degradation in the bottom anode packing layer in the method and device of the present invention is increased by 40-110 times. The abundance of Syntrophomonas increased by 2-4 times; the abundance of Petrimonas with polysaccharide fermentation function in the middle anode packing layer increased by 4-5 times, and the proteop...
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