Filler for exhaust gas biological treatment
A biological treatment and waste gas technology, applied in chemical/physical process, chemical/physical/physical chemical process, air quality improvement, etc., can solve the filler requirements of the attached waste gas biological treatment system, low porosity, and small specific surface area and other problems, to achieve the effect of multi-microbial attachment growth, low cost, and high physical strength
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Embodiment 1
[0018] refer to figure 1 , a filler for waste gas biological treatment, including a roughly triangular base ring 1, the three corners of the base ring are arc-shaped, and the sides are slightly concave inward, and the support frame 2 arranged in the cavity of the base ring , the support frame is composed of three fixed legs 3 arranged in a star shape, and the outer ends of the legs are connected to the base ring. The cavity of the base ring also includes a filling piece 4 for increasing the specific surface area. There are multiple filling pieces, which are evenly arranged vertically on the base ring. The outer ends of the filling pieces are connected with the base ring and extend out of the base ring. The base ring. A substantially triangular reinforcing ring is also provided in the cavity of the base ring, and the sides of the triangle are also slightly concave inward to form an arc, and the reinforcing ring is fixedly connected to the base ring. Both ends of the filling s...
Embodiment 2
[0020] Below in conjunction with the embodiment of application effect comparative test, the present invention will be further described. Parallel test: set up a group of 4 transparent plexiglass towers with a diameter of 150mm and a height of 600mm, the height of the filler installation is 350mm, and the 4 towers are operated in parallel. The towers are filled with chemical filler A made of polypropylene and chemical filler made of polypropylene. Filler B, biological filler C described in Example 1 of the present invention, and porous ceramic particles (cylindrical) D have the same process conditions such as air intake load and nutrient solution spraying amount. The specifications and application effects of the four fillers are shown in Table 1.
[0021] The results showed that:
[0022] The maximum air intake is 4×1m 3 / h, toluene concentration 500~800mg / m 3 Under the conditions, after 8 months of continuous operation (to ensure the stable growth of biofilm on the filler),...
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