雨水管道沉积物中典型无机氮的干期粒径分布

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Abstract Separate rainwater pipeline sediments from Jiangbei New District, Nanjing, were selected as research objects, in order to the distribution characteristics for both NH₃-N and NO₃^--N attached in sediments with different particle sizes during dry periods, the change of the mentioned distribution with the length of dry periods, and the effect of physicochemical properties and microbial flora structure. The results showed that NH₃-N contents accounted for the highest proportion in sediments with particle size≤0.075mm (traffic area 30.8%, commercial area 36.7%). The proportion of NO₃^--N in sediments with particle size≤0.075mm in the traffic area was the largest (33.0%), while there was the highest (34.4%) in sediments with particle size of 0.075~0.15mm in commercial area. The length of dry periods had the most significant correlation with NO₃^--N content in sediments with particle size 0.075~0.15mm in traffic area, as well as NH₃-N content in sediments with particle size≥0.3mm in commercial area. The distribution of NH₃-N and NO₃^--N in rainwater pipeline sediments during dry periods had a certain degree relation with the functional groups (O-H and N-H), surface polarity, hydrophilicity, and micro-morphology. The dominant denitrification bacteria (the total relative abundance was 20.15%) in rainwater pipeline sediments from the traffic area, like Gemmobacter, had the relatively obvious influence on the distribution of NO₃^--N during dry periods.

Key words： rainwater pipeline sediments ammonium nitrogen nitrate nitrogen particle size microbial flora structure

Received: 19 April 2020

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X131.2

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	Articles by authors
	SUO Peng-cheng
	WANG Bang-guo
	CHEN Chun-wei
	ZUO Xiao-jun
	XU Qiang-qiang
	SUN Wen-long
	Chen Bin

Cite this article:

SUO Peng-cheng,WANG Bang-guo,CHEN Chun-wei等. Particle sizes distribution of typical inorganic nitrogen from rainwater pipeline sediments during dry periods[J]. CHINA ENVIRONMENTAL SCIENCECE, 2020, 40(12): 5352-5360.

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http://www.zghjkx.com.cn/EN/ OR http://www.zghjkx.com.cn/EN/Y2020/V40/I12/5352

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