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添加二氧化碳的高速藻类塘中的废水处理和藻类生产。

Wastewater treatment and algal production in high rate algal ponds with carbon dioxide addition.

机构信息

National Institute of Water and Atmospheric Research Ltd (NIWA), Hamilton, New Zealand.

出版信息

Water Sci Technol. 2010;61(3):633-9. doi: 10.2166/wst.2010.951.

DOI:10.2166/wst.2010.951
PMID:20150699
Abstract

High rate algal ponds (HRAPs) provide improved wastewater treatment over conventional wastewater stabilisation ponds; however, algal production and recovery of wastewater nutrients as algal biomass is limited by the low carbon:nitrogen ratio of wastewater. This paper investigates the influence of CO(2) addition (to augment daytime carbon availability) on wastewater treatment performance and algal production of two pilot-scale HRAPs operated with different hydraulic retention times (4 and 8 days) over a New Zealand Summer (November-March, 07/08). Weekly measurements were made of influent and effluent flow rate and water qualities, algal and bacterial biomass production, and the percentage of algae biomass harvested in gravity settling units. This research shows that the wastewater treatment HRAPs with CO(2) addition achieved a mean algal productivity of 16.7 g/m(2)/d for the HRAP(4d) (4 d HRT, maximum algae productivity of 24.7 g/m(2)/d measured in January 08) and 9.0 g/m(2)/d for the HRAP(8d) (8 d HRT)). Algae biomass produced in the HRAPs was efficiently harvested by simple gravity settling units (mean harvested algal productivity: 11.5 g/m(2)/d for the HRAP(4d) and 7.5 g/m(2)/d for the HRAP(8d) respectively). Higher bacterial composition and the larger size of algal/bacterial flocs of the HRAP(8d) biomass increased harvestability (83%) compared to that of HRAP(4d) biomass (69%).

摘要

高负荷藻类塘(HRAP)相较于传统的废水稳定塘,能更好地处理污水;但是,由于污水的碳氮比低,藻类的生产和污水养分的回收受到限制。本文研究了在新西兰夏季(07/08 年 11 月至 3 月)期间,通过向两个不同水力停留时间(4 天和 8 天)的中试规模 HRAP 中添加 CO2(以增加白天的碳可用性),对污水水质处理性能和藻类生产的影响。每周测量一次进水和出水的流速和水质、藻类和细菌生物量的产生情况,以及重力沉降单元中藻类生物量的收获百分比。本研究表明,添加 CO2 的 HRAP 污水处理系统实现了平均藻类生产率为 16.7 g/m²/d(4 d HRT,08 年 1 月最高藻类生产率为 24.7 g/m²/d)和 9.0 g/m²/d(8 d HRT))。HRAP 中产生的藻类生物量可通过简单的重力沉降单元有效地收获(HRAP(4d)的平均收获藻类生产率为 11.5 g/m²/d,HRAP(8d)的平均收获藻类生产率为 7.5 g/m²/d)。HRAP(8d)生物量中较高的细菌组成和较大的藻类/细菌絮体大小提高了可收获性(83%),而 HRAP(4d)生物量的可收获性为 69%。

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