“第五届环境技术及知识转化国际会议”通知
经协商,由合肥学院、安徽省科学技术协会、安徽省省环境科学学会、德国罗斯托克大学、德国哥廷根应用科学大学、美国北卡罗来纳州立大学联合举办的“第五届环境技术及知识转化国际会议”(英文名:5th International Conference on Environmental Technology and Knowledge Transfer (5th ICET))定于2014年5月15-16日在中国安徽省合肥市举行,本届会议主题为“环境保护与雾霾控制”。会议将继续秉承前四届会议宗旨,为国际环境技术及知识转化提供发展平台,同时进一步扩展环境技术在工程领域的应用,将为广大专家、学者和企业提供更为广泛的交流机会。
组委会现进行征文活动,欢迎从事环境保护领域的政府官员、教育、科研和企业界人士积极参加,踊跃投稿。参会论文请通过电子邮件形式发往[email protected]呈交。稿件要求一律用英文撰写,格式要求参见第一轮通知,投稿截止时间为5月10日。
联系方式:
中国安徽省合肥市经济开发区锦绣大道99号(邮编230601)
联系人 :
马甜甜 老师 +86-(0)551-62158150
王 磊 老师 +86-(0)551-62158405
俞志敏 教授 +86-(0)551-62158449
传真: +86-(0)551-62158406
Email: [email protected]
附:参加会议报告的专家名单:
Austria:
Prof. Dr. Karl E. Lorber (University of Leoben)
" Recovery of head, power and secondary materials by Incineration of MSW"
Prof. Dr. Michael Nelles (University of Rostock)
Prof. Dr. Achim Loewen ( University of Applied Sciences and Arts Hildesheim/Holzminden/Goettingen)
" Treatment of wastewater in fixed bed bioreactors"
Dr. Gert Morscheck (University of Rostock)
"Waste Management in
Msc. Thomas Dorn (University of Rostock)
"Technology Transfer in the field of waste management"
Ms. Xu Anlin (University of Rostock)
"Utilisation of sewage sludge in Mecklenburg-Vorpommern (
Dr. Ling Wang-Li ( North Carolina State University )
"Contributions of Precursor Gas Emissions to the Formation of Secondary Atmospheric PM2.5: Ammonia Gas and Ammonium Aeroso "
Abstract: As a criteria pollutant, PM 2.5 not only adversely affects human health and environment, but also contributes to regional haze. It has become a growing concern to the scientific community, regulatory agencies, and the public. In atmosphere, fine particulate matter consists of primary PM 2.5 and secondary PM 2.5 . The primary PM 2.5 is emitted directly to the atmosphere whereas the secondary PM 2.5 is formed in the atmosphere through photochemical reaction, condensation and other atmospheric processes. While it is well known that ammonia as the only base gas in the atmosphere may react with acidic species to form secondary aerosols, e.g., ammonium sulfate (NH 4 ) 2 SO 4 , ammonium nitrate NH 4 NO 3 , limited research has been done to quantify the impacts of agricultural ammonia emissions on the dynamics of the chemical reactions and gas-particle phases partitioning associated with the formation of the atmospheric secondary PM 2.5 . This paper will report current status of existing research on ammonia emission inventory development and the formation of secondary PM 2.5 as impacted by agricultural ammonia emissions. Various methods for PM 2.5 source apportionment and for modeling the gas-particle partitioning of inorganic PM 2.5 under different ambient conditions will be presented. The current technical challenges and future developments will also be discussed.
Prof. Dr. Tian C. Zhang (University of Nebraska-Lincoln)
"Fate and Transport of CAFO’s hormones in Soil Environments"
Abstract: There are 1.3 million livestock operations in the
Prof. Dr. Jun Zhu (University of Arkansas)
"The
Abstract: In this presentation, the history of the
Prof. Dr. Jay J. Cheng (North Carolina State University)
"Anaerobic Co-Digestion of Animal Waste and Agricultural Residues for Biogas Production"
Abstract: Anaerobic co-digestion of swine manure and corn stover for biogas production has been studied in two completely-mixed and semi-continuously fed reactors (Reactor 1 and Reactor 2). Each reactor had a working volume of 14 liters and was operated at 35°C, a hydraulic retention time of 25 days, and an agitation speed of 120 rpm. Initially the reactors were operated as duplicates and each was fed with 560 ml of swine wastewater per day. After a stable performance had been achieved in both reactors with almost the same results, corn stover was added to Reactor 2 to get a Carbon to Nitrogen ratio (C:N) of 10:1. Since then 560 ml of swine wastewater and 14 g of corn stover have been added to Reactor 2 every day to keep the C:N ratio at 10:1. In the meantime Reactor 1 has been fed the same as previously. Removal of chemical oxygen demand (COD), total Kjeldahl nitrogen (TKN), fixed suspended solids (FSS), and volatile suspended solids (VSS) was 52%, 1%, 54%, and 51%, respectively in Reactor 1. When corn stover was added to Reactor 2, removal of COD, TKN, FSS, and VSS was 53%, 10%, 58%, and 58%, respectively. There was also a reduction of NH4-N by 15% in Reactor 2, probably because of the better balance of nutrients compared to Reactor 1, where an increase of ammonium was detected. Gas production increased dramatically during co-digestion, with average values of 274 ml per day in Reactor 1 and 3,910 ml per day in Reactor 2. Gas chromatography (GC) analyses have shown that methane content is 67.8% in Reactor 1 and 50.7% in Reactor 2. Thus, average methane production was 186 and 1982 ml per day in Reactors 1 and Reactor 2, respectively. However, methane yield was not significantly different for the two reactors.
Prof. Dr. Won-Chun Oh (Hanseo University)
"Graphene based photocatalyst for enhanced hydrogen evolution"
Prof. Dr. Vu Van Manh (Vietnam National University)
Prof. Dr. Wang Xiangke (Chinese Academy of Science)
Prof. Dr. Liu Guijian (University of Science and Technology of
Prof. Cao Hongbin (Chinese Academy of Science)
(2014年4月16日,上述信息持续更新中)