專業(yè)技術(shù)職務(wù)： 教授

博士/碩士導師: 博士、碩士生導師

電話: 13816219468

電子郵箱:xlchai@#edu.cn

所在系所（部門）：環(huán)境工程系

主要研究方向:水體生態(tài)修復(fù)技術(shù)、固體廢物處理處置與資源化

主講課程：環(huán)境工程學（固體廢物）

 

 

1987-1991，東北師范大學化學系,獲理學學士學位

1997-2000，南京理工大學環(huán)境科學與工程系,獲工學碩士學位

2000-2003，同濟大學環(huán)境科學與工程學院,獲工學博士學位

 

20003年7月-同濟大學環(huán)境科學與工程學院

2002年1月-6月，希臘亞里士多德大學化學系合作研究

2005年5月-2006年5月，日本九州大學訪問學者

2010年7月-9月，美國伊利諾伊大學香檳分校訪問

 

1）國家自然科學基金面上項目，51678427，基于植被與覆蓋土復(fù)合傳輸機制的填埋場汞釋放通量預(yù)測模型構(gòu)建，2017.1-2020.12，64萬，在研，主持。

2） 國家自然科學基金面上項目，51478327，基于植被與覆蓋土傳輸機制的甲烷釋放預(yù)測模型構(gòu)建，2015.1-2018.12，92萬，在研，主持。

3）國家科技部重大國際合作項目，填埋場甲烷減排與資源化技術(shù)設(shè)備研發(fā)及應(yīng)用，2015.4-2018.3，90萬，在研，子課題負責人。

4）國家自然科學基金面上項目，51278357，填埋場覆蓋土-植被-大氣間汞的交換機制對汞的形態(tài)分布及釋放通量的影響研究，2013.1-2016.12，56萬，已結(jié)題，主持。

5）國家科技部重大專項項目，2013ZX07315-002，城市污水處理廠污泥處理處置技術(shù)裝備產(chǎn)業(yè)化，2013.1-2016.6，2780萬，在研，主持。

6）國家科技部重大國際合作項目，基于有機殘渣與飛灰共處置的脫氯技術(shù)，2013.1-2015.12，60萬，已結(jié)題，主持。

7）國家自然科學基金國際合作項目，51110342，填埋場溫室氣體的釋放機制與控制技術(shù)研究，2012.04-2014.12，40萬，已結(jié)題，主持。

8） 國家自然基金面上項目，51078285，填埋場植被與覆蓋土復(fù)合作用對甲烷釋放影響機制研究，2010.1-2013.12，37萬，已結(jié)題，主持。

9）日本環(huán)境省國際合作項目，非規(guī)范填埋場安全、環(huán)境穩(wěn)定性評估體系研究，2010.7-2011.7，120萬，已結(jié)題，主持。

10） 日本經(jīng)濟產(chǎn)業(yè)省國際合作項目，垃圾焚燒灰渣在水泥工廠中的資源化利用技術(shù)，2019.7-2010.7，已結(jié)題，280萬，主持。

11）國家自然基金面上項目，20877057，填埋場甲烷化時期腐殖質(zhì)與汞的非生物作用對其形態(tài)分布和釋放規(guī)律的影響，2009.1-2011.12，28萬，已結(jié)題，主持。

 

1） Free-conditioning dewatering of sewage sludge through in situ propane hydrate formation, Water Research 145 (2018): 464-472

2）  Development of sludge-derived mesoporous material with loaded nano CaO2  and doped Fe for re-utilization of dewatered waste-activated sludge as  dewatering aids, Chemical Engineering Journal, 2018, 335: 161-168.

3）  Mechanism insights into bio-floc bound water transformation based on  synchrotron X-ray computed microtomography and viscoelastic acoustic  response analysis, Water Research, 2018, 142: 480-489.

4）  Development of sludge-derived mesoporous material with loaded nano CaO2  and doped Fe for re-utilization of dewatered waste-activated sludge as  dewatering aids, Chemical Engineering Journal, 2017.10.3, 335: 161~168.     

5）  Exploring the potential of iTRAQ proteomics for tracking the  transformation of extracellular proteins from enzyme-disintegrated waste  activated sludge, Bioresource Technology, 2017.2, 225: 75~83.  

6）  Occurrence State and Molecular Structure Analysis of Extracellular  Proteins with Implications on the Dewaterability of Waste-Activated  Sludge, Environmental Science & Technology, 2017.8.15, 51(16):  9235~9243.  

7）  Simultaneous enhancement of sludge dewaterability and removal of  sludge-borne heavy metals through a novel oxidative leaching induced by  nano-CaO2, Environmental Science And Pollutton Research, 2017.7, 24(19):  16263~16275.  

8）  Characterization of chlorine and heavy metals for the potential  recycling of bottom ash from municipal solid waste incinerators as  cement additives. Frontiers of Environmental Science & Engineering,  2016, 10(4): 1-9. IF, 1.799.

9）  Development of montmorillonite-supported nano CaO2 for enhanced  dewatering of waste-activated sludge by synergistic effects of  filtration aid and peroxidation. Chemical Engineering Journal, 2016. IF,  5.310.

10）  Enhanced nutrient removal from lake water via biodegradation of poly  (L-lactide)/poly (3-hydroxybutyrate-co-4-hydroxybutyrate) blends. RSC  Advances, 2016, 6(8): 6528-6539. IF, 3.289.

11）  Enhanced dewatering of waste-activated sludge by composite hydrolysis  enzymes. Bioprocess and Biosystems Engineering, 2016, 39(4): 627-639.  IF, 1.901.

12）  Field study of nitrous oxide production with in situ aeration in a  closed landfill site. Journal of the Air & Waste Management  Association, 2016, 66(3): 280-287. IF, 1.613.

13）  Hybrid cement-assisted dewatering, solidification and stabilization of  sewage sludge with high organic content. Journal of Material Cycles and  Waste Management, 2016, 18(2): 356-365. IF, 1.422.

14）  Methane emissions as energy reservoir: Context, scope, causes and  mitigation strategies. Progress in Energy and Combustion Science, 2016,  56: 33-70. IF, 16.784.

15）  Novel insights into enhanced dewatering of waste activated sludge based  on the durable and efficacious radical generating. Journal of the Air  & Waste Management Association, 2016. IF, 1.613.

16）  Site specific diel methane emission mechanisms in landfills: A field  validated process based on vegetation and climate factors. Environmental  Pollution, 2016. IF, 4.839.

17）  Environmental impacts of a large-scale incinerator with mixed MSW of  high water content from a LCA perspective. Journal of Environmental  Sciences, 2015, 30: 173-179. IF, 2.208.

18）  Effective landfill gas management strategies for methane control and  reuse technology. Journal of Renewable and Sustainable Energy, 2015,  7(4): 041511. IF, 0.961.

18)  Greenhouse gas emission and its potential mitigation process from the  waste sector in a large-scale exhibition. Journal of Environmental  Sciences, 2015, 31: 44-50. IF, 2.208.

19)  Total mercury and methylmercury distributions in surface sediments from  Kongsfjorden, Svalbard, Norwegian Arctic. Environmental Science and  Pollution Research, 2015, 22(11): 8603-8610. IF, 2.760.

20)  The dependence of the methylation of mercury on the landfill  stabilization process and implications for the landfill management.  Chemosphere, 2015, 119:828–834. IF, 3.698.

21)  Characterization of microalgae-bacteria consortium cultured in landfill  leachate for carbon fixation and lipid production. Bioresource  Technology, 2014, 156(2):322–328. IF, 4.917.

22)  Characteristics of light regime on biofixation of carbon dioxide and  growth of Scenedesmus obliquus with light-emitting diodes. Journal of  Renewable and Sustainable Energy, 2014, 6(3): 033104. IF, 0.961.

23)  Enhanced dewatering characteristics of waste activated sludge with  Fenton pretreatment: effectiveness and statistical optimization.  Frontiers of Environmental Science & Engineering, 2014, 8(2):  267-276. IF, 1.799.

24)  Influence of aeration modes on leachate characteristic of landfills  that adopt the aerobic–anaerobic landfill method[J]. Waste Management,  2014, 34(1): 101-111. IF, 3.829.

25)  Indicating landfill stabilization state by using leachate property from  Laogang Refuse Landfill. Frontiers of Environmental Science &  Engineering, 2014, 8(3): 405-410. IF, 1.799.

26)  Characterization of controlled low-strength material obtained from  dewatered sludge and refuse incineration bottom ash: Mechanical and  microstructural perspectives. Journal of Environmental Management, 2013,  129: 183-189. IF, 3.131.

27)  Emission characteristics and air–surface exchange of gaseous mercury at  the largest active landfill in Asia. Atmospheric Environment, 2013, 79:  188-197. IF, 3.459.

28)  Inhibitory effects of a shock load of Fe (II)-mediated persulfate  oxidation on waste activated sludge anaerobic digestion. Chemical  Engineering Journal, 2013, 233: 274-281. IF, 5.310.

29)  Spectroscopic studies of the effect of aerobic conditions on the  chemical characteristics of humic acid in landfill leachate and its  implication for the environment. Chemosphere, 2013, 91(7):1058–1063. IF,  3.698.

30)  The effect of aerobic conditions on the complexation ability between  mercury and humic acid from landfill leachate and its implication for  the environment. Chemosphere, 2013, 92(4):458–463. IF, 3.698.

31)  The effect of aeration position on the spatial distribution and  reduction of pollutants in the landfill stabilization process–a pilot  scale study. Waste Management & Research, 2013, 31(1): 41-49. IF,  1.338.

32)  Abiotic association of phthalic acid esters with humic acid of a sludge  landfill. Frontiers of Environmental Science & Engineering, 2012,  6(6): 778-783. IF, 1.799.

33)  Complexion between mercury and humic substances from different landfill  stabilization processes and its implication for the environment.  Journal of Hazardous Materials, 2012, 59-66. IF, 4.836.

34)  Enhanced removal of carbon dioxide and alleviation of dissolved oxygen  accumulation in photobioreactor with bubble tank. Bioresouce Technology,  2012, 360-365. IF, 4.917.

35)  Enhanced dewaterability of sewage sludge in the presence of Fe  (II)-activated persulfate oxidation. Bioresource Technology, 2012, 116:  259-265. IF, 4.917.

36)  Fluorescence excitation–emission matrix combined with regional  integration analysis to characterize the composition and transformation  of humic and fulvic acids from landfill at different stabilization  stages. Waste Management, 2012, 32(3): 438-447. IF, 3.829.

37)  Novel insights into enhanced dewaterability of waste activated sludge  by Fe (II)-activated persulfate oxidation[J]. Bioresource Technology,  2012, 119: 7-14. IF, 4.917.

38)  Synergetic pretreatment of waste activated sludge by Fe (II)–activated  persulfate oxidation under mild temperature for enhanced dewaterabilit.  Bioresource Technology, 2012, 124: 29-36. IF, 4.917.

39)  Characteristics of vegetation and its relationship with landfill gas in  closed landfill. Biomass and Bioenergy, 2011, 35(3): 1295-1301. IF,  3.249.

40)  Abiotic association of PAEs with humic substances and its influence on  the fate of PAEs in landfill leachate. Chemosphere, 2010,11: 1362-1367.  IF, 3.698.

41)  Characteristics of environmental factors and their effects on CH4 and  CO2 emissions from a closed landfill: an ecological case study of  Shanghai. Waste Management, 2010, 30(3): 446-451. IF, 3.829.

42)  Effect of bio-column composed of aged refuse on methane abatement–A  novel configuration of biological oxidation in refuse landfill. Journal  of Environmental Sciences, 2010, 22(5): 769-776. IF, 2.208.

43)  Solid phase extraction of trace Hg (II) on silica gel modified with  2-(2-oxoethyl) hydrazine carbothioamide and determination by ICP-AES.  Talanta, 2010, 82(5): 1791-1796. IF, 4.035.

44)  Characterization of refuse landfill leachates of three different stages  in landfill stabilization process. Journal of Environmental Sciences,  2009, 21(9): 1309-1314. IF, 2.208.

45)  Landfill refuse stabilization process characterized by nutrient change.  Environmental Engineering Science, 2009, 26(11): 1655-1660. IF, 1.481.

46)  Size-fractionation and characterization of landfill leachate and the  improvement of Cu2+ adsorption capacity in soil and aged refuse. Waste  Management, 2009, 29(1): 143-152. IF, 3.829.

47)  Characterization of humic and fulvic acids extracted from landfill by  elemental composition, 13 C CP/MAS NMR and TMAH-Py-GC/MS. Waste  Management, 2008, 28(5): 896-903. IF, 3.829.

48)  Characteristics and mobility of heavy metals in an MSW landfill:  Implications in risk assessment and reclamation. Journal of Hazardous  Materials, 2007, 144(1): 485-491. IF, 4.836.

49)  Spectroscopic studies of the progress of humification processes in  humic substances extracted from refuse in a landfill. Chemosphere, 2007,  69(9): 1446-1453. IF, 3.698.

50) Adsorption of phenolic compound by aged-refuse. Journal of Hazardous Materials, 2006, 137(1): 410-417. IF, 4.836.

 

主要專著

1)《Pollution control and resource reuse of bottom ash and fly ash》，2016年出版。

2)《Pollution Control and Resource Reuse for Municipal Solid Wastes at Landfill》，2016年出版。

2)《Municipal Solid Waste Management in Asia and the Pacific Islands》，2014年出版。

3)《Stability evaluation for substandard dumping sites of municipal solid waste》（日文)，2013年出版。

 

1)生活垃圾資源化利用技術(shù)，國家2013年科技進步二等獎

2)生活垃圾資源化利用技術(shù)，教育部2011年科技進步一等獎

3)大宗堿溶性金屬廢物堿介質(zhì)提取技術(shù)與產(chǎn)業(yè)化應(yīng)用，上海市2010年技術(shù)發(fā)明二等獎

4)生活垃圾填埋場垃圾與土地利用技術(shù)，住房與城鄉(xiāng)建設(shè)部2008年科技進步獎（華夏獎)三等獎

5)垃圾資源化循環(huán)利用關(guān)鍵技術(shù)與應(yīng)用，上海市2007年技術(shù)發(fā)明三等獎

6)垃圾生物反應(yīng)床處理生活垃圾滲濾液工藝及工程應(yīng)用，2007年高等學校技術(shù)發(fā)明二等獎

7)大型灘涂型生活垃圾填埋場填埋與運營關(guān)鍵技術(shù)研究，上海市2004年科技進步二等獎