环境科学与工程学院-柴晓利导师介绍

更新于 2025-11-10 导师主页
柴晓利 教授 硕,博士生导师
环境科学与工程学院
环境工程 ,资源与环境 ,环境科学与工程 ,资源与环境
污水处理技术,水体生态修复技术,固体废水处理与处置技术
xlchai@tongji.edu.cn

博士招生专业

1
环境工程
2023
1
学术型博士
固体废物处理与资源化,污水处理与资源化,区域、流域及城市水环境质量改善理论与技术

招生信息

1
环境工程
2023
2
学术型硕士
区域、流域及城市水环境质量改善理论与技术,污水处理与资源化,固体废物处理与资源化

柴晓利教授团队研究方向为污水处理与水体修复技术研究,近年来主持国家“重点研发”,“水重大专项”课题2项,国家自然科学基金项目10项;迄今为止在国际重要SCI刊物发表论文100余篇,高被引论文4篇;在水体原位生态修复技术以及污水原位提标扩容技术等方向取得了创新性的研究成果,先后获得发明专利80余项,包括PCT美国专利4项,相关技术在我国十几个省市水体生态修复和污水提标改造工程中得到了推广应用,得到了政府、社会和新闻媒体的广泛关注,研究成果先后获得国家科技进步二等奖,教育部科技进步一等奖、上海市科技进步奖一等奖。


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科研项目

1)  国家自然科学基金面上项目,52270163,基于聚羟基烷酸酯诱导的水体微生物群落结构演替规律及其种间高阶作用机制研究,2022.1-2026.12,54 万,在研,主持。

2)国家自然科学基金面上项目,51978495,基于亲疏水组分物化性质与水分分布分型耦合对应关系的污泥水分赋存状态界定识别及水-固界面作用机制研究,2020.1-2024.12,60万,在研,主持。

3) 国家自然科学基金-国际(地区)合作与交流项目,51088285,填埋温室气体(甲烷)的释放机制与控制技术研究,2011.6-2011.12,3万,已结题,主持。

4) 国家自然科学基金-国际(地区)合作与交流项目,51078285,基于交替式厌氧、好氧填埋工艺的温室气体减排与污染控制技术研究,2012.4-2014.12,20万,已结题,主持。

5) 国家自然科学基金面上项目,51478327,基于植被与覆盖土复合传输机制的填埋场甲烷释放预测模型构建项目,2015.1-2018.12,90万,已结题,主持。

6) 国家自然科学基金面上项目,51678427,基于植被与覆盖土复合传输机制的填埋场汞释放通量预测模型构建,2017.1-2020.12,64万,在研,主持。

7) 国家自然科学基金面上项目,51278357,填埋场覆盖土-植被-大气间汞的交换机制对汞的形态分布及释放通量的影响研究,2013.1-2016.12,56万, 已结题,主持。

8) 国家自然基金面上项目,20877057,填埋场甲烷化时期腐殖质与汞的非生物作用对其形态分布和释放规律的影响,2009.1-2011.12,28万,已结题,主持。

9) 国家自然基金面上项目,51078285,填埋场植被与覆盖土复合作用对甲烷释放影响机制研究,2010.1-2013.12,37万,已结题,主持。

10) 国家自然科学基金国际合作项目,51110342,填埋场温室气体的释放机制与控制技术研究,2012.4-2014.12,40万,已结题,主持。

11) 日本环境省国际合作项目,非规范填埋场安全、环境稳定性评估体系研究,2010.7-2011.7,120万,已结题,主持。

12) 国家科技部重大国际合作项目,填埋场甲烷减排与资源化技术设备研发及应用,2015.4-2018.3,90万,已结题,主持。

13) 国家科技部重大国际合作项目,基于有机残渣与飞灰共处置的脱氯技术,2013.1-2015.12,60万,已结题,主持。

14)国家重点研发计划,科技部,“长三角典型流域多源有机固废集约化处置集成示范”,2020YFC1908600,300万,课题负责人

15)“水污染控制与治理”国家科技重大专项,科技部,2013ZX07315-002,城市污染水处理厂污泥处理处置技术装备产业化,2013.1-2016.6,2781万,已结题,课题负责人。

16) “水污染控制与治理”国家科技重大专项,科技部,2017ZX07202002-05,重污染河流负荷消减与污染控制技术集成与示范,2017.1-2020.6,340万,在研,子课题负责人。

17) 上海市科学技术委员会,18DZ1206505,长江口水源保护区富营养化防止关键因子控制对策研究,2018.11-2020.10,88万,已结题,课题负责人。


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研究成果

1、主要代表性论文如下:

1) Integrated fixed-film activated sludge and the derivative process: a review of carrier design, microbial regulation, and enhanced nitrogen removal in wastewater treatment. Journal of Water Process Engineering, 2025. 76. 108195.

2) Harnessing metabolic pathway modulation and multiple endogenous driving forces for sustainable nitrogen removal from high-ammonia extremely low C/N ratio wastewater. Environmental research, 2025. 285. 122453.

3) Improving Anaerobic Digestion Process of Sewage Sludge in Terms of Energy Efficiency and Carbon Emission: Pre- or Post-Thermal Hydrolysis?. SUSTAINABILITY, 2025. 17. 13.

4) Destabilization of colloidal particles induced by in-situ calcium carbonate crystallization with implications on highly-efficient removal of insoluble matter from anaerobic digestate liquor. Separation and Purification Technology, 2025. 370.

5) A molecular transformation study on the humus soil biomaterial promoting effects on the humification process in an anaerobic digestate composting system. Bioresource Technology, 2025. 430.

6) Metal-organic framework material-derived Fe-Si micro-nuclei drive a robust anammox process via multiple pathways: "Shelter" provision, "barrier" reinforcement, and biological "inducer" modulation. Water Research, 2025. 284.

7) Facilitating anaerobic digestion of kitchen waste through diatomite-mediated spatial ecological niches construction. Waste Management, 2025. 201.

8) Low-temperature, ambient-pressure and rapid mineralization of per- and polyfluoroalkyl substances by molten alkali. Journal of Hazardous Materials, 2025. 496.

9) Enhanced selective recovery of powder carrier-supported biofilms for enrichment of denitrifying functional bacteria. Water Research, 2025. 28.

10) Unveiling the Coupling Mechanism between Central Carbon and Nitrogen Metabolism of Pseudomonas stutzeri: Polyhydroxyalkanoate-Enhanced Electron Supply for Denitrification. ACS ES&T WATER, 2024. 5.1: p 230-241.

11) The adaptive regulation mechanism of Anammox granule sludge under calcium ions stress: Defense modes transformation. WATER RESEARCH, 2024. 263.

12) Strengthening nitrogen removal of rural wastewater treatment in humus biochemical system under low dissolved oxygen conditions: Sludge and microbial characteristics. JOURNAL OF ENVIRONMENTAL MANAGEMENT, 2024. 366.

13) Effect of influent C/N ratios on high-concentration powder carrier bio-fluidized bed (HPB) process: Performance, sludge characteristics, and microbial community. JOURNAL OF WATER PROCESS ENGINEERING, 2024. 62.

14) Dissolved organic carbon spurs bacterial-algal competition and phosphorus-paucity adaptation: Boosting Microcystis' phosphorus uptake capacity. WATER RESEARCH, 2024.255.

15) Integrated control strategy for dual sludge ages in the high-concentration powder carrier bio-fluidized bed (HPB) technology: Enhancing municipal wastewater treatment efficiency. JOURNAL OF ENVIRONMENTAL MANAGEMENT, 2024. 351.

16) Influential mechanism of water occurrence states of waste-activated sludge: Specifically focusing on the pore characteristics dominated by cation-organic interactions. Water Research, 2024. 266.

17) Novel three-dimensional electrode structures with urchin-like pore canal for high-performance microbial fuel cells. Electrochimica Acta, 2024 . 475.

18) Novel insights into self-defense function of anammox sludge under magnesium ions (Mg2+) stress based on Mg2+ transport system. Bioresource Technology, 2024. 414.

19) Utilization strategy for algal bloom waste through co-digestion with kitchen waste: Comprehensive kinetic and metagenomic analysis. Environmental Research, 2024. 255.

20) Micro- and Nano-Bubbles Enhanced the Treatment of an Urban Black-Odor River. Sustainability (Switzerland), 2023.24.

21) Intelligent upgrade of waste-activated sludge dewatering process based on artificial neural network model: Core influential factor identification and non-experimental prediction of sludge dewatering performance. Journal of Environmental Management, 2023. 346.

22) Crystallization-driven evolution of water occurrence states with implications on dewaterability improvement of waste-activated sludge. Water Research, 2023. 244.

23) Rapid start-up and long-term stable operation of the anammox reactor based on biofilm process: Status, challenges, and perspectives. Chemosphere, 2023. 336.

24) Strengthen high-loading operation of wastewater treatment plants by composite micron powder carrier: Microscale control of carbon, nitrogen, and sulfur metabolic pathways. Science of the Total Environment, 2023.904.

25) Tough, stretchable dual-network liquid metal-based hydrogel toward high-performance intelligent on-off electromagnetic interference shielding, human motion detection and self-powered application. Nano Energy, 2023. 114.

26) Novel cost-effective oxygen-enriched melting method for MSWI fly ash.Journal of the Air and Waste Management Association, 2023.74.1 : p 1-10.

27) Accelerating the granulation of anammox sludge inwastewater treatment with the drive of "micro-nuclei": A review.Science of the Total Environment, 2023. 860:p.13.

28) Ordered Heterostructured Aerogel with BroadbandElectromagnetic Wave Absorption Based on Mesoscopic Magnetic SuperpositionEnhancement. Advanced Science, 2023:p. 13.

29) Mechanistic insights intopolyhydroxyalkanoate-enhanced denitrification capacity of microbial community:Evolution of community structure and intracellular electron transfer ofnitrogen metabolism. Science of the Total Environment, 2023. 856: p. 11.

30) Greenhouse gas emissions from waste sectors inChina during 2006-2019: Implications for carbon mitigation. Process Safety andEnvironmental Protection, 2022. 161:p. 488-497.

31) Effects of Toll-Like Receptor4 Gene Modified BoneMarrow Mesenchymal Stem Cells (BMSCs) Transplantation on Expression of BasicFibroblast Growth Factor (bFGF) and Follistatin-Like-1 (FSTL1) in MyocardialIschemia-Reperfusion Rats. Journal of Biomaterials and Tissue Engineering,2023. 13(1): p. 151-156.

32) Highly efficient solid-liquid separation ofanaerobically digested liquor of food waste: Conditioning approach screeningand mechanistic analysis. Science of the Total Environment, 2022. 811: p. 11.

33) Effective removal of hydrogen sulfide from landfillgases using a modified iron pentacarbonyl desulfurization agent and thedesulfurization mechanism. Science of the Total Environment, 2022. 839: p. 9.

34) The Effect of Zinc Finger Domain Protein Spalt LikeTranscription Factor 4 (SALL4A)-Mediated DNA Demethylation on CardiacDevelopment and Function. Journal of Biomaterials and Tissue Engineering, 2022.12(7): p. 1385-1390.

35) PHA stimulated denitrification through regulationof preferential cofactor provision and intracellular carbon metabolism atdifferent dissolved oxygen levels by Pseudomonas stutzeri. Chemosphere, 2022. 309: p. 9.

36) Mechanism insightsinto liquid polarity regulation for enhanced dewatering of waste-activatedsludge: Specifically focusing on the solid-liquid affinity reduction dependingon phase-transfer and conformational features of amphiphilic protein. WaterResearch, 2022. 221: p. 12.

37) Influentialmechanism of water occurrence states of waste-activated sludge: Potentiallinkage between water-holding capacity and molecular compositions of EPS. WaterResearch, 2022. 213: p. 12.

38) Influential mechanism of water occurrencestates of waste-activated sludge: Over-focused significance of cell lysis tobound water reduction. Water Research, 2022. 221: p. 11

39) Three Birdswith One Stone: N/P Recovery, Dewaterability Improvement, and FacilitatingLiquid Digestate Treatment of Anaerobically Digested Sludge. Acs SustainableChemistry & Engineering, 2022. 10(37):p. 12402-12410.

40) Characteristicsof polychlorinated dibenzodioxins/dibenzofurans from a full-scale municipalsolid waste (MSW) incinerator in China by MSW classification. Process Safetyand Environmental Protection, 2022. 161:p. 50-57.

41) Assessment ofHeavy Metal Pollution in Suburban River Sediment of Nantong (China) andPreliminary Exploration of Solidification/Stabilization Scheme. Water, 2022. 14(14): p. 12.

42) In SituRemediation Technology for Heavy Metal Contaminated Sediment: A Review.International Journal of Environmental Research and Public Health, 2022. 19(24): p. 15.

43) Novelmicro-granular sludge process for highly efficient treatment of low-strengthand low C/N ratio municipal wastewater. Chemosphere, 2022, 287.

44) Co-immobilizationof clinoptilolite and nanostructured hydrated ferric-zirconium binary oxide viapolyvinyl alcohol-alginate covalent cross-linking for simultaneous deep removalof aqueous low-level nitrogen and phosphorus. Arabian Journal of Chemistry,2021, 14(10).

45) Effectsof Water Level Fluctuations on the Growth Characteristics and CommunitySuccession of Submerged Macrophytes: A Case Study of Yilong Lake, China. Water,2021, 13(20).

46) Effectsof maternal sugar intake during pregnancy on allergies in offspring A protocolfor systematic review and meta-analysis. Medicine, 2021, 100(42).

47) Mechanisminsights into polyhydroxyalkanoate-regulated denitrification from theperspective of pericytoplasmic nitrate reductase expression. Science of theTotal Environment, 2021, 754.

48) Environmentally-friendlydewatering of sewage sludge: A novel strategy based on amphiphilic phase-transferinduced by recoverable organic solvent. Chemical Engineering Journal, 2021,409.

49) Influentialmechanism of water occurrence states of waste-activated sludge: specificallyfocusing on the roles of EPS micro-spatial distribution and cation-dominatedinterfacial properties. Water Research, 2021, 202.

50)  APhase 2 Study of Camrelizumab for Advanced Hepatocellular Carcinoma: Two-YearOutcomes and Continued Treatment beyond First RECIST-Defined Progression. LiverCancer, 2021.

51) Introductionto special issue on US-China EcoPartnership: Pathways toward decarbonizingeconomies to mitigate climate change. Environ Prog Sustain Energy, 2021, 40(5).

52)  Real-WorldEffectiveness of Ivabradine in Chinese Patients with Chronic Heart Failure:Interim Analysis of the POSITIVE Study. American Journal of CardiovascularDrugs, 2021.

53) RapidDetermination of Trace Iodine in Oilfield Brine Based on Oxidation-AtomicEmission Spectrometry. Spectroscopy and Spectral Analysis, 2021, 41(5):1574-1579.

54)  Numericalmodeling of methane oxidation and emission from landfill cover soil couplingwater-heat-gas transfer: Effects of meteorological factors. Process Safety andEnvironmental Protection, 2021, 146: 647-655.

55) Methaneemissions and energy generation potential from a municipal solid waste landfillbased on inventory models: A case study. Environ Prog Sustain Energy, 2021,40(5).

56) Implicationsof municipal solid waste disposal methods in China on greenhouse gas emissions.Environ Prog Sustain Energy, 2020, 39(3).

57) 2.75-mum Mid-Infrared GaSb-Based Quantum Well Lasers with Quinary Alloy Barrier.Chinese Journal of Lasers-Zhongguo Jiguang, 2020, 47(7).

58)  Criticalreview on dewatering of sewage sludge: Influential mechanism, conditioningtechnologies and implications to sludge re-utilizations. Water Research, 2020,180.

59) Reactivecutaneous capillary endothelial proliferation in advanced hepatocellularcarcinoma patients treated with camrelizumab: data derived from a multicenterphase 2 trial. J Hematol Oncol, 2020, 13(1).

60) Temporalvariation of vegetation at two operating landfills and its implications forlandfill phytoremediation. Environmental Technology, 2020, 41(5): 649-657.

61)  Mercurytransport and fate in municipal solid waste landfills and its implications.Biogeochemistry, 2020, 148(1): 19-29.

62)  Camrelizumabin patients with previously treated advanced hepatocellular carcinoma: amulticentre, open-label, parallel-group, randomised, phase 2 trial. LancetOncology, 2020, 21(4): 571-580.

63)  Effectivenessof anti-PD-1 for hepatocellular carcinoma Reply. Lancet Oncology, 2020, 21(6):E294-E294.

64) Sequestrationof Sulphide from Biogas by thermal-treated iron nanoparticles synthesized usingtea polyphenols. Environmental Technology, 2020, 41(6): 741-750.

65)  Optimizationof Determination Method of Lithium in Oil-Field Water Based on DOE.Spectroscopy and Spectral Analysis, 2020, 40(8): 2617-2621.

66) Effectsof plant radial oxygen loss on methane oxidation in landfill cover soil: Asimulative study. Waste Management, 2020, 102: 56-64.

67) Biologicaldenitrification using PHBV polymer as solid carbon source and biofilm carrier.Biochemical Engineering Journal, 2019, 146: 186-193.

68) Effectof temperature on tertiary nitrogen removal from municipal wastewater in aPHBV/PLA-supported denitrification system. Environmental Science and PollutionResearch, 2019, 26(26): 26893-26899.

69) Unravelingthe water states of waste-activated sludge through transverse spin-spinrelaxation time of low-field NMR. Water Research, 2019, 155: 266-274.

70) Designingan in situ remediation strategy for polluted surface water bodies through thespecific regulation of microbial community. Frontiers of Environmental Science& Engineering, 2019, 13(1).

71) Impairingthe maintenance of germinative cells in Echinococcus multilocularis bytargeting Aurora kinase. PLoS Negl Trop Dis, 2019, 13(5).

72) Methaneemissions from landfill: influence of vegetation and weather conditions.Environmental Technology, 2019, 40(16): 2173-2181.

73) Effectof soil types and ammonia concentrations on the contribution ofammonia-oxidizing bacteria to CH4 oxidation. Waste Management & Research, 2019, 37(7): 698-705.

74) Simulativeanalysis of vegetation on CH4 emission from landfill cover soils: Combinedeffects of root-water uptake, root radial oxygen loss, and plant-mediated CH4transport. J Clean Prod, 2019, 234: 18-26.

75) Analysisof the effects of vegetation on CH4 emission in landfill cover soils: Combinedeffects of root architectures, radial oxygen loss, root-water uptake andplant-mediated CH4 transportation. Abstracts of Papers of the American ChemicalSociety, 2019, 257.

76) Enhancedphosphate removal using nanostructured hydrated ferriczirconium binary oxideconfined in a polymeric anion exchanger. Chemical Engineering Journal, 2018, 345:640-647.

77) Developmentof polymeric iron/zirconium-pillared clinoptilolite for simultaneous removal ofmultiple inorganic contaminants from wastewater. Chemical Engineering Journal,2018, 347: 819-827.

78) Studyon Phase Transition Process of NaCl-H2O and NaCl-KCl-H2O at Low Temperaturewith in Situ XRD. Spectroscopy and Spectral Analysis, 2018, 38(3): 953-957.

79) PHBVpolymer supported denitrification system efficiently treated high nitrateconcentration wastewater: Denitrification performance, microbial communitystructure evolution and key denitrifying bacteria. Chemosphere, 2018, 197:96-104.

80) Effectof influent pH on biological denitrification using biodegradable PHBV/PLAblends as electron donor. Biochemical Engineering Journal, 2018, 131: 24-30.

81) Effectof different carbon sources on denitrification performance, microbial communitystructure and denitrification genes. Science of the Total Environment, 2018,634: 195-204.

82)  Characterizationof coal gasification slag-based activated carbon and its potential applicationin lead removal. Environmental Technology, 2018, 39(3): 382-391.

83) Methylmercurylevels in cover soils from two landfills in Xi'an and Shanghai, China:Implications for mercury methylation potentials. Waste Management, 2018, 78:331-336.

84) Performanceevaluation of zero-valent iron nanoparticles (NZVI) for high-concentration H2Sremoval from biogas at different temperatures. RSC Adv, 2018, 8(25):13798-13805.

85) Highorder DBR GaSb based single longitude mode diode lasers at 2 mu m wavelength.Journal of Semiconductors, 2018, 39(10).

86) High-powerGaSb-based microstripe broad-area lasers. Applied Physics Express, 2018, 11(3).

87) Removalof water nutrients by different aquatic plant species: An alternative way toremediate polluted rural rivers. Ecological Engineering, 2018, 110: 18-26.

88) Preferentialremoval of phosphorus using modified steel slag and cement combination for itsimplications in engineering applications. Environmental Technology &Innovation, 2018, 10: 264-274.

89) Laterally-coupleddistributed feedback lasers with optimized gratings by holographic lithographyetching. Journal of Infrared and Millimeter Waves, 2018, 37(2): 140.

90) Asimple approach to obtain 2.0 mu m GaSb laser by using high-order distributedBragg reflector. Journal of Infrared and Millimeter Waves, 2018, 37(6):653-656.

91) Asimulation model for methane emissions from landfills with interaction ofvegetation and cover soil. Waste Management, 2018, 71: 267-276.

92) ASimulation model for estimating methane oxidation and emission from landfillcover soils. Waste Management, 2018, 77: 426-434.

93) Free-conditioning dewatering of sewage sludgethrough in situ propane hydrate formation, Water Research 145 (2018): 464-472.

94) Development of sludge-derived mesoporous materialwith loaded nano CaO2  and doped Fe forre-utilization of dewatered waste-activated sludge as  dewatering aids, Chemical EngineeringJournal, 2018, 335: 161-168.

95)  Mechanism insights into bio-floc bound watertransformation based on  synchrotronX-ray computed microtomography and viscoelastic acoustic  response analysis, Water Research, 2018, 142:480-489.

96)  Development of sludge-derived mesoporous materialwith loaded nano CaO2  and doped Fe forre-utilization of dewatered waste-activated sludge as  dewatering aids, Chemical EngineeringJournal, 2017.10.3, 335: 161~168.

97)  Exploring the potential of iTRAQ proteomics fortracking the  transformation ofextracellular proteins from enzyme-disintegrated waste  activated sludge, Bioresource Technology, 2017.2,225: 75~83. 

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

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

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

101)  Development of montmorillonite-supported nano CaO2 forenhanced  dewatering of waste-activatedsludge by synergistic effects of filtration aid and peroxidation. Chemical Engineering Journal, 2016. IF,  5.310.

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

103)  Enhanced dewatering of waste-activated sludge bycomposite hydrolysis  enzymes. Bioprocessand Biosystems Engineering, 2016, 39(4): 627-639.  IF, 1.901.

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

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

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

107)  Novel insights into enhanced dewatering of wasteactivated sludge based  on the durableand efficacious radical generating. Journal of the Air  & Waste Management Association, 2016. IF,1.613.

108)  Site specific diel methane emission mechanisms inlandfills: A field  validated processbased on vegetation and climate factors. Environmental  Pollution, 2016. IF, 4.839.

109)  Environmental impacts of a large-scale incineratorwith mixed MSW of  high water contentfrom a LCA perspective. Journal of Environmental  Sciences, 2015, 30: 173-179. IF, 2.208.

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

111)  Greenhouse gas emission and its potentialmitigation process from the  waste sectorin a large-scale exhibition. Journal of Environmental  Sciences, 2015, 31: 44-50. IF, 2.208.

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

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

114)  Characterization of microalgae-bacteria consortiumcultured in landfill  leachate for carbonfixation and lipid production. Bioresource Technology, 2014, 156(2):322–328. IF, 4.917.

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

116)  Enhanced dewatering characteristics of wasteactivated sludge with  Fentonpretreatment: effectiveness and statistical optimization.  Frontiers of Environmental Science &Engineering, 2014, 8(2):  267-276. IF,1.799.

117)  Influence of aeration modes on leachatecharacteristic of landfills  that adoptthe aerobic–anaerobic landfill method[J]. Waste Management,  2014, 34(1): 101-111. IF, 3.829.

118)  Indicating landfill stabilization state by usingleachate property from  Laogang RefuseLandfill. Frontiers of Environmental Science &  Engineering, 2014, 8(3): 405-410. IF, 1.799.

119)  Characterization of controlled low-strengthmaterial obtained from  dewatered sludgeand refuse incineration bottom ash: Mechanical and  microstructural perspectives. Journal ofEnvironmental Management, 2013,  129:183-189. IF, 3.131.

120)  Emission characteristics and air–surface exchangeof gaseous mercury at  the largest activelandfill in Asia. Atmospheric Environment, 2013, 79:  188-197. IF, 3.459.

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

122)  Spectroscopic studies of the effect of aerobicconditions on the  chemicalcharacteristics of humic acid in landfill leachate and its  implication for the environment. Chemosphere,2013, 91(7):1058–1063. IF,  3.698.

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

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

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

126)    Complexionbetween mercury and humic substances from different landfill  stabilization processes and its implicationfor the environment.  Journal ofHazardous Materials, 2012, 59-66. IF, 4.836.

127)     Enhancedremoval of carbon dioxide and alleviation of dissolved oxygen  accumulation in photobioreactor with bubbletank. Bioresouce Technology,  2012,360-365. IF, 4.917.

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

129)     Fluorescenceexcitation–emission matrix combined with regional  integration analysis to characterize thecomposition and transformation  of humicand fulvic acids from landfill at different stabilization  stages. Waste Management, 2012, 32(3):438-447. IF, 3.829.

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

131)  Synergeticpretreatment of waste activated sludge by Fe (II)–activated  persulfate oxidation under mild temperaturefor enhanced dewaterabilit.  BioresourceTechnology, 2012, 124: 29-36. IF, 4.917.

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

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

134)   Characteristicsof environmental factors and their effects on CH4 and  CO2 emissions from a closed landfill: anecological case study of  Shanghai. WasteManagement, 2010, 30(3): 446-451. IF, 3.829.

135)   Effect ofbio-column composed of aged refuse on methane abatement–A  novel configuration of biological oxidationin refuse landfill. Journal  ofEnvironmental Sciences, 2010, 22(5): 769-776. IF, 2.208.

136)   Solidphase extraction of trace Hg (II) on silica gel modified with  2-(2-oxoethyl) hydrazine carbothioamide anddetermination by ICP-AES.  Talanta, 2010,82(5): 1791-1796. IF, 4.035.

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

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

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

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

141)   Characteristicsand mobility of heavy metals in an MSW landfill:  Implications in risk assessment andreclamation. Journal of Hazardous Materials, 2007, 144(1): 485-491. IF, 4.836.

142)   Spectroscopicstudies of the progress of humification processes in  humic substances extracted from refuse in alandfill. Chemosphere, 2007,  69(9):1446-1453. IF, 3.698.

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

2、主要学术奖励

1)超大城市高密度既有城区有机更新关键技术及其应用,上海市2019科技进步一等奖;

2) 污泥减量的高效驱水关键技术研究及其成套技术的应用,上海市2019科技进步二等奖;

3) 生活垃圾能源化与资源化利用技术及应用,国家2013年科技进步二等奖;

4) 生活垃圾能源化与资源化利用技术及应用,教育部2012年科技进步一等奖;

5) 大宗碱溶性金属废物碱介质提取技术与产业化应用,上海市2010年技术发明二等奖;

6) 生活垃圾填埋场垃圾与土地利用技术,住房与城乡建设部2008年科技进步奖(华夏奖)三等奖;

7) 垃圾资源化循环利用关键技术与应用,上海市2007年技术发明三等奖;

8) 垃圾生物反应床处理生活垃圾渗滤液工艺及工程应用,2007年高等学校技  术发明二等奖;

9) 大型滩涂型生活垃圾填埋场填埋与运营关键技术研究,上海市2004年科技 进步二等奖。

3、代表性发明专利

1)一种旋流回收HPB中硅藻土颗粒的方法, 2021-08-20 CN112079439B.

2)一种沸石-磁铁矿复合材料、制备方法及其生物脱氮除磷的使用方法, 2021-08-20 CN111875054B.

3)一种利用无机复合粉末载体快速启动厌氧氨氧化的方法, 2021-06-11 CN111892161B.

4)一种聚羟基脂肪酸酯-硅藻土复合材料及制备方法和应用, 2020-11-03 CN111875055A.

5)一种蒙脱石-硫铁矿复合生物载体材料及其制备方法和应用方法, 2021-11-30 CN111875052B.

6)一种粉体强化生化水处理的方法, 2021-08-06 CN110902807B.

7)一种复合载体强化去除污水中重金属的生化处理方法, 2021-06-11 CN111875056B.

8)一种新型复合载体强化去除污水中重金属的生化处理方法, 2020-11-03 CN111875056A.

9)一种粉末载体强化的生化处理集成化装置, 2021-06-11 CN111875057B.

10)一种双泥法生物强化污水处理装置, 2021-05-14 CN111875058B.

11)一种集成化粉体附载强化生化水处理装置, 2021-05-14 CN111875059B.

12)一种生物炭-硅藻土复合材料及制备方法和应用, 2020-11-03 CN111875053A.

13)一种沼液固液分离处理方法, 2020-12-29 CN112142152A.

14)一种污水处理用搅拌装置, 2020-05-01 CN210438480U.

15)一种水体净化方法及系统, 2017-02-08 CN106380002A.

16)一种应用于污水处理的在线改造工艺, 2019-10-11 CN110316914A.

17)一种MBR膜组件, 2021-06-01 CN213326922U.

18)一种污水处理一体化设备, 2021-03-16 CN212712933U.

19)一体化污水处理设备, 2020-11-24 CN306191318S.

20)一种高效连续二沉池固体通量的评估装置, 2021-11-23 CN214844644U.

21)基于煤气化渣基活性炭的原位水体营养盐移除模块系统, 2019-10-29 CN209554993U.

22)一种基于可生物降解静电纺丝缓释材料的固相脱氮装置, 2019-09-10 CN209367929U.

23)太阳能水体底层旋转式改性混合生物填料集成装置, 2019-08-23 CN209292072U.

24)用于预防景观湖泊水体富营养化的收集船, 2019-06-14 CN208981303U.

25)一种基于改性贻贝填料投加碱度的生物脱氮除磷系统, 2019-06-14 CN208980549U.

26)一种污水脱氮除磷用生物处理系统及其应用, 2019-02-19 CN109354341A.

27)一种粉体强化SBR法污水生化处理的方法, 2020-04-21 CN111039394A.

28)一种一体化超微气浮净化系统及其净化景观水体的方法, 2019-02-01 CN105819534B.

29)用于投加湖泊中水污染修复药剂的投置装置, 2019-09-10 CN209367824U.

30)一种高效控制底泥磷释放的复合材料及其制备方法, 2019-04-02 CN109553255A.

31)聚集地表水表面污染物的装置系统, 2019-09-06 CN209353312U.

32)一种自走式微纳米曝气装置, 2019-03-29 CN208667274U.

33)用于气浮浮渣脱水一体设备的泥渣收存输送装置, 2020-02-11 CN110776039A.

34)一种改性缓释净水材料及其制备方法和应用, 2018-02-13 CN107686168A.

35)一种可智能调控的乡村污水收集系统, 2020-02-14 CN210066949U.

36)一种新型处理城镇污水的高浓度粉末载体生物流化床工艺, 2020-06-23 CN110577285B.

37)一种悬挂式机械旋流浓缩器, 2019-12-27 CN209848402U.

38)一种对于非规范处置污泥的稀释调理固化处理方法, 2019-08-06 CN105776785B.

39)污泥深度脱水处理方法, 2021-02-05 CN107673583B.

40)污泥深度脱水处理方法及污泥脱水反应系统, 2018-02-09 CN107673583A.

41)固定化微生物生产设备, 2018-01-23 CN206915835U.

42)微生物固定化设备, 2017-10-03 CN206538410U.

43)固定化微生物生产设备及生产方法, 2017-09-22 CN107188306A.

44)多功能地表水采样器, 2017-08-15 CN206410885U.

45)微生物固定化载体、微生物固定化设备和微生物固定化方法, 2017-05-10 CN106636060A.

46)一种景观水体底泥修复剂、制备及使用方法, 2019-03-08 CN105712599B.

47)一种城镇污水处理用复合粉末载体的制作方法, 2021-01-01 CN110627195B.

48)一种无机复合粉末载体及其在城镇污水处理强化生物脱氮中的应用, 2021-01-01 CN110627226B.

49)一种基于直立挡墙河道移动式曝气装置, 2019-09-20 CN209411903U.

50)改性沸石微球吸附材料及其制备方法和应用, 2018-11-06 CN108745322A.

51)改性阴离子树脂材料及其制备方法和应用, 2020-04-03 CN107583673B.

52)一种用于同步去除碳氮磷的纳米复合材料及其制备方法, 2019-09-27 CN107051377B.

53)一种低碳氮比高氨氮废水的常温处理系统, 2021-10-29 CN214528484U.

54)一种移动式微纳米气泡充氧系统, 2019-06-14 CN208980437U.

55)高效微藻收集装置, 2019-06-14 CN208981302U.

56)一种有机复合粉末载体及其在城镇污水处理强化生物脱氮中的应用, 2021-03-16 CN110668561B.

57)HPB城镇污水处理中复合粉末载体的回收系统, 2020-11-24 CN211999007U.

58)一种污泥分离用旋流分离器及其使用方法, 2021-11-02 CN112587968B.

59)一种用于生物硅藻土混合液中杂质去除的过滤装置, 2021-01-15 CN212347914U.

60)一种基于蛋白质变性剂的污泥脱水调理方法, 2020-12-08 CN112047611A.

61)一种强化污泥三相分离的预处理技术方法, 2020-10-02 CN111732300A.

62)一种基于市政污水处理的污水净化二次利用设备, 2020-11-24 CN211999084U.

63)一种恒温型市政污水处理用立式干燥装置, 2020-05-19 CN210569630U.

64)一种新型的生物滤池反洗布气管道系统和曝气生物滤池, 2020-05-19 CN210559608U.

65)一种洗砂排水槽和曝气生物滤池, 2020-05-19 CN210559609U.

66)一种用于去除含粉末载体的剩余污泥中杂质的过滤装置, 2020-06-16 CN111282797A.

67)一种利用鱼类废料稳定生活垃圾焚烧飞灰中的主要重金属的方法, 2019-04-16 CN109621277A.

68)一种纯化鱼类废料中原形态羟基磷灰石的方法, 2019-01-25 CN109264690A.

69)一种微纳米曝气设备的安装方法, 2020-11-17 CN111943370A.

70)一种提高水热液化制油所得的油品品质的方法及其在污泥水热液化处理的原位控氮中的应用, 2019-11-29 CN110510851A.

71)一种复合水解酶及利用该复合水解酶进行污泥脱水调理的方法, 2020-09-15 CN111662895A.

72)一种调理剂循环利用的污泥深度脱水处理技术方法, 2020-10-02 CN111732322A.

73)一种纳米过氧化钙、制备方法及应用, 2020-12-11 CN112062100A.

74)一种蒙脱石负载型纳米过氧化钙、制备方法及应用, 2020-09-08 CN111635112A.

75)一种利用过氧化钙进行污泥脱水调理的方法, 2020-09-08 CN111635113A.

76)一种去除水体悬浮物的生态系统, 2018-03-13 CN207085480U.

77)一种去除水体悬浮物的生态系统及方法, 2017-12-15 CN107469432A.

78)用于制备固定化微生物的搅拌液压装置, 2018-01-16 CN206887095U.

79)用于制备固定化微生物的搅拌液压装置及方法, 2017-09-19 CN107177480A.

80)一种污水重金属浓度检测前处理装载用具, 2020-08-25 CN211329486U.

81)一种用于离心机的试管夹具, 2020-08-25 CN211329853U.

82)一种污泥检测用瓷坩埚夹取用具, 2020-08-25 CN211347814U.

83)一种污水检测多级前处理系统, 2020-08-25 CN211328301U.

84)一种市政污水检测前置过滤系统, 2020-08-25 CN211338847U.

85)一种污泥浓度快速检测设备系统, 2020-08-25 CN211347610U.

86)一种淤泥污染检测装载用具, 2020-08-25 CN211347809U.

87)一种污泥浓度快速检测设备, 2020-08-25 CN211347609U.

88)一种污水检测样品运输装置, 2020-08-25 CN211336984U.

89)一种污泥检测用预处理装置, 2020-08-25 CN211339231U.

90)一种污水检测用取样装置, 2020-08-25 CN211347547U.

91)一种污泥螺杆泵送装置, 2020-11-24 CN212003748U.

92)生物滤池填料的制备方法和曝气生物滤池, 2020-05-12 CN111137969A.

93)一种挟砂助沉澄清池, 2020-08-25 CN211339080U.

94)一种雨水放江污染的截流污水预处理系统, 2020-08-25 CN211339081U.

95)一种硝化生物滤池, 2020-08-25 CN211338955U.

96)一种污水固体杂质处理装置, 2020-08-25 CN211328325U.

97)一种反硝化滤池, 2020-08-25 CN211338965U.

98)一种雨水管网截流污水的应急处理系统, 2020-08-21 CN211311225U.

99)一种硝化及反硝化一体化设备, 2020-08-21 CN211311226U.

100)一种水样取样瓶及包括该取样瓶的取样器, 2018-08-17 CN207741976U.

101)疏浚底泥用重金属稳定剂及疏浚底泥重金属稳定化方法, 2020-11-17 CN111943465A.

102)一种农村污水处理设备, 2019-08-06 CN209210580U.

103)一种实现生物热靶向回用的高速腐殖质化方法及其装置, 2020-11-27 CN106831032B.

104)一种餐厨垃圾有机酸发酵液改善土壤肥力的方法, 2017-04-26 CN106588140A.

105)一种添加含高腐殖质河道底泥的尾菜好氧腐殖化方法, 2017-06-30 CN106905036A.

106)一种秸秆阴燃及快速腐殖化联合利用方法及其腐殖肥产品, 2021-02-02 CN106905072B.

107)一种建筑废弃物的资源化处理方法, 2019-11-29 CN108585748B.

108)采用再生建筑微粉制备高耐洗刷水性涂料的方法, 2020-06-26 CN109135353B.

109)一种利用菜场尾菜制备土壤保水剂的方法, 2017-06-30 CN106905489A.

110)一种改性缓释净水材料制备方法及其应用(申请号:201610628612);

111)一种一体化超微气浮净化系统(申请号:201620266863.8);

112)一种一体化超微气浮净化系统及其净化景观水体的方法(申请号:201610200211.9);

113)一种景观水体底泥修复剂、制备及使用方法(申请号:201610199954.9);

114)一种用于富营养化水体生态修复的微生物活化方法及系统(申请号:201610031301.X);

115)一种改性聚氨酯悬浮填料、制备方法及其应用(申请号:201510367370.3);

116)一种铝基胶凝固化剂、制备方法及其应用(申请号:201510161480.4);

117)一种疏浚底泥稳定化试剂、制备方法及其应用(申请号:201510109873.0)

118)一种利用餐厨垃圾发酵生产乙酸的方法,2016-01-20,ZL 201410073745.0。

119)一种拆迁废物中有机物的检测方法,2016-01-20,CN201410399655.0。

120)一种高浓度重金属污染建筑废物的处理方法,2016-01-20,CN201410199598.1。

121)一种用于处理渗滤液的颗粒状污泥的培养及驯化方法,2015-08-19, ZL 201410090545.6。

122)一种用填埋污泥焚烧渣处理新鲜絮凝污泥的方法,2015-06-3,专利号:CN201410070134.7。

123)一种添加含铝化合物碱液电解制备超细锌粉的方法,2015-02-18,CN201210249664.2。

124)一种脱水污泥除臭改性及资源化方法,2014-08-13,CN201310057927.4。

125))一种固碳除氧光生物反应器及其应用,2014-06-25,CN201210118574.X。

126)一种同时抽取生活垃圾堆体内填埋气和渗滤液的装置及方法,2014-03-26,CN201410114632.0。

127)一种用于污泥厌氧消化的原位固硫剂及其制备方法和用途2014-01-29,CN 201310475730.2。

128)一种从含铜、锌废物中分离富集铜、锌的方法,2014-01-29,CN201410042951.5

129)一种强化污泥重力浓缩的实现装置及方法,2013-07-3,CN201310277740.8。

130)一种利用垃圾使灰渣脱氯的方法,2013-06-15,CN201110158025.0。

131)一种处理生物污泥的除臭剂、制备方法及其应用,2013-06-5,CN.201110243583.7。

132)用人造海水稳定生活垃圾焚烧飞灰的方法,2012-11-7,CN201010543472.3。

133)一种加强填埋场覆盖层甲烷氧化的方法,2012-05-23,CN201010157441.4。

134)一种添加含铅化合物电解制备超细锌粉的方法,2012-02-16,CN20120034534.7。

135)一种木塑材料及其制作方法,2010-10-6,CN200710039574.X。

136)一种矿化垃圾复合型生物滤床处理禽畜废水的方法,2010-09-22,CN200510110225.3。

137)一种利用风力强化通风减少甲烷排放的填埋方法,2010-07-14,CN200810207705.5。

138)一种以污泥为基的生活垃圾填埋场用的日覆盖层材料,2010-05-5, CN200510030515.7。

139)一种用水泥基复合材料深度净化生活垃圾渗滤液难降解尾水的方法,2010-02-3,CN 200610117163.3。

140)一种塔式矿化垃圾生物反应床处理生活垃圾填埋场渗滤液的方法2010-02-3,CN 200510112117.X。

141)一种用水泥基复合材料深度净化生活垃圾渗滤液难降解尾水的方法,2010-02-3,CN 200610117163.3。

142)矿化垃圾、渗滤液、餐厨垃圾及污泥生产甲烷与氢气的方法,2009-12-30,CN 200810040591.X。

143)利用矿化污泥处理老龄垃圾渗滤液的方法,2009-12-9,CN200710044011.X。

144)一种基于矿化垃圾的复合型水处理剂及其制备方法,2009-12-9,CN200510110224.9。

145)一种矿化垃圾协同泔脚废物和污泥联合产氢的方法,2009-08-26, CN200610027750.3。

146)一种生活垃圾填埋场甲烷氧化覆盖材料,2009-06-24,CN200710040358.7。

147)一种能抑制生活垃圾填埋场甲烷菌活性的添加剂,2009-06-24,CN200710040357.2。

148)一种从生活垃圾中提取塑料的方法,2008-09-10,CN200610117385.5。

149)一种生活垃圾梯度筛分方法,2008-04-30,CN200610027345.1。

 

 


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学校介绍


  同济大学是国家教育部直属重点大学,也是首批被批准成立研究生院、并被列为国家“ 211 工程”和“面向 21 世纪教育振兴行动计划”(985 工程)与上海市重点建设的高水平研究型大学之一。同济大学创建于 1907 年,现已成为拥有理、工、医、文、法、经(济)、管(理)、哲、教(育)9 大门类的研究型、综合性、多功能的现代大学。

  同济大学现设有各类专业学院 22 个,还建有继续教育学院、 职业技术教育学院等,设有经中德政府批准合作培养硕士研究生的中德学院、中德工程学院,与法国巴黎高科大学集团合作举办的中法工程和管理学院等。目前学校共有 81 个本科专业、 140 个硕士点、 7 个硕士专业学位授权点、博士授权点 58 个、 13 个博士后流动站,学校拥有国家级重点学校 10 个。各类学生 5 万多人,教学科研人员 4200 多人,其中有中科院院士 6 人、工程院院士 7 人,具有各类高级职称者 1900 多人,拥有长江学者特聘教授岗位 22 个。作为国家重要的科研中心之一,学校设有国家、省部级重点实验室和工程研究中心等国家科研基地 16 个。学校还设有附属医院和 2 所附属学校。

  近年来同济大学正在探索并逐步形成有自己特色的现代教育思想和办学理念。以本科教育为立校之本,以研究生教育为强校之路。确立“知识、能力、人格”三位一体的全面素质教育和复合型人才培养模式。坚持“人才培养、科学研究、社会服务、国际交往”四大办学功能协调发展,努力强化服务社会的功能,实现大学功能中心化。以国家科技发展战略和地区经济重点需求为指针,促进传统学科高新化、新兴学科强势化、学科交叉集约化。与产业链紧密结合,形成优势学科和相对弱势学科互融共进的学科链和学科群,构建综合性大学的学科体系,其中桥梁工程、海洋地质、城市规划、结构工程、道路交通、车辆工程、环境工程等学科在全国居领先地位。在为国家经济建设和社会发展做贡献的过程中,争取更多的“单项冠军”,提升学校的学术地位和社会声誉。学校正努力建设文理交融、医工结合、科技教育与人文教育协调发展的综合性、研究型、国际知名高水平大学。

  同济大学已建成的校园占地面积 3700 多亩,分五个校区,四平路校区位于上海市四平路,沪西校区位于上海市真南路,沪北校区位于上海市共和新路,沪东校区位于上海市武东路。正在建设中的嘉定校区位于安亭上海国际汽车城内。

  同济大学研究生院简介

  同济大学一贯重视研究生教育,早在 20 世纪 50 年代初即在部分专业招收培养研究生。 1978 年学校恢复招收硕士研究生, 1981 年起招收博士研究生,同年被国务院学位委员会批准为首批有权授予博士、硕士学位的单位。 1986 年经国务院批准试办研究生院, 1996 年经评估正式成立研究生院,成为我国培养高层次专门人才的重要基地之一。同济大学现有一级学科博士学位授权点 12 个,二级学科博士学位授权点 68 个(含自主设置 10 个二级学科博士点),硕士学位授权点 147 个(含自主设置 7 个二级学科硕士点),分属哲学、经济学、法学、教育学、文学、理学、工学、医学、管理学等 9 个学科门类。其中土木工程、建筑学、交通运输工程、海洋科学、环境科学与工程、力学、材料科学与工程等学科处在全国优势和领先地位,机电、管理、理学等学科近年有了长足进展。我校还设有 13 个博士后科研流动站。近些年来,为了适应我国经济建设和社会发展的需要,学校还十分注重培养不同类型、多个层次、多种规格的高层次专门人才。学校既设科学学位,又设工商管理、行政管理、建筑学、临床医学、工程硕士(含 21 个工程领域)、口腔医学等多种专业学位;既培养学术型、研究型研究生,又培养应用型、复合型专业学位研究生;既有在校全日制攻读学位模式,又有在职人员攻读专业硕士学位或以同等学力申请硕士学位、中职教师在职攻读硕士学位、高校教师在职攻读硕士学位模式。此外,还面向社会举办多种专业研究生课程进修班等,充分发挥了我校学科优势和特色,由此形成了多渠道、多规格、多层次的办学模式,取得了良好的社会效益。

  同济大学研究生院是校长领导下具有相对独立职能的研究生教学和行政管理机构,下设招生办公室、管理处、培养处、学位办公室、学科建设办公室和行政办公室。同时,学校党委还专门设立了研究生工作部。学校设有校学位评定委员会,各学院有学位评定分委员会,并设立了各学科、专业委员会,配有学位管理工作秘书、教务员、班主任、研究生教学秘书等教辅人员。研究生院曾多次被评为全国和上海市学位与研究生教育管理工作先进集体。

  二十多年来,同济大学始终把全面提高培养质量作为研究生教育改革的指导思想,在严格质量管理方面采取了一系列切实有效的措施,取得了较好效果。在连续多年全国百篇优秀博士学位论文评选中,有 7 篇入选。同济大学为国家培养了一大批高素质的高级专门人才,至今已授予博士学位 1311 人,硕士学位近 9504 人,其中有相当一部分已成为我国社会主义现代化建设的重要骨干力量。至 2004 年 9 月,在校博士、硕士研究生约达 11000 多人,专业学位硕士生约 2700 人。根据本校研究生教育发展规划, 2006 年计划招收博士生、硕士生(含专业学位研究生)超过 4000 名。同济大学正在为我国经济建设和社会发展输送高层次人才做出更大的贡献。

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同济大学硕士研究生学费及奖助政策

收费和奖励

1) 按照国务院常务会议精神,从 2014 年秋季学期起,向所有纳入国家招生计划的新入学研究生收取学费。其中:工程管理硕士(125600)、MBA[微博](125100)、MPA(125200)、法律硕士(非法学)(035101)、软件工程领域工程硕士(085212)、金融硕士(025100)、会计硕士(125300)、翻译硕士(055101、055109)、护理硕士(105400)、教育硕士(045100)、汉语国际教育硕士(045300)、人文学院(210)的艺术硕士(135108)专业学位研究生的学费标准另行公布,其它硕士研究生学费不超过 8000 元/学年。

2) 对非定向就业学术型研究生和非定向就业专业学位硕士研究生,同济大学有完善的奖励体系(工程管理硕士(125600)、MBA(125100)、MPA(125200)、法律硕士(非法学)(035101)、软件工程硕士(085212)、金融硕士(025100)、会计硕士(125300)、翻译硕士(055101、055109)、护理硕士(105400)、教育硕士(045100)、汉语国际教育硕士(045300)、人文学院(210)的艺术硕士(135108)的奖励由培养单位另行制订)。对亍纳入奖励体系的非定向就业学术型硕士生和非定向就业专业学位硕士生在入学时全部都可以获得 8000 元/学年的全额学业奖学金,该奖学金用以抵充学费。对纳入奖励体系的硕士研究生还可获得不少亍 600 元/月的励学金,每年发放10 个月。另外,纳入奖励体系的非定向就业研究生都可以申请励教和励管的岗位,获得额外的资励。所有非定向就业硕士研究生在学期间纳入上海市城镇居民基本医疗保险,可申请办理国家励学贷款,可参加有关专项奖学金评定。

3)工商管理硕士在职班、金融硕士在职班、公共管理硕士、工程管理硕士、会计硕士、护理硕士、教育硕士、汉语国际教育硕士、人文学院的艺术硕士采取在职学习方式,考生录取后,人事关系不人事档案不转入学校,在读期间不参加上海市大学生医疗保障,学校不安排住宿,毕业时不纳入就业计划。

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