[1] 章申.环境问题的由来、过程机制、我国现状和环境科学发展趋势.中国环境科学,1996,16(6):401~405.
[2] Hop kinson C S,Vallino J J. The relationship s among mans activities in watersheds and est uaries a model of runoffeffect s on patterns of est uarine co mmunit y metabolism. Estuaries,1995,18(4):598~621.
[3] Yan W J,et al. Nut rient retention by multi2pond systems:Mechanisms for t he cont rol of nonpoint source pollu-tion. J. Environ. Qual.,1998,27(5):1009~1017.
[4] Goolsby D A,Battaglin W A. Long2term changes in concent rations and flux of nit rogen in t he Mississippi RiverBasin,U SA. Hydrol. Process,2001,15(7):1209~1226.
[5] Howart h R W,et al. Regional nit rogen budget s and riverine N&P fluxes for t he drainages to t he Nort h AtlanticOcean:nat ural and human influences. Biogeochemistry,1996,35(1):75~139.
[6] Yan W J,et al. How do nit rogen inp ut s to t he Changjiang basin impact t he Changjiang River nit rate. Global Bio.geochem. Cycles,2003,17(4):1091.
[7] Gallaway J N,et al. Nit rogen cycles:past,p resent and f ut ure. Biogeochemist ry. 2004,70(2):153~226.
[8] Seitzinger S P,et al1 Global patterns of dissolved inorganic and particulate nit rogen input s to coastal systems:re2cent conditions and f ut ure p rojections1 Estuaries,2002,25(4b):640~655.
[9] Turner R E,et al. Global pat terns of dissolved N,P and Si in large rivers. Biogeochemist ry,2003,64(3):297~317.
[10] Brimblecombe P,Steadman D H1 Historical evidence for a dramatic increase in t he nit rate component of acid rain1Nat ure,1982,298:460~462.
[11] Nixon S W. Coastal marine eut rop hication:a definition,social causes and f ut ure consequences. Op helia,1995,41:199~219.
[12] Matt hews E. Nit rogenous fertilizers:Global dist ribution of consumption and associated emissions of nit rous oxideand ammonia. Global Biogeochem. Cycles,1994,8(4):411~439.
[13] Seitzinger S P,Kroeze C. Global dist ribution of nit rous oxide p roduction and N inp ut s in f reshwater and coastalmarine eco systems. Global Biogeochem. Cycles,1998,2(1):93~113.
[14] Martin R E. Secular increase in nut rient levels t hrough t he Phanerozoic:implications for productivit y,biomass,and diversit y of t he marine bio sp here. Palaios,1996,11:209~219.
[15] Moffat A S. Global nit rogen overload problem grows critical. Science,1998,279:988~989.
[16] Munn T,Whyte A. Timmerman P. Emerging environmental issues:a global perspective of SCOP E. Ambio,1999,28(6):464~471.
[17] Vitousek P,et al. Human alterations of t he global nit rogen cycle:sources and consequences. Ecological Applica2tions,1997,7(3):737~750.
[18] Henriksen A,Hessen D O1 Whole catchment st udies on nit rogen cycling:nit rogen f ro m mountains to fjords1 Am2bio,1997,26(5):254~257.
[19] Meybeck M. Carbon,nit rogen,and p ho sp horus t ransport by world river s. Am.J. Science,1982,282:401~450.
[20] Peierls B L,et al. Human influence on river nit rogen. Nat ure,1991,350:386~387.
[21] V r smart y C J,et al. Global system of river s:it s role in organizing continental land mass and defining land2to2o2cean linkages. Global Biogeochem. Cycles,2000,14(2):599~621.
[22] V r smart y C J,Meybeck M M1 Riverine t ransport and it s alteration by human activities1 I GBP Global ChangeNewsletter,1999,39:24~29.
[23] Galloway J N,et al. Nit rogen fixation:ant hrogenic enhancement2environmental response. Global Biogeochem. Cy2cles,1995,9(2):235~252.
[24] Delaney M L. Phosp horus accumulation in marine sediment s and t he oceanic p ho sp horus cycle. Global Biogeo chem. Cycles,1998,12(4):563~572.
[25] V r smart y C J,et al. Ant hropogenic sediment retention:major global impact f ro m registered impoundment s.Global and Planetary Change,2003,39:169~190.
[26] Turner R E,et al. Fluct uating silicate:nit rate ratio s and coastal plankton food webs. Ecology,1998,95(22):13048~1305..
[27] Bouwman A F,et al. Emissions of N2 O and NO f ro m fertilized fields:summary of available measurement data.Global Biogeochem. Cycles,2002,16(4):1058.
[28] Bouwman A F,et al. Estimation of global N H3 volatilization lo ss f ro m synt hetic fertilizers and animal manure ap2plied to arable lands and grasslands. Global Biogeochem. Cycles,2002,16(2):1024.
[29] Bouwman A F,et al. Modeling global annual N2 O and NO emissions f ro m fertilized fields. Global Biogeochem.Cycles,2002,16(4):1080.
[30] Bouwman A F,et al. A global high2resolution emission inventory for ammonia. Global Biogeochem. Cycles,1997,11:561~587.
[31] Dentener F. Global patterns and magnit udes of nit rogen depo sition,a revised app roach. Global Biogeochem. Cy2cles,Global News special issue,2005,(In Press)
[32] Van Drecht G,et al. Global modeling of t he fate of nit rogen f ro m point and nonpoint sources in soils,groundwaterand surface water. Global Biogeochem. Cycles,2003,17:1115.
[33] Galloway J N,Cowling E B. Reactive nit rogen and t he world:200 years of change. Ambio,2002,31:97~101.
[34] Caraco N F,Cole J J. Human impact on nit rate export:an analysis using major world rivers. Ambio,1999,28(2):167~170.
[35] Smit h S V,et al. Humans,hydrology,and t he dist ribution of inorganic nut rient loading to t he ocean. Bioscience,2003,53:235~245.
[36] Green P A,et al1 Pre2indust rial and contemporary fluxes of nit rogen t rough rivers:A global assessment based ontopology1 Biogeochemistry,2004,68:71~105.
[37] L udwig W,Probst J L. Predicting t he oceanic inp ut of organic carbon by continental ero sion. Global Biogeochem.Cycles,1996,10:23~41.
[38] L udwig W,Probst J L. River sediment discharge to t he oceans:Present day cont rols and global budget s. Ameri2can Journal of Science,1998,298:265~295.
[39] Fekete B M,et al. High2resolution fields of global runoff co mbining observed river discharge and simulated waterbalances. Global Biogeochem. Cycles,2002,16(3):1042.
[40] New M,et al. Rep resenting t wentiet h2cent ury space2time climate variabilit y. Part I:Develop ment of a 1961290mean mont hly terrest rial climatology1 Journal of Climate,1999,12(3):829~856.
[41] Batjes N H. A world dataset of derived soil p roperties by FAO2UN ESCO soil unit for global modeling. Soil U seand Management,1997,13:9~16.
[42] 许炯心.流域降水和人类活动对黄河入海泥沙通量的影响.海洋学报,2003,25(5):125~135.
[43] Wischmeier W H,Smit h D D. Predicting rainfall ero sion lo sses:a guide to conservation planning. U SDA,Agri2cult ural Handboo k No1537,Government Printing Office,Washington,DC1 1978.
[44] Robinson A R. Sediment yield as a f unction of up st ream erosion. In:Perterson A E,et al.(eds). Universal SoilLo ss Equation:past,present and f ut ure. Soil Science Society of American,Wisconsin. 1979.
[45] 高全洲,沈承德1河流碳通量与陆地侵蚀研究1地球科学进展,1998,13(4):369~375.
[46] Meybeck M,Ragu A. River discharges to oceans:An assessment of suspended solids,major ions and nut rient s,report,245 pp.,U. N. Environ. Programme(UN EP),Nairobi. 1995.
[47] Ittekkot V,Zhan S. Pattern of particulate nit rogen t ransport in world rivers. Global Biogeochem. Cycles,1989,3:383~391.
[48] Beusen A H W,et al. Estimation of global river t ransport of sediment s and associated particulate C,N,and P.Global Biogeochem. Cycles,2005,19,GB4S05,doi:1011029/2005 GB002453.
[49] United States Geological Survey,Data Fro m Selected U. S. Geological Survey National St ream Water2Qualit y Mo2nitoring Net works(WQN)
[CD2ROM],Dig. Data Ser.,DDS237,U. S. Geol. Surv.,Denver,Colo.,.996.
[50] Caraco N F,et al. Global patterns and sources of dissolved organic matter export to t he coastal zone:Result s f ro ma spatially explicit,global model. Global Biogeochem. Cycles,2005,doi:101 1029/2005 GB002480.
[51] Conley D J. Riverine cont ribution of biogenic silica to t he oceanic silica budget. Limnol Oceanogr.,1997,42:774~777.
[52] Conley D J. Terrest rial ecosystems and t he global biogeochemical silica cycle. Global Biogeochem. Cycles,2002,16:1121.
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