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2016
DOI: 10.1007/s11442-016-1306-z
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Hydrological monitoring and seasonal forecasting: Progress and perspectives

Abstract: Hydrological monitoring and seasonal forecasting is an active research field because of its potential applications in hydrological risk assessment, preparedness and mitigation. In recent decades, developments in ground and satellite measurements have made the hydrometeorological information readily available, and advances in information technology have facilitated the data analysis in a real-time manner. New progress in climate research and modeling has enabled the prediction of seasonal climate with reasonabl… Show more

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Cited by 25 publications
(10 citation statements)
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References 130 publications
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“…Apart from enhancing the skill from weather or climate forecast, the increased skill of hydrological forecast likely necessitates improved precipitation estimation and initial hydrological conditions (Shukla et al, ; van Dijk et al, ). Data assimilation (DA) provides a useful method in this regard to merge different observations with model simulations to provide accurate initial conditions for hydroclimatic forecasting (including drought prediction) (Kumar et al, ; Liu et al, ; Tang et al, ). A variety of land data assimilation systems (LDAS) have been developed in recent decades, such as the NLDAS in the United States (Mitchell et al, ; Xia, Peters‐Lidard, et al, ; Xia, Ek, et al, ) and the Global Land Data Assimilation System (GLDAS) (Rodell et al, ), and they play an important role in drought early warning.…”
Section: Future Prospectsmentioning
confidence: 99%
“…Apart from enhancing the skill from weather or climate forecast, the increased skill of hydrological forecast likely necessitates improved precipitation estimation and initial hydrological conditions (Shukla et al, ; van Dijk et al, ). Data assimilation (DA) provides a useful method in this regard to merge different observations with model simulations to provide accurate initial conditions for hydroclimatic forecasting (including drought prediction) (Kumar et al, ; Liu et al, ; Tang et al, ). A variety of land data assimilation systems (LDAS) have been developed in recent decades, such as the NLDAS in the United States (Mitchell et al, ; Xia, Peters‐Lidard, et al, ; Xia, Ek, et al, ) and the Global Land Data Assimilation System (GLDAS) (Rodell et al, ), and they play an important role in drought early warning.…”
Section: Future Prospectsmentioning
confidence: 99%
“…Decision support systems for drought forecasting are also emerging as useful tools in terms of issuing early warnings, assessing risk, and taking precautionary measures. As different factors exert direct and indirect influences on the occurrence of drought events, quantification and prediction of drought is challenging (DeChant & Moradkhani, 2015;Tang et al, 2009Tang et al, , 2016Touma, Ashfaq, Nayak, Kao, & Diffenbaugh, 2015). Hence, drought forecasting is often interlinked with decision support systems for the implementers and users on the ground.…”
Section: Drought Forecasting/predictionmentioning
confidence: 99%
“…For floods, data on riverine flows and inundated areas are required to assess impacts. For early warning, short‐term and seasonal forecasts of hydrologic variables and potential agricultural impacts are also necessary to provide the lead time to enact measures to reduce impacts, and these forecasts need to be initialized and verified with observational data (Sheffield et al, ; Tang et al, ; Yuan et al, ). At the same time, long‐term, multisite time series (several decades) of relevant variables are required to estimate risk of flood/drought hazards as inputs into resource utilization and design of infrastructure for reduction of the hazard itself and mitigation of impacts (e.g., Serinaldi & Kilsby, ).…”
Section: Introductionmentioning
confidence: 99%