4.7 Article

Data-driven models of groundwater salinization in coastal plains

期刊

JOURNAL OF HYDROLOGY
卷 531, 期 -, 页码 187-197

出版社

ELSEVIER
DOI: 10.1016/j.jhydrol.2015.07.045

关键词

Statistical model; Aquifer management; Time series; Data analysis

资金

  1. Universita di Bologna RFO (Ricerca Fondamentale Orientata)
  2. Air Force Office of Scientific Research [FA9550-12-1-0185]
  3. National Science Foundation [EAR-1246315]
  4. Division Of Earth Sciences
  5. Directorate For Geosciences [1246315] Funding Source: National Science Foundation

向作者/读者索取更多资源

Salinization of shallow coastal aquifers is particularly critical for ecosystems and agricultural activities. Management of such aquifers is an open challenge, because predictive models, on which science-based decisions are to be made, often fail to capture the complexity of relevant natural and anthropogenic processes. Complicating matters further is the sparsity of hydrologic and geochemical data that are required to parameterize spatially distributed models of flow and transport. These limitations often undermine the veracity of modeling predictions and raise the question of their utility. As an alternative, we employ data-driven statistical approaches to investigate the underlying mechanisms of groundwater salinization in low coastal plains. A time-series analysis and auto-regressive moving average models allow us to establish dynamic relations between key hydrogeological variables of interest. The approach is applied to the data collected at the phreatic coastal aquifer of Ravenna, Italy. We show that, even in absence of long time series, this approach succeeds in capturing the behavior of this complex system, and provides the basis for making predictions and decisions. (C) 2015 Elsevier B.V. All rights reserved.

作者

我是这篇论文的作者
点击您的名字以认领此论文并将其添加到您的个人资料中。

评论

主要评分

4.7
评分不足

次要评分

新颖性
-
重要性
-
科学严谨性
-
评价这篇论文

推荐

Article Engineering, Civil

Combined Management of Groundwater Resources and Water Supply Systems at Basin Scale Under Climate Change

Giada Felisa, Giulio Panini, Pietro Pedrazzoli, Vittorio Di Federico

Summary: Water stress conditions associated with population growth, climate change, and groundwater contamination require increasing the resilience and sustainability of water supply systems. This can be achieved through a comprehensive approach that combines groundwater models and water management models to assess water availability and develop effective management strategies.

WATER RESOURCES MANAGEMENT (2022)

Article Mechanics

Drainage of power-law fluids from fractured or porous finite domains

Farhad Zeighami, Alessandro Lenci, Vittorio Di Federico

Summary: We developed a sharp-interface model to study the propagation of buoyancy-driven flow in fractured and porous media. The model takes into account the effects of spatial heterogeneity and fluid rheology. The flow behavior is described using self-similar solutions and nonlinear ordinary differential equations. The results show that the flow shape is influenced by the rheological index and the spatial variability of the aperture, and the residual liquid mass exhibits a negative power-law behavior with time, dependent on the rheological index and the aperture variation.

JOURNAL OF NON-NEWTONIAN FLUID MECHANICS (2022)

Article Engineering, Civil

Uncertainty quantification and global sensitivity analysis of seismic metabarriers

Farhad Zeighami, Leonardo Sandoval, Alberto Guadagnini, Vittorio Di Federico

Summary: Seismic metabarriers are designed to reduce ground-induced vibrations and protect vulnerable structures from seismic surface waves by using an array of locally resonant elements. This study investigates the influence of three key mechanical parameters (soil density, soil shear modulus, and resonator mass) on the seismic isolation performance of the metabarrier. Global sensitivity analysis techniques are employed to quantify the uncertainties associated with these parameters. The results show that the shear modulus has the most significant influence on the transmission coefficient of the metabarrier across the entire frequency range of interest.

ENGINEERING STRUCTURES (2023)

Article Physics, Applied

Discovery of sparse hysteresis models for piezoelectric materials

Abhishek Chandra, Bram Daniels, Mitrofan Curti, Koen Tiels, Elena A. Lomonova, Daniel M. Tartakovsky

Summary: This article presents an approach for modelling hysteresis in piezoelectric materials using sparse regression techniques. The study demonstrates the efficiency and accuracy of the proposed approach through numerical experiments and comparisons with traditional regression-based and neural network methods. The source code is available for further exploration and implementation.

APPLIED PHYSICS LETTERS (2023)

Article Electrochemistry

Screening of Electrolyte-Anode Buffers to Suppress Lithium Dendrite Growth in All-Solid-State Batteries

Weiyu Li, Hamdi A. Tchelepi, Daniel M. Tartakovsky

Summary: The study analyzed the role of buffer layer materials in lithium batteries and identified the conditions under which the buffer layer stabilizes electrodeposition and suppresses dendrite growth. The model predicted the effectiveness of several prospective buffer materials in stabilizing electrodeposition and suppressing dendrite growth, which was consistent with experimental findings. This has important implications for guiding the experimental and computational discovery of new buffer materials.

JOURNAL OF THE ELECTROCHEMICAL SOCIETY (2023)

Article Environmental Sciences

Fast and Accurate Estimation of Evapotranspiration for Smart Agriculture

Weiyu Li, Daniel M. Tartakovsky

Summary: Accurately estimating evapotranspiration is crucial for smart agriculture and sustainable groundwater management. We present novel methods, EnKF and MLE, that can infer spatially varying ET rates and root water uptake profiles from soil-moisture measurements. Our methods accurately estimate total ET rates and root-uptake profiles in a drip irrigation setting and are up to two orders of magnitude faster than the standard EnKF.

WATER RESOURCES RESEARCH (2023)

Article Mathematics, Applied

Parsimonious models of in-host viral dynamics and immune response

Hannah Lu, Francesco Giannino, Daniel M. Tartakovsky

Summary: Mathematical models play a key role in estimating patient-specific initial viral load, predicting the course of infection, etc. The development of COVID-19 pandemics has led to increasingly complex models. We found that the widely used Target Cell Limited model fails the identifiability test, but we propose an identifiable and parsimonious model that matches observations and predictions of more complex counterparts.

APPLIED MATHEMATICS LETTERS (2023)

Article Computer Science, Interdisciplinary Applications

DRIPS: A framework for dimension reduction and interpolation in parameter space

Hannah Lu, Daniel M. Tartakovsky

Summary: DRIPS is a new model reduction framework that combines offline local model reduction with online parameter interpolation. By using dynamic mode decomposition to build a low-rank linear surrogate model, it is able to directly model quantities of interest and has higher computational efficiency compared to traditional proper orthogonal decomposition methods.

JOURNAL OF COMPUTATIONAL PHYSICS (2023)

Article Electrochemistry

Effective Models of Heat Conduction in Composite Electrodes

Weiyu Li, Daniel M. Tartakovsky

Summary: This study presents a homogenized thermal model for a spherical active particle coated with a carbon binder domain (CBD) immersed in a liquid electrolyte. The model replaces the composite particle with a homogeneous particle with equivalent thermal conductivity, preserving the amount of released heat at the solid/electrolyte interface. This analytical expression for thermal conductivity can be readily integrated into thermal simulations, providing a means to account for CBD in battery design and management models.

JOURNAL OF THE ELECTROCHEMICAL SOCIETY (2023)

Article Mechanics

Gravity flow in rock fractures with substrate and edge drainage

N. Merli, S. Longo, L. Chiapponi, V. Di Federico

Summary: This study investigates the impact of fluid rheology on flow in a finite rock fracture with varying aperture and competing drainage mechanisms. The flow is caused by the release of fluid, with rheology options including Newtonian, Ostwald-deWaele, or Herschel-Bulkley fluids. The Hele-Shaw analogy allows extending these findings to porous media. The results show that various factors, such as fluid rheology, fracture geometry, and ambient depth, affect the profile of the current and volume remaining in the fracture, with drainage times varying significantly. The theoretical model is validated through experiments, demonstrating good agreement between theory and experimental results.

PHYSICS OF FLUIDS (2023)

Article Energy & Fuels

Uncertain characterization of reservoir fluids due to brittleness of equation of state regression

Livia Paiva Fulchignoni, Daniel M. Tartakovsky

Summary: Equations of state (EoS) are crucial for modeling fluid mixtures' phase equilibrium, but their parameterization involves fitting models to experimental data via nonlinear, non-convex, multivariate optimization. We show that subjective choices of optimization algorithms and initial guesses impact EoS predictions, resulting in fundamental uncertainties even after tuning to limited experimental data. Using two hydrocarbon reservoir fluids as examples, we demonstrate dramatic differences in predicting the fluids' thermophysical behavior in unsampled pressure and temperature regions depending on EoS parameterizations. We propose a probabilistic treatment of design variables to quantify the predictive uncertainty of resulting fluid models.

GEOENERGY SCIENCE AND ENGINEERING (2023)

Article Energy & Fuels

Probabilistic forecasting of cumulative production of reservoir fluid with uncertain properties

Livia Paiva Fulchignoni, Christiano Garcia da Silva Santim, Daniel M. Tartakovsky

Summary: Offshore development requires significant investments that are subject to multiple uncertainties. Quantifying the uncertainties in reservoir production predictions and project revenue can mitigate risks and enable more informed business decisions.

GEOENERGY SCIENCE AND ENGINEERING (2023)

Article Physics, Fluids & Plasmas

Effective conductivity of inertial flows through porous media

Gerardo Severino, Francesco Giannino, Francesco De Paola, Vittorio Di Federico

Summary: We investigate 2D incompressible inertial flows through porous media and find that the constitutive, nonlinear model can be transformed into a linear one by introducing a new parameter K* encompassing all inertial effects at small scales. For naturally occurring formations at large scales, K* varies erratically, and we analytically compute its counterpart, termed generalized effective conductivity, using the self-consistent approach (SCA). Despite its approximate nature, SCA yields simple results that agree well with Monte Carlo simulations.

PHYSICAL REVIEW E (2023)

Article Computer Science, Interdisciplinary Applications

Feature-informed data assimilation

Apoorv Srivastava, Wei Kang, Daniel M. Tartakovsky

Summary: This paper introduces a mathematical formulation of feature-informed data assimilation (FIDA), which utilizes the information about feature events in dynamical systems to estimate state variables and unknown parameters. The observation operator in FIDA is a set-valued functional, which is different from conventional data assimilation. Through three numerical experiments, FIDA's ability to estimate model parameters from noisy observations is demonstrated.

JOURNAL OF COMPUTATIONAL PHYSICS (2023)

Article Mathematics, Applied

POLYNOMIAL CHAOS EXPANSIONS FOR STIFF RANDOM ODEs

Wenjie Shi, Daniel M. Tartakovsky

Summary: The study investigates the impact of stiffness of random ODEs on gPC performance and introduces gPC with parallel MIRK schemes to solve random stiff ODEs. The stiffness analysis and computational experiments validate the feasibility and effectiveness of the method in solving random ODEs.

SIAM JOURNAL ON SCIENTIFIC COMPUTING (2022)

Article Engineering, Civil

Reconstructing high-resolution groundwater level data using a hybrid random forest model to quantify distributed groundwater changes in the Indus Basin

Arfan Arshad, Ali Mirchi, Javier Vilcaez, Muhammad Umar Akbar, Kaveh Madani

Summary: High-resolution, continuous groundwater data is crucial for adaptive aquifer management. This study presents a predictive modeling framework that incorporates covariates and existing observations to estimate groundwater level changes. The framework outperforms other methods and provides reliable estimates for unmonitored sites. The study also examines groundwater level changes in different regions and highlights the importance of effective aquifer management.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Hydrological modelling of large-scale karst-dominated basin using a grid-based distributed karst hydrological model

Lihua Chen, Jie Deng, Wenzhe Yang, Hang Chen

Summary: A new grid-based distributed karst hydrological model (GDKHM) is developed to simulate streamflow in the flood-prone karst area of Southwest China. The results show that the GDKHM performs well in predicting floods and capturing the spatial variability of karst system.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Using a physics-based hydrological model and storm transposition to investigate machine-learning algorithms for streamflow prediction

Faruk Gurbuz, Avinash Mudireddy, Ricardo Mantilla, Shaoping Xiao

Summary: Machine learning algorithms have shown better performance in streamflow prediction compared to traditional hydrological models. In this study, researchers proposed a methodology to test and benchmark ML algorithms using artificial data generated by physically-based hydrological models. They found that deep learning algorithms can correctly identify the relationship between streamflow and rainfall in certain conditions, but fail to outperform traditional prediction methods in other scenarios.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Uncertainty separation of drought projection in the 21st century using SMILEs and CMIP6

Yadong Ji, Jianyu Fu, Bingjun Liu, Zeqin Huang, Xuejin Tan

Summary: This study distinguishes the uncertainty in drought projection into scenario uncertainty, model uncertainty, and internal variability uncertainty. The results show that the estimation of total uncertainty reaches a minimum in the mid-21st century and that model uncertainty is dominant in tropical regions.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Quantifying the natural flood management potential of leaky dams in upland catchments, Part II: Leaky dam impacts on flood peak magnitude

Z. R. van Leeuwen, M. J. Klaar, M. W. Smith, L. E. Brown

Summary: This study quantifies the effectiveness of leaky dams in reducing flood peak magnitude using a transfer function noise modelling approach. The results show that leaky dams have a significant but highly variable impact on flood peak magnitude, and managing expectations should consider event size and type.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Forecasting and optimization for minimizing combined sewer overflows using Machine learning frameworks and its inversion techniques

Zeda Yin, Yasaman Saadati, M. Hadi Amini, Linlong Bian, Beichao Hu

Summary: Combined sewer overflows pose significant threats to public health and the environment, and various strategies have been proposed to mitigate their adverse effects. Smart control strategies have gained traction due to their cost-effectiveness but face challenges in balancing precision and computational efficiency. To address this, we propose exploring machine learning models and the inversion of neural networks for more efficient CSO prediction and optimization.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Characterizing nitrogen dynamics and their response to sediment dredging in a lowland rural river

Qimou Zhang, Jiacong Huang, Jing Zhang, Rui Qian, Zhen Cui, Junfeng Gao

Summary: This study developed a N-cycling model for lowland rural rivers covered by macrophytes and investigated the N imports, exports, and response to sediment dredging. The findings showed a considerable N retention ability in the study river, with significant N imports from connected rivers and surrounding polders. Sediment dredging increased particulate nitrogen resuspension and settling rates, while decreasing ammonia nitrogen release, denitrification, and macrophyte uptake rates.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Using a two-step downscaling method to assess the impact of climate change on total nitrogen load in a small basin

Xue Li, Yingyin Zhou, Jian Sha, Man Zhang, Zhong-Liang Wang

Summary: High-resolution climate data is crucial for predicting regional climate and water environment changes. In this study, a two-step downscaling method was developed to enhance the spatial resolution of GCM data and improve the accuracy for small basins. The method combined medium-resolution climate data with high-resolution topographic data to capture spatial and temporal details. The downscaled climate data were then used to simulate the impacts of climate change on hydrology and water quality in a small basin. The results demonstrated the effectiveness of the downscaling method for spatially differentiated simulations.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Permafrost on the Tibetan Plateau is degrading: Historical and projected trends

Tongqing Shen, Peng Jiang, Jiahui Zhao, Xuegao Chen, Hui Lin, Bin Yang, Changhai Tan, Ying Zhang, Xinting Fu, Zhongbo Yu

Summary: This study evaluates the long-term interannual dynamics of permafrost distribution and active layer thickness on the Tibetan Plateau, and predicts future degradation trends. The results show that permafrost area has been decreasing and active layer thickness has been increasing, with an accelerated degradation observed in recent decades. This has significant implications for local water cycle processes, water ecology, and water security.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Quantifying precipitation moisture contributed by different atmospheric circulations across the Tibetan Plateau

Chi Zhang, Xu Zhang, Qiuhong Tang, Deliang Chen, Jinchuan Huang, Shaohong Wu, Yubo Liu

Summary: Precipitation over the Tibetan Plateau is influenced by systems such as the Asian monsoons, the westerlies, and local circulations. The Indian monsoon, the westerlies, and local circulations are the main systems affecting precipitation over the entire Tibetan Plateau. The East Asian summer monsoon primarily affects the eastern Tibetan Plateau. The Indian monsoon has the greatest influence on precipitation in the southern and central grid cells, while the westerlies have the greatest influence on precipitation in the northern and western grid cells. Local circulations have the strongest influence on the central and eastern grid cells.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

A methodology to improve the accuracy of Total phosphorous diffuse load estimates from agroforestry watersheds

Manuel Almeida, Antonio Rodrigues, Pedro Coelho

Summary: This study aimed to improve the accuracy of Total Phosphorus export coefficient models, which are essential for water management. Four different models were applied to 27 agroforestry watersheds in the Mediterranean region. The modeling approach showed significant improvements in predicting the Total Phosphorus diffuse loads.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Prediction of dissolved organic nitrogen via spectroscopic fingerprint in the shallow riverbed sediments of effluent-dominated rivers: A case study in Xi'an, northwest China

Yutao Wang, Haojie Yin, Ziyi Wang, Yi Li, Pingping Wang, Longfei Wang

Summary: This study investigated the distribution and transformation of dissolved organic nitrogen (DON) in riverbed sediments impacted by effluent discharge. The authors found that the spectral characteristics of dissolved organic matter (DOM) in surface water and sediment porewater could be used to predict DON variations in riverbed sediments. Random forest and extreme gradient boosting machine learning methods were employed to provide accurate predictions of DON content and properties at different depths. These findings have important implications for wastewater discharge management and river health.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Uncertainty analysis of 100-year flood maps under climate change scenarios

Saba Mirza Alipour, Kolbjorn Engeland, Joao Leal

Summary: This study assesses the uncertainty associated with 100-year flood maps under different scenarios using Monte Carlo simulations. The findings highlight the importance of employing probabilistic approaches for accurate and secure flood maps, with the selection of probability distribution being the primary source of uncertainty in precipitation.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Hydrological consequences of controlled drainage with subirrigation

Janine A. de Wit, Marjolein H. J. van Huijgevoort, Jos C. van Dam, Ge A. P. H. van den Eertwegh, Dion van Deijl, Coen J. Ritsema, Ruud P. Bartholomeus

Summary: The study focuses on the hydrological consequences of controlled drainage with subirrigation (CD-SI) on groundwater level, soil moisture content, and soil water potential. The simulations show that CD-SI can improve hydrological conditions for crop growth, but the success depends on subtle differences in geohydrologic characteristics.

JOURNAL OF HYDROLOGY (2024)

Article Engineering, Civil

Understanding the global success criteria for managed aquifer recharge schemes

Constantin Seidl, Sarah Ann Wheeler, Declan Page

Summary: Water availability and quality issues will become increasingly important in the future due to climate change impacts. Managed Aquifer Recharge (MAR) is an effective water management tool, but often overlooked. This study analyzes global MAR applications and identifies the key factors for success, providing valuable insights for future design and application.

JOURNAL OF HYDROLOGY (2024)