Advances in Hydroscience, Volume 11 -1978 covers topics on the progressive development in water science, including stochastic hydrology, the numerical analysis for hydrodynamic modeling, solid-state hydrology, and subsurface waters. The book presents topics on the theory and examples to model lumped quasi-stochastic and stochastic watershed systems; the progress made in the area of multidimensional numerical modeling of hydrodynamic and water-quality processes in estuary and coastal sea systems; and the physical principles governing the flow of water through snow. The text also includes articles on the state of the art of the finite-element modeling techniques in surface and subsurface hydraulic problems; the developments in the area of rainfall-runoff relations and physically-based stochastic hydrologic analysis; as well as well hydraulics in heterogeneous aquifer formations. Hydrologists, ocean engineers, hydraulic engineers, and subsurface engineers will find the book invaluable.

Advances in Hydroscience, Volume 14-1986 covers topics on the frontiers of hydroscience, including urban hydrology, remote sensing, sewer hydraulics, and computational hydraulics. The book presents articles on state-of-the-art theory and practice in sewer hydraulics and the passive microwave remote sensing of soil moisture. An article on the numerical modeling of unsteady open-channel flow is also encompassed. Hydraulic engineers, hydrologists, earth scientists, agricultural engineers, soil scientists, environmental engineers, and urban designers and planners will find the text invaluable.

Advances in Hydroscience, Volume 8, provides an overview of the state of knowledge in hydroscience. The book contains six chapters and opens with a study on seiches—a phenomenon that frequently occurs in large enclosed bodies of water and that can result in serious destruction of shore structures and bring sudden death to innocent swimmers. This phenomenon bears certain resemblances to the tsunamis and storm surges over the open sea. Subsequent chapters deal with the basic principles underlying the techniques in isotope hydrology; statistical models for ocean waves and wave forces; fluvial sediment transport; impulsive waves; and channel networks. This contribution will prove particularly useful to hydrologists, since most work in this field has been done by physicists or other non-hydrologists.

Advances in Hydroscience, Volume 10-1975 covers articles on the evergrowing scientific knowledge on water. The book presents articles on modeling techniques for groundwater evaluation and tidal theory and computations, including the basic equations for the prediction of tides, the hydrodynamic tidal equations for the dynamic behavior of the tides, and tidal computations in rivers, seas, and coastal waters. The text also includes articles on hydrothermal convection in saturated porous media, as well as the theory of Weirs. Hydroscientists, harbour engineers, coastal engineers, oceanographic engineers, and future designers and users of hydraulic structures for water resources development will find the book invaluable.

Hydrogeology’s importance has grown to become an integral part not only of geology curricula, but also those in environmental science and engineering. Applied Hydrogeology serves all these students, presenting the subject’s fundamental concepts in addition to its importance in other disciplines. Fetter skillfully addresses both physical and chemical hydrogeology, highlighting problem solving throughout the book. Case studies, Excel-based projects, and working student versions of software used by groundwater professionals supplement the fourth edition’s insightful explanations and succinct solutions to real-world challenges. Each chapter concludes with example problems, a notation of symbols, and informative analysis. A glossary of hydrogeological terms adds significant value to this comprehensive text. Fetter’s accessible coverage prepares readers for success in their careers well beyond the classroom.

Provides information on where to go to find detailed guidance on how to use these techniques. Covers: remote sensing & surface geophysical methods; drilling & solids sampling methods; geophysical logging of boreholes; aquifer test methods; ground water sampling methods; Vadose Zone (VZ) hydrologic properties: water state, infiltration, conductivity, & flux; VZ water budget characterization methods; VZ soil-solute/gas sampling & monitoring methods; & chemical field screening & analytical methods. Charts, tables, graphs & drawings.

This textbook employs a technical and quantitative approach to explain subsurface hydrology and hydrogeology, and to offer a comprehensive overview of groundwater-related topics such as flow in porous media, aquifer characterization, contaminant description and transport, risk assessment, and groundwater remediation. It describes the characterization of subsurface flow of pristine and polluted water and provides readers with easily applicable tools for the design of water supply systems, drinking-water source protection, and remediation interventions. Specific applications range from groundwater exploitation as a drinking water supply to the remediation of contaminated aquifers, from the definition and safeguarding of drinking-water sources to the assessment of human health risks in connection with groundwater contamination events. The book represents an ideal learning resource for upper-undergraduate and graduate students of civil engineering, environmental engineering, and geology, as well as practitioners in the fields of water resource management and environmental protection who are interested in groundwater engineering and technical hydrogeology.