Saumava Dey
Also known as: Saumava Dey
Indian Institute of Technology Delhi, Indian Institute of Technology Kharagpur, Bengal Engineering and Science University Shibpur, Techno India University
About
I am currently serving IIT Delhi as Assistant Professor in the Department of Civil Engineering. My research and teaching specialize in Computational Hydraulics, Groundwater Hydrology, Surface Water Hydrology, Hydrological Process Modeling and Geostatistical Modeling. I am open to accepting doctoral candidates interested in areas aligned to these.
My doctoral dissertation, produced at IIT Kharagpur, focuses on numerical modeling of hydrological flow processes occurring in a typical watershed. In my research, I developed computer codes utilizing the open-source Finite Volume-based computational fluid dynamics framework of OpenFOAM® for modeling the processes of confined groundwater flow, saturated-unsaturated subsurface flow, and surface overland flow, respectively.
Erstwhile, I hold an MTech in Hydraulic and Water Resources Engineering from IIT Kharagpur and a BE (Honours) in Civil Engineering from BESU Shibpur (currently IIEST Shibpur).
Employment
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Indian Institute of Technology Delhi Assistant Professor2023 - Present
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Indian Institute of Technology Kharagpur Senior Research Fellow2022 - 2023
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Techno India University Assistant Professor2015 - 2017
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Adamas Institute of Technology Assistant Professor2012 - 2015
Education
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Indian Institute of Technology Kharagpur M.Tech.2010 - 2012
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Bengal Engineering and Science University Shibpur B.E.2006 - 2010
Projects & Funding
Projects & funding information is unavailable.
Publications (15)
- A review of numerical methods for flow and transport modeling in the vadose zone Save
- An OpenFOAM®-based coupled surface-subsurface flow model for simulating watershed hydrodynamics Save
- A finite volume framework for dual permeability non-equilibrium modeling of solute transport through heterogeneous porous media Save
- zeroInertiaFlowFOAM – a OpenFOAM®-based computationally efficient, mass-conservative, implicit zero-inertia flow model for flood inundation problems on collocated grid-systems. Save
- Applicability of Zero-Inertia Approximation for Overland Flow Using a Generalized Mass-Conservative Implicit Finite Volume Framework Save
- A reduced-order framework for three-dimensional-equivalent confined groundwater modeling with emphasis on well-boundary implementation Save
- A Generalized Finite Volume Framework for Unified Multi-Region Hydraulic Modeling Save
- Reduced-Order Modeling of Aquifer Dynamics and Well Hydraulics in a Confined Aquifer Subjected to Extraction through Partially Penetrating Pumping Wells Save
- Generalized mass-conservative finite volume framework for unified saturated–unsaturated subsurface flow Save
- On proper orthogonal decomposition (POD) based reduced-order modeling of groundwater flow through heterogeneous porous media with point source singularity Save