Department 3355
1000 E. University Avenue
Laramie, WY 82071
Phone: 307 766 5353
Email: alloc@uwyo.edu
Research focuses on enhanced-oil recovery activities including screening methods for assisting decision-making. A combination of data mining and analytical simulation assists in the creation of simplified decision spaces.
The development of a unified methodology for seismic source and Earth structure inversions in a fully 3D setting, including: real-time seismic inversion in 3D structure models, full 3D tomography using seismic waveform, and numerical modeling.
Research focuses on multigrid methods and simulation of contaminant transport, wildland fires, combustion and ocean circulation using dynamic data-driven application systems techniques.
Research involves multiscale methods for partial differential equations,finite volume and finite difference methods, numerical and iterative methods for partial differential equations, an d mathematical and numerical models for flow in porous media.
Research addresses the mesoscale dynamics of precipitating systems, boundary-layer circulations over flat and complex terrain, cloud dynamics and cloud and precipitation radars.
Research focuses on mathematical modeling, multiscale processes, stochastic analysis, Monte Carlo Simulations, computational fluid dynamics, turbulence, combustion, and multiphase flows.
Principal focus is on acquisition and analysis of marine and onshore reflection and refraction seismic data. Use acquired seismic reflection, ocean-bottom seismic refraction, gravity, magnetic, and bathymetric data across a continental margin. to create models of the deep structure.
Research interests: , sedimentology, soil science,and glaciology; Methodology areas: grain-size distributions, functional data analysis, survival analysis, and saddlepoint approximations.
Research concerns theoretical studies of planet formation and computational astrophysics.
Specializing in plant community ecology and eco-hydrology. Uses simulation & modeling as a key exploratory and analysis a tool across all of the organizational and special scales of his research.
Transmission Dynamics and Spatial Spread of Vector-borne Diseases: modeling, prediction and control.
Research involves computational seismology including seismic modeling, seismic inversion, and seismic anisotropy. Developing seismic modeling and inversion methodologies and applying them in solving real problems.
Research focuses on the development of unstructured mesh methods for computational fluid dynamics, including discretization methods, solution methods such as multigrid and implicit methods for steady-state and time-accurate simulations, unstructured grid generation techniques and adaptive and moving mesh strategies.
Areas of expertise include watershed hydrology, hydrologic modeling, GIS and spatial analyses in natural resources, landscape ecology and geomorphology.
Research interests: Experimental fluid dynamics and aerodynamics, characterization of turbulent flows, control of turbulence flows; Instrumentation, wall shear stress measurement techniques in aerodynamic flows; Wind Energy.
Research in runoff generation in tropics, arid and semi-arid regions; hydrologic modeling and engineering; watershed scale erosion/deposition modeling; hydrological applications of GIS and remote sensing of rainfall; computational hydraulics; and physical hydraulic modeling.
Research involves mathematical modeling of multiphase flows in multiscale porous media: CO2 sequestration, oil reserves, contaminant transport, numerical methods for partial differential Equations, and high performance, parallel,scientific computing.
Multiphase flow in porous media with applications to oil and gas recovery, pore-scale modeling of displacement processes, two-and three-phase relative permeabilities (measurement and prediction), wettability, and CO2 sequestration and leakage.
Research Interests in geographic information science, complex network theory and network geographies, special information and dynamic geographic domains, and ecologically sustainable economic development.
Research interests cover the following broad areas: (1) Reservoir Modeling, (2) Reservoir Simulations, (3) Reconfigurable Computing and (4) Data Center and Data Integration.
Research is focused on development and application of parallel and scalable overset grid based CFD methods to interesting physical problems , moving bodies and aeroelasticity.
Numerical analysis, computational fluid dynamics, high-order and spectral methods, discontinuous Galerkin methods, computational aero-acoustics and uncertainty quantification.
Research in Human-Centered Computing (HCC), and Human-Computer Interaction, specifically in the usability and evaluation relative to the effects of human interaction with 3-D User Interfaces, Visualizations, Virtual Environments and Virtual Humans.
Research in the design and analysis of parallel systems. For analysis, working on concurrency/security-related error detection. For design, working on data-intensive parallel computing on multicore CPU, GPU and Cloud Computing platforms.
Focus on active and passive remote sensing data to study cloud macrophysical and microphysical properties. Including the ice and mixed-phase cloud microphysical property retrieval based on ground-based, airborne, and satellite-based measurements.
Iterative methods, preconditioning techniques, multigrid decomposition, and parallel computations.
Research interests in coupled thermal-hydraulic-mechanical-chemical(THMC) modeling and soft computing in petroleum geomechanics.
Research interests include reservoir modeling and its application in waste disposal/sequestration, parameter estimation (forward upscaling and inverse calibration), high-performance computing, and sedimentary basin hydrogeology.