The group uses a combination of first-principles electronic structure methods, symmetry analysis, informatics approaches, and crystal chemistry tools to study the fundamental properties of materials at the (sub)atomic scale. This understanding is used to design complex oxides for targeted synthesis, which exhibit correlated states and technologically important electronic, magnetic and optical functionalities.
Garritt Tucker (Materials Science and Engineering)
The Materials Modeling for Extreme Environments (MMEE) research group in the MSE department at Drexel University pursues fundamental research in nanostructured materials for enhanced mechanical and radiation tolerance in extreme environments using ab initio, atomistic, mesoscale, and multiscale modeling techniques. Our specific aim is to elucidate structural/compositional effects that drive enhanced functionality in novel materials by employing a variety of computational methods and forming synergistic efforts with experiments.
Gail Rosen (Electrical and Computer Engineering)
The EESI Lab makes computational methods to study ecology and evolution, especially studies of microbial communities. Such environmental and health studies can comprise terabytes of data and require sophisticated machine learning and signal processing algorithms.
Kurt Sjoblom (Civil, Architectural, and Environmental Engineering)
Looking at how the microfabric of clay soils evolve during shear using molecular dynamic simulations. This work will lead to better predictions of macro material responses due to loading events, e.g., reactivation of a landslide induced by heavy rainfall.
Yared Shifferaw Bayleyegn (Civil, Architectural, and Environmental Engineering)
The following faculty currently have user access to Proteus' University Block:
Cameron Abrams (Chemical and Biological Engineering)
Molecular simulations in biology and materials; enhanced sampling for structure prediction and transport property estimation.
Mian Dai (Economics - Industrial Organization, Structural Econometrics)
We estimate models of competition under various contexts such as airline, venture capital, and health care providers etc. Our approach helps predict counterfactual market outcomes under alternative policy interventions.
Gary Friedman (Electrical and Computer Engineering)
Modeling of dynamic properties of magnetic nanoparticles for applications in medical imaging and detection of biomarkers.
Mark Hempstead (Electrical and Computer Engineering)
The performance of modern computing devices—from mobile to datacenter—is limited by the cost of moving data. How this communication affects the performance of future systems depends on many interrelated factors including the algorithm, software implementation, memory system and network‐on‐chip (NoC). This work aims to optimize the design of next generation microprocessors through the co-design of the hardware, software, and memory system.
Antonios Kontsos (Mechanical Engineering & Mechanics)
A systematic effort to introduce physics-based damage laws in computational studies of deformation and damage of advanced composites is performed in an Integrated Computational Materials Engineering (ICME) framework.
Sandhya Kortagere (Microbiology and Immunology, College of Medicine)
Design and development of small molecule modulators of protein-protein interactions and other proteins of therapeutic relevance using Structure Based Drug Design techniques.
Karen Moxon (Biomedical Engineering, Science, and Health Systems)
This project has created an extremely rare database of high frequency recordings from the mesial temporal lobe (MTL) of human epileptic patients. The current project is an investigation of single neuron dynamics in the periods leading up to spontaneous seizure generalization to MTL.
Jacob Russell (Biology)
We perform metagenomic analyses to elucidate the functions of symbiotic gut bacteria from ants.
Christopher Sales (Civil, Architectural, and Environmental Engineering)
Our group analyzes chemical data and molecular biology sequences collected from natural and engineered environmental systems. Advances in analytical chemistry and molecular biology techniques have enabled high-throupghput production of large amounts of data that requires significant computing power to analyze.
Ioannis Savidis (Electrical and Computer Engineering)
Ioannis's research focus is on the improvement of high performance integrated circuits through accurate and efficient analysis and design. Although simulation on an entire integrated circuit containing over one billion transistors is prohibitively expensive, computing clusters are exploited to model and analyze larger circuit sub-blocks for functionality and timing. Through proper analysis, improvements in circuit performance are achieved while meeting the noise constraints and power requirements ofan integrated circuit.
Gideon Simpson (Mathematics)
My active areas of research include partial differential equations, molecular dynamics and statistical inverse problems. This includes solving time dependent nonlinear wave equations using finite differences, finite elements, and spectral methods.
Masoud Soroush (Chemical and Biological Engineering)
Molecular dynamics simulations will be conducted to predict material properties of nanostructures, and kinetics of polymerization reactions will be studied using quantum chemical calculations.
Jonathan Spanier (Materials Science and Engineering)
We seek to carry out finite-difference Poisson-Schrodinger calculations of electrostatic potential and charge density in complete oxide heterostructures. Simulation code has been developed within the Spanier group.
Loni Philip Tabb (Epidemiology and Biostatistics)
Research carried out involves building Markov chain Monte Carlo algorithms for Bayesian multilevel models, as well as analyses of zero-inflated (longitudinal) count data in application areas ranging from environmental to health disparities.
Baris Taskin (Electrical and Computer Engineering)
Design space exploration of a hardware-software design platform for chip multiprocessors and network-on-chips.
Christopher Weinberger (Mechanical Engineering and Mechanics)
Dr. Weinberger's research focuses on the development of analytical and computer models to describe the mechanical and structural properties of ceramics, metals and their alloys at the nano- micro- and macro-scales. The goal of this work is to link atomic bonding, defects and microstructure to material performance at the macroscale.
Bryan Wong (Chemistry)
My research group carries out quantum mechanical calculations to understand electron transfer and dynamics in nanomaterials.
The following faculty currently have hardware hosted in the URCF: