two female students working in chemical engineering lab

Faculty Research Groups

Chemical Engineering Laboratories

  • Monty Alger
    Process design and development, technology commercialization, process improvement
  • Kostas Alexopoulos
  • Antonios Armaou
    Nonlinear process dynamics analysis and control, computational modeling of multiscale systems, process analysis design and control of spatially distributed processes with application to microelectronics manufacturing and biology.
  • Ali Borhan
    Fluid dynamics and hydrodynamic stability of multi-phase systems, interfacial transport phenomena, complex fluids.
  • Bert Chandler
    Heterogeneous Catalysis: Reaction kinetics and mechanisms, Infrared spectroscopy, Nanoparticle and catalyst synthesis, Reaction development, Selective oxidations, Selective hydrogenations, Catalytic separations, Energy storage and recovery, Environmental catalysis.
  • Ralph Colby
    Polymer physics and rheology: Molecular understanding of the structure and dynamics of polymer liquids and their manipulation to control mechanical properties.
  • Wayne Curtis
    Bioprocess Design and Optimization: Chemical production and protein expression from plant tissue cultures, bioreactor design for non-traditional fermentation, plant genetic engineering.
  • Kristen Fichthorn
    Multiscale Simulation of Fluid-Solid Interfaces: Fluid-solid interfaces, nanoscale materials, thin-film and crystal growth, colloidal assembly, wetting, quantum density-functional theory, molecular dynamics, Monte Carlo methods.
  • Enrique Gomez
    Connecting Chemistry, Structure, and Macroscopic Properties of Soft Materials: Polymers, organic electronics, organic solar cells, electron microscopy of soft materials. Waste reduction through design of eco-efficient materials.
  • Esther Gomez
    Mechanobiology; Structural Characterization of Biological Assemblies Using Advanced X-ray Scattering Tools: The interplay of chemical and mechanical signals acts to control cell behavior and function and the progression of disease; X-ray scattering for the characterization of biological assemblies, including plant cell walls and proteins in solution.
  • Michael Janik
    Energy and Environment; Catalysis: Applying atomistic modeling approaches to study systems of relevance for advanced energy conversion technology; kinetic modeling of heterogeneous catalysis and electrocatalysis.
  • Seong Kim
    Tribology, Glass Surface, and Cellulosic Nanomaterials: Surface science, nano-materials, nano-tribology, glass, biomass, catalysis.
  • Costas Maranas
    Biotechnology and Synthetic Biology; Systems Engineering: Reconstruction analysis and redesign of metabolic networks, computational protein enzyme and antibody design, synthetic biology and metabolic engineering, and optimization theory and algorithms.
  • Janna Maranas
    Soft Matter Science and Neuron Scattering: Molecular simulation, neutron scattering, polymer physics, glasses and the glass transition.
  • Themis Matsoukas
    Interfaces and Surfaces: Colloids, aerosols, plasma processing, and population balances.
  • Scott Milner
    Soft Matter Material Properties from Simulation and Theory: Glassy systems, ordering and crystallization, polymer entanglement, semiconducting polymers, and biomimetic membranes.
  • Hee Jeung Oh
    Polymer Membranes for Environment, Energy, and Health: Design, synthesis, processing, and characterization of polymers for energy-efficient separations, energy storage, and biomedical devices to address challenges in the Water-Energy nexus and in Health. Focused on connecting the chemistry, structure, and transport properties of polymer membranes.
  • Christian Pester
    Shining Light on Soft Materials: Polymer chemistry and physics; engineering of smart and adaptive surfaces; optical lithography; heterogeneous photoredox catalysis.
  • Robert Rioux
    Chemical Catalysts: Heterogeneous catalysis, catalyst design and synthesis, time-resolved FTIR spectroscopy of condensed systems, x-ray absorption spectroscopy (EXAFS, XANES), reaction mechanisms in nanoscale systems, photocatalysis.
  • Howard Salis
    Synthetic Biology, Genetic and Metabolic Engineering, DNA Design: Predictive biophysical models and design algorithms to rationally engineer synthetic genetic systems and organisms, including bacteria, yeast, and in vitro systems.
  • Phillip Savage
    Kinetics, Catalysis, and Reaction Engineering for Sustainability: Research focuses on the conversion of microalgal biomass to renewable fuels and on chemical recycling of various wastes (e.g., food waste, waste plastics) into fuels and/or useful chemicals.
  • Rui Shi
    Sustainable Systems, Design, and Decision-making: Life cycle assessment; sustainable bioenergy futures; industrial ecology; global sensitivity and uncertainty analysis; decision-making under uncertainty; sustainable design of energy systems; advanced computational models; optimization algorithms; data analytics.
  • Amir Shiekhi
    Micro- and Nanoengineering Soft Materials for Medicine and the Environment (Bio-Soft Materials Laboratory (B-SMaL): Micro- and nanoengineered soft materials for medicine and the environment; microfluidic-enabled biomaterials for tissue engineering and regeneration; living materials; next-generation bioadhesives, tissue sealants, and hemostatic agents; hydrogels for minimally invasive medical technologies; self-healing and adaptable soft materials; smart coatings; hairy nanocelluloses as an emerging family of advanced materials.
  • Darrell Velegol
    Econochemistry: Decision making, chemical game theory, tragedies of the commons, chemical innovation. Chemistry and Chemical Engineering principles applied to problems in Economics.
  • Thomas Wood
    Synthetic biology, antibiotic tolerance (persister cells), toxin/antitoxin systems, biofilms, and cell signaling: Research pursuits include understanding the genetic basis of antibiotic tolerance and the genetic basis of biofilm formation to prevent disease and utilizing biofilms for beneficial biotransformations including remediation, green chemistry, and energy production.
  • Xueyi Zhang
    Diffusion and Reaction Engineering with Advanced Materials (DREAM): Catalysis, separation, porous materials, molecular sieves.
  • Andrew Zydney
    Membrane Separation Systems for Bioprocessing and Medical Devices: Purification of high-value biological products including recombinant proteins, gene therapy agents and vaccines; application of membrane systems for bioseparations and artificial organs.

Affiliated Research Laboratories

  • Harry Allcock
    Development of Fundamental Science at the Interface Between Chemistry, Materials Science, and Biomedicine: Design and synthesis of new hybrid organic-inorganic polymers with hitherto unseen combinations of useful properties. Many of the polymers in the program are based on the polyphosphazene platform.
  • Bruce Logan
    Researching Technologies for an Energy Sustainable Water Infrastructure: Development of new renewable energy technologies, including microbial fuel cells and thermal batteries, desalination, and water electrolysis.
  • Adri van Duin
    Development and Application of Reactive Force Field Methods:  Simulate physical and chemical interactions in molecules and materials, which enables applications to materials and molecules covering the entire periodic table.


The Penn State Department of Chemical Engineering, established in 1948, is recognized as one of the largest and most influential chemical engineering departments in the nation.

The department is built upon the fundamentals of academic integrity, innovation in research, and commitment to the advancement of industry.

Department of Chemical Engineering

121 Chemical and Biomedical Engineering Building

The Pennsylvania State University

University Park, PA 16802

Phone: 814-865-2574