Biomass-derived adsorbents for efficient removal of contaminants from water resources
MOF-based adsorbents engineered for targeting and eliminating persistent organic pollutants in aquatic environments
Anodic nanostructures for advanced (photo)electrochemical breakdown of organic pollutants in water
Heterojunction catalysts for photocatalytic degradation of emerging water contaminants
Impregnated natural zeolites as intake filters in gasoline and diesel engines to improve fuel performance and cut harmful emissions
Functionalized nanoparticles designed for highly sensitive detection of environmental pollutants and biologically important molecules
Nanoparticle-based sensing platforms that deliver rapid, accurate identification of contaminants in environmental systems
Hybrid nanomaterial sensors for monitoring of hazardous contaminants in water
Fire-retardant coatings derived from renewable resources for construction materials, combining superior flame resistance with sustainability
Corrosion protection coatings formulated from bio-based compounds as eco-friendly replacements for conventional treatments
Surfactants from bio-based sources engineered to enhance crude oil recovery while reducing environmental impact
Superhydrophobic and superoleophilic coatings applied to oil-disk skimmers for faster, more effective oil spill remediation
Bio-based phase change materials (PCMs) for latent heat thermal energy storage, enabling efficient energy capture and release
Waste valorization through optimized processes and reactor design for sustainable renewable energy generation
Photocatalytic and photoelectrochemical systems for solar-driven hydrogen production and clean fuel generation
Density functional theory (DFT) for the design of next-generation semiconductors, 2D materials, and high-entropy alloys with targeted properties
Grand Canonical Monte Carlo (GCMC) simulations for developing tailored adsorbents optimized for specific environmental applications
Molecular dynamics (MD) simulations to model and reveal adsorption mechanisms at the atomic scale
High-throughput virtual screening combined with molecular dynamics simulations for designing and refining novel drug therapies
Ligand-based and structure-based drug design strategies to identify, optimize, and validate promising drug candidates
Generative AI-driven de novo drug design for anticancer therapies, leveraging predictive algorithms to accelerate discovery and development
Active teaching approaches encompassing assessment, benchmarking, curriculum development, pedagogical innovation, educational technologies, and accreditation standards
Evolving perspectives on established pedagogical principles to enhance learning effectiveness and engagement
Student-centered initiatives for welfare, recruitment, retention, and smooth academic transitions across program levels
Advancing chemical engineering processes and systems through research-driven technological development
Computational fluid dynamics (CFD) and process simulation for accurate modeling, design, and optimization of complex operations
Optimized plant design strategies that improve process performance, promote sustainability, and achieve operational excellence
Our research significantly contributes to advancing the United Nations Sustainable Development Goals (SDGs) through innovative scientific solutions. With a strong focus on sustainability, our work strives to develop environmentally friendly technologies that drive global progress toward a more sustainable future.
Our research team actively contributes to addressing the 14 Grand Challenges for Engineering in the 21st Century through innovative materials science, environmental remediation, and sustainable energy solutions. We strive to advance sustainable technologies, address environmental challenges, and promote a more resilient future.
Make Solar Energy Economical
Engineer Better Medicines
Provide Access to Clean Water
Develop Carbon Sequestration Methods