Research within the Center for Resource Recovery and Recycling I/UCRC will build the basic science, generic solution strategies, and precompetitive, innovative recovery and recycling technologies for a broad spectrum of industries, products, and materials.
- Adhesive and Sealant Waste Reduction
 - Assessment of Environmental Properties of Non Ferrous Metal Production Slags
 - Auto-Al Scrap Material Flow Analysis with Compositional Projections
 - Battery Design for Disassembly in Support of Materials Reuse
 - Beneficiation of Flat Panel Functional Coatings
 - Conditioning of Machined Chips
 - Contactless Flow Measurement of Molten Materials
 - Copper Separation from Steel
 - Development of Aluminum-Dross Based Materials for Engineering Applications
 - Development of Pre-Treatment Technology for Recovering Valuable Metals from Waste Lithium Ion Batteries
 - Dezincing of Galvanized Steel
 - Electro-Oxidation of Metals and Inorganics in Metallurgical Operations
 - Fundamental Study of Lithium Ion Battery Recovery
 - Gravity Driven Multiple Effect Thermal System Distillation for Efficient Low Cost Lead Refining
 - Increased Gas Injection Efficiency Through Sonic Jetting Regime
 - Innovative Refining Technologies for Antimony Recovery
 - Innovative Refining Technologies for Sb Recovery
 - Magnet Separation Recycling Technologies
 - Metal Recovery From Industrial By Products Using Bromine Compounds
 - Metal Recovery Via Automated Sortation
 - Molten Metal Compositional Sensing to Enhance Scrap Recycling
 - Near. Real Time Sub-ppm Detection of Elements
 - Novel Recycling Process Development for Li-Ion Batteries
 - Online Moisture Analysis of Heterogeneous Material Flows
 - On Slag Analysis by LIBS
 - Opportunities and Barriers to Resource Recovery and Recycling from Shredder residue in North America
 - Optimization of Concrete Mixtures for 3-D Printing
 - Optimization of Inorganic Polymers for 3D Printing
 - Optimized Sorting and Separation Technologies for Remanufacturing with Product – Centric Recycled Reclaimed Scrap
 - Physical and Chemical Benefication for Recycling of Photovoltaic Materials
 - Pre-Treatment Processes for Waste PCB’s
 - Rare Earth Metals Recovery from Bauxite Residue
 - Rare-Earth Recovery from Magnets Catalysts and other Secondary Sources
 - Recovery of Rare Earth Metals from Phosphor Dust
 - Recovery of Rare Earth Metals from Phospher Dust of Waste Fluorescent Light Fixtures
 - Recovery Valuable Metals from Fines
 - Recovery of Valuable Metals from Flue Dust and Other Fines from Mechanical Treatment of E-Scrap
 - Recovery of Value Added Products from Red Mud and Foundry Bag-House Dust
 - Recovery of Zinc and Iron from EAF Dusts Including Hot Stage Slag Engineering and Energy Recovery
 - Recycling of Bag-House Dust from Foundry Sand Through Chemical and Physical Beneficiation
 - Recycling of Waterborne Paint Sludge
 - Reuse Opportunities for Bauxite Waste
 - Roadmap CO2 Reduction on Lead Blast Furnaces
 - Separation of Al Sus and Resin from Waste Printed Circuit Boards
 - Separation of Eu and Y from Phosphor Dust
 - Structure Property Relations of Slags Application and Carbonation Potential
 - Synthesis of Inorganic Polymers from Metallurgical Residues
 - Vacuum Distillation of Complex Lead Bullion
 - Value Recovery from Mining Wastes
 - Waste Water Treatment Sludge and HIgh Value Grinding Swarf Recycling
 



