Category: Green Chemistry, Green Engineering, Circular Economy, Metal Sustainability, Economics
Green Chemistry Principles Applied to the Selective Separation and Purification of Specialty Metals Using Molecular Recognition Technology
Green engineering, green chemistry and Molecular Recognition Technology™
Recovery of Value-Added Metals from Copper Refining Streams using Molecular Recognition Technology
– Green engineering and green chemistry aspects of MRT™ separations – Favorable economics of MRT™ processes
Selective Separation and Purification of Platinum Group Metals, Rare Earth Elements, and Cobalt from Primary and Secondary Sources using a Green Chemistry SuperLig® Molecular Recognition Technology (MRT) Approach
Economic comparison of MRT™ and classical methods in hydrometallurgical processes
Precious Metal Separation and Recovery from Primary and Secondary Sources using SuperLig® Molecular Recognition Technology™ (MRT™) Processes
– Green chemistry and green engineering principles applied to metallurgical metal separations – Economic assessment of MRT™ processes
Molecular Recognition, Nobel Prizes and MRT™
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Platinum Group Metals: Highly Selective Separations by MRT™ (Molecular Recognition Technology™) – Review of Individual Separations of Platinum, Palladium, Rhodium, Iridium, and Ruthenium from Industrial Feedstocks and Comparison with Classical PGM Separation Processes
– MRT™ processes achieve a circular economy and sustainability for highly selective separation and recovery of individual platinum group metals at high purity – Cost metrics for MRT™ and Classical Methods show MRT™ to have significantly lower CAPEX and OPEX values for separation and recovery of individual platinum group metals