– Description and use of radium and strontium Empore Rad Disks for analytical determinations – Highly selective cesium and technetium separations for Hanford nuclear waste solutions – Hot mixed waste separations: plutonium, lead, mercury
Archives: Publications
The Application of Molecular Recognition Technology (MRT) in the Nuclear Power Cycle: From Uranium Mining and Refining to Power Plant Waste Separation and Recovery, as well as Element Analysis and Isotope Purification
– Isotope purification for brachytherapy: palladium-103 – Analytical applications: Empore Rad Disks, AnaLig® products – Economic advantages of MRT™ systems over conventional systems
Challenges to Achievement of Metal Sustainability in Our High-Tech Society
Highly selective cesium-137 removal from Cold War defense nuclear waste using a calixarene-crown ether MacroLig® 209 (BOBCalixC6)
Uranium: Mining, Nuclear Uses and MRT™
See paper title
Contributions of Professor Reed M. Izatt to Molecular Recognition Technology: From Laboratory to Commercial Application
– Industrial separations: Pd, Rh, Hg from sulfuric acid, Cu purification (Bi and Sb), Au from high copper gold ore – Berkeley Pit, acid mine drainage: Cu, Fe, Al, Zn, Mn, Cd, As
Removal, Separation, and Recovery of Heavy Metals from Industrial Waste Streams Using Molecular Recognition Technology (MRT)
– Demonstration of successful and economic removal of regulated heavy metals from acid/alkali waste stream: Cu, Cd, Cr (VI, III), Ni, Pb, Zn, and Ag – Removal of these metals was much more effective using MRT™ than conventional methods – Favorable cost analysis for MRT™ over conventional systems – Favorable payback periods for MRT™ installed...
Cadmium Removal from Cobalt Electrolyte
See paper title