Environmental Issues and Waste Management Technologies in the Ceramic and Nuclear Industries VI – Ceramic Transactions V176

Nuclear and Environmental Technology Applications in the Ceramic Industry.
<p>Indoor Air Pollution Control: Formaldehyde Adsorption by Synthesized Zeolite Rich Materials (M. Del Carmen Cazorla A. and M. Grutzeck).<br /> <br /> Molybdenum–Oxide Based Sorbents for Toxic Metals (M. Chehbouni and A.W. Apblett).<br /> <br /> Recovery of Palladium Via a Vitrification Process &nbsp;(D.K. Peeler, A.D. Cozzi, R.F. Schumacher, I.A. Reamer, and R.J. Workman).<br /> <br /> Legal and Environmental Health and Safety Issues Facing Artists and Ceramic Engineers (J. Taylor)<br /> <br /> <br /> Nuclear Waste Forms and Fuels Processing and Technology – Ceramic Forms.<br /> <br /> Computational and Experimental Studies of the Radiation Response of Gd₂Ti₂O₇ Pyrochlore (R. Devanathan and W.J. Weber).<br /> <br /> Hollandite–Rich Ceramics for the Immobilization of Cs (M.L. Carter).<br /> <br /> General Recipe and Properties of a Four Inch Hydroceramic Waste Form (Y. Bao and M.W. Grutzeck).<br /> <br /> Feasibility of Immobilizing Tank Wastes in Geopolymers (E.R. Vance, D.S. Perera and Z. Aly).<br /> <br /> Processing and Characterization of Fluorite–Related Ceramic Wasteforms for Immobilization of Actinides (M.C. Stennett, N.C. Hyatt, W.E. Lee, and E.R. Maddrell).<br /> <br /> Immobilization of Cs and Sr in Geopolymers With Si/Al ∼ 2 (D.S. Perera, E.R. Vance, Z. Aly, J. Davis and C.L. Nicholson).<br /> <br /> <br /> Nuclear Waste Forms Processing and Technology – Steam Reforming.<br /> <br /> Steam Reforming Technology for Denitration and Immobilization of DOE Tank Wastes (M. Cowen, J.B. Mason, K. Ryan, and D. Schmoker).</p>
<p>Feed Reactivity Study for Fluidized Bed Steam Reformer (FBSR) Processing (T. Lorier, C. Jantzen, J. Marra, and J. Pareizs).</p>
<p>Durability Testing of Fluidized Bed Steam Reforming (FBSR) Products (C.M. Jantzen, J.M. Pareizs, T.H. Lorier, and J.C. Marra).<br /> <br /> <br /> Panel Discussion on Nuclear Waste Form Durability Testing and Disposal Status.<br /> <br /> The Product Consistency Test (ASTM C1285) for Wasteform Durability Testing (C.M. Jantzen and N.E. Bibler).</p>
<p>Leaching Properties for Qualification of Non–Vitreous Waste Forms (E.R. Vance).<br /> <br /> <br /> Nuclear Waste Forms and Fuels Processing and Technology – Glass Forms.<br /> <br /> Induction Heated Cold Crucible Melter Testing with Troublesome High Level Waste Components (A.P. Kobelev, S.V. Stefanovsky, O.A. Knyazev, T.N. Lashchenova, J.C. Marra, E.W. Holtzscheiter, and C.C. Herman).</p>
<p>DWPF Melter Glass Pump Implementation and Design Improvement (M.E. Smith, A.B. Barnes, D.F. Bickford, and D.C. Iverson).</p>
<p>Modeling Melt Rate for DWPF: A Preliminary Assessment (A.S. Choi, D.K. Peeler, and T.B. Edwards).<br /> <br /> <br /> Advances In Nuclear Waste Form Testing and Characterization Methods.<br /> <br /> Characterization of Alteration Phases on HLW Glasses After 15 Years of PCT Leaching (I.S. Muller, S. Ribet, I.L. Pegg, S. Gin and P. Frugier).</p>
<p>Glass Durability Correlations Interpreted Through the Electronegativity and Basicity of Network Formers (J. Reynolds).</p>
<p>Revisiting the So₄ Limit for the Defense Waste Processing Facility (D.K. Peeler, C.C. Herman, T.B. Edwards, M.E. Smith, and D.R. Best).</p>
<p>Effects of Aging and Temperature on the Rheological Properties of Simulated Melter Feed Slurries for Nuclear Waste Vitrification (H. Zhao, I.S. Muller, and I.L. Pegg).</p>
<p>Iron Covalency Assumptions and Redox Equilibrium in Vitrification (J. Reynolds).</p>
<p>Preliminary Control Strategy for Hanford Low–Activity Waste Glass Formulation (J.D. Vienna, G.F. Piepel, C.A. Musick, I.S. Muller and I.L. Pegg).</p>