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American Institute of Chemical
Engineers |
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American Institute of Chemical
Engineers |
Click on the links below to view the various session abstracts and slides. For each session content table click on the Session Number to view the abstract and the Presentation Title to view the presentation.
| 12a |
Multiple Oxidant Synergism in Chromium Separation from Hanford High
Level Nuclear Waste Components Jennifer E. Holland |
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| 12b |
Oxidative Processes
for Treating High Level Waste Sludge Reid Peterson, Brian Rapko, Serguei Sinkov |
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| 12c | A
Critical Review of Integrated Advanced Oxidation Processes: Assessment
of Process Synergism Robert W. Peters, M. P. Sharma |
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| 12d |
Defense Waste Processing Facility Flowsheet Studies with Simulants to
Determine Solvent Build-up in Continuous Runs Daniel P. Lambert |
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| 12e |
Destruction of
Tetraphenylborate Via Wet Air Oxidation Technology Kofi Adu-Wusu, Daniel J. McCabe, William R. Wilmarth |
This symposium focuses on nontraditional methods for generating hydrogen that would reduce reliance on fossil fuels. A leading candidate is the use of heat from an advanced, high temperature nuclear reactor to dissociate water into hydrogen and oxygen. However, papers on any novel process for generating hydrogen, whether based on a nuclear energy source or otherwise, are encouraged. Typical processes include: - thermochemical cycles (e.g. Sulfur-Iodine) - hybrid cycles (e.g. Hybrid Sulfur) - electrolysis - photoelectrochemical methods - photobiological methods.
| 69a | Experimental and Theoretical Investigation into
Alternative Versions of the Bunsen Reaction Michela Lanchi, Giampaolo Caputo, Claudio Felici, Alberto Giaconia, Salvatore Sau |
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| 69b |
Experimental Results for the Generation of Hydrogen by the Decomposition
of Hydrogen Iodide in the Sulfur-Iodine Cycle Wendi Sweet, Gottfried Besenbruch, L. C. Brown, Robert T. Buckingham, Benjamin E. Russ |
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| 69c | Hi Concentration by Electro-Electrodialysis from
Hix Solution (Hi-I2-H2o Mixture) for Hi Decomposition Reaction in Is
(Iodine-Sulfur) Process Gab-Jin Hwang, Seong-Dae Hong, Jeong-Geun Kim, Sang-Ho Lee, Sang-Il Choi, Ki-Kwang Bae |
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| 69d |
Advances in Acid Concentration Membrane Technology for the Sulfur-Iodine
Thermochemical Cycle Frederick F. Stewart, Christopher J. Orme |
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| 69e |
Inorganic Membranes
to Facilitate the Production of Hydrogen Using Nuclear Energy Brian L. Bischoff, Dane F. Wilson, Lawrence E. Powell, K. Dale Adcock |
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| 69f | Process Flowsheet Analysis
of Hydrogen Iodide Decomposition in the Sulfur-Iodine Cycle Robert T. Buckingham, Lloyd Brown, Benjamin E. Russ, Gottfried Besenbruch, Wendi Sweet |
This symposium focuses on nontraditional methods for generating hydrogen that would reduce reliance on fossil fuels. A leading candidate is the use of heat from an advanced, high temperature nuclear reactor to dissociate water into hydrogen and oxygen. However, papers on any novel process for generating hydrogen, whether based on a nuclear energy source or otherwise, are encouraged. Typical processes include: - thermochemical cycles (e.g. Sulfur-Iodine) - hybrid cycles (e.g. Hybrid Sulfur) - electrolysis - photoelectrochemical methods - photobiological methods.
| 126a |
Feasibility of
Hydrogen Production Using Fusion as the Primary Energy Source Maximilian B. Gorensek |
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| 126b |
Thermodynamic Modeling for the Hybrid Sulfur Process in Chemcad David F. McLaughlin, Edward J. Lahoda, Lauren A. Paoletti, Willem Kriel |
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| 126c |
Generation of
Hydrogen Using Electrolyzer with Sulfur Dioxide Depolarized Anode John L. Steimke, Timothy J. Steeper |
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| 126d |
Electrochemical
Generation of Hydrogen Via Thermochemical Cycles John W. Weidner, John Staser, Premkumar Sivasubramanian |
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| 126e |
Investigation of
the Reactive Distillation Separation for Hi-I2-H2 in the S-I Process for
Thermochemical Hydrogen Production John P. O'Connell, Katie P. Bellezza, James E. Murphy, Maximilian B. Gorensek, Paul M. Mathias, Mark C. Thies, Jacob M. Crosthwaite |
This symposium focuses on nontraditional methods for generating hydrogen that would reduce reliance on fossil fuels. A leading candidate is the use of heat from an advanced, high temperature nuclear reactor to dissociate water into hydrogen and oxygen. However, papers on any novel process for generating hydrogen, whether based on a nuclear energy source or otherwise, are encouraged. Typical processes include: - thermochemical cycles (e.g. Sulfur-Iodine) - hybrid cycles (e.g. Hybrid Sulfur) - electrolysis - photoelectrochemical methods - photobiological methods.
| 181a |
Evaluation of Alternate Thermochemical Cycles Michele Lewis, Joseph Masin, Amy C. Taylor |
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| 181b |
A New Methodology to Screen Water Splitting Cycles for Hydrogen
Production Miguel J. Bagajewicz, Scott Mullin, Jacob Tarver |
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| 181c |
An Algorithm for
Systematic Generation of Thermochemical Cycles for Water Splitting Ilie Fishtik, Ravindra Datta |
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| 181d |
Application of a
Process Model-Free Analysis to Thermochemical Systems for Large-Scale
Hydrogen Production John P. O'Connell, P. Narkprasert, Maximilian B. Gorensek |
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| 181e |
Reaction Kinetics
of the High Temperature Zno Dissociation Step in a 2-Step Solar
Thermochemical Water Splitting Process Christopher Perkins, Paul Lichty, Alan W. Weimer |
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| 181f |
Investigation of the Water Reduction with Zinc Powder Aerosol to Form
Hydrogen Fuel Hans Funke, Christopher Perkins, Alan W. Weimer |
This symposium focuses on nontraditional methods for generating hydrogen that would reduce reliance on fossil fuels. A leading candidate is the use of heat from an advanced, high temperature nuclear reactor to dissociate water into hydrogen and oxygen. However, papers on any novel process for generating hydrogen, whether based on a nuclear energy source or otherwise, are encouraged. Typical processes include: - thermochemical cycles (e.g. Sulfur-Iodine) - hybrid cycles (e.g. Hybrid Sulfur) - electrolysis - photoelectrochemical methods - photobiological methods.
| 230a |
Platinum Group
Metal Catalysts for Sulfur-Based Thermochemical Water Splitting Cycles Daniel M. Ginosar, Lucia M. Petkovic, Harry W. Rollins, Kyle C. Burch |
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| 230b |
Sulfuric Acid Decomposition with Heat and Mass Recovery Using a Direct
Contact Exchanger Fred Gelbard, Robert C. Moore, Milton E. Vernon, Edward J. Parma, Dion A. Rivera, Howard B. J. Stone, James C. Andazola, Gerald E. Naranjo, Paul S. Pickard |
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| 230c |
Decomposition of Sulfuric Acid to Produce Sulfur Dioxide and Oxygen in
Is Cycle Kwang-Deog Jung, Hoggon Kim, Byung Gwon Lee, Oh-Shim Joo, Gyeong-Taek Gong, Chae-Ho Shin, Hee-Young Jeon |
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| 230d | A Corrosion Resistant
Sulfuric Acid Decomposer for the Sulfur-Iodine Process Roger X. Lenard |
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| 230e | Solar Configuration Study of Sulphuric Acid Thermal
Decomposition in the S-I Thermochemical Hydrogen Production Process Salvatore Sau, Giampaolo Caputo, Claudio Felici, Alberto Giaconia, Roberto Grena, Valeria Russo |
This symposium focuses on nontraditional methods for generating hydrogen that would reduce reliance on fossil fuels. A leading candidate is the use of heat from an advanced, high temperature nuclear reactor to dissociate water into hydrogen and oxygen. However, papers on any novel process for generating hydrogen, whether based on a nuclear energy source or otherwise, are encouraged. Typical processes include: - thermochemical cycles (e.g. Sulfur-Iodine) - hybrid cycles (e.g. Hybrid Sulfur) - electrolysis - photoelectrochemical methods - photobiological methods
| 275a | High Temperature Electrolysis for Hydrogen
Production Using Solid Oxide Electrolyte Tubular Cells Assembly Unit Kazuya Yamada, Shinichi Makino, Kiyoshi Ono, Kentaro Matsunaga, Masato Yoshino, Takashi Ogawa, Shigeo Kasai, Seiji Fujiwara, Hiroyuki Yamauchi |
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| 275b |
Status of the R&D Effort for the Cu-CL Cycle Joseph Masin, Michele Lewis |
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| 275c |
Hydrogen Production by Thermochemical
Water-Splitting Is Process Gab-Jin Hwang, Seong-Dae Hong, Jeong-Geun Kim, Sang-Ho Lee, Sang-Il Choi, Ki-Kwang Bae |
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| 275d |
Simulation of Sulfur-Iodine Thermochemical Cycle Coupled to Nuclear Heat
Transport System Seungmin Oh, Shripad T. Revankar, Nicholas Brown, Sal B. Rodríguez Jr., Karen Vierow |
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| 275e |
Dynamic Flow of Micro-Channels in a Ceramic Heat Exchanger James Cutts, Merrill A. Wilson |
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| 275f |
Optimizing the Micro-Channels Features in a Ceramic Heat Exchanger for
Sulphuric Acid Decomposition Merrill A. Wilson, Charles Lewinsohn, James Cutts, E. N. Wright, Valery I. Ponyavin |
This session covers recent research and technology advances relevant to the development of the pyrochemical method for treating spent nuclear fuel. Specific topics may include oxide reduction, electrorefining, metal processing, waste processing, and advanced materials for pyroprocessing. Molten salt topics relevant to spent fuel treatment are also welcomed.
| 331a | Study of Jet Splashing at Liquid/Gas Interface in
an Oxide Reduction Electrochemical Cell Supathorn Phongikaroon |
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| 331b |
Electrorefining of Reduced Spent Nuclear Oxide Fuel at Bench Scale Steven Herrmann, Shelly X. Li |
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| 331c | Corrosion Study of an Oxide Dispersion Strengthened
Nickel-Based Superalloy in a High Temperature Li2O/LiCl
Molten Salt under Oxidizing Conditions Christine T. Snyder, Larry E. Putty, Javier Figueroa, Leonard Leibowitz, Andrew H. Hebden, Laurel A. Barnes, J. Ernesto Indacochea |
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| 331d |
Effect of Salt and Zeolite Particle Size on Preparation of
Salt-Loaded Zeolite in the Ceramic Waste Process Prateek Sachdev, Michael F. Simpson |
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| 331e |
Cesium and Strontium Separations for Pyroprocessing of Spent Oxide
Nuclear Fuel Michael F. Simpson, Supathorn Phongikaroon |
Water can be split to make hydrogen by using heat from a high-temperature nuclear reactor to drive various hydrogen production processes such as thermochemical and hybrid cycles, and high temperature electrolysis. Hydrogen can also be produced by reforming biomass and wastes, by photochemical, biological and solar water-splitting, and by more conventional means. This session invites papers discussing the plant design, system analysis, economics, and infrastructure issues of hydrogen production. Analysis of plant efficiency and process modeling of hydrogen production processes (with emphasis on overall plant system performance) may also be included
| 393a |
Consistent Economic
Analysis of Hydrogen Production Pathways Margaret K. Mann, Johanna I. Levene, Todd G. Ramsden |
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| 393b |
Plant Design and Cost Analysis of a Prototype Commercial Nuclear
Hydrogen Production Plant William A. Summers, Edward T. Danko, Melvin R. Buckner, Maximilian B. Gorensek |
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| 393c |
First Order Approximation of Hydrogen Delivery System Costs Howard B. J. Stone, Ivo J.S. Veldhuis |
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| 393d |
Innovative Nuclear Process Heat
Applications for near-Term Hydrogen Production Charles O. Bolthrunis, Reiner W. Kuhr |
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| 393e |
A Low-Greenhouse-Impact Hydrogen-Based Liquid-Fuels Future Edward J. Lahoda, Charles W. Forsberg, David F. McLaughlin |
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| 393f |
Economic Implications of Peak Vs. Base Load Electricity Costs on Nuclear
Hydrogen Systems Charles W. Forsberg |
Significant improvements over currently available hydrogen storage technologies are required if hydrogen is to become a viable energy carrier. Compact, lightweight carbon adsorbent materials have become interesting for possible use in a hydrogen storage system. Other advanced storage material made of various hydrides and ceramics are also being investigated. This session will cover hydrogen storage topics related to all types of advanced adsorbent materials. Topic areas will cover advanced carbon nano tube, ceramics and metal hydrides technologies and metal organic compounds.
| 424a |
Hydrogen Storage in Carbon Nanotube and Palladium Composite Materials Yong-Won Lee, Ranadeep Bhowmick, Hongjie Dai, Bruce M. Clemens |
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| 424b |
The Application of Steam Hydrolysis of Chemical Hydrides to Facilitate
Hydrogen Storage and Generation Joshua R. Gray, Eyma Y. Marrero-Alfonso, Amy M. Beaird, Casey Campbell, Thomas A. Davis, Michael A. Matthews |
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| 424c |
Modeling Hydrogen Adsorption in Microporous Metal-Organic Frameworks Jin-Chen Liu, Bing Dai, Karl Johnson |
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| 424d |
Destabilized Libh4 / Mgh 2 for Reversible Hydrogen
Storage Luis Rivera, Sesha Srinivasan, Matthew Smith, John Wolan, Elias Stefanakos |
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| 424e |
Simulation of the Rapid Charging of a Metal Hydride Hydrogen Storage
System Armin D. Ebner, YongFeng Wang, James A. Ritter |
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| 424f |
High Capacity Reversible Hydrogen Storage Material James A. Ritter, Tao Wang, Jun Wang, Armin D. Ebner |
This session addresses advanced high temperature systems and materials to enable hydrogen production using nuclear, solar, or other high temperature heat sources (T > 700 C).
| 480a |
A Helium Loop for the Transfer of Heat between a Nuclear Reactor and a
Thermochemical Plant Francis A. Gadala-Maria, Thomas A. Davis |
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| 480b |
Heat Transfer within a Ceramic Heat Exchanger Used for Sulfuric Acid
Decomposition Howard B. J. Stone, Milton E. Vernon, Edward J. Parma, Fred Gelbard, Robert C. Moore |
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| 480c |
Corrosion Performance of Ceramic Materials in High Temperature Sulfuric
Acid Environments E. N. Wright, Merrill A. Wilson, Charles Lewinsohn |
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| 480d |
Materials for Sulphuric Acid Decomposition in the S-I Cycle Howard B. J. Stone, Robert C. Moore, Paul S. Pickard |
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| 480e |
Evaluation of Material Corrosion in Molten Fluoride Salt L.C. Olson, J. W. Ambrosek, K. Sridharan, M.H. Anderson, T.R. Allen, M.L. Corradini |
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| 480f |
Development of C-Sic Ceramic Compact Plate Heat Exchangers for High
Temperature Heat Transfer Applications Per Peterson, Haihua Zhao, Fenglei Niu, Wensheng Wang, Jens Schmidt, Jan Schulte-Fischedick |
This session will provide a forum for presentation of recent advances in aqueous-based metals separation and purification processes, e.g. liquid-liquid extraction and ion exchange. Presentations are encouraged relevant to metals purification and spent nuclear fuel processing. University, industrial and government participation is encouraged.
| 526a |
Practical Actinide Partitioning Daniel W. Tedder |
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| 526b |
Separation of Uranium from Fission Products in Spent Nuclear Fuel Using
Aqueous Hydrogen Peroxide-Carbonate Solutions George S. Goff, Felicia L. Taw, Shane M. Peper, Lia F. Brodnax, Stephanie E. Field, Chris Wakefield, Wolfgang H. Runde |
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| 526c |
Washing Savannah River Site Sludge with a Rotary Filter Michael Poirier, David T. Herman |
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| 526d |
Ionic Liquids as Extraction Solvents: Current Status and Future
Directions Mark L. Dietz |
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| 526e |
Lab-Scale Demonstration of the Urex+1a Process Using Spent Nuclear Fuel Candido Pereira, George F. Vandegrift, Monica C. Regalbuto, Allen J. Bakel, Delbert L. Bowers, James J. Laidler |