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HSC Chemistry References Some publications where HSC Chemistry has been utilized SOURCES: http://scholar.google.com Recommended reference format to HSC: http://www.scopus.com A. Roine. HSC Chemistry® [Software], Metso Outotec, Pori 2021. Software available at www.mogroup.com/hsc Year Authors Title Source 2021 Chen, M., Avarmaa, K., Handling trace elements in WEEE recycling through Minerals Engineering, 173, art. No. 107189 Taskinen, P., Klemettinen, copper smelting - an experimental and L., Michallik, R., O'Brien, thermodynamic study H., Jokilaakso, A. 2021 Avarmaa, K., Taskinen, P., Ni–Fe–Co alloy – magnesia-iron-silicate slag Journal of Materials Research and Technology, 15, Klemettinen, L., O'Brien, equilibria and the behavior of minor elements Cu and pp. 719-730. H., Lindberg, D. P in nickel slag cleaning 2021 Teixeira, L.T., Braz, W.F., Sulfated and carboxylated nanocellulose for Co+2 Journal of Materials Research and Technology, 15, Correia de Siqueira, R.N., adsorption pp. 434-447. Pandoli, O.G., Geraldes, M.C. 2021 Makuza, B., Yu, D., Huang, Dry Grinding - Carbonated Ultrasound-Assisted Resources, Conservation and Recycling, 174, art. no. Z., Tian, Q., Guo, X. Water Leaching of Carbothermally Reduced Lithium- 105784 Ion Battery Black Mass Towards Enhanced Selective Extraction of Lithium and Recovery of High-Value Metals 2021 StaniþLü, I., Cañete Vela, I., Fate of lead, copper, zinc and antimony during Fuel, 302, art. no. 121147 Backman, R., Maric, J., chemical looping gasification of automotive shredder Cao, Y., Mattisson, T. residue 2021 Monteverde, F., Saraga, Compositional pathways and anisotropic thermal Journal of the European Ceramic Society, 41 (13), pp. F., Gaboardi, M., Plaisier, expansion of high-entropy transition metal diborides 6255-6266. J.R. 2021 Jeanmonod, G., Diethelm, Poisoning effects of chlorine on a solid oxide cell Journal of Power Sources, 506, art. no. 230247 S., Van herle, J. operated in co-electrolysis 2021 Zhou, C., Ni, J., Chen, H., Harnessing electrochemical pH gradient for direct air Sustainable Energy and Fuels, 5 (17), pp. 4355-4367. Guan, X. capture with hydrogen and oxygen by-products in a calcium-based loop 2021 Rezaei Ardani, M., Sheikh Synthesis of Ti powder from the reduction of TiCl4 Processes, 9 (9), art. no. 1567 Abdul Hamid, S.A.R., Foo, with metal hydrides in the H2 atmosphere: D.C.Y., Mohamed, A.R. Thermodynamic and techno-economic analyses 2021 Božinoviü, K., Štrbac, N., Thermal decomposition and kinetics of pentlandite- Metals, 11 (9), art. no. 1364 Mitovski, A., Sokiü, M., bearing ore oxidation in the air atmosphere Miniü, D., Markoviü, B., Stojanoviü, J. 2021 Papadopoulou, P., Development of a pre-verified epd tool with process Sustainability (Switzerland), 13 (17), art. no. 9492 Peñaloza, D., Asbjörnsson, simulation capabilities for the aggregates industry G., Hulthén, E., Evertsson, M 2021 Rego, A.S.C., Marprates, KAl(SO4)2 thermal decomposition kinetics modeling Journal of Materials Research and Technology, 14, C.V.B., Silva, T.S.X., Neto, through graphical and PSO methods pp. 1975-1984. J.G., Navarro, R.C.S., Souza, R.F.M., Brocchi, E.A. 2021 Kashyap, V., Taylor, P., Application of zinc ferrite reduction in the extraction of Minerals Engineering, 171, art. no. 107078 Tshijik Karumb, E., Zn, Ga and In from zinc refinery residue Cheshire, M. 2021 Szczepan, V., Petitjean, C., Contribution of modeling to explain the depassivation Corrosion Science, 190, art. no. 109697 Panteix, P.J., Vilasi, M. of chromia-forming alloys in molten glasses 2021 Li, Y., Xue, H., Taskinen, Clean antimony production from stibnite concentrate Journal of Cleaner Production, 313, art. no. 127847 P., Jokilaakso, A., Tang, with goethite residue co-treatment for zinc, iron, sulfur C., Jin, W., Rämä, M., conservation Chen, Y., Yang, S. 2021 Gonzales, A., Watkins, Challenges and opportunities to alloyed and Journal of Nuclear Materials, 553, art. no. 153026 J.K., Wagner, A.R., composite fuel architectures to mitigate high uranium Jaques, B.J., Sooby, E.S. density fuel oxidation: uranium silicide 2021 Zhao, Q., Zhang, X., Feasibility of solar thermochemical natural gas Journal of Cleaner Production, 312, art. no. 127835 Wang, H., Liu, M., Lundin, desulphurization and hydrogen generation with a S.-T.B., Shu, S., Kong, H., membrane reactor Hu, X. 2021 Mohamed, A.M.O., Bicer, Y. Coupling of a novel boron-based thermochemical International Journal of Hydrogen Energy, 46 (57), pp. cycle with chemical looping combustion to produce 28949-28960. ammonia and power 2021 Gao, Q., Sun, Q., Zhang, Sulfuric acid decomposition in the iodine–Sulfur cycle International Journal of Hydrogen Energy, 46 (57), pp. P., Peng, W., Chen, S. using heat from a very high temperature gas-cooled 28969-28979. reactor 2021 Fernandes, I.B., Rudolph, The quantification of entropy for multicomponent Minerals Engineering, 170, art. no. 107016 M., Hassanzadeh, A., systems: Application to microwave-assisted Bachmann, K., Meskers, comminution C., Peuker, U., Reuter, M.A. 2021 Salyulev, A.B., Kudyakov, Volatilities of the Components of the Saturated Russian Metallurgy (Metally), 2021 (8), pp. 992-997. V.Y., Moskalenko, N.I. Vapors of UCl4 Solutions in a Molten Equimolar NaCl–KCl Mixture 2021 Kanari, N., Menad, N.-E., Some aspects of the thermochemical route for the Materials, 14 (15), art. no. 4129 Filippov, L.O., Shallari, S., valorization of plasticwastes, Part I: Reduction of iron Allain, E., Patisson, F., oxides by Polyvinyl Chloride (PVC) Yvon, J. 2021 Fuentes, A., Casas, J.M. Modelling of ionic conductivity in nitrate brines to Hydrometallurgy, 203, art. no. 105639 estimate solute concentrations 2021 Liu, F., Chen, F., Wang, L., Selective separation of rare earths from spent Nd-Fe- Hydrometallurgy, 203, art. no. 105626 Ma, S., Wan, X., Wang, J. B magnets using two-stage ammonium sulfate roasting followed by water leaching 2021 Song, S.K., Kim, J.-S., Multimaterial Self-Aligned Nanopatterning by ACS Nano, 15 (7), pp. 12276-12285. Margavio, H.R.M., Simultaneous Adjacent Thin Film Deposition and Parsons, G.N. Etching 2021 Pavlenko, O.B., Anokhina, Interaction between gadolinium zirconate and Ceramics International, 47 (14), pp. 20151-20160. I.A., Dedyukhin, A.E., LiCl–Li2O melt Voronin, V.I., Nikolaev, A.Y., Mazannikov, M.V., Nikitina, E.V., Karfidov, E.A., Kholkina, A.S., Zaikov, Y.P. 2021 Wan, X., Taskinen, P., Shi, A potential industrial waste–waste co-treatment Journal of Hazardous Materials, 414, art. no. 125541 J., Jokilaakso, A. process of utilizing waste SO2 gas and residue heat to recover Co, Ni, and Cu from copper smelting slag 2021 Rinne, M., Elomaa, H., Simulation-based life cycle assessment for Resources, Conservation and Recycling, 170, art. no. Porvali, A., Lundström, M. hydrometallurgical recycling of mixed LIB and NiMH 105586 waste 2021 Zhang, J., Li, B., Li, Y., Lu, Effect of sulfide on corrosion behavior of stainless International Journal of Hydrogen Energy, 46 (42), pp. J., Wang, K., Zhang, H. steel 316SS and Hastelloy C276 in sub/supercritical 22222-22233. water 2021 Jeon, M.K., Kim, S.-W., Recycling of li2zro3 as licl and zro2 via a chlorination Journal of Nuclear Fuel Cycle and Waste Technology, Lee, K.-Y., Choi, E.-Y. technique 19 (2), pp. 271-278. 2021 Herrmann, S., Zhao, H., Controlled conversion of sodium metal from nuclear Journal of Nuclear Fuel Cycle and Waste Technology, Shi, M., Patterson, M. systems to sodium chloride 19 (2), pp. 233-241. 2021 Kim, S.-W., Han, S.Y., Mechanochemical approach for oxide reduction of Journal of Nuclear Fuel Cycle and Waste Technology, Jang, J., Jeon, M.K., Choi, spent nuclear fuels for pyroprocessing 19 (2), pp. 255-266. E.-Y. 2021 Yin, T.-Q., Xue, Y., Yan, Y.- Recovery and separation of rare earth elements by International Journal of Minerals, Metallurgy and D., Ma, Z.-C., Ma, F.-Q., molten salt electrolysis Materials, 28 (6), pp. 899-914. Zhang, M.-L., Wang, G.-L., Qiu, M. 2021 Henley, R.W., Fischer, T.P. Sulfur sequestration and redox equilibria in volcanic Journal of Volcanology and Geothermal Research, gases 414, art. no. 107181 2021 Ahmadi, E., Suzuki, R.O. Tantalum Metal Production Through High-Efficiency Journal of Sustainable Metallurgy, 7 (2), pp. 437-447. Electrochemical Reduction of TaS2 in Molten CaCl2 2021 Zhang, B., Xiao, J., Jiao, A novel titanium oxycarbide phase with metal- Ceramics International, 47 (11), pp. 16324-16332. S., Zhu, H. vacancy (Ti1-yCxO1-x): Structural and thermodynamic basis 2021 Bartie, N.J., Cobos- The resources, exergetic and environmental footprint Resources, Conservation and Recycling, 169, art. no. Becerra, Y.L., Fröhling, M., of the silicon photovoltaic circular economy: 105516 Schlatmann, R., Reuter, Assessment and opportunities M.A. 2021 Fedunik-Hofman, L., Dysprosium Oxide-Supported CaO for Frontiers in Materials, 8, art. no. 670638 Bayon, A., Gao, X., Tricoli, Thermochemical Energy Storage A., Donne, S.W. 2021 Li, K., Zeng, Y., Luo, J.-L. Corrosion of SS310 and Alloy 740 in high Corrosion Science, 184, art. no. 109350 temperature supercritical CO2 with impurities H2O and O2 2021 Li, Y., Deng, M., Wang, X., In-situ remediation of oxytetracycline and Cr(VI) co- Chemical Engineering Journal, 412, art. no. 128706 Wang, Y., Li, J., Xia, S., contaminated soil and groundwater by using blast Zhao, J. furnace slag-supported nanosized Fe0/FeSx 2021 Chen, L., Chen, P., Wang, Selective reduction of lead sulfate containing slag Journal of Cleaner Production, 296, art. no. 126512 Z., Liu, W., Zhang, D., using the fluidized bed reactor Yang, T. 2021 Zhang, H., Choi, S., Electroanalytical Measurements of UCl3and CeCl3in Journal of the Electrochemical Society, 168 (5), art. Hamilton, D.E., Simpson, Molten NaCl-CaCl2 no. 056521 M.F. 2021 StaniþLü, I., Mattisson, T., Oxygen carrier aided combustion (OCAC) of two Biomass and Bioenergy, 148, art. no. 106060 Backman, R., Cao, Y., waste fuels - Experimental and theoretical study of Rydén, M.
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  • Corrosion in Very High-Temperature Molten Salt for Next Generation CSP Systems

    Corrosion in Very High-Temperature Molten Salt for Next Generation CSP Systems

    Corrosion in Very High-Temperature Molten Salt for Next Generation CSP Systems Brenda Garcia Diaz (PI), Josh Gray (Co-PI), Luke Olson, Michael Martinez-Rodriguez, Roderick Fuentes (SRNL) Ramana Reddy, John Van Zee (University of Alabama) Project Identifier: Garcia-Diaz_A Project Start: Q1 - FY2013 1 April 1st , 2013 Outline • Motivation • Innovation • Goals and Objectives • Background • Molten Salt and Material Selection • Molten Salt Corrosion Review • Current status • Corrosion measurements/Inhibitor studies • Thermodynamic modeling • Electrochemical Kinetics and CFD Corrosion Modeling • Future plans 2 April 1st , 2013 Motivation: Enable efficient, long-term high temperature heat transfer using molten salts • SunShot program seeks major price reductions • Higher temperature energy conversion allows for better thermodynamic efficiencies • Temp. Range for Study: 800 – 1000 °C • Limited number of options for very high temperature heat transfer – Steam or other gases • Large pipe diameters needed • Large pumping power required – Molten Glass • Viscous • Low thermal conductivities – Liquid metals • Limited operating temperature range • Alloying with piping materials • Vapor pressures – Molten Salts • Heat transfer behavior at 700 °C similar to water at 20 °C Image Source: NREL, available: http://earthobservatory.nasa.gov/Features/RenewableEnergy/Images/solar_two.jpg Table Source: SAND2011-2419 3 April 1st , 2013 Goals and Objectives • Goal #1 – Identify molten salt / material combinations that have long service life and meet performance