| 19-24 | Experimental Study of Ternary Pd-Zn-Se Phase Equilibria and Pd/ZnSe Bulk Diffusion | F. Goesmann, T. Studnitzky and R. Schmid-Fetzer |
| 25-37 | A Thermodynamic Description for the Al-Cu-Zn System | H. Liang and Y.A. Chang |
| 38-48 | New Thermodynamic Data for Liquid Aluminum-Magnesium Alloys from emf, Vapor Pressures, and Calorimetric Studies | Z. Moser, W. Zakulski, K. Rzyman, W. Gasior and Z. Panek, et al. |
| 49-55 | The Lesser-Known B-Ln (Boron-Lanthanide) Systems: B-Dy (Boron-Dysprosium), B-Ho (Boron-Holmium), B-Lu (Boron-Lutetium), B-Pr (Boron-Praseodymium), B-Tm (Boron-Thulium), and B-Yb (Boron-Ytterbium) | M.E. Schlesinger |
| 56-63 | An Updated Evaluation of the Fe-Gd (Iron-Gadolinium) System | W. Zhang, C. Li, X. Su and K. Han |
| 64-66 | The Cs-Sn (Cesium-Tin) System | J. Sangster and C.W. Bale |
| 67-69 | The K-Sn (Potassium-Tin) System | J. Sangster and C.W. Bale |
| 70-75 | The Li-Sn (Lithium-Tin) System | J. Sangster and C.W. Bale |
| 76-81 | The Na-Sn (Sodium-Tin) System | J. Sangster and C.W. Bale |
| 82-85 | The Rb-Sn (Rubidium-Tin) System | J. Sangster and C.W. Bale |
| 86 | Al-Ge (Aluminum-Germanium) | H. Okamoto |
| 87 | C-Nb (Carbon-Niobium) | H. Okamoto |
| 88 | C-Ta (Carbon-Tantalum) | H. Okamoto |
| 89 | C-Ti (Carbon-Titanium) | H. Okamoto |
| 90 | Cd-Sc (Cadmium-Scandium) | H. Okamoto |
| 92 | Cr-P (Chromium-Phosphorus) | H. Okamoto |
| 93 | Mn-Zr (Manganese-Zirconium) | H. Okamoto |
| 2 | Editorial | J.F. Smith |
| 5 | Comments on the Li-Sr system | Cezary Gumiński |
| 6-15 | Comparison of experimental and simulated multicomponent Ni-base superalloy diffusion couples | C. E. Campbell, J-C. Zhao and M. F. Henry |
| 16-21 | A study of the cu clusters using gray-coded genetic algorithms and differential evolution | N. Chakraborti, P. Mishra and Ş. Erkoç |
| 22-52 | Ternary rare-earth aluminum systems with copper: A review and a contribution to their assessment | P. Riani, L. Arrighi, R. Marazza, D. Mazzone and G. Zanicchi, et al. |
| 53-58 | Pyrolysis effect of group V vapor sources on the composition ranges for metal-organic vapor phase epitaxy growth of III-V semiconductors | Changrong Li, Weijing Zhang and Fuming Wang |
| 59-67 | Experimental study of the Bi2O3-Fe2O3 pseudo-binary system | A. Maître, M. François and J. C. Gachon |
| 68-74 | Thermodynamic assessment of the Ni-Ga system | W. X. Yuan, Z. Y. Qiao, Herbert Ipser and Gunnar Eriksson |
| 75 | Phase diagram evaluations |
| 76 | Addendum ternary iron phase diagram updates | V. Raghavan |
| 77-78 | As-Fe-Ga (arsenic-iron-gallium) | V. Raghavan |
| 79-80 | Au-Fe-Sn (gold-iron-tin) | V. Raghavan |
| 81-82 | Cd-Fe-Se (cadmium-iron-selenium) | V. Raghavan |
| 83-84 | Cu-Fe-Se (copper-iron-selenium) | V. Raghavan |
| 85-86 | Fe-Ga-Sb (iron-gallium-antimony) | V. Raghavan |
| 87-88 | Fe-In-Te (iron-indium-tellurium) | V. Raghavan |
| 89-91 | Fe-Ni-Sb (iron-nickel-antimony) | V. Rahavan |
| 92-93 | Fe-Sb-Ti (iron-antimony-titanium) | V. Raghavan |
| 94-95 | Fe-Se-Tl (iron-selenium-thallium) | V. Raghavan |
| 96 | Fe-Te-Tl (iron-tellurium-thallium) | V. Raghavan |
| 97 | Supplemental literature review | H. Okamoto |
| 98-99 | Ce-Si (cerium-silicon) | H. Okamoto |
| 100 | Fe-Ga (iron-gallium) | H. Okamoto |
| 101-102 | Fe-H (iron-hydrogen) | H. Okamoto |
| 103 | In-Ir (indium-iridium) | H. Okamoto |
| 110 | Computational materials science |
| 111-112 | Guest editorial | Tetsuo Mohri |
| 115-121 | (Sn-Ag)eut+Cu soldering materials, part I: Wettability studies | W. Gasior, Z. Moser, J. Pstruś, K. Bukat and J. Sitek, et al. |
| 122-124 | (Sn-Ag)eut+Cu soldering materials, part II: Electrical and mechanical studies | K. T. Jacob and K. P. Jayadevan |
| 125-133 | Phase relations in the system Cu-Eu-O and thermodynamic properties of CuEu2O4 and CuEuO2 | R. Kisiel, W. Gasior, Z. Moser, J. Pstruś and K. Bukat, et al. |
| 134-139 | Evaluation of the invariant reactions of the V-B system | Belmira Benedita de Lima, Gilberto Carvalho Coelho, Paulo Atsushi Suzuki, Carlos Angelo Nunes and Peter Rogl |
| 140-151 | Phase equilibria and thermodynamics of the Mg-Si-Li system and remodeling of the Mg-Si system | D. Kevorkov, R. Schmid-Fetzer and F. Zhang |
| 152-159 | Evaluation of phase relations in the Nb-Cr-Al system at 1000°C using a diffusion-multiple approach | J. -C. Zhao, M. R. Jackson and L. A. Peluso |
| 160 | Phase diagram evaluations |
| 161 | Addendum: Ternary and higher order iron phase diagram updates |
| 162 | Al-Dy-Fe (Aluminum-Dysprosium-Iron) | V. Raghavan |
| 163 | Al-Er-Fe (Aluminum-Erbium-Iron) | V. Raghavan |
| 164 | Al-Fe-Ho (Aluminum-Iron-Holmium) | V. Raghavan |
| 165 | Al-Fe-Tb (aluminum-iron-terbium) | V. Raghavan |
| 166-167 | Ce-Fe-P (cerium-iron-phosphorus) | V. Raghavan |
| 168 | Dy-Fe-Mn (dysprosium-iron-manganese) | V. Raghavan |
| 169-170 | Dy-Fe-Tb (dysprosium-iron-terbium) | V. Raghavan |
| 171 | Fe-La-Ni (iron-lanthanum-nickel) | V. Raghavan |
| 172-173 | Fe-La-P (iron-lanthanum-phosphorus) | V. Raghavan |
| 174 | Fe-Mn-Tb (iron-manganese-terbium) | V. Raghavan |
| 175 | Fe-P-Y (iron-phosphorous-yttrium) | V. Raghavan |
| 176-177 | Co-Dy-Fe-Sm (cobalt-dysprosium-iron-samarium) | V. Raghavan |
| 178-179 | Co-Fe-Nd-Sm (cobalt-iron-neodymium-samarium) | V. Raghavan |
| 180-182 | Co-Fe-Pr-Sm (cobalt-iron-praseodymium-samarium) | V. Raghavan |
| 183-190 | The Cu-Ni-Pd (copper-nickel-palladium) system | K. P. Gupta |
| 191-194 | The Mg-Ni-Pd (magnesium-nickel-palladium) system | K. P. Gupta |
| 195 | Supplemental literature review | H. Okamoto |
| 196 | Al-Ru (aluminum-ruthenium) | H. Okamoto |
| 197-198 | Au-In (gold-indium) | H. Okamoto |
| 199-200 | H-Sm (hydrogen-samarium) | H. Okamoto |
| 201 | In-Se (indium-selenium) | H. Okamoto |
| 494 | Editorial | Zbigniew Moser |
| 496 | Addendum |
| 497-506 | Crystallography and phase equilibria a review: Part II—Space groups and structure | J. F. Smith |
| 507-514 | Phase relations in the Nb-Pd-Hf-Al system | A. Misra, G. Ghosh and G. B. Olson |
| 515-519 | Thermodynamics of phase changes in systems BaS-Ln2S3 (Ln=Pr, Sm, Gd, Tb, Er, Lu) | N. A. Khritohin, O. V. Andreev, O. V. Mitroshin and A. S. Korotkov |
| 520-527 | Thermodynamic evaluation of the Al-H system | Caian Qiu, Gregory B. Olson, Susanne M. Opalka and Donald L. Anton |
| 528-537 | Solid-liquid phase equilibria in the Al-Fe-Si system at 727 °C | S. Pontevichi, F. Bosselet, F. Barbeau, M. Peronnet and J. C. Viala |
| 538 | Phase diagram evaluations |
| 539 | Addendum ternary and higher order iron phase diagram updates | V. Raghavan |
| 540 | As-Fe-Ni (Arsenic-Iron-Nickel) | V. Raghavan |
| 541-542 | C-Fe-P (Carbon-Iron-Phosphorus) | V. Raghavan |
| 543 | Co-Cu-Fe (Cobalt-Copper-Iron) | V. Raghavan |
| 544 | Cr-Cu-Fe (Chromium-Copper-Iron) | V. Raghavan |
| 545-546 | Cr-Fe-Si (Chromium-Iron-Silicon) | V. Raghavan |
| 547-549 | Cu-Fe-Ni (Copper-Iron-Nickel) | V. Raghavan |
| 550 | Fe-Gd-Mo (Iron-Gadolinium-Molybdenum) | V. Raghavan |
| 551 | Fe-Ho-Sb (Iron-Holmium-Antimony) | V. Raghavan |
| 552 | Fe-Nb-Ni (Iron-Niobium-Nickel) | V. Raghavan |
| 553 | Fe-Ni-Sb (Iron-Nickel-Antimony) | V. Raghavan |
| 554-555 | Cr-Fe-Nb-Ni (Chromium-Iron-Niobium-Nickel) | V. Raghavan |
| 556-557 | Cs-N (Cesium-Nitrogen) | James Sangster |
| 558-559 | K-N (Potassium-Nitrogen) | James Sangster |
| 560-563 | N-Na (Nitrogen-Sodium) System | James Sangster |
| 564-565 | N-Rb (Nitrogen-Rubidium) | James Sangster |
| 566-569 | The Co-Mn-V (Cobalt-Manganese-Vanadium) System | K. P. Gupta |
| 570 | Supplemental literature review | H. Okamoto |
| 571-572 | Co-Ta (Cobalt-Tantalum) | H. Okamoto |
| 573 | Ga-Pb (Gallium-Lead) | H. Okamoto |
| 106-107 | Editorial | J. -C. Zhao |
| 109-114 | Phase equilibria in the BaS-Ln2S3 systems | O. V. Amdreev, P. V. Miodushevscy, R. Serlenga and N. N. Parsukov |
| 115-123 | Experimental determination of NH4NO3-KNO3 binary phase diagram | W. -M. Chien, D. Chandra, A. K. Helmy, J. Franklin and C. J. Rawn |
| 124-130 | Thermodynamic properties of 1-nutyl-3-methylimidazolium chloride (C4mim[Cl]) ionic liquid | Mingming Zhang, Venkat Kamavaram and Ramana G. Reddy |
| 131-151 | Assessment of the La-Mn-O system | A. Nicholas Grundy, Ming Chen, Ludwig J. Gauckler and Bengt Hallstedt |
| 152-160 | A revised thermodynamic description of the Co-W-C system | A. Markström, K. Frisk and B. Sundman |
| 161-168 | Experimental studies and thermodynamic optimization of the Ni-Bi system | G. P. Vassilev, X. J. Liu and K. Ishida |
| 169 | Phase diagram evaluations |
| 170 | Addendum ternary and higher order aluminum phase diagram updates | V. Raghavan |
| 171-172 | Al-Ti (Aluminum-Titanium) | V. Raghavan |
| 173-174 | Al-B-Ti (Aluminum-Boron-Titanium) | V. Raghavan |
| 175-177 | Al-Co-Ti (Aluminum-Cobalt-Titanium) | V. Raghavan |
| 178-179 | Al-Dy-Ti (Aluminum-Dysprosium-Titanium) | V. Raghavan |
| 180 | Al-Er-Ti (Aluminum-Erbium-Titanium) | V. Raghavan |
| 181 | Al-Ga-Ti (Aluminum-Gallium-Titanium) | V. Raghavan |
| 182-183 | Al-Gd-Ti (Aluminum-Gadolinium-Titanium) | V. Raghavan |
| 184-185 | Al-Ho-Ti (Aluminum-Holmium-Titanium) | V. Raghavan |
| 186 | Al-Pd-Ti (Aluminum-Palladium-Titanium) | V. Raghavan |
| 187 | Al-Pr-Ti (Aluminum-Praseodymium-Titanium) | V. Raghavan |
| 188-189 | Al-Pt-Ti (Aluminum-Platinum-Titanium) | V. Raghavan |
| 190 | Al-Sb-Ti (Aluminum-Antimony-Titanium) | V. Raghavan |
| 191 | Al-Ti-Y (Aluminum-Titanium-Yttrium) | V. Raghavan |
| 192 | Al-Co-Cu-Ti (Aluminum-Cobalt-Copper-Titanium) | V. Raghavan |
| 193 | Al-Co-Fe-Ti (Aluminum-Cobalt-Iron-Titanium) | V. Raghavan |
| 194 | Al-Co-Ni-Ti (Aluminum-Cobalt-Nickel-Titanium) | V. Raghavan |
| 195 | Al-Cu-Ni-Ti (Aluminum-Copper-Nickel-Titanium) | V. Raghavan |
| 196 | Supplemental literature review | H. Okamoto |
| 197 | Co-Ga (Cobalt-Gallium) | H. Okamoto |
| 198 | Co-Sb (Cobalt-Antimony) | H. Okamoto |
| 199 | Dy-Mg (Dysprosium-Magnesium) | H. Okamoto |
| 200 | Dy-Sn (Dysprosium-Tin) | H. Okamoto |
| 206 | Editorial | R. R. de Avillez |
| 209-214 | The Pr-rich portion of the Ni-Pr system | M. Huang, D. Wu, K. W. Dennis, J. W. Anderegg and R. W. McCallum, et al. |
| 215-224 | Correlation and prediction of interface tension for fluid mixtures: An approach based on cubic equations of state with the wong-sandler mixing rule | Andrés Mejía, Hugo Segura, Jaime Wisniak and Ilya Polishuk |
| 225-233 | An assessment of thermodynamic data for the liquid phase in the Al-rich corner of the Al-Cu-Si system and its application to the solidification of a 319 alloy | X. M. Pan, C. Lin, H. D. Brody and J. E. Morral |
| 234-239 | Experimental investigation and thermodynamic calculation of binary Mg-Mn phase equilibria | J. Gröbner, D. Mirkovic, M. Ohno and R. Schmid-Fetzer |
| 240-253 | Thermodynamic approach to quantitative assessment of propensity of metallic melts to amorphization | A. I. Zaitsev and N. E. Zaitseva |
| 254 | Phase diagram evaluations |
| 255 | Addendum ternary and higher order aluminum phase diagram updates | V. Raghavan |
| 256-261 | Al-Mn-Ti (Aluminum-Manganese-Titanium) | V. Raghavan |
| 262-267 | Al-Ni-Si (Aluminum-Nickel-Silicon) | V. Raghavan |
| 268-272 | Al-Ni-Ti (Aluminum-Nickel-Titanium) | V. Raghavan |
| 273-275 | Al-Ni-V (Aluminum-Nickel-Vanadium) | V. Raghavan |
| 276-279 | Al-Ti-V (Aluminum-Titanium-Vanadium) | V. Raghavan |
| 280 | Al-Mn-Ni-Ti (Aluminum-Manganese-Nickel-Titanium) | V. Raghavan |
| 281-283 | Al-Ni-Ti-V (aluminum-nickel-titanium-vanadium) | V. Raghavan |
| 284-288 | The Ga-Ge-Ni (gallium-germanium-nickel) system | K. P. Gupta |
| 289 | Supplemental literature review | H. Okamoto |
| 290-291 | Ge-Yb (germanium-ytterbium) | H. Okamoto |
| 292 | La-O (lanthanum-oxygen) | H. Okamoto |
| 293-294 | N-Si (nitrogen-silicon) | H. Okamoto |
| 295-297 | Ni-Tb (nickel-terbium | H. Okamoto |
| 298-299 | Ta-V (tantalum-vanadium) | H. Okamoto |
| 406 | Guest editorial | Andreas Öchsner |
| 408-409 | APDIC awards: 2005 | Tim G. Chart |
| 411-416 | Cobalt diffusion in different microstructured WC-Co substrates during diamond chemical vapor deposition | G. Cabral, N. Ali, E. Titus and J. Gracio |
| 417-422 | Modeling silicon and aluminum diffusion in electrical steel | Jose Barros, Yvan Houbaert, Benny Malengier and Roger Van Keer |
| 423-429 | Parabolic vs linear interface shift on the nanoscale | Dezső L. Beke and Zoltán Erdélyi |
| 430-434 | Analysis of the formation of hollow nanocrystals: Theory and monte carlo simulation | I. V. Belova and G. E. Murch |
| 435-440 | A new technique for evaluating diffusion mobility parameters | C. E. Campbell |
| 441-446 | Analysis of multicomponent diffusion couples for interdiffusion fluxes and interdiffusion coefficients | Mysore A. Dayananda |
| 447-451 | A simple and inexpensive technique to measure molecular diffusion coefficients | J. M. P. Q. Delgado, M. A. Alves and J. R. F. Guedes de Carvalho |
| 452-457 | Tracer diffusion of niobium and titanium in binary and ternary titanium aluminides | Sergiy V. Divinski, Christian Herzig and Christian Klinkenberg |
| 458-465 | Self-diffusion in nanoscale structures measured by neutron reflectometry | Mukul Gupta, Thomas Gutberlet, Rachana Gupta and Ajay Gupta |
| 466-471 | Diffusion in high-purity iron: Influence of magnetic transformation on diffusion | Yoshiaki Iijima |
| 472-476 | Measurement of self-diffusion coefficients in Li ionic conductors by using the short-lived radiotracer of 8Li | Sun-Chan Jeong, Ichiro Katayama, Hirokane Kawakami, Yutaka Watanabe and Hironobu Ishiyama, et al. |
| 477-481 | Measurements of diffusion coefficients in porous solids by inverse gas chromatography | J. Kapolos, N. Bakaoukas, A. Koliadima and G. Karaiskakis |
| 482-486 | Atomic migration on ordering and diffusion in bulk and nanostructured FePt intermetallic | Rafal Kozubski, Miroslaw Kozlowski, Kinga Zapala, Veronique Pierron-Bohnes and Wolfgang Pfeiler, et al. |
| 487-493 | Internal corrosion of engineering alloys: Experiment and computer simulation | Ulrich Krupp and Hans J. Christ |
| 494-502 | Analyses of diffusion-related phenomena in steel process | Tooru Matsumiya |
| 503-509 | Sum-rule relationships among phenomenological coefficients: Simplifications for the analysis of segregation and chemical diffusion | I. V. Belova and G. E. Murch |
| 510-515 | Mössbauer investigation of Sn diffusion and segregation in grain boundaries of polycrystalline Nb | V. N. Kaigorodov, V. V. Popov, E. N. Popova, T. N. Pavlov and S. V. Efremova |
| 516-519 | Application of tritium radioluminography to the detection of hydrogen diffusion in Ti-Cr alloy | Hideyuki Saitoh and Hirofumi Homma |
| 520-528 | Kinetics of microstructure evolution during gaseous thermochemical surface treatment | Marcel A. J. Somers and Thomas Christiansen |
| 529-533 | The influence of doping by transition metal elements on the vacancy formation energy in Fe-Al B2 phase | Angelica Strutz, David Fuks and Arik Kiv |
| 534-538 | The influence of diffusion on hydrate growth | Atle Svandal, Bjørn Kvamme, Làszlò Grànàsy and Tamàs Pusztai |
| 539-546 | The role of grain boundary diffusion in initial selective oxidation kinetics of a manganese-aluminum TRIP steel | Casper Thorning and Seetharaman Sridhar |
| 547-554 | Self-diffusion and impurity diffusion in silicon dioxide | Masashi Uematsu |
| 555-560 | Kinetics of transformation during supersaturation and aging of the Al-4.7mass%Cu alloy: Grain size, dilatometric, and differential thermal analysis studies | Ignacy Wierszyłłowski, Andrzej Stankowiak, Sebastian Wieczorek and Jarosław Samolczyk |
| 561-564 | Diffusion of chromium, manganese, and iron in MnCr2O4 spinel | Jolanta Gilewicz-Wolter, Joanna Dudała, Zbigniew Żurek, Marta Homa and Jerzy Lis, et al. |
| 570 | Deconstruction and research |
| 573-578 | Unified description of interdiffusion in solids and liquids | Marek Danielewski and Bartłomiej Wierzba |
| 579-590 | Determination and assessment of ternary interdiffusion coefficients from individual diffusion couples | Kevin M. Day, Mysore A. Dayananda and L. R. Ram-Mohan |
| 591-604 | Phase equilibria and thermodynamic properties of the ZrO2-GdO1.5-YO1.5 system | O. Fabrichnaya, Ch. Wang, M. Zinkevich, F. Aldinger and C. G. Levi |
| 605-612 | Thermodynamic reassessment of the Cu-O phase diagram | L. Schramm, G. Behr, W. Löser and K. Wetzig |
| 613-615 | Calculations of phase diagrams in associated solution model | Konstantin Yu. Shunyaev |
| 616-621 | Thermodynamic optimization of the binary YbCl3-AECl2 (AE=Mg, Ca, Sr, Ba) systems | Yimin Sun, Yu Wang, Zhisen Ma, Xiangzhen Meng and Xinyu Ye, et al. |
| 622 | Phase diagram evaluations |
| 623 | Addendum: Ternary and higher order aluminum phase diagram updates |
| 624-628 | Al-Si-Ti (aluminum-silicon-titanium) | V. Raghavan |
| 629-634 | Al-Ta-Ti (aluminum-tantalum-titanium) | V. Raghavan |
| 635-637 | Al-Cr-Ni-Ti (aluminum-chromium-nickel-titanium) | V. Raghavan |
| 638 | Al-Nb-Si-Ti (aluminum-niobium-silicon-titanium) | V. Raghavan |
| 639-640 | Al-Ti-V-Zr (aluminum-titanium-vanadium-zirconium) | V. Raghavan |
| 641 | Supplemental literature review |
| 642 | C-U (carbon-uranium) | H. Okamoto |
| 643-644 | Ca-Pb (calcium-lead) | H. Okamoto |
| 645 | Cu-In (copper-indium) | H. Okamoto |
| 646 | Eu-Sn (europium-tin) | H. Okamoto |
| 647 | Hf-Mo (hafnium-molybdenum) | H. Okamoto |
| 648 | Hf-W (hafnium-tungsten) | H. Okamoto |
| 649 | Nb-Si (niobium-silicon) | H. Okamoto |
| 650 | Ni-Pr (nickel-praseodymium) | H. Okamoto |
| 651 | Be-Hg (beryllium-mercury) | C. Guminski and H. Okamoto |
| 2 | Guest editorial | Kiyohito Ishida and Tetsuo Mohri |
| 5-13 | Thermodynamic assessment of the Cu−Pt system | Taichi Abe, Bo Sundman and Hidehiro Onodera |
| 14-21 | Revolutionary microstructure control with phase diagram evaluation for the design of E21 Co3AlC-based heat-resistant alloys | Yoshisato Kimura, Kiichi Sakai and Yoshinao Mishima |
| 22-29 | Modeling of microstructure changes in Fe−Cr−Co magnetic alloy using the phase-field method | Toshiyuki Koyama and Hidehiro Onodera |
| 30-33 | Computational investigations of the bonding layer in CVD-coated WC+Co cutting tools | Zhi-Jie Liu, Charles McNerny, Pankaj Mehrotra, Yi-Xiong Liu and Zi-Kui Liu |
| 34-46 | Geometrical approach to reaction schemes of multicomponent phase diagrams | Seiji Miura |
| 47-53 | First-principles calculations of phase equilibria and transformation dynamics of Fe-based alloys | Tetsuo Mohri, Munekazu Ohno and Ying Chen |
| 54-62 | Experimental determination and thermodynamic calculation of phase equilibria in the Fe−Mn−Al system | R. Umino, X. J. Liu, Y. Sutou, C. P. Wang and I. Ohnuma, et al. |
| 63-74 | Thermodynamic study of the phase equilibria in the Sn−Ti−Zn ternary system | K. Doi, S. Ono, H. Ohtani and M. Hasebe |
| 75-82 | Phase equilibria and phase transformation of Co−Ni−Ga ferromagnetic shape memory alloy system | Katsunari Oikawa, Takuya Ota, Yousuke Imano, Toshiro Omori and Ryosuke Kainuma, et al. |
| 83-91 | Thermodynamic evaluation of the phase equilibria and glass-forming ability of the Ti−Be system | Tatsuya Tokunaga, Hiroshi Ohtani and Mitsuhiro Hasebe |
| 92-101 | Effect of Pd additions on the invariant reactions in the Ag−CuOx system | Jens T. Darsell and K. Scott Weil |
| 102-112 | Design criteria for high-temperature steels strengthened with vanadium nitride | V. A. Yardley and Y. de Carlan |
| 558 | Guest editorial | Yongho Sohn, Carelyn Campbell, John E. Morral and Richard D. Sisson |
| 561-565 | Reactive interdiffusion in the binary system Ni-Si: Morphology of the Ni3Si2 phase | D. Borivent, J. Paret and B. Billia |
| 566-571 | A transfer-matrix method for analysis of multicomponent diffusion with any number of components | L. R. Ram-Mohan and Mysore A. Dayananda |
| 572-581 | An examination of a multicomponent diffusion couple | Mysore A. Dayananda |
| 582-589 | Diffusional analysis of a multiphase oxide scale formed on a Mo-Mo3Si-Mo5-SiB2 alloy | Voramon S. Dheeradhada, David R. Johnson and Mysore A. Dayananda |
| 590-597 | Copper diffusion into silicon substrates through TaN and Ta/TaN multilayer barriers | N. Fréty, F. Bernard, J. Nazon, J. Sarradin and J. C. Tedenac |
| 598-604 | Carbon diffusion in steels: A numerical analysis based on direct integration of the flux | Olga Karabelchtchikova and Richard D. Sisson |
| 605-613 | Interdiffusion kinetics in the Mo5SiB2 (T2) phase | Sungtae Kim and John H. Perepezko |
| 614-621 | Irradiation-enhanced interdiffusion in the diffusion zone of U-Mo dispersion fuel in Al | Yeon Soo Kim, G. L. Hofman, Ho Jin Ryu and S. L. Hayes |
| 622-628 | Modeling of kinetics of diffusive phase transformation in binary systems with multiple stoichiometric phases | J. Svoboda, E. Gamsjäger, F. D. Fischer and E. Kozeschnik |
| 629-637 | Analysis of interdiffusion data in multicomponent alloys to extract fundamental diffusion information | I. V. Belova and G. E. Murch |
| 638-643 | Chemical diffusion in the iridium-richA1 andL12 phases in the Ir-Nb system | Hiroshi Numakura, Tatsuru Watanabe, Makoto Uchida, Yoko Yamabe-Mitarai and Eisuke Bannai |
| 644-650 | Adsorption and desorption of oxygen at metal-oxide interfaces: Two-dimensional modeling approaches | A. Öchsner, J. Grácio and M. Stasiek |
| 651-658 | Diffusion reaction behaviors of U-Mo/Al dispersion fuel | Ho Jin Ryu, Jong Man Park, Chang Kyu Kim, Yeon Soo Kim and Gerard L. Hofman |
| 659-664 | Interdiffusion analysis for NiAl versus superalloys diffusion couples | E. Perez, T. Patterson and Y. Sohn |
| 665-670 | Interdiffusion in γ (face-centered cubic) Ni-Cr-X (X=Al, Si, Ge, or Pd) alloys at 900 °C | Narayana Garimella, Yongho Sohn and M. P. Brady |
| 671-675 | Oxygen diffusion through Al-doped amorphous SiO2 | Yiguang Wang, Yongho Sohn, Linan An, Yi Fan and Ligong Zhang |
| 676-683 | Phase-field investigation of multicomponent diffusion in single-phase and two-phase diffusion couples | R. R. Mohanty and Y. Sohn |
| 684-690 | Internal carburization and carbide precipitation in Fe-Ni-Cr alloy tubing retired from ethylene pyrolysis service | A. Chauhan, M. Anwar, K. Montero, H. White and W. Si |
| 691-698 | Three-dimensional interdiffusion under stress field in Fe-Ni-Cu alloys | Marek Danielewski, Renata Bachorczyk-Nagy, Bartlomiej Wierzba and Maciej Pietrzyk |
| 699-706 | Modeling of the dynamics of transient liquid films in ternary systems | Hatem S. Zurob, Jinichiro Nakano and Gary R. Purdy |
| 1 | Guest Editorial | Y. Austin Chang, Rainer Schmid-Fetzer and Patrice E.A. Turchi |
| 2-8 | Thermodynamic and Microstructural Modeling of Nb-Si Based Alloys | Sundar Amancherla, Sujoy Kar, Bernard Bewlay, Yang Ying and Austin Chang |
| 9-22 | First-Principles Phase Stability Calculations of Pseudobinary Alloys of (Al,Zn)3Ti with L12, D022, and D023 Structures | Gautam Ghosh, Axel van de Walle and Mark Asta |
| 23-37 | Atomistic Modeling of Multicomponent Systems | G. Bozzolo and J.E. Garcés |
| 38-48 | Partial Thermodynamic Properties of γ′-(Ni,Pt)3Al in the Ni-Al-Pt system | Evan Copland |
| 49-57 | Thermodynamics of Hydrogen Solution and Hydride Formation in Binary Pd Alloys | Ted B. Flanagan and S. Luo |
| 58-63 | Alloy Thermal Physical Property Prediction Coupled Computational Thermodynamics with Back Diffusion Consideration | J. Guo and M. T. Samonds |
| 64-71 | On the Potential for Improving Equilibrium Thermodynamic Databases with Kinetic Simulations | E. Kozeschnik, I. Holzer and B. Sonderegger |
| 72-78 | Theoretical Investigation of Phase Equilibria for Metal-Hydrogen Alloy | Tetsuo Mohri |
| 79-89 | Configurational Entropies of Mixing in Solid Alloys | W. A. Oates |
| 90-100 | Thermodynamic Calculations and Phase Stabilities in the Y-Si-C-O System | Damian M. Cupid and Hans J. Seifert |
| 101-106 | CALPHAD and Phase-Field Modeling: A Successful Liaison | I. Steinbach, B. Böttger, J. Eiken, N. Warnken and S. G. Fries |
| 107-114 | Liquid-Solid Phase Equilibria in Metal-Rich Nb-Ti-Hf-Si Alloys | Y. Yang, B. P. Bewlay and Y. A. Chang |
| 115-120 | Development of Thermodynamic Description of a Pseudo-Ternary System for Multicomponent Ti64 Alloy | F. Zhang, S.-L. Chen, Y.A. Chang, N. Ma and Y. Wang |
| 121-129 | An Approach to Modeling Al2O3 Containing Slags with the Cell Model | L. Zhang, S. Sun and S. Jahanshahi |
| 130-138 | Modeling of Microstructure and Microsegregation in Solidification of Multi-Component Alloys | M.-F. Zhu, W. Cao, S.-L. Chen, C.-P. Hong and Y. A. Chang |
| 139 | “What Have We Been Doing?” | Bruce Harmon |
| 140-149 | Evolutionary and Genetic Algorithms Applied to Li+-C System: Calculations Using Differential Evolution and Particle Swarm Algorithm | N. Chakraborti, R. Jayakanth, S. Das, E. D. Çalişir and Ş. Erkoç |
| 150-157 | Thermodynamics of the Au-Si-O System: Application to the Synthesis and Growth of Silicon-Silicon dioxide Nanowires | Djamila Bahloul-Hourlier and Pierre Perrot |
| 158-166 | Modeling of Thermodynamic Properties and Phase Equilibria for the Cu-Mg Binary System | Shihuai Zhou, Yi Wang, Frank G. Shi, Ferdinand Sommer and Long-Qing Chen, et al. |
| 167-171 | Phase Diagram of Ternary Calcium Acetate—Magnesium Acetate—Water System at 298 K, 313 K and 323 K | Hong-Kun Zhao, Dao-Sen Zhang, Cao Tang, Pan-Ming Jian and Shi-Hai Yuan |
| 172 | Phase Diagram Evaluations | V. Raghavan |
| 173 | Ternary and Higher Order Aluminum Phase Diagram Updates | V. Raghavan |
| 174-179 | Al-Cu-Mg (Aluminum-Copper-Magnesium) | V. Raghavan |
| 180-182 | Al-Cu-Si (Aluminum-Copper-Silicon) | V. Raghavan |
| 183-188 | Al-Cu-Zn (Aluminum-Copper-Zinc) | V. Raghavan |
| 189-191 | Al-Mg-Si (Aluminum-Magnesium-Silicon) | V. Raghavan |
| 192-196 | Al-Mn-Si (Aluminum-Manganese-Silicon) | V. Raghavan |
| 197 | Al-Si-Zn (Aluminum-Silicon-Zinc) | V. Raghavan |
| 198-200 | Al-Cu-Mg-Si (Aluminum-Copper-Magnesium-Silicon) | V. Raghavan |
| 201-202 | Al-Mg-Mn (Aluminum-Magnesium-Manganese) | V. Raghavan |
| 203-208 | Al-Mg-Zn (Aluminum-Magnesium-Zinc) | V. Raghavan |
| 209-210 | Al-Cu-Fe-Si (Aluminum-Copper-Iron-Silicon) | V. Raghavan |
| 211-212 | Al-Cu-Mg-Zn (Aluminum-Copper-Magnesium-Zinc) | V. Raghavan |
| 213-214 | Al-Fe-Mg-Si (Aluminum-Iron-Magnesium-Silicon) | V. Raghavan |
| 215-217 | Al-Fe-Mn-Si (Aluminum-Iron-Manganese-Silicon) | V. Raghavan |
| 218-220 | Al-Cu-Fe-Mg-Si (Aluminum-Copper-Iron-Magnesium-Silicon) | V. Raghavan |
| 221-222 | Al-Fe-Mg-Mn-Si (Aluminum-Iron-Magnesium-Manganese-Silicon) | V. Raghavan |
| 223-225 | Al-Cu-Fe-Mg-Ni-Si (Aluminum-Copper-Iron-Magnesium-Nickel-Silicon) | V. Raghavan |
| 226-227 | Al-Cu-Mg-Sc-Zn-Zr (Aluminum-Copper-Magnesium-Scandium-Zinc-Zirconium) | V. Raghavan |
| 228 | Supplemental Literature Review | H. Okamoto |
| 229-230 | Mg-Si (Magnesium-Silicon) | H. Okamoto |
| 231-232 | Pd-Si (Palladium-Silicon) | H. Okamoto |
| 233 | Pd-Ta (Palladium-Tantalum) | H. Okamoto |
| 234 | Rh-Ti (Rhodium-Titanium) | H. Okamoto |
| 235 | Tb–Zn (Terbium–Zinc) | H. Okamoto |
| 236-237 | Zn-Zr (Zinc-Zirconium) | H. Okamoto |
| 321 | A Second Opportunity for Old “Friends”? | Antonio C. M. Sousa |
| 322-327 | The Grain-Boundary Diffusion of Zn in α-Fe | Jonathan S. Dohie, J.R. Cahoon and W.F. Caley |
| 328-334 | Thermodynamic Treatment of Undercooled Cu-Mg Liquid and the Limits for Partitionless Crystallization | S.H. Zhou and R.E. Napolitano |
| 335-341 | VisiMat-Software for the Visualization of Multicomponent Diffusion in Two and Three Dimensions | Christopher J. O’Brien and Afina Lupulescu |
| 342-354 | Critical Evaluation and Thermodynamic Optimization of the Binary Systems in the Mg-Ce-Mn-Y System | Youn-Bae Kang, Arthur D. Pelton, Patrice Chartrand, Philip Spencer and Carlton D. Fuerst |
| 355-361 | The 450 °C Isothermal Section of the Zn-Fe-Ti System | Xianhui Tang, Fucheng Yin, Xinming Wang, Jianhua Wang and Xuping Su, et al. |
| 362-368 | Thermodynamic Description of SrO-Al2O3{\hbox{SrO-Al}_{2}\hbox{O}_{3}} System and Comparison with Similar Systems | Xinyu Ye, Weidong Zhuang, Jingfang Wang, Wenxia Yuan and Zhiyu Qiao |
| 369 | Phase Diagram Evaluations |
| 370 | Ternary and Higher Order Iron Phase Diagram Updates | V. Raghavan |
| 371-373 | Al-Fe-Mn (Aluminum-Iron-Manganese) | V. Raghavan |
| 374-376 | Al-Fe-Pd (Aluminum-Iron-Palladium) | V. Raghavan |
| 377-379 | B-Fe-Ni (Boron-Iron-Nickel) | V. Raghavan |
| 380-381 | B-Fe-Si (Boron-Iron-Silicon) | V. Raghavan |
| 382 | B-Fe-Yb (Boron-Iron-Ytterbium) | V. Raghavan |
| 383-384 | Cr-Fe-Zn (Chromium-Iron-Zinc) | V. Raghavan |
| 385-386 | Dy-Fe-Sn (Dysprosium-Iron-Tin) | V. Raghavan |
| 387-388 | Fe-Gd-Sn (Iron-Gadolinium-Tin) | V. Raghavan |
| 389-390 | Fe-Nb-Ni (Iron-Niobium-Nickel) | V. Raghavan |
| 391-392 | Fe-Nb-Ti (Iron-Niobium-Titanium) | V. Raghavan |
| 393 | Fe-Ni-Pd (Iron-Nickel-Palladium) | V. Raghavan |
| 394 | Fe-Ni-Zn (Iron-Nickel-Zinc) | V. Raghavan |
| 395-396 | Fe-Si-Zn (Iron-Silicon-Zinc) | V. Raghavan |
| 397-398 | Fe-Sn-Y (Iron-Tin-Yttrium) | V. Raghavan |
| 399 | Fe-Sn-Zn (Iron-Tin-Zinc) | V. Raghavan |
| 400 | Al-Cr-Fe-Zn (Aluminum-Chromium-Iron-Zinc) | V. Raghavan |
| 401 | Co-Fe-Ho-Sm (Cobalt-Iron-Holmium-Samarium) | V. Raghavan |
| 402 | Supplemental Literature Review | H. Okamoto |
| 403 | Ag-Sb (Silver-Antimony) | H. Okamoto |
| 404 | Ca-Si (Calcium-Silicon) | H. Okamoto |
| 405 | Mg-Nd | H. Okamoto |
| 406-407 | Mn-Ni (Manganese-Nickel) | H. Okamoto |
| 408 | Ni-O (Nickel-Oxygen) | H. Okamoto |
| 409 | Ni-Zr (Nickel-Zirconium) | H. Okamoto |
| 410 | Os-Si (Osmium-Silicon) | H. Okamoto |
| 411 | Editorial | Reza Abbaschian |
| 412-416 | Synthesis and Characterization of New Bismuth Lead Vanadate Pb2BiV3O11 | M. Kurzawa, M. Bosacka and I. Szkoda |
| 417-421 | Experimental Phase Diagram Investigations in the Ni-Rich Part of Al-Fe-Ni and Comparison with Calculated Phase Equilibria | Igor Chumak, Klaus W. Richter, Suzana G. Fries and Herbert Ipser |
| 422-426 | Stress-Induced Changes to the Triple-Point Phase Boundary of the Niobium-Deuterium System | Joseph Bulak, Gilberto Jimenez, Naima Millette, Karim Rebeiz and Andrew Craft |
| 427-432 | Molecular Diffusion Coefficients of Organic Compounds in Water at Different Temperatures | J.M.P.Q. Delgado |
| 433-438 | Pb-Free Solders: Part III. Wettability Testing of Sn-Ag-Cu-Bi Alloys with Sb Additions | Z. Moser, W. Gasior, K. Bukat, J. Pstruś and R. Kisiel, et al. |
| 439 | Ternary Aluminum Phase Diagram Updates | V. Raghavan |
| 440-441 | Al-B-Dy (Aluminum-Boron-Dysprosium) | V. Raghavan |
| 442-443 | Al-B-Er (Aluminum-Boron-Erbium) | V. Raghavan |
| 444-445 | Al-B-Gd (Aluminum-Boron-Gadolinium) | V. Raghavan |
| 446-447 | Al-B-Ho (Aluminum-Boron-Holmium) | V. Raghavan |
| 448-449 | Al-B-Tb (Aluminum-Boron-Terbium) | V. Raghavan |
| 450-452 | Al-Ca-Mg (Aluminum-Calcium-Magnesium) | V. Raghavan |
| 453-455 | Al-Ce-Mg (Aluminum-Cerium-Magnesium) | V. Raghavan |
| 456-458 | Al-Ce-Si (Aluminum-Cerium-Silicon) | V. Raghavan |
| 459-460 | Al-Dy-Mg (Aluminum-Dysprosium-Magnesium) | V. Raghavan |
| 461-463 | Al-Er-Mg (Aluminum-Erbium-Magnesium) | V. Raghavan |
| 464-468 | Al-Gd-Mg (Aluminum-Gadolinium-Magnesium) | V. Raghavan |
| 469-470 | Al-Ho-Mg (Aluminum-Holmium-Magnesium) | V. Raghavan |
| 471-472 | Al-Mg-Sc (Aluminum-Magnesium-Scandium) | V. Raghavan |
| 473-476 | Al-Mg-Sr (Aluminum-Magnesium-Strontium) | V. Raghavan |
| 477-479 | Al-Mg-Y (Aluminum-Magnesium-Yttrium) | V. Raghavan |
| 480-484 | The Ga-Ni-Si (Gallium-Nickel-Silicon) System | K. P. Gupta |
| 485 | Al-Rh (Aluminum-Rhodium) | H. Okamoto |
| 486 | Au-Er (Gold-Erbium) | H. Okamoto |
| 487-488 | Au-Nd (Gold-Neodymium) | H. Okamoto |
| 489 | Au-Pr (Gold-Praseodymium) | H. Okamoto |
| 490 | Au-Sn (Gold-Tin) | H. Okamoto |
| 491 | Au-Tm (Gold-Thulium) | H. Okamoto |
| 492-493 | Dy-Zn (Dysprosium-Zinc) | H. Okamoto |
| 494 | Ga-Pt (Gallium-Platinum) | H. Okamoto |
| 495 | Ir-Si (Iridium-Silicon) | H. Okamoto |
| 496 | Ir-Zr (Iridium-Zirconium) | H. Okamoto |
| 497 | O-U (Oxygen-Uranium) | H. Okamoto |
| 498 | O-Zr (Oxygen-Zirconium) | H. Okamoto |
| 499-500 | U-Zr (Uranium-Zirconium) | H. Okamoto |
| 1 | Editorial | Andrew Watson |
| 2-10 | Computational Study of Atomic Mobility for fcc Phase of Co-Fe and Co-Ni Binaries | Y.-W. Cui, M. Jiang, I. Ohnuma, K. Oikawa and R. Kainuma, et al. |
| 11-19 | Ternary Phase Equilibria at 450 °C in the Zn-Fe-P System | Zhi Li, Xuping Su and Yuehui He |
| 20-29 | Thermodynamic Study of Liquid, Crystalline and Quasi-Crystalline Al-Mn Phases | A.I. Zaitsev, N.E. Zaitseva, N.A. Arutyunyan and B.M. Mogutnov |
| 30-33 | Phase Diagram of Ternary Magnesium Acetate-Acetic Acid-Water System at 298.1 and 333.1 K | Hong-Kun Zhao, Dao-Sen Zhang, Rong-Rong Li, Qiu-Hong Zhang and Cao Tang |
| 34-39 | Solid-Liquid Equilibrium for Quaternary System Na2SO4-NaCl-H2O2-H2O at 283.15 K | Hong-Kun Zhao, Rong-Rong Li, Dao-Sen Zhang, Qiu-Hong Zhang and Cao Tang |
| 40 | Phase Diagram Evaluations |
| 41 | Ternary and High Order Aluminum Phase Diagram Updates | V. Raghavan |
| 42 | Al-B-Ir (Aluminum-Boron-Iridium) | V. Raghavan |
| 43 | Al-B-Rh (Aluminum-Boron-Rhodium) | V. Raghavan |
| 44-45 | Al-B-Si (Aluminum-Boron-Silicon) | V. Raghavan |
| 46-48 | Al-C-Co (Aluminum-Carbon-Cobalt) | V. Raghavan |
| 49-50 | Al-C-Cr (Aluminum-Carbon-Chromium) | V. Raghavan |
| 51 | Al-C-Ir (Aluminum-Carbon-Iridium) | V. Raghavan |
| 52 | Al-C-Rh (Aluminum-Carbon-Rhodium) | V. Raghavan |
| 53 | Al-Co-Gd (Aluminum-Cobalt-Gadolinium) | V. Raghavan |
| 54-56 | Al-Co-Pd (Aluminum-Cobalt-Palladium) | V. Raghavan |
| 57-59 | Al-Co-Si (Aluminum-Cobalt-Silicon) | V. Raghavan |
| 60 | Al-Cu-Rh (Aluminum-Copper-Rhodium) | V. Raghavan |
| 61 | Al-Ir-Ni (Aluminum-Iridium-Nickel) | V. Raghavan |
| 62 | Al-Ir-Pt (Aluminum-Iridium-Platinum) | V. Raghavan |
| 63-67 | Al-Mn-Pd (Aluminum-Manganese-Palladium) | V. Raghavan |
| 68 | Al-Pd-Re (Aluminum-Palladium-Rhenium) | V. Raghavan |
| 69-70 | Al-Pd-Rh (Aluminum-Palladium-Rhodium) | V. Raghavan |
| 71 | Al-C-Co-Fe (Aluminum-Carbon-Cobalt-Iron) | V. Raghavan |
| 72 | Al-C-Co-Ni (Aluminum-Carbon-Cobalt-Nickel) | V. Raghavan |
| 73-83 | C-K (Carbon-Potassium) System | James Sangster |
| 84-92 | C-Rb (Carbon-Rubidium) System | James Sangster |
| 93-100 | C-Cs (Carbon-Cesium) System | James Sangster |
| 101-109 | The Ga-Mn-Ni (Gallium-Manganese-Nickel) System | K. P. Gupta |
| 110 | Supplemental Literature Review |
| 111 | Ag-Ga (Silver-Gallium) | H. Okamoto |
| 112-113 | Al-Cr (Aluminum-Chromium) | H. Okamoto |
| 114 | Al-Y (Aluminum-Yttrium) | H. Okamoto |
| 115 | Be-Zr (Beryllium-Zirconium) | H. Okamoto |
| 116-117 | Ce-Fe (Cerium-Iron) | H. Okamoto |
| 118 | Ce-Y (Cerium-Yttrium) | H. Okamoto |
| 119 | Co-W (Cobalt-Tungsten) | H. Okamoto |
| 120 | Gd-Y (Gadolinium-Yttrium) | H. Okamoto |
| 121 | Hg-Tl (Mercury-Thallium) | H. Okamoto |
| 122 | La-Pt (Lanthanum-Platinum) | H. Okamoto |
| 123 | La-Y (Lanthanum-Yttrium) | H. Okamoto |
| 124 | Hf-O (Hafnium-Oxygen) | H. Okamoto |
| 125 | Nd-Y (Neodymium-Yttrium) | H. Okamoto |
| 126 | Pr-Y (Praseodymium-Yttrium) | H. Okamoto |
| 127 | Sr-Zn (Strontium-Zinc) | H. Okamoto |
| 129-130 | Editorial | J.-C. Zhao |
| 131-135 | Homogenization of Highly Alloyed Cu-Fe-Ni: A Phase Diagram Study | Isabella Gallino, Stefano Curiotto, Marcello Baricco, Michael E. Kassner and Ralf Busch |
| 136-140 | Phase Diagram for the System RuO2-TiO2 in Air | K.T. Jacob and R. Subramanian |
| 141-155 | Experimental and Thermodynamic Assessment of the Nb-Ni-Y System | N. Mattern, M. Zinkevich, W. Löser, G. Behr and J. Acker |
| 156-162 | Details on the Formation of Ti2Cu3 in the Ag-Cu-Ti System in the Temperature Range 790 to 860 °C | J. Andrieux, O. Dezellus, F. Bosselet, M. Sacerdote-Peronnet and C. Sigala, et al. |
| 163 | Phase Diagram Evaluations |
| 164 | Ternary and High Order Aluminum Phase Diagram Updates | V. Raghavan |
| 165 | Al-Bi-Pb (Aluminum-Bismuth-Lead) | V. Raghavan |
| 166 | Al-Bi-Sn (Aluminum-Bismuth-Tin) | V. Raghavan |
| 167-168 | Al-Bi-Zn (Aluminum-Bismuth-Zinc) | V. Raghavan |
| 169-170 | Al-Cr-Cu (Aluminum-Chromium-Copper) | V. Raghavan |
| 171-172 | Al-Cr-Mn (Aluminum-Chromium-Manganese) | V. Raghavan |
| 173-174 | Al-Cr-Nb (Aluminum-Chromium-Niobium) | V. Raghavan |
| 175 | Al-Cr-Ni (Aluminum-Chromium-Nickel) | V. Raghavan |
| 176-178 | Al-Cr-Si (Aluminum-Chromium-Silicon) | V. Raghavan |
| 179 | Al-Cu-In (Aluminum-Copper-Indium) | V. Raghavan |
| 180-184 | Al-Fe-Ni (Aluminum-Iron-Nickel) | V. Raghavan |
| 185 | Al-Mg-Sc (Aluminum-Magnesium-Scandium) | V. Raghavan |
| 186-187 | Al-Nd-Ti (Aluminum-Neodymium-Titanium) | V. Raghavan |
| 188-189 | Al-Pb-Zn (Aluminum-Lead-Zinc) | V. Raghavan |
| 190-191 | Al-Sb-Y (Aluminum-Antimony-Yttrium) | V. Raghavan |
| 192-193 | Al-Mg-Sc-Zr (Aluminum-Magnesium-Scandium-Zirconium) | V. Raghavan |
| 194-197 | The Nb-Ni-Ti (Niobium-Nickel-Titanium) System—Update | K.P. Gupta |
| 198 | Supplemental Literature Review |
| 199 | Al-Pd (Aluminum-Palladium) | H. Okamoto |
| 200 | Al-Sm (Aluminum-Samarium) | H. Okamoto |
| 201 | B-Nb (Boron-Niobium) | H. Okamoto |
| 202 | Be-Ti (Beryllium-Titanium) | H. Okamoto |
| 203 | Bi-Ni (Bismuth-Nickel) | H. Okamoto |
| 204 | Cu-Zr (Copper-Zirconium) | H. Okamoto |
| 205 | Dy-Ga (Dysprosium-Gallium) | H. Okamoto |
| 206 | F-Li (Fluorine-Lithium) | H. Okamoto |
| 207 | I-Li (Iodine-Lithium) | H. Okamoto |
| 208-209 | Mg-Mn (Magnesium-Manganese) | H. Okamoto |
| 210 | Nb-Ni (Niobium–Nickel) | H. Okamoto |
| 211-212 | Ti-Zn (Titanium-Zinc) | H. Okamoto |
| 299 | Editorial | Roberto R. de Avillez |
| 300-304 | Isothermal Sections in the (Fe, Ni)-Rich Part of the Fe-Ni-Al Phase Diagram | Igor Chumak, Klaus W. Richter and Herbert Ipser |
| 305-311 | A Constitutive Equation for Magnetorheological Fluid Characterization | Constantin Ciocanel, Glenn Lipscomb and Nagi G. Naganathan |
| 312-321 | Computational Study of Atomic Mobility in Co-Fe-Ni Ternary Fcc Alloys | Y. W. Cui, M. Jiang, I. Ohnuma, K. Oikawa and R. Kainuma, et al. |
| 322-332 | A New Hard Sphere Cubic Equation of State for Predicting Fluids’ Properties and Vapor-Liquid Phase Equilibrium Calculations | S. Hajipour and M. Edalat |
| 333-336 | Equilibrium Phase Diagram of the Ternary 2-Nitrobenzoic acid-3-Nitrobenzoic Acid-Acetone System at 283.15 K and 313.15 K | Hong-Kun Zhao, Qiu-Hong Zhang, Rong-Rong Li, Dao-Sen Zhang and Qi-Shu Qu |
| 337-344 | Control of Silicon Reactivity in General Galvanizing | Nai-Yong Tang |
| 345 | Phase Diagram Evaluations |
| 346 | Ternary and High Order Aluminum Phase Diagram Updates |
| 347-348 | Ag-Al-Ce (Silver-Aluminum-Cerium) | V. Raghavan |
| 349-350 | Ag-Al-Dy (Silver-Aluminum-Dysprosium) | V. Raghavan |
| 351-352 | Ag-Al-Gd (Silver-Aluminum-Gadolinium) | V. Raghavan |
| 353-354 | Ag-Al-La (Silver-Aluminum-Lanthanum) | V. Raghavan |
| 355-356 | Ag-Al-Nd (Silver-Aluminum-Neodymium) | V. Raghavan |
| 357-358 | Ag-Al-Pr (Silver-Aluminum-Praseodymium) | V. Raghavan |
| 359-360 | Ag-Al-Sm (Silver-Aluminum-Samarium) | V. Raghavan |
| 361-362 | Ag-Al-Tb (Silver-Aluminum-Terbium) | V. Raghavan |
| 363-364 | Ag-Al-Y (Silver-Aluminum-Yttrium) | V. Raghavan |
| 365-366 | Al-C-Si (Aluminum-Carbon-Silicon) | V. Raghavan |
| 367 | Al-C-Y (Aluminum-Carbon-Yttrium) | V. Raghavan |
| 368 | Al-Hf-Ir (Aluminum-Hafnium-Iridium) | V. Raghavan |
| 369 | Al-Ir-Nb (Aluminum-Iridium-Niobium) | V. Raghavan |
| 370 | Al-Ir-Ta (Aluminum-Iridium-Tantalum) | V. Raghavan |
| 371 | Al-Ir-Ti (Aluminum-Iridium-Titanium) | V. Raghavan |
| 372 | Al-Ir-V (Aluminum-Iridium-Vanadium) | V. Raghavan |
| 373 | Al-Ir-Zr (Aluminum-Iridium-Zirconium) | V. Raghavan |
| 374-377 | The Ga-Ni-Sn (Gallium-Nickel-Tin) System | K.P. Gupta |
| 378 | Supplemental Literature Review | H. Okamoto |
| 379 | B-Ca (Boron-Calcium) | H. Okamoto |
| 380 | Ba-Ti (Barium-Titanium) | H. Okamoto |
| 381-382 | Ce-Mn (Cerium-Manganese) | H. Okamoto |
| 383-384 | Co-Fe (Cobalt-Iron) | H. Okamoto |
| 385 | Pt-Zr (Platinum-Zirconium) | H. Okamoto |
| 386 | Pr-Yb (Praseodymium-Ytterbium) | H. Okamoto |
| 387-388 | Ru-Sc (Ruthenium-Scandium) | H. Okamoto |
| 389 | Editorial | John Morral |
| 390-397 | Calculation of Two-Dimensional Sections of Liquidus Projections in Multicomponent Systems | Shuanglin Chen, Ying Yang, Weisheng Cao, Bernard P. Bewlay and Kuo-Chih Chou, et al. |
| 398-404 | Thermodynamic Optimization and Calculation of the HoCl3-MCl (M = Na, K, Rb, Cs) Systems | Juan Hu, Yimin Sun, Tianyi Gao, Xiangzhen Meng and Yongxiang Yao, et al. |
| 405-413 | Study of Diffusion and Marker Movement in fcc Ag-Au Alloys | Yajun Liu, Lijun Zhang, Di Yu and Yang Ge |
| 414-428 | On the Quaternary System Ti-Fe-Ni-Al | Xinlin Yan, A. Grytsiv, P. Rogl, V. Pomjakushin and H. Schmidt |
| 429 | Phase Diagram Evaluations |
| 430 | Ternary and Higher Order Iron Phase Diagram Updates | V. Raghavan |
| 431-433 | Al-Fe-Zn (Aluminum-Iron-Zinc) | V. Raghavan |
| 434-435 | B-Fe-U (Boron-Iron-Uranium) | V. Raghavan |
| 436-437 | Ce-Fe-Si (Cerium-Iron-Silicon) | V. Raghavan |
| 438-439 | Co-Fe-Ga (Cobalt-Iron-Gallium) | V. Raghavan |
| 440-441 | Co-Fe-Sb (Cobalt-Iron-Antimony) | V. Raghavan |
| 442-443 | Cr-Fe-Zn (Chromium-Iron-Zinc) | V. Raghavan |
| 444 | Cu-Fe-Zn (Copper-Iron-Zinc) | V. Raghavan |
| 445-446 | Er-Fe-Sb (Erbium-Iron-Antimony) | V. Raghavan |
| 447 | Fe-Ho-Sb (Iron-Holmium-Antimony) | V. Raghavan |
| 448-449 | Fe-Nd-Sb (Iron-Neodymium-Antimony) | V. Raghavan |
| 450 | Fe-P-Zn (Iron-Phosphorus-Zinc) | V. Raghavan |
| 451 | Fe-Pb-Sb (Iron-Lead-Antimony) | V. Raghavan |
| 452-453 | Fe-Pr-Sb (Iron-Praseodymium-Antimony) | V. Raghavan |
| 454-456 | Fe-Rh-Ti (Iron-Rhodium-Titanium) | V. Raghavan |
| 457 | Fe-S-Zn (Iron-Sulfur-Zinc) | V. Raghavan |
| 458 | Fe-Ti-Zn (Iron-Titanium-Zinc) | V. Raghavan |
| 459-460 | As-C-Fe-Pb (Arsenic-Carbon-Iron-Lead) | V. Raghavan |
| 461-462 | C-Fe-Pb-Sb (Carbon-Iron-Lead-Antimony) | V. Raghavan |
| 463 | Supplemental Literature Review | H. Okamoto |
| 464 | Ba-Si (Barium-Silicon) | H. Okamoto |
| 465 | Be-Sc (Beryllium-Scandium) | H. Okamoto |
| 466-467 | Ga-Pd (Gallium-Palladium) | H. Okamoto |
| 468-469 | Ga-U (Gallium-Uranium) | H. Okamoto |
| 470 | Lu-S (Lutetium-Sulfur) | H. Okamoto |
| 471 | Pt-Ru (Platinum-Ruthenium) | H. Okamoto |
| 472 | S-Si (Sulfur-Silicon) | H. Okamoto |
| 473 | Sb-Yb (Antimony-Ytterbium) | H. Okamoto |
| 475-476 | Integrating Methods for Phase Equilibria and Phase Property Data Determination | Ursula R. Kattner |
| 477-481 | Microstructural Evidence of βCo2Si-phase Stability in the Co-Si System | Renato Baldan, Maria Ismênia Sodero Toledo Faria, Carlos Angelo Nunes, Gilberto Carvalho Coelho and Vanessa Motta Chad, et al. |
| 482-487 | Phase Relations in the System TiO2-V2Ox under Oxidizing and Reducing Conditions | D. Habel, O. Goerke, M. Tovar, E. Kondratenko and H. Schubert |
| 488-492 | Experimental Determination and Atomistic Simulation on the Structure of FeZn13 | Y. Liu, X.P. Su, F.C. Yin, Z. Li and Y.H. Liu |
| 493-499 | The 450 °C Isothermal Section of the Zn-Bi-Ni System | Yongxiong Liu, Fucheng Yin, Hao Tu, Zhi Li and Jianhua Wang, et al. |
| 500-508 | The Heusler Phase Ti25(Fe50 − xNix)Al25 (0 ≤ x ≤ 50); Structure and Constitution | Xinlin Yan, A. Grytsiv, P. Rogl, V. Pomjakushin and M. Palm |
| 509-512 | Thermodynamics of Solvent Extraction of Indium with P507 | Zhenwei Wang, Caibin Zhou, Dawei Fang, Shuliang Zang and Yun Dai |
| 513 | Phase Diagram Evaluations |
| 514 | Ternary and Higher Order Iron Phase Diagram Updates | V. Raghavan |
| 515 | Al-Co-Fe (Aluminum-Cobalt-Iron) | V. Raghavan |
| 516 | Al-Fe-Ga (Aluminum-Iron-Gallium) | V. Raghavan |
| 517 | B-Cu-Fe (Boron-Copper-Iron) | V. Raghavan |
| 518-519 | Co-Cu-Fe (Cobalt-Copper-Iron) | V. Raghavan |
| 520-522 | Cu-Fe-Mn (Copper-Iron-Manganese) | V. Raghavan |
| 523 | Dy-Fe-Pt (Dysprosium-Iron-Platinum) | V. Raghavan |
| 524 | Er-Fe-Ti (Erbium-Iron-Titanium) | V. Raghavan |
| 525 | Er-Fe-V (Erbium-Iron-Vanadium) | V. Raghavan |
| 526 | Fe-Nd-Pt (Iron-Neodymium-Platinum) | V. Raghavan |
| 527-528 | Fe-Ni-Si (Iron-Nickel-Silicon) | V. Raghavan |
| 529-531 | Fe-P-Ti (Iron-Phosphorus-Titanium) | V. Raghavan |
| 532 | Fe-Pr-Pt (Iron-Praseodymium-Platinum) | V. Raghavan |
| 533-534 | As-C-Cu-Fe (Arsenic-Carbon-Copper-Iron) | V. Raghavan |
| 535 | B-C-Cu-Fe (Boron-Carbon-Copper-Iron) | V. Raghavan |
| 536-537 | C-Cu-Fe-Sb (Carbon-Copper-Iron-Antimony) | V. Raghavan |
| 538 | Supplemental Literature Review | H. Okamoto |
| 539 | B-Nb (Boron-Niobium) | H. Okamoto |
| 540 | B-S (Boron-Sulfur) | H. Okamoto |
| 541 | B-Te (Boron-Tellurium) | H. Okamoto |
| 542 | Ba-Nd (Barium-Neodymium) | H. Okamoto |
| 543-544 | C-W (Carbon-Tungsten) | H. Okamoto |
| 545-547 | Ce-O (Cerium-Oxygen) | H. Okamoto |
| 548-549 | Co-O (Cobalt-Oxygen) | H. Okamoto |
| 550-551 | Ga-O (Gallium-Oxygen) | H. Okamoto |
| 305 | Editorial | Bruce Harmon |
| 306-308 | Comments Concerning “Equilibrium Phase Diagram of the Ternary 2-Nitrobenzoic Acid + 3-Nitrobenzoic Acid + Acetone System at 283.15 and 313.15 K” | William E. Acree |
| 309-317 | Phase Characteristics of a U-22Pu-4Am-2Np-40Zr Metallic Alloy Containing Rare Earths | Douglas E. Burkes, J. Rory Kennedy, Thomas Hartmann and Leah N. Squires |
| 318-322 | First-Principle Calculation Assisted Thermodynamic Assessment of the Pt-Pb System | Z. H. Long, X. M. Tao, H. S. Liu and Z. P. Jin |
| 323-333 | Assessment and Evaluation of Mobilities for Diffusion in the bcc Cr-V-Fe System | Greta Lindwall and Karin Frisk |
| 334-344 | Computational Study of Mobilities and Diffusivities in bcc Ti-Zr and bcc Ti-Mo Alloys | Yajun Liu, Lijun Zhang and Di Yu |
| 345-350 | Isothermal Section of the V-Si-B System at 1600 °C in the V-VSi2-VB Region | Carlos Angelo Nunes, Belmira Benedita de Lima, Gilberto Carvalho Coelho and Paulo Atsushi Suzuki |
| 351-366 | Thermodynamic Assessment of the La-Fe-O System | E. Povoden-Karadeniz, A. N. Grundy, M. Chen, T. Ivas and L. J. Gauckler |
| 367 | Phase Diagram Evaluations |
| 368 | Ternary Iron Phase Diagram Updates | V. Raghavan |
| 369-371 | Al-C-Fe (Aluminum-Carbon-Iron) | V. Raghavan |
| 372-374 | Al-Fe-Mo (Aluminum-Iron-Molybdenum) | V. Raghavan |
| 375-377 | Al-Fe-Ni (Aluminum-Iron-Nickel) | V. Raghavan |
| 378 | C-Co-Fe (Carbon-Cobalt-Iron) | V. Raghavan |
| 379-380 | Co-Fe-Gd (Cobalt-Iron-Gadolinium) | V. Raghavan |
| 381-383 | Cu-Fe-Mn (Copper-Iron-Manganese) | V. Raghavan |
| 384-385 | Cu-Fe-Sn (Copper-Iron-Tin) | V. Raghavan |
| 386-387 | Cu-Fe-Zn (Copper-Iron-Zinc) | V. Raghavan |
| 388-389 | Dy-Fe-Ge (Dysprosium-Iron-Germanium) | V. Raghavan |
| 390 | Dy-Fe-Sb (Dysprosium-Iron-Antimony) | V. Raghavan |
| 391-392 | Fe-Gd-Ge (Iron-Gadolinium-Germanium) | V. Raghavan |
| 393-396 | Fe-Si-Ti (Iron-Silicon-Titanium) | V. Raghavan |
| 397 | Fe-Ti-Y (Iron-Titanium-Yttrium) | V. Raghavan |
| 398-401 | The Ge-In-Ni (Germanium-Indium-Nickel) System | K. P. Gupta |
| 402-405 | The Ni-Ti-Y (Nickel-Titanium-Yttrium) System | K. P. Gupta |
| 406 | Supplemental Literature Review | H. Okamoto |
| 407 | Ce-Ni (Cerium-Nickel) | H. Okamoto |
| 408 | Co-La (Cobalt-Lanthanum) | H. Okamoto |
| 409 | Ge-V (Germanium-Vanadium) | H. Okamoto |
| 410 | Hg-Sc (Mercury-Scandium) | H. Okamoto |
| 411 | Nb-U (Niobium-Uranium) | H. Okamoto |
| 412 | Ni-Ru (Nickel-Ruthenium) | H. Okamoto |
| 413-414 | Pd-Zr (Palladium-Zirconium) | H. Okamoto |
| 415 | U-W (Uranium-Tungsten) | H. Okamoto |
| 417 | Editorial | J.-C. Zhao, Yong Du and Qing Chen |
| 418-428 | Computational Materials Design | Larry Kaufman |
| 429-434 | Solidification Simulation Using Scheil Model in Multicomponent Systems | Shuang-Lin Chen, Ying Yang, Sinn-Wen Chen, Xiong-Gang Lu and Y. Austin Chang |
| 435-442 | Isothermal Section of the Co-Gd-Sn Ternary System Between 0 and 55 at.% Sn at 500 °C | J. L. Yan, Y. Xu, Q. X. Long, J. M. Zhu and Y. H. Zhuang |
| 443-461 | Thermodynamic Database for the Al-Ca-Co-Cr-Fe-Mg-Mn-Ni-Si-O-P-S System and Applications in Ferrous Process Metallurgy | Sergei A. Decterov, Youn-Bae Kang and In-Ho Jung |
| 462-479 | A Thermodynamic Description of the Al-Cr-Si System | Yu Liang, Cuiping Guo, Changrong Li and Zhenmin Du |
| 480-486 | Thermodynamic Assessment of the Cu-B System Supported by Key Experiment and First-Principles Calculations | Wei-Wei Zhang, Yong Du, Honghui Xu, Wei Xiong and Yi Kong, et al. |
| 487-501 | Thermodynamic Description of the Al-Mo and Al-Fe-Mo Systems | Zhenmin Du, Cuiping Guo, Changrong Li and Weijing Zhang |
| 502-508 | Phase Diagram and Thermodynamic and Transport Properties of the DyBr3-LiBr Binary System | B. Kubikova, L. Rycerz, I. Chojnacka and Marcelle Gaune-Escard |
| 509-516 | A Semi-Empirical Atomistic Approach in Materials Research | Byeong-Joo Lee |
| 517-534 | First-Principles Calculations and CALPHAD Modeling of Thermodynamics | Zi-Kui Liu |
| 535-552 | Thermodynamic Database and the Phase Diagrams of the (U, Th, Pu)-X Binary Systems | C. P. Wang, Z. S. Li, W. Fang and X. J. Liu |
| 553-558 | Theoretical Investigation of Lattice Thermal Vibration Effects on Phase Equilibria Within Cluster Variation Method | Tetsuo Mohri, Tomohiko Morita, Naoya Kiyokane and Hiroaki Ishii |
| 559-563 | Enthalpy of Formation in the Al-Ni-Ti System | Rongxiang Hu, Philip Nash and Qing Chen |
| 564-570 | Thermodynamic Assessment of the Si-Ta and Si-W Systems | Zhongnan Guo, Wenxia Yuan, Yu Sun, Zhoufei Cai and Zhiyu Qiao |
| 571-576 | Integrating CALPHAD into Phase Field Simulations for Practical Applications | Kaisheng Wu, Shuanglin Chen, Fan Zhang and Y. A. Chang |
| 577 | Lunar Soils: Phase Equilibria and Transport Properties | Ramana G. Reddy |
| 578-586 | Thermodynamic Assessment of Cr-Rare Earth Systems | Wren Chan, Michael C. Gao, Ömer N. Doğan, Paul King and Anthony D. Rollett |
| 587-594 | Phase Equilibria and Ternary Intermetallic Compound with L12 Structure in Co-W-Ga System | Hibiki Chinen, Toshihiro Omori, Katsunari Oikawa, Ikuo Ohnuma and Ryosuke Kainuma, et al. |
| 595-601 | Experimental Investigation of the Zn-Al-Sb System at 450 °C | Zhongxi Zhu, Xuping Su, Fucheng Yin, Jianhua Wang and Changjun Wu |
| 602-607 | Experimental and Simulation Study of Uphill Diffusion of Al in a Pt-Coated γ-Ni-Al Model Alloy | Bo Sundman, Stewart Ford, Xiao-Gang Lu, Toshio Narita and Daniel Monceau |
| 608 | Phase Diagram Evaluations |
| 609 | Ternary and Higher Order Aluminum Phase Diagram Updates | V. Raghavan |
| 610-613 | Al-B-Ti (Aluminum-Boron-Titanium) | V. Raghavan |
| 614-616 | Al-Bi-Cu (Aluminum-Bismuth-Copper) | V. Raghavan |
| 617-619 | Al-Ca-Sr (Aluminum-Calcium-Strontium) | V. Raghavan |
| 620-623 | Al-Cr-Mn (Aluminum-Chromium-Manganese) | V. Raghavan |
| 624-625 | Al-Li-Zr (Aluminum-Lithium-Zirconium) | V. Raghavan |
| 626-629 | Al-Mg-Mn (Aluminum-Magnesium-Manganese) | V. Raghavan |
| 630 | Al-Mo-Zn (Aluminum-Molybdenum-Zinc) | V. Raghavan |
| 631-632 | Al-Pd-Ru (Aluminum-Palladium-Ruthenium) | V. Raghavan |
| 633-635 | Ca-Mg-Sr (Calcium-Magnesium-Strontium) | V. Raghavan |
| 636-637 | Al-Ca-Mg-Sr (Aluminum-Calcium-Magnesium-Strontium) | V. Raghavan |
| 638-640 | Al-Ca-Mg-Mn-Sr (Aluminum-Calcium-Magnesium-Manganese-Strontium) | V. Raghavan |
| 641-645 | The Co-Ni-Si (Cobalt-Nickel-Silicon) System | K. P. Gupta |
| 646-650 | The Co-Ni-Sn (Cobalt-Nickel-Tin) System | K. P. Gupta |
| 651-656 | The Cu-Ni-Y (Copper-Nickel-Yttrium) System | K. P. Gupta |
| 657 | Supplemental Literature Review |
| 658 | Ga-Se (Gallium-Selenium) | H. Okamoto |
| 659 | Hg-O (Mercury-Oxygen) | H. Okamoto |
| 660-661 | Mg-Sc (Magnesium-Scandium) | H. Okamoto |
| 662 | Ni-Os (Nickel-Osmium) | H. Okamoto |
| 663-664 | O-Pu (Oxygen-Plutonium) | H. Okamoto |
| 665 | Pd-T (Palladium-Tritium) | H. Okamoto |
| 666-667 | Pt-V (Platinum-Vanadium) | H. Okamoto |
| 668-669 | Sc-Sn (Scandium-Tin) | H. Okamoto |
| 1 | Editorial | Peter Rogl |
| 2-5 | Diffusion of Boron on Superplastic Duplex Stainless Steel | M. Matsushita and H. Ogiyama |
| 6-14 | Bending of a Bimetallic Beam Due to the Kirkendall Effect | W. J. Boettinger and G. B. McFadden |
| 15-21 | Structure and Inter-Diffusion Coefficients of Liquid NaxK1−x Alloys | Ş. Korkmaz and S. D. Korkmaz |
| 22-27 | Evaluation of Ti3Si Phase Stability from Heat-Treated, Rapidly Solidified Ti-Si Alloys | Alex Matos da Silva Costa, Gisele Ferreira de Lima, Geovani Rodrigues, Carlos Angelo Nunes and Gilberto Carvalho Coelho, et al. |
| 28-33 | Diffusion and Atomic Mobilities in fcc Ni-Sn Alloys | J. Wang, C. Leinenbach, H. S. Liu, L. B. Liu and M. Roth, et al. |
| 34-36 | Emf Measurements in the Liquid Au-Cu-Sn Lead-free Solder Alloys | A. Wierzbicka-Miernik, G. Garzel and L. A. Zabdyr |
| 37 | Phase Diagram Evaluations |
| 38 | Ternary and Higher Order Aluminum Phase Diagram Updates | V. Raghavan |
| 39-40 | Al-Cu-Si (Aluminum-Copper-Silicon) | V. Raghavan |
| 41-42 | Al-Cu-Zn (Aluminum-Copper-Zinc) | V. Raghavan |
| 43 | Al-Dy-Sb (Aluminum-Dysprosium-Antimony) | V. Raghavan |
| 44-45 | Al-Er-Si (Aluminum-Erbium-Silicon) | V. Raghavan |
| 46 | Al-Mg-Mn (Aluminum-Magnesium-Manganese) | V. Raghavan |
| 47-52 | Al-Nb-Ti (Aluminum-Niobium-Titanium) | V. Raghavan |
| 53-54 | Al-Ni-Re (Aluminum-Nickel-Rhenium) | V. Raghavan |
| 55-56 | Al-Ni-Ti (Aluminum-Nickel-Titanium) | V. Raghavan |
| 57-58 | Al-Ni-Y (Aluminum-Nickel-Yttrium) | V. Raghavan |
| 59 | Al-Pt-Ti (Aluminum-Platinum-Titanium) | V. Raghavan |
| 60 | Al-Sb-Y (Aluminum-Antimony-Yttrium) | V. Raghavan |
| 61 | Al-Ca-Mg-Mn (Aluminum-Calcium-Magnesium-Manganese) | V. Raghavan |
| 62-67 | Na-P (Sodium-Phosphorus) System | James M. Sangster |
| 68-72 | K-P (Potassium-Phosphorus) System | James M. Sangster |
| 73-76 | P-Rb (Phosphorus-Rubidium) System | James M. Sangster |
| 77-80 | Cs-P (Cesium-Phosphorus) System | James M. Sangster |
| 81 | Supplemental Literature Review |
| 82 | Bi-Cl (Bismuth-Chlorine) | H. Okamoto |
| 83-84 | Cu-V (Copper-Vanadium) | H. Okamoto |
| 85 | Co-Sc (Cobalt-Scandium) | H. Okamoto |
| 86-87 | Cs-O (Cesium-Oxygen) | H. Okamoto |
| 88-90 | Ca-Fe (Calcium-Iron) | H. Okamoto |
| 91-92 | C-V (Carbon-Vanadium) | H. Okamoto |
| 93 | Hg-Tm (Mercury-Thulium) | H. Okamoto |
| 94-95 | Co-Nb (Cobalt-Niobium) | H. Okamoto |
| 97 | Editorial | J. F. (Jack) Smith |
| 98-103 | Cu9Ni6Sn: Determination of Phase Transformation at High Temperature | A. Deraisme, C. Servant, D. Pachoutinsky, Y. Bienvenu and J.-D. Bartout, et al. |
| 104-112 | Cascade of Peritectic Reactions in the B-Fe-U System | M. Dias, P. A. Carvalho, A. P. Dias, M. Bohn and N. Franco, et al. |
| 113-134 | Thermodynamic Assessment of the Fe-Mn-O System | Lina Kjellqvist and Malin Selleby |
| 135-143 | Assessment of Atomic Mobilities for bcc Phase of Ti-Al-V System | Lei Huang, Yuwen Cui, Hui Chang, Hong Zhong and Jinshan Li, et al. |
| 144-148 | Predicting the Q-Phase in Al-Cu-Mg-Si Alloys | X. Pan, J. E. Morral and H. D. Brody |
| 149-156 | Interdiffusion of Bi in Liquid Sn | C. B. Porth and J. R. Cahoon |
| 157-163 | Phase Equilibria and Crystal Chemistry in the System CaO-Al2O3-Y2O3 | Andreas Richter and Matthias Göbbels |
| 164 | Phase Diagram Evaluations |
| 165 | Ternary Iron Phase Diagram Updates | V. Raghavan |
| 166-167 | Al-Fe-Nb (Aluminum-Iron-Niobium) | V. Raghavan |
| 168 | Cr-Dy-Fe (Chromium-Dysprosium-Iron) | V. Raghavan |
| 169-171 | Cu-Fe-Si (Copper-Iron-Silicon) | V. Raghavan |
| 172 | Er-Fe-Mn (Erbium-Iron-Manganese) | V. Raghavan |
| 173-174 | Fe-Ga-Gd (Iron-Gallium-Gadolinium) | V. Raghavan |
| 175-176 | Fe-Ga-Tb (Iron-Gallium-Terbium) | V. Raghavan |
| 177-179 | Fe-Mn-Ni (Iron-Manganese-Nickel) | V. Raghavan |
| 180-183 | Fe-Nb-Ni (Iron-Niobium-Nickel) | V. Raghavan |
| 184-185 | Fe-Ni-Si (Iron-Nickel-Silicon) | V. Raghavan |
| 186-189 | Fe-Ni-Ti (Iron-Nickel-Titanium) | V. Raghavan |
| 190 | Fe-Sn-W (Iron-Tin-Tungsten) | V. Raghavan |
| 191-193 | The Cr-Ni-Zr (Chromium-Nickel-Zirconium) System | K. P. Gupta |
| 194-197 | The Ni-Re-Zr (Nickel-Rhenium-Zirconium) System | K. P. Gupta |
| 198 | Supplemental Literature Review |
| 199 | Mg-Y (Magnesium-Yttrium) | H. Okamoto |
| 200-201 | Ni-P (Nickel-Phosphorus) | H. Okamoto |
| 202-203 | Sn-Ti (Tin-Titanium) | H. Okamoto |
| 204 | Bi-Rh (Bismuth-Rhodium) | H. Okamoto |
| 205 | Bi-Sn (Bismuth-Tin) | H. Okamoto |
| 206 | Ga-Na (Gallium-Sodium) | H. Okamoto |
| 207 | As-Te (Arsenic-Tellurium) | H. Okamoto |
| 208-209 | B-Nb (Boron-Niobium) | H. Okamoto |
| 211 | Editorial | Mark E. Schlesinger |
| 212-215 | Simulation of Carbon Diffusion in Steel Driven by a Temperature Gradient | Lars Höglund and John Ågren |
| 216-222 | Microstructural Characterization of U-Nb-Zr, U-Mo-Nb, and U-Mo-Ti Alloys via Electron Microscopy | A. Ewh, E. Perez, D. D. Keiser and Y. H. Sohn |
| 223-232 | Determination of the Diffusivity of Point Defects in Passive Films on NiTi and NiTiAl Alloys | Kuan-Ting Liu and Jenq-Gong Duh |
| 233-237 | Thermodynamics of Solvent Extraction of Rhenium(VII) with N1923 | Da-wei Fang, Xue-jun Gu, Ying Xiong, Shuang Yue and Shu-liang Zang |
| 238-249 | Thermodynamic Evaluation of the Si-C-Al-Y-O System for LPS-SiC Application | Zhu Pan, Olga Fabrichnaya, Hans J. Seifert, Roland Neher and Kristina Brandt, et al. |
| 250-259 | Assessing Concentration Dependence of FCC Metal Alloy Diffusion Coefficients Using Kinetic Monte Carlo | B. Swoboda, A. Van der Ven and D. Morgan |
| 260-269 | High Temperature Thermodynamic Data for CdTe(c) | Robert F. Brebrick |
| 270 | Phase Diagram Evaluations |
| 271 | Ternary and Higher Order Aluminum Phase Diagram Updates |
| 272-273 | Al-B-Mg (Aluminum-Boron-Magnesium) | V. Raghavan |
| 274 | Al-C-Co (Aluminum-Carbon-Cobalt) | V. Raghavan |
| 275-278 | Al-Ce-Cu (Aluminum-Cerium-Copper) | V. Raghavan |
| 279-281 | Al-Cr-Ni (Aluminum-Chromium-Nickel) | V. Raghavan |
| 282-284 | Al-Cu-Dy (Aluminum-Copper-Dysprosium) | V. Raghavan |
| 285-287 | Al-Cu-Er (Aluminum-Copper-Erbium) | V. Raghavan |
| 288-290 | Al-Cu-Li (Aluminum-Copper-Lithium) | V. Raghavan |
| 291-292 | Al-Ir-Ru (Aluminum-Iridium-Ruthenium) | V. Raghavan |
| 293-294 | Al-Mg-Zn (Aluminum-Magnesium-Zinc) | V. Raghavan |
| 295-296 | Al-Sb-Si (Aluminum-Antimony-Silicon) | V. Raghavan |
| 297-299 | Ag-Al-Cu-Mg (Silver-Aluminum-Copper-Magnesium) | V. Raghavan |
| 300-307 | The Co-Cr-Si (Cobalt-Chromium-Silicon) System | K. P. Gupta |
| 308-312 | The Co-Nb-Si (Cobalt-Niobium-Silicon) System | K. P. Gupta |
| 313 | Supplemental Literature Review |
| 314-315 | Bi-Ti (Bismuth-Titanium) | H. Okamoto |
| 316-317 | Cl-F (Chlorine-Fluorine) | H. Okamoto |
| 318 | Cl-O (Chlorine-Oxygen) | H. Okamoto |
| 319 | Dy-Ti (Dysprosium-Titanium) | H. Okamoto |
| 320-321 | I-Pb (Iodine-Lead) | H. Okamoto |
| 322 | Ni-Pt (Nickel-Platinum) | H. Okamoto |
| 323 | Sb-Y (Antimony-Yttrium) | H. Okamoto |
| 324 | V-W (Vanadium-Tungsten) | H. Okamoto |
| 325-326 | Editorial | V. Raghavan |
| 327-332 | Investigation of the Phase Relations in the Al-Rich Alloys of the Al-Sc-Hf System in Solid State | L. L. Rokhlin, N. R. Bochvar, J. Boselli and T. V. Dobatkina |
| 333-340 | A New Equation for Temperature Dependent Solute Impurity Diffusivity in Liquid Metals | Xuping Su, Sui Yang, Jianhua Wang, Nai-Yong Tang and Fucheng Yin, et al. |
| 341-347 | Reuse of RO Desalination Plant Reject Brine | Ferid Hajbi, Halim Hammi and Adel M’nif |
| 348-356 | To Journal of Phase Equilibria and Diffusion Phase Relationship of the BaO-ZrO2-YO1.5 System at 1500 and 1600 °C | Susumu Imashuku, Tetsuya Uda, Yoshitaro Nose and Yasuhiro Awakura |
| 357-364 | Thermodynamic Assessment of the Mn-B System | Weihua Sun, Yong Du, Shuhong Liu, Baiyun Huang and Chao Jiang |
| 365 | Phase Diagram Evaluations |
| 366 | Ternary and Higher Order Iron Phase Diagram Updates | V. Raghavan |
| 367 | Al-Fe-O (Aluminum-Iron-Oxygen) | V. Raghavan |
| 368 | Fe-Mg-O (Iron-Magnesium-Oxygen) | V. Raghavan |
| 369-371 | Fe-Ni-O (Iron-Nickel-Oxygen) | V. Raghavan |
| 372 | Fe-O-Sn (Iron-Oxygen-Tin) | V. Raghavan |
| 373-376 | Fe-O-Zn (Iron-Oxygen-Zinc) | V. Raghavan |
| 377-378 | Al-Fe-Ni-O (Aluminum-Iron-Nickel-Oxygen) | V. Raghavan |
| 379-380 | Al-Fe-O-Zn (Aluminum-Iron-Oxygen-Zinc) | V. Raghavan |
| 381-382 | Fe-Mg-Ni-O (Iron-Magnesium-Nickel-Oxygen) | V. Raghavan |
| 383-384 | Fe-Mg-O-Zn (Iron-Magnesium-Oxygen-Zinc) | V. Raghavan |
| 385-386 | Fe-O-Si-Zn (Iron-Oxygen-Silicon-Zinc) | V. Raghavan |
| 387-388 | Fe-O-Sn-Zn (Iron-Oxygen-Tin-Zinc) | V. Raghavan |
| 389-394 | The Co-Ni-Y (Cobalt-Nickel-Yttrium) System | K. P. Gupta |
| 395-398 | The Cr-Ni-Re (Chromium-Nickel-Rhenium) System | K. P. Gupta |
| 399 | Supplemental Literature Review | H. Okamoto |
| 400 | As-I (Arsenic-Iodine) | H. Okamoto |
| 401 | Cl-Re (Chlorine-Rhenium) | H. Okamoto |
| 402-403 | Cl-W | H. Okamoto |
| 404 | F-Xe (Fluorine-Xenon) | H. Okamoto |
| 405-406 | P-Te (Phosphorus-Tellurium) | H. Okamoto |
| 407-408 | Mg-Pd (Magnesium-Palladium) | H. Okamoto |
| 409-410 | Si-V (Silicon-Vanadium) | H. Okamoto |
| 411-412 | Sn-Zr (Tin-Zirconium) | H. Okamoto |