Ni–Zr: papers in ORCHID

Data: JSON · all systems

Assessments and the data papers they used

cited as the original source of values (25)

• E.T. Hayes, A.H. Roberson, O.G. Paasche, The Zirconium-Nickel phase diagram, Trans. ASM 45 (1953) 893–900. (1953)
• Investigation of the nickel-rich portion of the system Ni-Zr (1957)
• M.E. Kirkpatrick, W.L. Larsen, Phase relationships in the Nickel-Zirconium and Nickel-Hafnium alloy systems, Trans. ASM 54 (1961) 580–590. (1961)
• Structures of the intermediate phases Ni₁₀Zr₇and Ni₁₀Hf₇ (1962)
• The structure of Zr2Ni7 (1972)
• Crystal structure of the intermetallic compound Ni11Zr9 (1979)
• The HfNi and ZrNi systems in the region 65 – 80 at.% Ni (1979)
• Hydrogen sorption by the metallic glass Ni64Zr36 and by related crystalline compounds (1980)
• Optimized prediction for heats of formation of transition metal alloys (1981)
• Enthalpic and structural studies of the NiZr system (1983)
• Study of the enthalpies of formation and crystallization in the system Zr-Ni (1984)
• Phase diagram calculations for eight glass forming alloy systems (1985)
• Trends in cohesive energy of transition metal alloys (1985)
• Gibbs free-energy difference between the glass and crystalline phases of a Ni-Zr alloy (1993)
• Thermodynamics and kinetics of stable and metastable phases in the Ni–Zr system (1994)
• Standard enthalpies of formation of some alloys formed between group IV elements and group VIII elements, determined by high-temperature direct synthesis calorimetry (1998)
• Thermodynamic properties and phase equilibria in the nickel–zirconium system. The liquid to amorphous state transition (2002)
• Re-examination of Zr7Ni10 single-phase region (2004)
• <i>Ab initio</i>Ti-Zr-Ni phase diagram predicts stability of icosahedral TiZrNi quasicrystals (2005)
• Thermodynamic Modeling of the Undercooled Liquid in the Ni&amp;ndash;Zr System (2005)
• Predicting the formation enthalpies of binary intermetallic compounds (2007)
• T. Kosorukova, V. Ivanchenko, G. Firstov, H. No€el, Experimental reinvestigation of Ni-Zr system, in: Solid State Phenomena, vol.194, Trans Tech Publications, Switzerland, 2013, pp. 14–20. (2013)
• First-principles studies on structural, mechanical, thermodynamic and electronic properties of Ni–Zr intermetallic compounds (2014)
• The Quasibinary ZrCo–ZrNi Phase Diagram (2017)
• An experimental study on the interdiffusion behaviors and mechanical properties of Ni-Zr system (2018)

read by ORCHID (values extracted) (7)

• Phase diagram calculations for eight glass forming alloy systems (1985)
• Thermodynamic Modeling of the Undercooled Liquid in the Ni&amp;ndash;Zr System (2005)
• Experimental study and thermodynamic re-assessment of the Ni–Zr system (2007)
• Thermodynamic Analysis of the Phase Equilibria in the Nb-Ni-Zr System (2007)
• Equilibrium between MB2 (M=Ti,Zr,Hf) UHTC and Ni: A thermodynamic database for the B–Hf–Ni–Ti–Zr system (2011)
• A first-principles based description of the Hf-Ni system supported by high-temperature synchrotron experiments (2018)
• Thermodynamic modelling of the Ni–Zr system (2020)

discovery lead (found by Crossref assessment discovery, not read) (2)

• Thermodynamic Analysis of the Phase Equilibria in the Nb-Ni-Zr System (2007)
• Equilibrium between MB2 (M=Ti,Zr,Hf) UHTC and Ni: A thermodynamic database for the B–Hf–Ni–Ti–Zr system (2011)

original evaluation behind an assessed (handbook) diagram (1)

• Ni-Zr (Nickel-Zirconium) (2007)

assessment behind a TDB file (8)

• Phase diagram calculations for eight glass forming alloy systems (1985)
• Thermodynamics and kinetics of stable and metastable phases in the Ni–Zr system (1994)
• Thermodynamic Modeling of the Undercooled Liquid in the Ni&amp;ndash;Zr System (2005)
• Experimental study and thermodynamic re-assessment of the Ni–Zr system (2007)
• Thermodynamic Analysis of the Phase Equilibria in the Nb-Ni-Zr System (2007)
• Equilibrium between MB2 (M=Ti,Zr,Hf) UHTC and Ni: A thermodynamic database for the B–Hf–Ni–Ti–Zr system (2011)
• A first-principles based description of the Hf-Ni system supported by high-temperature synchrotron experiments (2018)
• Thermodynamic modelling of the Ni–Zr system (2020)