Study on the γ + γ′ microstructure characterization of the Co–V–Zr system based on CALPHAD method
Jiaxing Sun, Cuiping Guo, Changrong Li, Zhenmin Du
Calphad 87 102762 (2024) · Elsevier BV
DOI: 10.1016/j.calphad.2024.102762
Reference as printed in ORCHID's sources: J. Sun, C. Guo, C. Li, Z. Du, Calphad, 87, 102762(2024).
Data: JSON record · id doi:10.1016/j.calphad.2024.102762 · metadata: crossref
Roles in ORCHID
- assessment behind a TDB file: CoV-24Sun.tdb (Co–V)
- discovery lead (found by Crossref assessment discovery, not read): rank 323, score 113; systems named in title: Co–V–Zr
Systems
Evidence in ORCHID
Phase-registry phases citing it: phase:co-v:bcc-a2, phase:co-v:co3v, phase:co-v:cov3-a15, phase:co-v:d8b-sigma, phase:co-v:fcc-a1, phase:co-v:hcp-a3, phase:co-v:liquid
Availability
Read by ORCHID: no. Open-access licence (Crossref license field): none deposited. Crossref is-referenced-by count: 6 (retrieved 2026-10-23).
Relations
Cited by (Crossref reference lists) (6)
- Experimental investigation and thermodynamic optimization of the Ni–Ta–Ti system (2025) [crossref_reference_list]
- Phase equilibria in the Co–Ta–W system at 1373 and 1473 K (2025) [crossref_reference_list]
- Experimental determination and thermodynamic description of the Fe–Nb–Zr system (2025) [crossref_reference_list]
- The SGTE collection of binary datasets (2025) [crossref_reference_list]
- Diffusivities and atomic mobilities of fcc phase in Co-rich Co–Fe–Ti system: Experimental study and CALPHAD assessment (2026) [crossref_reference_list]
- Thermodynamic description of the Hf–Mo–Ni system with experimental determination for phase stability of NiHf3 and phase diagram (2025) [crossref_reference_list]
References (Crossref, publisher-deposited) (16)
- Phase equilibria of Co3 V (1997) [crossref_reference_list]
- Experimental Investigation and Thermodynamic Description of the Co–Nb–Zr System (2023) [crossref_reference_list]
- Thermodynamic Descriptions of the Co–Zr and Co–Fe–Zr Systems (2021) [crossref_reference_list]
- Thermodynamic optimization of the Co–Zr system (2010) [crossref_reference_list]
- An improved thermodynamic modeling of the Fe–Cr system down to zero kelvin coupled with key experiments (2011) [crossref_reference_list]
- Thermodynamic modeling of the Fe–Ti–V system (2012) [crossref_reference_list]
- Experimental investigation and thermodynamic modeling of the Ti–V–Zr system (2016) [crossref_reference_list]
- Thermodynamic assessment of the C–Zr–Nb ternary system (2018) [crossref_reference_list]
- Structural stability of Co–V intermetallic phases and thermodynamic description of the Co–V system (2020) [crossref_reference_list]
- Experimental determination and thermodynamic assessment of the phase diagram in the Co–Zr system (2009) [crossref_reference_list]
- Experimental investigations of microstructures and phase equilibria in the Co–V–Ta ternary system (2016) [crossref_reference_list]
- Experimental observation of magnetically induced phase separation and thermodynamic assessment in the Co–V binary system (2015) [crossref_reference_list]
- Crystal chemistry and Calphad modeling of the σ phase (2008) [crossref_reference_list]
- Algebraic Representation of Thermodynamic Properties and the Classification of Solutions (1948) [crossref_reference_list]
- A thermodynamic assessment of the Co-V system (2003) [crossref_reference_list]
- Das Zweistoffsystem Kobalt-Vanadin (1955) [crossref_reference_list]
TDB files modelling its system (1)
tdb:CoV-24Sun.tdb[sgte_tdb_header]
Reassesses (cites an earlier assessment of the same system) (3)
- Structural stability of Co–V intermetallic phases and thermodynamic description of the Co–V system (2020) [citation+same-system]
- Experimental observation of magnetically induced phase separation and thermodynamic assessment in the Co–V binary system (2015) [citation+same-system]
- A thermodynamic assessment of the Co-V system (2003) [citation+same-system]