Quaternary Nb-Hf-Co-Fe alloy with superior hydrogen permeation properties over a wide temperature range

Group 5 metals and their alloys are expected to become a new generation of hydrogen-permeable membranes to replace commercial palladium-based alloys. Recently, we synthesized a new Nb-Hf-Co alloy hydrogen permeation membrane, and the Nb30Hf35Co35 alloy has good mechanical properties and permeability...

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Published inJournal of alloys and compounds Vol. 912; p. 165232
Main Authors Yan, Erhu, Liu, Wei, Wang, Hao, Zhang, Kexiang, Ge, Xiaoyu, Huang, Renjun, Cheng, Jian, Zou, Yongjin, Chu, Hailiang, Zhang, Huanzhi, Xu, Fen, Sun, Lixian
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LanguageEnglish
Published Lausanne Elsevier B.V 15.08.2022
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Abstract Group 5 metals and their alloys are expected to become a new generation of hydrogen-permeable membranes to replace commercial palladium-based alloys. Recently, we synthesized a new Nb-Hf-Co alloy hydrogen permeation membrane, and the Nb30Hf35Co35 alloy has good mechanical properties and permeability. However, the development of alloys with higher hydrogen permeability is a challenge for these Nb-based membranes. To this end, Nb30Hf35Co35−xFex (0 <x < 35) alloys were developed and their microstructure and hydrogen permeation properties were systematically studied by means of SEM, XRD and TEM, among other techniques. When the Fe content is lower than 10 at%, Nb30Hf35Co35−xFex alloys are composed completely of a eutectic structure. With increasing Fe content, changes in microstructure and constituent phases are observed. In particular, a large amount of new impurity phases (Hf2Fe, Fe2Nb, FeNb and Fe0.7Hf0.3) is formed when the Fe content in the alloys is higher than 20 at%. With these changes, the hydrogen permeability (Φ) of these alloys first increases and then decreases. The Nb30Hf35Co30Fe5 alloy exhibits the largest hydrogen permeability at 673 K, at 3.41 × 10−8 mol H2 m−1 s−1 Pa−0.5, or 2.2 times that of palladium metal under the same conditions. The increase in the Φ value is mainly due to the increase in hydrogen diffusion coefficient (K) rather than hydrogen solubility (D). The present work demonstrates that Nb-Hf-Co-Fe quaternary alloys are expected to become a more promising hydrogen permeable material compared with traditional ternary alloys. •Novel insights into the design of Nb-based hydrogen permeable alloys were presented.•The quaternary alloying is feasible in the design of Nb-based hydrogen permeation alloy.•Nb30Hf35Co30Fe5 quaternary hydrogen-permeable membrane was successfully fabricated.•Φ value of Nb30Hf35Co30Fe5 is 3.41 × 10−8 mol H2 m−m s−s Pa−Pal at 673 K.
AbstractList Group 5 metals and their alloys are expected to become a new generation of hydrogen-permeable membranes to replace commercial palladium-based alloys. Recently, we synthesized a new Nb-Hf-Co alloy hydrogen permeation membrane, and the Nb30Hf35Co35 alloy has good mechanical properties and permeability. However, the development of alloys with higher hydrogen permeability is a challenge for these Nb-based membranes. To this end, Nb30Hf35Co35−xFex (0 <x < 35) alloys were developed and their microstructure and hydrogen permeation properties were systematically studied by means of SEM, XRD and TEM, among other techniques. When the Fe content is lower than 10 at%, Nb30Hf35Co35−xFex alloys are composed completely of a eutectic structure. With increasing Fe content, changes in microstructure and constituent phases are observed. In particular, a large amount of new impurity phases (Hf2Fe, Fe2Nb, FeNb and Fe0.7Hf0.3) is formed when the Fe content in the alloys is higher than 20 at%. With these changes, the hydrogen permeability (Φ) of these alloys first increases and then decreases. The Nb30Hf35Co30Fe5 alloy exhibits the largest hydrogen permeability at 673 K, at 3.41 × 10−8 mol H2 m−1 s−1 Pa−0.5, or 2.2 times that of palladium metal under the same conditions. The increase in the Φ value is mainly due to the increase in hydrogen diffusion coefficient (K) rather than hydrogen solubility (D). The present work demonstrates that Nb-Hf-Co-Fe quaternary alloys are expected to become a more promising hydrogen permeable material compared with traditional ternary alloys. •Novel insights into the design of Nb-based hydrogen permeable alloys were presented.•The quaternary alloying is feasible in the design of Nb-based hydrogen permeation alloy.•Nb30Hf35Co30Fe5 quaternary hydrogen-permeable membrane was successfully fabricated.•Φ value of Nb30Hf35Co30Fe5 is 3.41 × 10−8 mol H2 m−m s−s Pa−Pal at 673 K.
Group 5 metals and their alloys are expected to become a new generation of hydrogen-permeable membranes to replace commercial palladium-based alloys. Recently, we synthesized a new Nb-Hf-Co alloy hydrogen permeation membrane, and the Nb30Hf35Co35 alloy has good mechanical properties and permeability. However, the development of alloys with higher hydrogen permeability is a challenge for these Nb-based membranes. To this end, Nb30Hf35Co35−xFex (0 <x < 35) alloys were developed and their microstructure and hydrogen permeation properties were systematically studied by means of SEM, XRD and TEM, among other techniques. When the Fe content is lower than 10 at%, Nb30Hf35Co35−xFex alloys are composed completely of a eutectic structure. With increasing Fe content, changes in microstructure and constituent phases are observed. In particular, a large amount of new impurity phases (Hf2Fe, Fe2Nb, FeNb and Fe0.7Hf0.3) is formed when the Fe content in the alloys is higher than 20 at%. With these changes, the hydrogen permeability (Φ) of these alloys first increases and then decreases. The Nb30Hf35Co30Fe5 alloy exhibits the largest hydrogen permeability at 673 K, at 3.41 × 10−8 mol H2 m−1 s−1 Pa−0.5, or 2.2 times that of palladium metal under the same conditions. The increase in the Φ value is mainly due to the increase in hydrogen diffusion coefficient (K) rather than hydrogen solubility (D). The present work demonstrates that Nb-Hf-Co-Fe quaternary alloys are expected to become a more promising hydrogen permeable material compared with traditional ternary alloys.
ArticleNumber 165232
Author Sun, Lixian
Ge, Xiaoyu
Liu, Wei
Cheng, Jian
Zou, Yongjin
Yan, Erhu
Chu, Hailiang
Zhang, Kexiang
Xu, Fen
Huang, Renjun
Zhang, Huanzhi
Wang, Hao
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  article-title: Hydrogen permeation of eutectic Nb-Zr-Ni alloy membranes containing primary phases
  publication-title: Mater. Trans.
  doi: 10.2320/matertrans.45.3360
  contributor:
    fullname: Takano
SSID ssj0001931
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Snippet Group 5 metals and their alloys are expected to become a new generation of hydrogen-permeable membranes to replace commercial palladium-based alloys. Recently,...
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StartPage 165232
SubjectTerms Alloy development
Alloys
Cobalt base alloys
Diffusion coefficient
Hafnium
Hydrogen
Hydrogen permeation
Iron
Mechanical properties
Membranes
Microstructure
Nb-Hf-Co-Fe alloys
Niobium
Palladium
Palladium base alloys
Penetration
Permeability
Quaternary alloys
Ternary alloys
Title Quaternary Nb-Hf-Co-Fe alloy with superior hydrogen permeation properties over a wide temperature range
URI https://dx.doi.org/10.1016/j.jallcom.2022.165232
https://www.proquest.com/docview/2687835647
Volume 912
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