Qinghe Yu

Dr. Qinghe Yu

GRINM Group Co., Ltd., National Engineering Research Center of Nonferrous Metals Materials and Products for New Energy; GRIMAT Engineering Institute Co., Ltd.

Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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6 November 2021 in Rare Metals
Verified
Journal Article
Closed access
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HZhong Zhu
hong Zhu
HQHao‐Chen Qiu
Hao‐Chen Qiu
WJWei Jiang
Wei Jiang
QYQinghe Yu
Qinghe Yu

18 April 2023 in Rare Metals
Verified
Journal Article
Closed access
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RCRui Cai
Rui Cai
WWWei‐Jing Wang
Wei‐Jing Wang
NZNing Zhao
Ning Zhao
FWFa‐Yong Wang
Fa‐Yong Wang
JDJian‐Liang Duan
Jian‐Liang Duan
GCGuangxu Cheng
Guangxu Cheng

30 June 2025 in Rare Metals
Verified
Journal Article
Closed access
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YLYu Liu
Yu Liu
SLSu‐Neng Liu
Su‐Neng Liu
QYQinghe Yu
Qinghe Yu
ZDZiqiang Dong
Ziqiang Dong
LHLei Hao
Lei Hao
JMJing Mi
Jing Mi

8 November 2024 in Rare Metals
Verified
Journal Article
Closed access
PDF file
SLShan‐Shan Li
Shan‐Shan Li
QYQinghe Yu
Qinghe Yu
JMJing Mi
Jing Mi
LHLei Hao
Lei Hao
LJLi‐Jun Jiang
Li‐Jun Jiang
SZShu‐Xian Zhuang
Shu‐Xian Zhuang

9 September 2021 in Rare Metals
Verified
Journal Article
Closed access
PDF file
WWWei‐Jing Wang
Wei‐Jing Wang
QYQinghe Yu
Qinghe Yu
XLXiao‐Peng Liu
Xiao‐Peng Liu
KHKe‐Zhi Huang
Ke‐Zhi Huang
JMJing Mi
Jing Mi
ZLZheng Lu
Zheng Lu

25 February 2024 in Membranes
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Journal Article
Open access
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LCLingsu Chen
Lingsu Chen
SLShuai Li
Shuai Li
ZYZhaohui Yin
Zhaohui Yin
ZYZhan-bing Yang
Zhan-bing Yang
ZCZihui Chen
Zihui Chen
MDMiao Du
Miao Du
The hydrogen flux inhibition of Pd-Ru membranes under exposure to 1–10% NH3 at 673–773 K was investigated. The Pd-Ru membranes were characterized by XRD, SEM, XPS, and hydrogen permeation tests. The results show that when exposed to 1–10% NH3 at 723 K for 6 h, the hydrogen flux of Pd-Ru membranes sharply decreases by 15–33%, and the decline in hydrogen flux becomes more significant with increasing temperatures. After the removal of 1–10% NH3, 100% recovery of hydrogen flux is observed. XPS results show that nitrogenous species appear on the membrane surface after NH3 exposure, and the hydrogen flux inhibition may be related to the competitive adsorption of nitrogenous species. By comparing the hydrogen flux of Pd-Ru membranes exposed to 10% NH3 with 10% N2, it is indicated that the rapid decrease in hydrogen flux is due to the concentration polarization and competitive adsorption of nitrogenous species. The competitive adsorption effect is attenuated, while the concentration polarization effect becomes more pronounced with increasing temperature.