Ye Tian

Prof. Dr. Ye Tian


Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

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

Representative Publications

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25 May 2015 in Nature Nanotechnology
Verified
Journal Article
Closed access
PDF file
YTYe Tian
Ye Tian
TWTong Wang
Tong Wang
WLWenyan Liu
Wenyan Liu
HXHuolin L. Xin
Huolin L. Xin
HLHuilin Li
Huilin Li
OGOleg Gang
Oleg Gang

13 January 2020 in Nature Materials
Verified
Journal Article
Closed access
PDF file
YTYe Tian
Ye Tian
JLJulien R. Lhermitte
Julien R. Lhermitte
LBlin bai
lin bai
TVThi Vo
Thi Vo
HXHuolin L. Xin
Huolin L. Xin
OGOleg Gang
Oleg Gang

13 June 2016 in Nature Chemistry
Verified
Journal Article
Closed access
PDF file
WLWenyan Liu
Wenyan Liu
JHJonathan Halverson
Jonathan Halverson
YTYe Tian
Ye Tian
ATAlexei V. Tkachenko
Alexei V. Tkachenko
OGOleg Gang
Oleg Gang

22 February 2016 in Nature Materials
Verified
Journal Article
Closed access
PDF file
YTYe Tian
Ye Tian
YZYugang Zhang
Yugang Zhang
TWTong Wang
Tong Wang
HXHuolin L. Xin
Huolin L. Xin
HLHuilin Li
Huilin Li
OGOleg Gang
Oleg Gang

26 June 2013 in Nano Letters
Verified
Journal Article
Closed access
FLFang Lu
Fang Lu
YTYe Tian
Ye Tian
MLMingzhao Liu
Mingzhao Liu
DSDong Su
Dong Su
HZHui Zhang
Hui Zhang
OGOleg Gang
Oleg Gang

9 November 2020 in Materials
Verified
Journal Article
Open access
PDF file
Zhi LiZhi Li
Zhi Li
YTYe Tian
Ye Tian
CTChao Teng
Chao Teng
HCHai Cao
Hai Cao
The barrier layer in Cu technology is essential to prevent Cu from diffusing into the dielectric layer at high temperatures; therefore, it must have a high stability and good adhesion to both Cu and the dielectric layer. In the past three decades, tantalum/tantalum nitride (Ta/TaN) has been widely used as an inter-layer to separate the dielectric layer and the Cu. However, to fulfill the demand for continuous down-scaling of the Cu technology node, traditional materials and technical processes are being challenged. Direct electrochemical deposition of Cu on top of Ta/TaN is not realistic, due to its high resistivity. Therefore, pre-deposition of a Cu seed layer by physical vapor deposition (PVD) or chemical vapor deposition (CVD) is necessary, but the non-uniformity of the Cu seed layer has a devastating effect on the defect-free fill of modern sub-20 or even sub-10 nm Cu technology nodes. New Cu diffusion barrier materials having ultra-thin size, high resistivity and stability are needed for the successful super-fill of trenches at the nanometer scale. In this review, we briefly summarize recent advances in the development of Cu diffusion-proof materials, including metals, metal alloys, self-assembled molecular layers (SAMs), two-dimensional (2D) materials and high-entropy alloys (HEAs). Also, challenges are highlighted and future research directions are suggested.