Jun Yao

Jun Yao


Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

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

Representative Publications

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22 June 2016 in Physical Chemistry Chemical Physics
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Journal Article
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JKJianlong Kou
Jianlong Kou
JYJun Yao
Jun Yao
LWLili Wu
Lili Wu
XZXiaoyan Zhou
Xiaoyan Zhou
HLHangjun Lu
Hangjun Lu
JFJintu Fan
Jintu Fan
Nanoporous two-dimensional MoS 2 membranes are excellent candidates for saline solution purification.

1 January 2011 in Communications in Computational Physics
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Journal Article
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ZHZhaoqin Huang
Zhaoqin Huang
JYJun Yao
Jun Yao
YLYajun Li
Yajun Li
CWChenchen Wang
Chenchen Wang
XLXinrui Lv
Xinrui Lv
Numerical Calculation of Equivalent Permeability Tensor for Fractured Vuggy Porous Media Based on Homogenization Theory - Volume 9 Issue 1 - Zhaoqin Huang, Jun Yao, Yajun Li, Chenchen Wang, Xinrui Lv

12 January 2015 in Angewandte Chemie International Edition
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Journal Article
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JKJianlong Kou
Jianlong Kou
JYJun Yao
Jun Yao
HLHangjun Lu
Hangjun Lu
BZBo Zhang
Bo Zhang
ALAifen Li
Aifen Li
JFJintu Fan
Jintu Fan

12 April 2024 in Advances in Geo-Energy Research
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Journal Article
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QZQi Zhang
Qi Zhang
Yongfei YangYongfei Yang
Yongfei Yang
DWDingyuan Wang
Dingyuan Wang
Hai SunHai Sun
Hai Sun
Junjie ZhongJunjie Zhong
Junjie Zhong
VLVadim Lisitsa
Vadim Lisitsa
Correlations of residual oil distribution with pore structure during the water flooding process in sandstone reservoirs

7 February 2018 in Computational Mechanics
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Journal Article
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XYXia Yan
Xia Yan
ZHZhaoqin Huang
Zhaoqin Huang
JYJun Yao
Jun Yao
YLYang Li
Yang Li
DFDongyan Fan
Dongyan Fan
KZKai Zhang
Kai Zhang

16 December 2022 in Energies
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Journal Article
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XHXinling Hu
Xinling Hu
JWJian Wang
Jian Wang
LZLiang Zhang
Liang Zhang
HXHongli Xiong
Hongli Xiong
ZWZengding Wang
Zengding Wang
Junjie ZhongJunjie Zhong
Junjie Zhong
CO2 injection to enhance shale oil recovery provides a win-win solution to meet the global fuel shortage and realize ultimate carbon neutrality. When shale reservoirs contain high salinity water, CO2 injection can result in salt precipitation to block the nanometer pores in the shale, causing undesirable formation damage. Understanding salt precipitation and dissolution dynamics at the nanoscale are fundamental to solving this practical challenge. In this work, we developed a shale micromodel to characterize salt precipitation and dissolution based on nanofluidic technology. By directly distinguishing different phases from 50 nm to 5 μm, we identified the salt precipitation sites and precipitation dynamics during the CO2 injection. For the salt precipitation in the nanometer network, we identified two precipitation stages. The ratio of the precipitation rates for the two stages is ~7.9 times that measured in microporous media, because of the slow water evaporation at the nanoscale. For the salt precipitation in the interconnected micrometer pores, we found that the CO2 displacement front serves as the salt particle accumulating site. The accumulated salt particles will in turn impede the CO2 flow. In addition, we also studied the salt dissolution process in the shale micromodel during water injection and found the classical dissolution theory overestimates the dissolution rate by approximately twofold. This work provides valuable pore-scale experimental insight into the salt precipitation and dissolution dynamics involved in shale formation, with the aim to promote the application of CO2 injection for shale oil recovery.