謝紅獻，男，博士，河北工業大學機械工程學院教授，日本大阪大學博士後，主要研究傳統及新型結構材料的強度與塑性變形機制等力學行為。近年來，主持承擔國家自然基金面上項目2項、聯合承擔科技部重大專項1項，以主要成員身份參與國際可控熱核聚變ITER專項、以第二完成人參加國家自然科學基金面上項目1項、以及多項河北省自然基金及教育廳基金。近年來在本領域國際重要期刊 Acta Materialia; Scripta Materialia; Nuclear Fusion, Applied Physics Letters；Scientific Reports上以第一作者發表論文SCI檢索論文50餘篇，在相關領域全國性的大會上做邀請報告5次。
基本介紹
- 中文名：謝紅獻
- 畢業院校：鋼鐵研究總院
- 學位/學歷：博士
- 教學職稱：教授
- 任職院校：河北工業大學機械工程學院
人物經歷,研究方向,主要成就,科研項目,代表性論文,
人物經歷
教育經歷
2005/09-2009/03 鋼鐵研究總院功能材材料所，博士
2002/09-2005/07 河北師範大學物理學院，碩士；
1992/09-1994/06 邢台學院物理學院
工作經歷
2018/08 – 2019/11 日本大阪大學，博士後
2010/08 – 2010/11 日本筑波國家物質材料研究機構（NIMS）特聘研究員
2010/03 – 河北工業大學，機械工程學院，力學系，教師
1994/07 – 2002/08 平鄉縣第三中學，教師
研究方向
主要研究傳統及新型結構材料的強度與塑性變形機制等力學行為。研究材料的微觀缺陷（空位，間隙原子，位錯，晶界，相界，微裂紋）的產生，運動，以及它們之間的相互做用規律及其對巨觀力學性能（強度和塑性）的影響。探討結構材料巨觀力學性能和其微觀結構的關係。研究核聚變堆輻照效應對材料力學性能的影響以及材料的應力誘導相變問題。
主要成就
科研項目
1、國家自然科學基金-面上項目，應力環境中金屬W和Fe晶體缺陷處氦泡的生長機理研究（2019.01-2022.12，66萬元，項目批准編號：11875015）；
2、國家自然科學基金-面上項目，應變速率誘導金剛石納米線及FCC金屬納米線的相變機制研究（2016.01-2019.12，74.4萬元，項目批准編號：51571082）；
3、國家重大專項子課題，輻照初級損傷結構與氫氦效應（2018.11-2023.11. 15萬元，項目批准編號：2018YFE0308101）。
4、河北生自然基金面上項目，核聚變堆材料鎢和鐵的晶體位錯處氦泡的生長機理研究（2019.01-2021.12，10萬元，項目編號：A2019202196）；
代表性論文
[1] Hongxian Xie#; Gaobing Wei; Jun-Ping Du; Akio Ishii; Guanghong Lu; Peijun Yu; Shigenobu Ogata, Shuffling pathway of anti-twinning in body-centered-cubic metals, Scripta Materialia, 222：(2023)114999.
[2]Tingting He; Hongxian Xie#; Gaobing Wei; Guang-Hong Lu An atomistic study of the thermal and anti-thermal behavior of incoherent twin step migration under an elastic energy driving force, Computational Materials Science, , 214(2022)111748-111748.
[3] Zhenzhong Zhou; Hongxian Xie#; Guang-Hong Lu，Interaction between disclinated non-equilibrium grainboundaries and radiation-induced interstitial/vacancy in tungsten, Nucl. Fusion 62 (2022)126031.
[4]Qing-Yuan Ren, Yu-Hao Li, Ning Gao, Wei-Zhong Han, Yu-Ze Niu, Hongxian Xie, Ying Zhang, Fei Gao, Guang-Hong Lu, Hong-Bo Zhou, Revealing the synergistic effect of invisible helium clusters in helium irradiation hardening in tungsten, Scripta Materialia, 219, 114850 (2022)
[5]Jingxiao Ren, Hongxian Xie, Fuxing Yin, Yuanfang Lu, Guanghong Lu, Influence of grain boundaries on the loop-punching mechanism and shape of helium bubbles in tungsten, Materials Today Communications, 32, 104075 (2022)
[6]Kai Chen, Hongxian Xie, Yanhui Qie, Huiqiu Deng, Molecular dynamics simulation study of helium bubble growth on W/Ta semi-coherent interface, Journal of Nuclear Materials, 558, 153340 (2022)
[7]Xindong Li, Jingxaio Ren, Yuanfang Lu & Hongxian Xie, Progress in Simulation of Helium Bubble Growth in Body-centered Cubic Tungsten and Iron, Atomic Energy Science and Technology, 55, 50-61 (2021)
[8]Gaobing Wei, Hongxian Xie, Fuxing Yin, and Guanghong Lu, Twinning mechanism asymmetry in body-centered cubic tantalum under [001] uniaxial compression/tension, Physical Review Materials, 5, 123604 (2021)
[9]Hongxian Xie, Gaobing Wei, Yuanfang Lu, Junping Du, Fuxing Yin, Guang-Hong Lu, and Shigenobu Ogata, Driving force of zero-macroscopic-strain deformation twinning in face-centred-cubic metals, Philosophical Magazine, 101, 2318-2330 (2021)
[10]Hongxian Xie, Tong Ma, Tao Yu, Fuxing Yin, Body-centered-cubic to face-centered-cubic phase transformation of iron under compressive loading along [100] direction, Materials Today Communications, 26, 101961(2021)
[11]Yuanfang Lu, Hongxian Xie, Fuxing Yin, Guang-Hong Lu, Shock response of He bubble in single crystal tungsten: molecular dynamics simulation study, Journal of Nuclear Materials, 556, 153165 (2021)
[12]Tong Ma, Hongxian Xie, Formation mechanism of face-centered cubic phase in impact process of single crystal iron along [101] direction, ACTA PHYSICA SINICA, 69, 130202 (2020)
[13]Hongxian Xie, Zeze Mu, Guang-Hong Lu, Fuxing Yin, Atomistic simulation of interaction between wedge disclination and self-interstitial atom in bcc tungsten, Journal of Nuclear Materials, 542, 152460 (2020)
[14]Jiayun Yu, Hongxian Xie, Fuxing Yin & Tao Yu, Face-centered-cubic to body-centered-cubic phase transformation of Cu nanoplate under [100] tensile loading, Philosophical Magazine, 99, 2517-2530 (2019)
[15]Hongxian Xie, Ke Xu, Guang-Hong Lu, Tao Yu, Fuxing Yin, Dislocation climbing mechanism for helium bubble growth in tungsten, Scripta Materialia, 147, 98-102 (2018)
[16]Hongxian Xie, Jiayun Yu, Tao Yu, Fuxing Yin, Face-centred cubic to body-centred cubic phase transformation under [100] tensile loading, Philosophical Magazine, 98, 1696-1707 (2018).
[17]Hongxian Xie, Ning Gao, Ke Xu, Guang-Hong Lu, Tao Yu and Fuxing Yin, A new loop-punching mechanism for helium bubble growth in Tungsten, Acta Materialia, 141, 10 (2017)
[18]Hongxian Xie, Ke Xu, Guang-Hong Lu, Tao Yu and Fuxing Yin, Trapping of hydrogen and helium at an {110}<111>edge dislocation in Tungsten，Journal of Nuclear Materials, 484, 270 (2017)
[19] Qing Feng, Xiaoyan Song, Hongxian Xie, Haibin Wang, Xuemei Liu and Fuxing Yin, Deformation and plastic coordination in WC-Co composite Molecular dynamics simulation of nanoindentation, Materials and Design, 120,193 (2017)
[20]Ke Xu, Liang-Liang Niu, Shuo Jin, Xiaolin Shu, Hongxian Xie, Lifang Wang and Guang-Hong Lu, Atomistic simulations of screw dislocations in bcc tungsten: From core structures and static properties to interaction with vacancies, Nuclear Instruments and Methods in Physics Research B, 393, 174 (2017)
[21]Hongxian Xie, Tao Yu, Wei Fang, Fuxing Yin and Dil Faraz Khan, Strain-rate-induced bcc-to-hcp phase transformation of Fe nanowires, Chinese Physics B, 25, 126201 (2016)
[22]Hongxian Xie, Xiaoyan Song, Fuxing Yin and Yongguang Zhang, Effect of WC/Co coherency phase boundaries on Fracture toughness of the nanocrystalline cemented carbides, Scientific Reports, 6, 31047 (2016)
[23]Wei Fang, Hongxian Xie, FuxingYin, Jia Li, Dil Faraz Khan and Qian Fang, Molecular dynamics simulation of grain boundary geometry on crack propagation of bi-crystal aluminum, Materials Science and Engineering A, 666, 314 (2016)
[24]Hongxian Xie, Fuxing Yin, Tao Yu, Guanghong Lu and Yongguang Zhang, A new strain-rate induced deformation mechanism of Cu nanowire: Transition from dislocation nucleation to phase transformation, Acta Materialia, 85,191 (2015)
[25]Hongxian Xie, Fuxing Yin, Tao Yu, Jiantao Wang and Chunyong Liang, Mechanism for direct graphite-to-diamond phase transition, Scientific Reports, 4, 5930 (2014)
[26]Hongxian Xie, Fuxing Yin and Tao Yu, Strain rate induced graphitization of cubic diamond film, Applied Physics Letters, 104, 031911 (2014)
[27]Hongxian Xie, Tao Yu and Fuxing Yin, Tension-compression asymmetry in homogeneous dislocation nucleation stress of single crystals Cu, Au, Ni and Ni3Al, Materials Science and Engineering A, 604,142-147 (2014)
[28]Hongxian Xie, Tao Yu, Fuxing Yin and Chengchun Tang, The effects of crack orientation on the twin formation from the crack tip in γ′-Ni3Al, Materials Science and Engineering A, 580, 99 (2013)
[29]Hongxian Xie, Tao Yu and Chengchun Tang, Motion mechanism of the edge dislocation slipping in the cubic plane of Ni3Al single crystals, Modelling Simulation in Materials Science Engineering, 21, 055008 (2013)
[30]Hongxian Xie, Bo Liu, Fu-Xing Yin and Tao Yu, Effect of grain boundary sliding on the toughness of ultrafine grain structure steel: A molecular dynamics simulation study, Chinese Physics B, 22, 010204 (2013)
[31]Hongxian Xie, Bo Liu and Tao Yu, Atomistic simulation of microtwinning at the crack tip in L12 Ni3Al, Philosophical Magazine, 92, 1542 (2012)
[32]Tao Yu, Hongxian Xie and Chong-Yu Wang, Effect of H impurity on misfit dislocation in Ni-based single-crystal superalloy: molecular dynamic simulations, Chinese Physics B, 21, 065005 (2012)
[33]Hongxian Xie, Bo Liu and Tao Yu, Molecular dynamics simulation of an edge dislocation slipping on a cubic plane of Ni3Al, Modelling Simulation in Materials Science Engineering, 19, 065005 (2011)
[34]Hongxian Xie, Tao Yu and Bo Liu, The effect of temperature on the motion of misfit dislocation in the interface of a Ni-based single-crystal superalloy: molecular dynamic simulations, Acta physica Sinica, 60, 040000 (2011)
