贺君敬

1.  主持，国家自然科学基金青年基金；31万元；2020-2022

奥氏体不锈钢的基本蠕变模型：晶粒尺寸和蠕变孔洞的影响机制

2.  主持，浙江省自然科学基金探索(面上)项目；10万元；2022-2024

基于微观机制与神经网络预测奥氏体钢的蠕变延性

3.  参与，浙江省自然科学基金重点项目；30万元；2022-2024

1. L. Kuang, et al. 2024, Atomically dispersed high-loading Pt-Fe/C metal-atom foam catalyst for oxygen reduction in fuel cells, J. Alloys Compd. IF: 6.2, 二区TOP, 通讯作者

2. Jun-Jing He*, Rolf Sandström*, et al. 2023, Evaluating creep rupture life in austenitic and martensitic steels with soft-constrained machine learning, JMR&T. IF: 6.4, 一区TOP, 第一及通讯作者

3. Jun-Jing He*, Rolf Sandström*, et al. 2023, Application of soft constrained machine learning algorithms for creep rupture prediction of an austenitic heat resistant steel Sanicro 25, JMR&T. IF: 6.4, 一区TOP, 第一及通讯作者

4. Jun-Jing He*, Rolf Sandström*, et al., 2023, The role of strength distributions for premature creep failure,  JMR&T. IF: 6.4, 一区TOP, 第一及通讯作者

5. Jun-Jing He*, Rolf Sandström*, 2022, Creep Rupture Prediction Using Constrained Neural Networks with Error Estimates, Mater High Temp. 第一及通讯作者

6. Junjing He*, Rolf Sandström, 2019, Application of Fundamental Models for Creep Rupture Prediction of Sanicro 25 (23Cr25NiWCoCu), Crystals. 第一兼通讯作者

7. Junjing He*, Rolf Sandström, 2017, Basic modelling of creep rupture in austenitic stainless steels, TAFM. IF: 5.3, 第一兼通讯作者

8. Junjing He*, Rolf Sandström, et al., 2017, Low cycle fatigue properties of a nickel based superalloy Haynes 282 for heavy components, JMEP. 第一兼通讯作者

9. Junjing He*, Rolf Sandström, 2016, Creep cavity growth models for austenitic stainless steels, MSEA. IF: 6.4, 一区TOP，第一兼通讯作者

10. Junjing He*, Rolf Sandström, 2016, Formation of creep cavities in austenitic stainless steels. J Mater Sci. IF: 4.5, TOP，第一兼通讯作者

11. Junjing He*, Rolf Sandström, 2015, Modelling grain boundary sliding during creep of austenitic stainless steels. J Mater Sci. IF: 4.5, TOP，第一兼通讯作者

12. Rolf Sandström, Jun-Jing He*, 2022, Error estimates in extrapolation of creep rupture data and its application to an austenitic stainless steel, Materials at High Temperatures. 通讯作者

13. Rolf Sandström*, Jun-Jing He, 2022, Prediction of creep ductility for austenitic stainless steels and copper, Materials at High Temperatures.

14. Rolf Sandström*, Junjing He, 2021, Error Estimates in Extrapolation of Creep Rupture Data: Applied to an Austenitic Stainless Steel, ASME PVP2021, Virtual, Online, 2021.

15. Jing Zhang, Pavel A. Korzhavyi, Junjing He, 2021, First-principles modeling of solute effects on thermal properties of nickel alloys, Materials Today Communications.

16. Jing Zhang, Pavel A. Korzhavyi, Junjing He, 2020, Investigation on elastic and thermodynamic properties of Fe25Cr20NiMnNb austenitic stainless steel at high temperatures from first principles, Computational Materials Science.

17. Rolf Sandström*, Junjing He, 2017, Survey of creep cavitation in fcc metals, Study of Grain Boundary Character. InTech.

18. Junjing He*, Rolf Sandström, Stojan Vujic, 2016, Creep, low cycle fatigue and creep-fatigue properties of a modified HR3C. Procedia Structural Integrity 2, pp. 871-878. 第一兼通讯作者

19. Junjing He*, Rolf Sandström, 2016, Brittle rupture of austenitic stainless steels due to creep cavitation. Procedia Structural Integrity. 第一兼通讯作者

20. Junjing He*, Rolf Sandström, 2015, Growth of Creep Cavities in Austenitic Stainless Steels. 8th European Stainless Steel & Duplex Stainless Steel Conference, Graz. 第一兼通讯作者

国际学术交流

1. 2023，11th China-Japan Bilateral Symposium on High Temperature Strength of Materials，中国

2. 2022，第十四届全国高温材料会议，中国

3.  2021， 中国结构材料大会，中国

4.  2021， Creep2021, Digital，德国FAU主办。

5.  2021，PVP 2021, Online，美国ASME主办。

6.  2019，第三届材料基因工程高层论坛，中国

7.  2016，21st European Conference on Fracture (ECF21), 意大利

8.  2015，Creep 2015，法国

9.  2015，8th European Stainless Steel & Duplex Stainless Steel, 奥地利

专利

1. 贺君敬*，等，2024，一种基于软约束神经网络模型预测高温合金蠕变性能的方法。

2. 贺君敬*，等，2023，一种基于误差分布定量预测高温合金过早蠕变失效的方法。

3. 贺君敬*，等，2022，一种基于硬约束神经网络模型预测金属结构材料蠕变性能的方法。