2022年01月-2023年12月 国家自然学基金青年项目“基于熵与耗散分析的金属循环塑性及疲劳行为研究” 主持

2020年08月-2022年07月 第67批博士后面上项目“基于机械耗散分析的金属蠕变疲劳耦合行为研究” 主持

2022年01月-2025年12月 国家自然科学基金面上项目“择优取向纳米孪晶金属循环塑性的原子尺度机理与本构模型” 参与

2016年01月-2019年12月 国家自然科学基金“室温变形镁合金多轴循环塑性本构宏微观研究” 参与

2024年01月-2025年01月 新材料力学理论与应用湖北省重点实验室2023年度开放课题“基于热力学本构理论的GH4169高温镍基合金蠕变疲劳力学行为研究及寿命预测方法” 主持

2022年01月-2023年12月 国家自然学基金青年项目“基于熵与耗散分析的金属循环塑性及疲劳行为研究” 主持

2020年08月-2022年07月 第67批博士后面上项目“基于机械耗散分析的金属蠕变疲劳耦合行为研究” 主持

2022年01月-2025年12月 国家自然科学基金面上项目“择优取向纳米孪晶金属循环塑性的原子尺度机理与本构模型” 参与

2016年01月-2019年12月 国家自然科学基金“室温变形镁合金多轴循环塑性本构宏微观研究” 参与

目前基于已有工作基础，以第一或通讯作者身份发表SCI论文17篇，其中包含中科院一区期刊论文7篇，主持并参与科研项目多项。

论文列表如下（*代表通讯作者）：

1. Chen W, He X, Sun C, Meng L. A thermodynamically consistent creep constitutive model considering damage mechanisms. Int J Mech Sci 2024 ; 276:109373.

2. Meng L, Chen W*. A Life Prediction Method for Cyclic Plasticity by the Maximization of Mechanical Dissipation. J Mater Eng Perform  2023 https://doi.org/10.1007/s11665-023-08330-5

3. MengL, Chen W*. A new thermodynamically based model for creep and cyclicplasticity. Int J Mech Sci 2022; 214: 106923.

4. ChenW#,Wan P#, Zhao Q, Zhou H*, Constitutive description of extra strengthening ingradient nanotwinned metals. Nanomaterials 2021; 11: 2375. (#Equallycontributed)

5. ChenW,Wang X, Yan Y*, Sumigawa T, Kitamura T, Feng M, Xuan F. Bending stressrelaxation of microscale single-crystal copper at room temperature: An insitu SEM study. Eur J Mech A-Solid 2021; 90: 104377.

6. MengL, Chen W*. Modeling for cyclic plasticity and rate-dependence of metalmaterials with a new non-unified viscoplasticity model. J Braz Soc Mech Sci Eng2021; 43: 205.

7. ChenW,Zhou H*. Modeling for cyclic plasticity of gradient nanostructured metals andfatigue life prediction. Int J Appl Mech 2021; 13: 2150021.

8. ChenW,Zhou H*, Yang W. Physically based modeling of cyclic plasticity for highlyoriented nanotwinned metals. J Appl Mech ASME, 2021; 88: 041011.

9. MengL, Chen W*, Greef VD, Feng M*. Time-dependent uniaxial behavior ofrolled magnesium alloy AZ31B at 393 K and room temperature. Mech Time-Dep Mater2020; doi.org/10.1007/s11043-020-09481-x.

10. MengL, Chen W*, Wang X, Yan Y. Thermodynamic analysis on two plasticitymodels considering the time-dependency of metal materials. Mater Today Coumm2020; 25: 101690.

11. YanY*, Chen W, Sumigawa T, Wang X, Kitamura T, Xuan F*. A quantitative insitu SEM bending method for stress relaxation of microscale materials at roomtemperature. Exp Mech 2020; 60: 937–947.

12. YanY*, Sumigawa T*, Wang X, Chen W, Xuan F, Kitamura T. Fatigue curve ofmicroscale single-crystal copper: An in situ SEM tension-compression study. IntJ Mech Sci 2020; 171: 105361.

13. MengL, Chen W, Feng M*. An experimental study of creep-ratchetting behaviorof rolled AZ31B magnesium alloy at room temperature. Fatigue Fract Eng MaterStruct 2020; 43: 417-428

14. MengL, Chen W, Yan Y, Kitamura T, Feng M*. Modelling of creep and plasticitydeformation considering creep damage and kinematic hardening. Eng Fract Mech2019; 218: 106582.

15. MengL, Hallais S, Tanguy A, Chen W, Feng M*. The effect of stress rate onratcheting behavior of rolled AZ31B magnesium alloy at 393 K and roomtemperature. Mater Res Exp 2019; 6: 086510.

16. Chen W,Kitamura T, Wang X, Feng M*. Size effect on cyclic torsion ofmicro-polycrystalline copper considering geometrically necessary dislocationand strain gradient. Int J Fatigue 2018; 117: 292-298.

17. Chen W,Kitamura T, Feng M*. Effect of geometrically necessary dislocations on inelasticstrain rate for torsion stress relaxation of polycrystralline copper in microscale. Mater Sci Eng A 2018; 726: 137-142.

18. Chen W,Kitamura T, Feng M*. Creep and fatigue behavior of 316L stainless steel at roomtemperature: Experiments and a revisit of a unified viscoplasticity model. IntJ Fatigue 2018; 112: 70-77.

19. HeZ, Chen W, Wang F, Feng M*. Akinematic hardening constitutive model for the uniaxial cyclic stress-strainresponse of magnesium sheet alloys at room temperature. Mater Res Express 2017;4: 116513.

20. Chen W, Wang F,Kitamura T, Feng M*. A modified viscoplasticity model consideringtime-dependent kinematic hardening for stress relaxation with effect of loadinghistory. Int J Mech Sci 2017; 133: 883-892.

21. Chen W, Wang F,Feng M*. Study of a modified non-unified model for time-dependent behavior ofmetal materials. Mech Mater 2017; 113: 69-76.

22. Chen W, Peng B,Wang F, Feng M*. Crack-inclusion interaction due to mismatched thermalexpansion under plane stress condition. Meccanica 2016; 51: 2225-2233.

23. Chen W, Feng M*.A study of a cyclic viscoplasticity model based on hyperbolic sine form for theinelastic strain rate. Int J Mech Sci 2015; 101-102: 155-160.