李浪 - 四川大学 - 建筑与环境学院

个人简介

李浪，副研究员（专职科研），硕士生导师，四川大学土木工程博士，四川大学和澳大利亚皇家墨尔本理工大学联合培养博士，四川大学力学系专职博士后，四川大学力学科学与工程系“强基计划”教研室主任。破坏力学与工程防灾减灾四川省重点实验室主任助理。主要从事实验力学、材料和结构灾变条件下长寿命服役方面的研究，包括高温条件下混凝土材料服役性能劣化及其修复，计算机裂纹识别算法和系统研究，天然竹纤维及其复合材料长寿命安全服役研究等。【学习及工作经历】 1.2021年6月-现在，四川大学力学科学与工程系，专职博士后,副研究员（专职科研） 2.2018年11月-2021年6月，四川大学力学科学与工程系，专职博士后,助理研究员 3.2014年9月至2018年9月，四川大学，建筑与环境学院，获博士学位 4.2016年5月至2017年5月，澳大利亚皇家墨尔本理工学院，联合培养博士 5.2011年9月至2014年6月，四川大学，建筑与环境学院，获硕士学位 6.2007年9月至2011年6月，四川大学，化学工程学院，获学士学位【承担的主要课程】实验力学，理论力学，力学科研训练，创新基础力学试验，工程力学创新实践等。【主持或参与的科研项目】 1、国家自然科学基金青年基金，高温损伤混凝土自修复机理及其力学性能恢复预测模型，12002226，2021年1月至2023年12月，在研，主持； 2、中央高校基本科研项目，基于裂纹分析的高温损伤混凝土再养护后性能自恢复的机理研究，2019年4月至2019年12月，已结题，主持； 3、横向技术服务项目，抽蓄机组顶盖螺栓超高周疲劳研究，在研，主研； 4、其他项目。授权发明专利： 1.李浪;王清远;董江峰;刘永杰;一种获得混凝土中骨料-砂浆粘结强度变化情况的方法，2020-06-12，中国，ZL201910438032.2. 2.李浪;王清远;刘永杰;董江峰;一种非接触式多尺度裂纹识别方法，2021-01-19，中国，ZL201910389444.1.

研究领域

实验力学，材料和结构长寿命服役，天然纤维材料的力学行为。

近期论文

查看导师新发文章（温馨提示：请注意重名现象，建议点开原文通过作者单位确认）

[1]L Li, L Shi, QY Wang, YJ Liu, JF Dong, H Zhang, GM Zhang. A review on the recovery of fire-damaged concrete with post-fire-curing. Construction and Building Materials, 2020, 237: 117564. [2]L Li,HZhang,JF Dong, HE Zhang, P Jia, QY Wang, YJ Liu, Recovery of mortar-aggregate interface of fire-damaged concrete after post-fire curing. Computers and Concrete, 2019,24(3): 249-258. [3]L Li,QY Wang, GM Zhang, L Shi, JF Dong, P Jia, A method of detecting the cracks of concrete undergo high-temperature. Construction and Building Materials, 2018, 162: 345-358. [4]L Li, P Jia, JF Dong, L Shi, GM Zhang, QY Wang. Effects of cement dosage and cooling regimes on the compressive strength of concrete after post-fire-curing from 800 °C. Construction and Building Materials, 2017, 142: 208-220. [5] YH Pu,L Li,QY Wang,XS Shi, L Fu, GM Zhang, CC Luan, AE Abomohra. Accelerated carbonation treatment of recycled concrete aggregates using flue gas: A comparative study towards performance improvement. Journal of CO2Utilization, 2020, 43: 101362. [6] YH Pu,L Li,QY Wang,XS Shi,, CC Luan, GMZhang, AE Abomohra. Accelerated carbonation technology for enhanced treatment of recycled concrete aggregates: A state-of-the-art review. Construction and Building Materials, 2021, 282:122671. [7] HE Zhang,L Li,Y Cheng, QY Wang, PK Sarker, XS Shi. Deterioration of ambient-cured and heat-cured fly ash geopolymer concrete by high temperature exposure and prediction of its residual compressive strength. Construction and Building Materials, 2020, 262: 120924 [8] P Jia,L Li,JF Dong, QY Wang, ZW Guan. Determination of the crack initiation stress, elastic modulus and ultimate crack length in TPBT concrete beams based on shear deformation theory. Engineering Fracture Mechanics, 2019, 220:106572. [9] HE Zhang,L Li,PK Sarker, T Long, XSShi, QY Wang, GC Cai. Investigating Various Factors Affecting the Long-Term Compressive Strength of Heat-Cured Fly Ash Geopolymer Concrete and the Use of Orthogonal Experimental Design Method. International Journal ofConcrete Structure and Materials, 2019, 13: 63 [10] HE Zhang,L Li,T Long, PKSarker, XS Shi, GC Cai, QY Wang. The Effect of Ordinary Portland Cement Substitution on the Thermal Stability of Geopolymer Concrete. Materials, 2019, 12(6): 2501 [11] Y Chen, FL Liu, C He,L Li,C Wang, YJ Liu, QY Wang. Effect of ultrasonic peening treatment on the fatigue behaviors of a magnesium alloy up to very high cycle regime. Journal of Magnesium and Alloys, 2021. [12] H Zhang, PD Li, XF Gong, TJ Wang,L Li, YJ Liu, QY Wang. Tensile properties, strain rate sensitivity and failure mechanism of single crystal superalloys CMSX-4, Materials Science and Engineering A, 2020, 782:139105 [13] YJ Liu, Y Chen, C He, FL Liu, K Yang,L Li,H Zhang, C Wang, QY Wang. Vacuum retarding and air accelerating effect on the high-cycle and very-high-cycle fatigue behavior of a ZK60 magnesium alloy. Materials & Design, 2021, 198:109310. [14] HZ Li, H Chen, LY Xu, QY Wang, YJ Liu, Y Chen,L Li,H Zhang, CHe. A creep damage model for low cycle fatigue based on the equivalent creep stress: Establishment, verification and application. Engineering Fracture Mechanics, 2021, 256:107899. [15] FL Liu, Y Chen, C He, C Wang,L Li,YJLiu,QY Wang. Very long life fatigue failure mechanism of electron beam welded joint for titanium alloy at elevated temperature. International Journal of Fatigue. 2021, 152: 106446. [16] FL Liu, Y Chen, C He,L Li,C Wang, HZ Li, H Zhang, QY Wang, YJ Liu. Tensile and very high cycle fatigue behaviors of a compressor blade titanium alloy at room and high temperatures. Materials Science and Engineering A, 2021, 811: 141049. [17] QY Wang, Y Chen, YJ Liu, C Wang,L Li, C He, XF Gong, TJ Wang, W Zhang, QY Wang, HZhang. The Effect of Stress Ratios on the Very High Cycle Fatigue Behavior of 9%Cr Turbine Steel at 630 °C. Materials, 2020, 13: 3444. [18] QY Wang, QY Wang, XF Gong, TJ Wang, W Zhang,L Li,YJ Liu, C He, C Wang, H Zhang. A comparative study of low cycle fatigue behavior and microstructure of Cr-based steel at room and high temperatures. Materials & Design, 2020, 195: 109000.