累积发表学术论文80余篇(其中SCI收录31篇,第一作者或通讯作者25篇;EI收录18篇;CSCD收录17篇),专著4本,起草主审规范4本;共计申请发明专利43项(已授权3项),实用新型专利30项(已授权27项),已授权软件著作权14项。 1.近三年代表性学术论文 [1] Qijun Hu, Yucheng Gu, Junsen Zeng, et al. Microwave irradiation reinforcement of weak muddy intercalation in slope. Applied Clay Science, 2019, 183: 105324. (SCI,1区,TOP) [2] Qijun Hu, Yu Bai, Leping He, et al. Intelligent Framework for Worker-Machine.Safety Assessment. Journal of Construction Engineering and Management,2020, 146(5): 04020045.( SCI,2区) [3] Qijun Hu*, Tianjun He, Tao Ye, Qijie Cai, et al. A method for microstructure similarity clustering and feature reconstruction for weathered weak muddy intercalations. Bulletin of Engineering Geology and the Environment. 2018:1-9.( SCI,3区) [4] Qijun Hu, Rendan Shi, Lingning Zheng, et al. Progressive failure mechanism of a large bedding slope with a strain-softening interface. Bulletin of Engineering Geology and the Environment. 2017(15):1-17. (SCI,3区) [5] Qijun Hu, Songsheng He, Shilong Wang et al. A High-Speed Target-Free Vision-Based Sensor for Bus Rapid Transit Viaduct Vibration Measurements Using CMT and ORB Algorithms. Sensors. 2017,17(6):1305. (SCI,2区,TOP) [6] Qijun Hu, Ziyuan Feng, Leping He*, Zihe Shou, Junsen Zeng, Jie Tan, Yu Bai, Qijie Cai, Yucheng Gu. Accuracy Improvement of Binocular Vision Measurement System for Slope Deformation Monitoring.Sensors,2020, DOI:10.3390/s20071994. (SCI,2区,TOP) [7] Qijun Hu, Rendan Shi, Yi Hu, et al. Method to evaluate the safety of tunnels through steeply inclined strata in cold regions based on the sidewall frost heave model. Journal of Performance of Constructed Facilities. 2018.DOI: 10.1061/(ASCE)CF.1943-5509.0001165. (SCI,4区) [8] Qijun Hu, Junsen Zeng.Helium ion irradiation effects on Nd and Ce co-doped Gd2Zr2O7 pyrochlore ceramic. Journal of rare earth.2018.36 (4):398-403. (SCI,2区) [9] Qijun Hu, Zihe Shou, Leping He*, et al. Three-dimensional Characterization Method of Pile–rock Interface Roughness Based on Fractal Geometry. Arabian Journal of Geosciences, 2019, 12(18): 599. (SCI,4区) [10] Qijun Hu, Qijie Cai*, Leping He, et al. Determination of the Peak and Residual Shear Strengths of the Sandwich Material in Slopes. Advances in Materials Science and Engineering.2017(2):1-15. (SCI,4区) [11] Qijun Hu*, QijieCai, Leping He, et al. Novel Method to Determine the Image Segmentation Threshold during the Quantitative Test on Meso-structure of Geo-material. Journal Of Wuhan University of Technology-Materials Science Edition.2017. 32(6):1408-1412. (SCI,4区) [12] Qijun Hu, RendanShi, Xiaoqiang Yang, et al. Mesomechanics Finite-element Method for Determining the Shear Strength of Mudded Intercalation Materials. Journal of Wuhan University of Technology-Materials Science Edition. 2017.32(2):289-291. (SCI,4区) [13] Qijun Hu, Shuang Tang, Leping He, Qijie Cai, Guoli Ma, Yu Bai, Jie Tan. A Novel Approach for Dynamic Safety Analysis of Natural Gas Leakage in Utility Tunnel. Journal of Pipeline System,2020. DOI:. 10.1061/(ASCE)PS.1949-1204.0000498 (SCI,4区) [14] Qijun Hu, Yuanhang Ren, Leping He, Yu Bai, Qijie Cai, Jie Tan, Yang Chen. A Novel Vision-based Warning System for Proactive Prevention of Accidents Induced by Falling Objects Based on Building & Environmental Engineering Requirements. Fresenius Environmental Bulletin,2020. (SCI,4区) [15] Qijun Hu, Chunlin Ma, Yu Bai, Leping He*, Jie Tan, Qijie Cai, Junseng Zeng. A Rapid Method of the Rock Mass Surface Reconstruction for Surface Deformation Detection at Close Rang. Sensors, 2020.(SCI,2区,TOP) [16] Leping He, Jie Tan, Qijun Hu*, Songsheng He, Qijie Cai, Yutong Fu, Shuang Tang. Non-Contact Measurement of the Surface Displacement of a Slope Based on a Smart Binocular Vision System. Sensors, 2018,18(9): 2890. (SCI,2区,TOP) [17] Leping He, Guoli Ma, Qijun Hu*, et al. A novel method for risk assessment of cable fires in utility tunnel. Mathematical Problems in Engineering, 2019. (SCI,4区) [18] Zhenhua Luo, Li Zeng, Haize Pan, Qijun Hu*, et al. Research on Construction Safety Risk Assessment of New Subway Station Close-Attached Undercrossing the Existing Operating Station. Mathematical Problems in Engineering, 2019. (SCI,4区) [19] Leping He, Lin Zhong, Qijun Hu*, et al. The Quantification of Micro-Structural Damage of Weak Muddy Intercalation in Dry-wet Cycles Combining in-situ SEM and DIP. Journal of Wuhan University of Technology-Materials Science Edition,2019. DOI:10.1007/s11595-019-1814-z. (SCI,4区) [20] Leping He, Junyao Yu, Qijun Hu*, Qijie Cai, Mengfei Qu, Tianjun He. Study on crack propagation and shear behavior of weak muddy intercalations submitted to wetting-drying cycles. Bulletin of Engineering Geology and the Environment, 2020. DOI: 10.1007/s10064-020-01842-7(SCI,3区) [21] Junsen Zeng, Qijun Hu, Yuan Chen, et al. Experimental investigation on structural evolution of granite at high temperature induced by microwave irradiation. Mineralogy and Petrology, 2019, 113(6): 745-754. (SCI,4区) [22] Xusheng Wan, Qijun Hu, Mengke Liao. Salt crystallization in cold sulfate saline soil. Cold Regions Science and Technology. 2017.137:36-47. (SCI,3区) [23] Xiang Zhao, Qijun Hu, W Crossley, et al. Analytical solutions for the coupled thermoelastic vibrations of the cracked Euler-Bernoulli beams by means of Green's functions. International Journal of Mechanical Sciences.2017.128:37-53. (SCI,2区) [24] Hu Qijun, Yong Qin, He Leping, et al. Structural evolution of kaolinite in muddy intercalation under microwave heating. Materials Research Express, 2021.(SCI,4区) [25] Qu Mengfei, Yu Bai, Hu Qijun*, et al. A Comprehensive Prediction Method for the Saturated Internal Friction Angle of Sliding Zone Soils Based on Landslide Engineering Requirements. KSCE Journal of Civil Engineering, 2021(14). (SCI,4区) [26] Qijun Hu, Zihe Shou, Junsen Zeng, et al. Comparative study on the deterioration of granite under microwave irradiation and resistance-heating treatment. Frattura ed Integrità Strutturale, 2019, 13(50): 638-648.(EI收录) [27] Leping He, Yuan Chen, Junsen Zeng, Qijun Hu*, et al. The thermal damaging process of diorite under microwave irradiation. Frattura ed Integrità Strutturale, 2019, 13(47): 65-73. (EI收录) [28] Leping He, Yucheng Gu, Qijun Hu*, et al. Structural failure process of schistosity rock under microwave radiation at high. Frattura ed Integrità Strutturale, 2019, 13(50): 649-657. (EI收录) [29]胡启军,余均耀,刘明,汤伟,蔡其杰.基于随机-关联空间插值法的工程岩体力学参数取值.长江科学院院报.2018,doi:10.11988/ckyyb.20180119.(CSCD收录) [30]胡启军,付郁桐,刘明,何乐平,陈原.岩体力学参数设计值多属性综合取值法.工业建筑. 2018,doi:10.13204/j.gyjz201808016.(CSCD收录) [31]胡启军,张宇浩,何乐平,黄超,巨鑫.混凝土冲击作用下红层泥岩桩基沉渣特性试验.工业建筑. 2016,46(1):115~121.(CSCD收录) [32]胡启军,蔡其杰,杨晓强,叶涛,王平.基于应变破坏准则的泥化夹层强度参数测定.工业建筑.2016,46(7):156-161.(CSCD收录) [33]胡启军,轩昆鹏,张宇浩,黄超,蔡其杰.沉渣对冲击红层泥岩桩基承载特性影响研究.地下空间与工程学报.2016,(S2):597-603.(CSCD收录) [34]胡启军,何松晟,叶涛,何乐平,蔡其杰.泥化夹层细观组构参数的量化方法.中国地质灾害与防治学报.2017,03:137-146.(CSCD收录) [35]胡启军,蒋晶,徐亚辉,石仁丹,张宇浩.红层泥岩桩岩接触面本构模型试验及数值模拟.土木建筑与环境工程.2017,39(3):122-128.(CSCD收录) [36]胡启军,梅健,何乐平,徐亚辉,张宇浩.考虑泥皮厚度的红层泥岩桩基承载力计算公式修正.公路交通科技.2017,34(7):60-68.(CSCD收录) [37]胡启军,汤伟,轩昆鹏,付郁桐,俞钧耀.泥化夹层压缩试验的损伤特征及损伤方程研究.防灾减灾工程学报.2018,39,(3):387-394. (CSCD收录) [38]何乐平,唐爽,胡启军*,蔡其杰,石仁丹.综合管廊天然气泄漏扩散及监控措施.中国安全科学学报.2019,29(9,):43-50. (CSCD收录) [39]何乐平,凌宵,胡启军*,蔡其杰,孟庆成. 矩管混凝土柱-SRC梁型钢贯通节点试验研究. 土木与环境工程学报,2020,41,(06):118-126. (CSCD收录) [40]何乐平,王泽帆,胡启军*,蒋晶,蔡其杰. 埋地管沟内输油管道泄漏扩散规律研究.安全与环境学报,2019,19,(4):1232-1239. (CSCD收录) [41]何乐平,罗舒月,胡启军*,蔡其杰,李浴辉. 基于理想点-可拓云模型的隧道围岩稳定性评价. 中国地质灾害与防治学报, 32(2), 9.(CSCD收录) [42]胡启军,李泊霖,曹帮军,何乐平,周振翔. 太阳辐射对青藏高原东部地区气温日较差的影响. 高原科学研究, 5(1), 10. (CSCD收录) [43]何乐平,徐应东,胡启军*,蔡其杰. 基于博弈论-云模型的软岩隧道大变形风险评估.现代隧道技术,2021. (CSCD收录) [44]何乐平,钟林,胡启军*,梅健,蔡其杰,谭杰. 基于多样本容量近景摄影测量的基坑稳定性评价.安全与环境学报,2020,20(06):2180-2186. (CSCD收录) [45]胡启军,周振翔,曹帮军,何乐平,李泊霖,邱佳,雍沁. 川藏铁路沿线城市夏季DTR的影响因素研究. 地球环境学报, 2021. (CSCD收录) 2. 专著及规范 [1]刘俊新,胡启军等. 西南红层工程特性及其路堤稳定性,科学出版社,2013. [2]郑立宁,胡启军等. 基于应变软化理论的顺层边坡失稳机理及局部破坏范围研究,西南交通大学出版社,2017. [3]胡启军,郑立宁等. 西南地区红层泥岩桩基础竖向承载特性研究,科学出版社 2020. [4]胡启军,何乐平等. 边坡泥化夹层微细观组构特征及其渐进损伤演化规律研究,科学出版社 2020. [5]《四川省建筑岩土工程测量标准》,2018.(起草人) [6]《四川省大直径素混凝土桩复合地基技术规程》,2017.(主审人) [7]《四川省装配式钢结构综合管廊工程技术标准》,2019.(起草人) [8]《筒仓式城市地下停车库工程技术标准》,2020. (主审人) 3.代表性专利 [1]胡启军,杨晓强,蔡其杰等.一种钻头可变式压力感应法测量沉渣厚度的装置,ZL201510016244.3.(发明专利) [2] 胡启军,张宇浩,梅健等.一种超声波桩底沉渣厚度检测装置及检测方法,ZL201610225497.6. (发明专利) [3] 胡启军,张宇浩,蒋晶等. 一种钻孔灌注桩桩底沉渣检测装置,ZL201610229244.9. (发明专利) [4]胡启军,雍沁等. 一种基于光纤光栅全方位监测桩身的高精度侧斜杆, ZL201921649972.8.(实用新型专利) [5]胡启军,邱佳等. 一种基于机器视觉的隧道掌子面位移监测的装置,ZL201921650337.1. (实用新型专利) [6]胡启军,叶涛等.一种超声波桩底沉渣厚度测量仪,ZL201520022013.9. (实用新型专利) [7]胡启军,张宇浩等. 一种钻孔灌注桩桩底沉渣检测装置,ZL201620308030.3. (实用新型专利) [8]胡启军,张宇浩等. 一种超声波桩底沉渣厚度检测装置, ZL201620301024.5. (实用新型专利) [9]胡启军,周振翔等. 一种隧道地表面沉降的监测装置, ZL201921662360.2. (实用新型专利) [10]胡启军、任远航等. 一种新型隧道截面变形检测装置,ZL201921650411.X. (实用新型专利) [11]胡启军,李泊霖等.一种隧道洞周变形监测系统,ZL201921650390.1.(实用新型专利) [12]胡启军,冯紫媛等.一种隧道顶进施工导向的监测装置,ZL201921650309.X.(实用新型专利) [13]胡启军,凌宵等. 钢管混凝土梁柱交叉连接节点结构,CN208309797U.(实用新型专利) [14]胡启军,梁杭等.一种利用微波处理软土地基的装置,ZL202020485925.0.(实用新型专利) [15]胡启军,杜昕阳等.一种带微波辅助破岩装置的液压破碎锤,ZL202020485942.4.(实用新型专利) [16]胡启军,敖琪等. 一种微波处理红层泥岩桩基桩底沉渣的装置,ZL202022133844.7. (实用新型专利) [17]胡启军,庞智洪等. 一种可钻孔微波加固隧道拱顶软弱土体的装置,ZL 202022142004.7.(实用新型专利) [18]胡启军,郑立宁等. 一种基于双目视觉的蝴蝶形标志点软岩地基表面变形监测装置,ZL202022130608.X. (实用新型专利) [19]胡启军,黄雨格等. 一种加固膨胀土基坑边坡的高压喷射注浆式微波装置,ZL202022134221.1.(实用新型专利) [20]胡启军,秦龙等. 一种地基软弱下卧层的微波加固装置,ZL202022130622.X.(实用新型专利) [21]胡启军,陈嘉乐等. 一种处理锚杆锚固段土体的微波装置,ZL202022134260.1.(实用新型专利) [22]胡启军,杜昕阳等. 一种辅助含泥化夹层边坡注浆加固的微波装置,ZL 202022134291.7.(实用新型专利) [23]胡启军,崔敏等. 一种微波辅助铁路路基快速加固装置,ZL202022131200.4.(实用新型专利) [24]胡启军,梁杭等. 一种处理红层路基填料的隧道式微波辐照装置,ZL202022130598.X.(实用新型专利) [25]胡启军,杜昕阳等. 一种用于顺层边坡首段加固的微波辐照装置,ZL202022131275.2.(实用新型专利) [26]胡启军,陈嘉乐等. 一种隧道掌子面裂隙识别的装置,ZL202022682525.1.(实用新型专利) [27]胡启军,梁杭等. 一种研究深部花岗岩微波破碎的实验装置,ZL202023327010.6.(实用新型专利) [28]唐煜,徐敏,胡启军等.一种新型双钢片桥梁位移监测装置,ZL201921650310.2.(实用新型专利) [29]唐煜,岳杰,胡启军等.一种光纤振动传感器及大跨径桥梁振动监测系统,ZL201921649919.8.(实用新型专利) [30]唐煜,岳杰,胡启军等.基于分布式光纤的桥梁动挠度监测系统,ZL201921650362.X.(实用新型专利) 4. 代表性软件著作权 [1] 胡启军,谭杰,何乐平,何松晟. 隧道施工低照度、浓烟雾环境图像测量前处理平台, 2018SR724816. [2] 胡启军,谭杰,何乐平,何松晟. 路基边坡双目测量过曝、欠曝图像预处理平台, 2018SR730703. [3] 胡启军,谭杰,何乐平,何松晟.桥梁近景摄影测量雨雾环境下图像前处理平台, 2018SR730707. [4] 胡启军,钟林,何乐平,梅健,张成勇,李志军,刘学霸,余跃新. 大断面隧道近景摄影测量变形监测系统, 2019SR0369834. [5] 胡启军,白羽,何乐平等. 隧道变形信息监控管理实时共享平台, 2019SR0369843. [6] 胡启军,马国力,何乐平等. 隧道围岩参数取值综合分析系统, 2019SR0369854. [7] 胡启军,谭杰,何乐平等. 隧道围岩裂隙扩展图像分析与评估系统, 2019SR0369632. [8] 胡启军,唐涛,何乐平等. 隧道施工安全事故风险因素分析及层次结构划分系统, 2021SR0353570 |