机械工程(085501)

程旺军

作者:| 时间:2024-04-24| 点击数:

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程旺军,中共党员,甘肃静宁人,工学博士/博士后,副教授,硕导

招聘专业(1)机械工程学硕/专硕(航空航天、新能源装备与汽车制造方向);

             (2)力学学硕(工程力学、生物力学、结构动力学与控制方向)

                       (3)智能制造工程(装备制造安全智能管控、运维方向)

                       (4)工业工程与管理(智能制造与装备质量、安全、效率、成本、风险及进度管理)

n 个人及工作简历

2022.12-至今,新疆大学,机械工程学院,副教授,硕导;

2021.11-2024.12 新疆大学,机械工程,出站博士后;

2017.03-2021.10 哈尔滨工业大学,材料加工工程,工学博士;

2015.07-2017.02 中国重型机械研究院股份公司 (原西安重型机械研究所),助工;

2012.09-2015.06 太原理工大学,材料加工工程,工学硕士;

2010.09-2012.07 太原理工大学,工程管理 (双学士学位),管理学学士;

2008.09-2012.07 太原理工大学,材料成型及控制工程,工学学士。

n 科研项目

[1] 主持国家自然科学基金地区项目(52365052),2024.01-2027.12,在研;

[2] 主持新疆维吾尔自治区重点研发项目(2024B01003-2),2024.12-2027.12,在研;

[3] 主持中国博士后科学基金面上项目(2022M722666),2022.12-2024.12,结题;

[4] 主持新疆维吾尔自治区“天池英才”青年人才项目,2022.12-2025.12,结题;

[5] 主持新疆自然科学基金青年项目(2022D01C653),2022.12-2025.12,结题;

[6] 主持新疆维吾尔自治区优秀博士后项目,2023.06-2025.06,结题;

[7] 主持新疆高校基本科研业务费(XJEDU2024P022),2024.01-2026.12,结题;

[8] 主持太原理工大学横向1项,2022-2025,结题;

[9] 主持哈尔滨工业大学横向1项,2022-2024,结题;

[10] 参与丝绸之路经济带创新驱动发展试验区、乌昌石国家自主创新示范区科技发展计划项目,2023-2024,结题,骨干;

[11] 参与国家重点研发计划“变革性技术关键科学问题”重点专项,2020-2025,结题,骨干。

n 教改项目

[1] 主持新疆高校本科教育教学研究和改革项目1项,名称:人工智能驱动机械制造工艺课程的创新与实践示范 (XIGXJGPTA-2025002), 2025.05-2027.05.

n 学生培养成果

[1] 指导研究生:2024年3名硕士获国家奖学金,1名硕士获自治区奖学金;

[2] 指导研究生:2025年1名硕士获国家奖学金,2名硕士获自治区奖学金,学生获省部级竞赛二等奖以上2项;

[3] 指导本科生:2024年4名本科生保送985名校,1名本科生获新疆大学优秀本科毕业论文,学生获省部级竞赛二等奖以上1项。

n 学术及科研成果、专利、论文

(1) 代表性专著

[1] 程旺军. Low-Temperature Performance and Manufacture of Metals [M]. 10.5772/intechopen.1007962. (参编英文专著1部)

(2) 代表性学术论文

[1] Cheng Wangjun*, Zhao Yue, Meng Acong, et al. Enhanced strength and ductility of pure copper at liquid nitrogen temperature[J]. Journal of Alloys and Compounds, 2025, 1024: 180080. (SCI, 一区,If=6.3)

[2] Cheng Wangjun*, Cui Dongdong, Sun Yaoning. Cryogenic work-hardening behavior for a metastable austenitic stainless steel at liquid nitrogen temperature [J], Materials Science and Engineering: A, 2022, 816:144–352. (SCI, 一区,If=6.044)

[3] Cheng Wangjun*, Gao Qiang, Sun Yaoning, et al. Research progress of freezing processes and devices for fresh meat products[J]. International Journal of Refrigeration, 2024, 161: 71-82.(SCI,二区,If=3.5)

[4] Cheng Wangjun*, Zhang Jinfan, Jia Haidong, et al. Ductile fracture behavior of a 2219 high strength aluminum alloy used for storage tanks at cryogenic temperatures[J]. International Journal of Hydrogen Energy, 2025, 184: 151921.(SCI,二区,If=7.139)

[5] Cheng Wangjun*, Zeng Yue, Cui Ddongdong, et al. A novel method for the strain strengthening of metastable austenitic stainless steel dome by deep cryogenic forming[J]. Archives of Civil and Mechanical Engineering, 2024, 24(2): 120.(SCI,二区,If=4.4)

[6] Cheng Wangjun, Liu Wei*, Yuan Shijian. Deformation behavior of Al-Cu-Mn alloy sheets under biaxial stress at cryogenic temperatures [J], Materials Science and Engineering: A, 2019, 759:357-367. (SCI, 一区,If=6.044)

[7] Cheng Wangjun, Liu Wei*, Fan Xiaobo, Yuan Shijian. Cooperative enhancements in ductility and strain hardening of a solution-treated Al-Cu-Mn alloy at cryogenic temperatures [J], Materials Science and Engineering: A, 2020, 790: 139707. (SCI, 一区, If=6.044)

[8] Cheng Wangjun, Chi Chengzhong*, Wang Yongzhen, Lin Peng, et al. 3D FEM simulation of flow velocity field for a 5052 aluminum alloy multi-row sprocket in cold semi-precision forging process[J]. Transactions of Nonferrous Metals Society of China, 2015, 25: 926-935. (SCI, 一区, If=3.752)

[9] Cheng Wangjun, Chi Chengzhong*, Wang Yongzhen, et al. Volume calculation of the spur gear billet for cold precision forging with average circle method[J]. International Journal of Coal Science & Technology, 2014, 1(4): 456-462. (SCI, 一区)

[10] Cheng Wangjun*, Chi Chengzhong, Wang Yongzhen, et al. Upper-bound and finite element analyses of a multi-row sprocket during cold semi-precision forging process[J]. International Journal of Coal Science & Technology. 2015, 2(3): 245-253. (SCI, 一区)

[11] Zhao Yue, Cheng Wangjun*, Yin Pingmei, et al. Mechanism of stacking fault and multi-system slip induced by cryorolling of a 2195 aluminum lithium alloy[J]. Materials Characterization, 2025, 229, 115639. (SCI, 一区, If=5.5)

[12] Yuan Shijian*, Cheng Wangjun, Liu Wei. Cryogenic formability of a solution-treated aluminum alloy sheet at low temperatures[J]. Journal of Material Processing Technology, 2021, 298: 117295. (SCI, 一区, If=6.162)

[13] Yuan Shijian*, Cheng Wangjun, Liu Wei, Xu Yongchao. A novel deep drawing process for aluminum alloy sheets at cryogenic temperatures [J]. Journal of Material Processing Technology, 2020, 284:116743. (SCI, 一区, If=6.162)

[14] Zhang Hengyuan, Cheng Wangjun*, Yin Yuandong, et al. Microstructure and strengthening mechanism of a 316 stainless steel coating prepared by high-speed laser cladding on an aluminum alloy plate[J]. Archives of Civil and Mechanical Engineering, 2024, 25(1): 15. (SCI, 二区, If=4.4)

[15] Yin Yuandong, Cheng Wangjun*, Jiang Hong, et al. Deformation mechanisms of austenitic stainless steel sheets under cryogenic pre-strainings[J]. Archives of Civil and Mechanical Engineering, 2025, 26(1): 24.(SCI, 二区, If=4.4)

[16] Liu Wei*, Cheng Wangjun, Yuan Shijian. Analyses on formability and flow stress of an Al-Cu-Mn alloy sheet under biaxial stress at cryogenic temperatures [J], International Journal of Mechanical Sciences, 2021, 195: 106266. (SCI, 一区, If=6.772)

[17] Cheng Yu, Sun Yaoning*, Zhang Shilin, Cheng Wangjun, et al. Corrosion and wear resistance of inconel 625 and inconel 718 laser claddings on 45 steel[J]. Journal of Alloys and Compounds, 2025, 1013: 178368. (SCI, 一区,If=5.8)

[18] Meng Acong, Sun Yaoning*, Cheng Wangjun, et al. Discharge performance of Al-0.1Sn-0.1In-0.05Ga alloy for Al–air battery anodes[J]. Journal of Energy Storage, 2024,81: 110414. (SCI, 二区,If=8.9)

[19] Zhang Shilin, Sun Yaoning*, Cheng Wangjun, et al. Microstructure and tribological behavior of CoCrFeNiMo0.2/SiC high-entropy alloy gradient composite coating prepared by laser cladding, Surface and Coatings Technology, 2023, 467: 129681.(SCI, 一区, If=5.4)

[20] Meng, Acong, Sun Yaoning*, Cheng Wangjun, et al. Mechanism of hydrogen generation from low melting point elements (Ga, In, Sn) on aluminum alloy hydrolysis, International Journal of Hydrogen Energy, 2022, 47: 39364-75. (SCI, 二区, If=7.2)

[21] Zeng Yue, Cheng Wangjun*, Xuechao, et al. LiHigh strength-ductility synergy in an austenitic stainless steel by laser processing[J]. Materials Today Communications, 2024, 41: 110329. (SCI,三区,If=3.7)

[22] Chong Zhenzeng, Sun Yaoning*, Cheng Wangjun, et al. Ma Xufeng, Meng Acong. Laser remelting induces grain refinement and properties enhancement in high-speed laser cladding AlCoCrFeNi high-entropy alloy coatings[J]. Intermetallics, 2022, 150: 107686. (SCI, 二区, If=4.8)

[23] Wen Shiyi, Wangjun Cheng*, Zhao Yue, et al. Differentiated fracture behaviors of a spray-formed Al-Cu-Li alloy under various heat treatments at liquid nitrogen temperature[J]. Cryogenics, 2025, 147: 104049. (SCI, 三区, If=2.1)

[24] 刘伟*, 程旺军, 郝永刚, 苑世剑. 铝合金超低温变形行为与成形新原理[J]. 中国有色金属学报, 2022,32(07): 1845-1854.(EI, 材料工程, T1)

[25] 程旺军, 刘伟*, 胡蓝, 张志超, 徐永超. 2219铝合金拼焊板硬化方程的建立与液压成形过程分析[J]. 塑性工程学报, 2020, 27(10): 27-32. (机械工程, T2)

[26] 程旺军, 张恒源, 刘伟等. 6061铝合金薄壁管-法兰组合接头超低温局部胀-压连接规律[J].锻压技术, 2023, 48(05): 25-30+110.(通讯, 机械工程, T2)

[27] 程旺军,崔栋栋,孙耀宁,曾月. 基于液氢储运的超低温不锈钢微观组织演变与力学性能研究进展[J].太阳能学报, 2024, 45(6): 117-124.(EI, T1)

[28] 刘伟*、程旺军、苑世剑. 高强铝合金薄壁构件超低温成形制造研究进展[J].机械工程学报, 2025, 61(14): 01-19.(EI, T1)

3)授权/申请发明专利

[1] 程旺军, 孙绍凯, 任智硕, 等. 冷冻台. 2023.5(外观专利,授权:2023 3 0259027.2)

[2] 程旺军,王鹏博,孙耀宁, 等. 一种双金属复合管超低温下界面结合强度测试方法与装置. 2022.04 (发明专利,授权 No. CN115060594B)

[3] 程旺军, 左水利, 师波, 等. 一种轴向热拉伸柔性复合塑料高压输送管试验装置. 2018.11.27 (发明专利,授权 No. CN 106053228B)

[4] 程旺军,姜立恒,孙耀宁, 等. 一种铝合金薄壁锥形管与薄板超低温塑性连接方法及装置. 2022.03 (发明专利,授权 No. CN115647219B)

[5] 刘伟,程旺军, 苑世剑, 等. 一种铝合金超薄深腔曲面件超低温变形调控方法及装置. 2021.07 (发明专利,授权 No. CN115193995B)

[6] 孙耀宁, 程旺军, 孟阿聪, 等. 一种铝合金薄壁管与薄壁法兰超低温塑性连接方法与装置. 2022.03 (发明专利,授权 No. CN114713728B)

[7] 孙耀宁, 孟阿聪, 程旺军. 一种水平井分段压裂中的封堵工具 2023.3(实用新型专利,授权:ZL 2023 2 0347843.3)

[8] 程旺军,陈玉锋,孙耀宁, 等. 一种奥氏体不锈钢板表面超低温滚动压印强化方法与装置. 2022.04 (发明专利,受理 No. ZL20221033875.X)

[9] 程旺军,马子煜,高强,等. 一种不锈钢包铝质双金属环件径向局部热压塑性连接方法与装置. 2022.12 (发明专利,受理 No. ZL202211587938.9)

[10] 程旺军, 赵跃, 吴万昊, 等. 一种生鲜肉品超声波快速解冻方法与装置: 2025. 03 (发明专利,受理 202311180796.9)

[12] 程旺军, 赵跃, 张恒源, 等. 一种制造异种金属箔带的高速激光辅助轧制设备及方法: 2024.10 (发明专利,受理 202411024734.3.)

[13] 程旺军, 殷远东, 孙绍凯, 等. 一种变直径轧辊快速加热方法与装置,2025.07 (发明专利,受理 202510943817.0)

[14] 程旺军, 董卓凡, 梅岳巍,等, 一种掺氢天然气管道气质流动模拟试验方法,2025.08 (发明专利,受理 CN202511177178.8)

[15] 程旺军, 张舒涵, 王宬骁,等, 一种矿石钻取与分选取样方法与装置,2025.10 (发明专利,受理 CN202511582963.1)

研究生招生:课题组学术氛围好、出成果快,欢迎机械工程、力学、智能制造、工业工程与管理等专业的学生报考!

联系方式

邮箱:chengwangjun2008@126.com(优先)或 chengwangjun@xju.edu.cn

地址:新疆乌鲁木齐市水磨沟区华瑞街777号新疆大学博达校区

邮编:830017