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[1]赵铮.应用LS-DYNA进行爆炸压实爆轰过程的数值模拟[A],2021,165-169
[2]罗宁.爆轰合成及表征碳包覆镍纳米晶的研究[A],2021,1-8
[3]赵铮.基于流固耦合算法的多孔铜爆炸压实数值模拟[A],2021,1-7
[4]李瑞勇.含硝酸铝混合炸药爆轰合成纳米氧化铝[A],2021,1-4
[5]张勇.爆炸加工的历史、现状及其未来发展[A],2021,17-22
[6]罗宁.前驱体混合炸药制备GECNs及快速计算法估算爆轰性能的研究[A],2021,339-343
[7]李晓杰.水下爆炸冲击波近场速度连续测试[A],2021,273-273
[8]阎石.爆炸荷载作用下钢框架结构连续倒塌数值模拟分析[A],2021,383-389
[9]崔文政.内燃机冷却系统中纳米流体强化换热流动的基础研究[A],2021,31-35
[10]谢兴华.爆炸合成纳米氧化物与应用[A],2021,236-242
[11]李晓杰.爆轰法合成纳米碳材料的研究[A],2021,221-235
[12]李晓杰.爆炸焊接界面波的模拟研究[A],2021,65-70
[13]李晓杰.爆炸焊接界面附近等效应变率的分布计算[A],2021,259-260
[14]付武.复杂环境深孔爆破地震波的综合控制技术[A],2021,277-282
[15]闫鸿浩.多层非晶态薄带爆炸焊接窗口的特殊性[A],2021,261-262
[16]李晓杰.手枪弹入水数值模拟[A],2021,327-332
[17]孙贵磊.爆轰法合成碳包覆纳米材料[A],2021,423-425
[18]孙贵磊.碳包覆铁碳化合物的爆轰合成及表征[A],2021,Vol.38:2167-2169
[19]李晓杰.爆轰法合成碳包覆铁纳米颗粒的研究[A],2021,1-7
[20]闫鸿浩.基于光催化性纳米TiO_2气相爆轰法制备最优工艺研究[A],2021,1
[21]李晓杰.大连地铁西安路站—功成街站区间暗挖爆破试验[A],2021,5
[22]李晓杰.下穿管廊地铁隧道爆破施工[A],2021,5
[23]孙伟.水下爆炸焊接的实验及数值模拟研究[A],2021,7
[24]王博.金属靶板在爆炸载荷及弹丸冲击下层裂效应的数值模拟[A],2021,6
[25]闫鸿浩.氧气含量比变化对气相爆轰合成纳米氧化钛影响的研究[A],2021,7
[26]李晓杰.关于爆炸焊接界面温度场的研究[A],2021,1
[27]李晓杰.爆轰法合成碳包覆铁纳米金属材料的研究[A],2021,1
[28]李晓杰.气相爆炸合成纳米二氧化钛纳米颗粒生成机理的初步研究[A],2021,1
[29]闫鸿浩.爆炸焊接半球结构体的阻波研究[A],2021,1
[30]李晓杰.环境温度对空气氢气爆轰系统气相合成纳米TiO_2的影响[A],2021,1
[31]李晓杰.爆轰合成纳米材料研究[A],2021,1
[32]闰鸿浩.多元气相爆轰合成纳米TiO_2研究[A],2021,1
[33]李晓杰.气相爆轰压力及环境温度对制备纳米TiO_2粉末的影响[J],稀有金属材料与工程,2021,S3:371-373
[34]李瑞勇.纳米α-Al2O3的爆轰合成实验及烧结特性研究[J],功能材料与器件学报,2021,12(3):241-243
[35]李瑞勇.混合型纳米氧化铝的爆轰合成研究[J],云南大学学报（自然科学版）,2021,28(5):441-443,449
[36]谢兴华.锌锂氧化物块状纳米晶合成(英文)[J],稀有金属材料与工程,2021,S2:355-358
[37]闫鸿浩.非晶合金薄带柱状爆炸焊接中二维绝热剪切带研究[A],2021,1
[38]李晓杰.偏钛酸爆轰合成纳米TiO2研究[J],功能材料,2021,36(9):1391-1393
[39]李瑞勇.纳米氧化铝的制备实验研究[J],云南大学学报(自然科学版),2021,S3:374-376
[40]李晓杰.爆轰法合成纳米α-Al2O3粉体[J],工程爆破,2021,12(1):19-21
[41]李晓杰.基于Laval喷管的平板爆轰驱动近似解[J],爆破器材,2021,33(1):36-39
[42]李晓杰.非晶态合金薄带爆炸焊接界面传热分析[J],爆破器材,2021,33(3):8-11
[43]杨文彬.爆炸复合板的界面波及其影响[J],爆破器材,2021,04:24-28
[44]李永池.损伤材料的热塑性本构关系及对柱壳破裂问题的应用[J],中国科学技术大学学报,2021,03:11-19
[45]李晓杰.单次冲击六方氮化硼向立方型转化的研究[J],金刚石与磨料磨具工程,2021,06:2-6
[46]董守华.石化企业爆炸事故的类型及特点[J],石油化工安全技术,2021,02:38-39
[47]董守华.石化企业事故爆炸的能量评估方法[J],石油化工安全技术,2021,03:30-31
[48]董守华.事故爆炸冲击波破坏准则综述[J],石油化工安全技术,2021,04:40-41
[49]杨文彬.爆炸焊接技术在氯碱业应用[J],氯碱工业,2021,11:29-32
[50]李晓杰.厚板爆炸焊接窗口理论的应用[J],爆破器材,2021,04:27-30
[51]李晓杰.爆炸焊接异种金属导电材料[J],轻合金加工技术,2021,04:38-40
[52]杨文彬.爆炸切割技术在拆船工程中的应用[J],船舶工程,2021,06:31-32+3
[53]李晓杰.合成碳包覆纳米金属材料的研究现状[J],材料导报,2021,23(13):33-37
[54]李晓杰.纳米金属氧化物粉体爆轰合成[J],爆炸与冲击,2021,25(3):271-275
[55]李晓杰.爆炸烧结制备CuCr合金[J],爆炸与冲击,2021,25(3):251-254
[56]李晓杰.纳米ITO粉末爆炸压实及后续烧结工艺研究[J],材料科学与工艺,2021,14(2):155-158
[57]李晓杰.爆轰法制备纳米TiO2及其参数控制[J],高压物理学报,2021,20(2):122-126
[58]张越举.纳米陶瓷粉末在爆炸压实过程中的破碎行为研究[J],高压物理学报,2021,21(2):136-144
[59]李晓杰.低侵彻手枪弹入水侵彻性能数值模拟研究[J],爆炸与冲击,2021,27(4):319-324
[60]李晓杰.Study on the layered charging and layered tamping for medium and deep hole blasting[J],Yanshilixue Yu Gongcheng Xuebao/Chinese Journal of Rock Mechanics and Engineering,2021,25(SUPPL. 1):3269-3275
[61]闫鸿浩.基于装药形状优化的中深孔爆破控制[J],科学技术与工程,2021,17(28):181-186
[62]李晓杰.中深孔爆破分层装药分层填塞研究[J],岩石力学与工程学报,2021,25(z1):3269-3275
[63]王小红.爆轰法制备纳米MnFe2O4粉体的实验研究[J],高压物理学报,2021,21(2):173-177
[64]赵铮.爆炸压实过程中颗粒碰撞问题的SPH法数值模拟[J],高压物理学报,2021,21(4):373-378
[65]闫鸿浩.爆破振动速度测试精细分析[J],岩土力学,2021,28(10):2091-2094
[66]李晓杰.爆轰法制备二氧化钛微粉及表征[J],稀有金属材料与工程,2021,35(11):1788-1791
[67]张越举.预热爆炸压实烧结纳米ITO陶瓷粉末[J],稀有金属材料与工程,2021,36(9):1681-1684
[68]李晓杰.气相爆轰压力及环境温度对制备纳米TiO2粉末的影响[J],稀有金属材料与工程,2021,36(z3):371-373
[69]孙贵磊.爆轰裂解可膨胀石墨制备石墨微粉[J],新型炭材料,2021,22(3):242-246
[70]Chen, Xiang.Explosive welding of Al alloys and high strength duplex stainless steel by controlling energetic c[J],JOURNAL OF MANUFACTURING PROCESSES,2021,58:1318-1333
[71]Zeng Xiangyu.Formation and Development of Explosive Welding Wave Interface[J],RARE METAL MATERIALS AND ENGINEERING,2021,49(6):1977-1983
[72]Xie Xinghua.Layered lithium zinc oxides grown from an emulsion explosive[A],2021,433-+
[73]Xie Xinghua.Fine powder grown from liquid-phase nitrates explosive[A],2021,425-+
[74]Zhao Zheng.Preparation of Nano-Alumina Dispersion Strengthening Copper by Explosive Compaction[J],RARE METAL MATERIALS AND ENGINEERING,2021,38:365-369
[75]李晓杰.Preparation of Carbon-Encapsulated Ferronickel Nanoparticles by Detonation Method and Its Characte[J],RARE METAL MATERIALS AND ENGINEERING,2021,39:429-433
[76]Luo Ning.Compound Explosives for Synthesis of GECNs and Empirical Formula Method Calculating Its Detonation[J],RARE METAL MATERIALS AND ENGINEERING,2021,42:339-343
[77]胡成志.Molecular dynamics investigation of the effect of copper nanoparticle on the solid contact between[J],APPLIED SURFACE SCIENCE,2021,321:302-309
[78]孙伟.Fabrication of graded density impactor via underwater shock wave and quasi-isentropic compression [J],APPLIED PHYSICS A-MATERIALS SCIENCE & PROCESSING,2021,117(4):1941-1946
[79]Zhao, Tiejun.Phase transition rate of anatase during detonation synthesis of TiO2[J],PHASE TRANSITIONS,2021,90(6):618-627
[80]He, Chuang.One-step rapid fabrication of high-purity onion-like carbons as efficient lubrication additives[J],JOURNAL OF MATERIALS SCIENCE,2021,56(2):1286-1297
[81]孙伟.Microstructure and Strengthening Mechanism of Ti/Cu Laminated Composite Produced by Underwater Exp[J],JOURNAL OF MATERIALS ENGINEERING AND PERFORMANCE,2021,29(8,SI):5069-5079
[82]吕继组.Molecular dynamics simulation on flow behavior of nanofluids between flat plates under shear flow [J],MICROFLUIDICS AND NANOFLUIDICS,2021,10(2):475-480
[83]李晓杰.Numerical study on mechanism of explosive welding[J],SCIENCE AND TECHNOLOGY OF WELDING AND JOINING,2021,17(1):36-41
[84]李晓杰.Preparation of Nano-Al2O3 Dispersion Strengthened Coating on Copper Surface[J],RARE METAL MATERIALS AND ENGINEERING,2021,41:32-34
[85]Xie, Xinghua.Low temperature explosion for nanometer active materials[A],2021,324-325:193-+
[86]李晓杰.Ultrafine oxides during detonation expanse at a fast quenching rate[A],2021,324-325:189-+
[87]Xie, Xinghua.Synthesis and characterization of nano-spinel lithium manganate[A],2021,1:39-+
[88]李晓杰.Detonation synthesis of TiO2 nanoparticles in gas phase[A],2021,32:13-16
[89]Li, R. Y..Experimental Investigations of the Detonation Synthesis of micron Al2O3 by the Precursor of Therma[A],2021,609-610:165-+
[90]张凯.在两层不同爆速炸药滑移爆轰作用下飞板运动的数值计算研究[J],爆炸与冲击,2021,9(1):28
[91]Song, Xinhua.Study on microwave attenuation mechanism model of Fe3O4/MWCNTs nanocomposites[J],MATERIALS RESEARCH EXPRESS,2021,6(12)
[92]Song, Xinhua.Study on absorbing wave of Fe3O4/MWCNTs nanoparticles based on large-scale space[J],JOURNAL OF MATERIALS SCIENCE-MATERIALS IN ELECTRONICS,2021,31(3):2666-2675
[93]李晓杰.双金属爆炸焊接上限[J],爆炸与冲击,2021,11(2):134
[94]李晓杰.多孔材料冲击绝热线的近似计算[J],高压物理学报,2021,5(4):301
[95]张凯.箔材爆炸焊接的碰撞点速度门限值研究[J],大连理工大学学报,2021,32(3):262
[96]李晓杰.多层非晶薄膜爆炸焊接原理[J],高压物理学报,2021,7(3):214
[97]李晓杰.非晶合金条带的爆炸焊接[J],高压物理学报,2021,7(4):265
[98]罗宁.爆轰法合成碳包覆镍纳米颗粒的研究[J],高压物理学报,2021,25(2):111-117
[99]李晓杰.双金属爆炸焊接下限[J],爆破器材,2021,28(3):22
[100]王宇新.爆炸焊接二维复板飞行姿态计算机仿真[J],爆破器材,2021,28(5):1
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