{"currentpage":1,"firstResult":0,"maxresult":10,"pagecode":5,"pageindex":{"endPagecode":5,"startPagecode":1},"records":[{"abstractinfo":"为研究等离子喷涂设备送粉参量变化对<span style=\"color:red\">粉末</span><span style=\"color:red\">粒子</span>运动行为的影响,通过数学计算给出了<span style=\"color:red\">粉末</span><span style=\"color:red\">粒子</span>初速度及运行轨迹的一些解析计算结果.结果表明<span style=\"color:red\">粉末</span><span style=\"color:red\">粒子</span>喷出初速度随送粉气流量的增大呈线性增大,随送粉管直径增大呈指数减小,而且与密度和粒径的指数幂成反比关系.当<span style=\"color:red\">粉末</span><span style=\"color:red\">粒子</span>粒径为75μm时,Ni金属<span style=\"color:red\">粉末</span>的最佳送粉参量为:送粉气流量0.2m3/h,送粉管直径1.5mm;Al2O3陶瓷<span style=\"color:red\">粉末</span>最佳送粉参量为:送粉气流量0.3m3/h,送粉管直径1mm.该项研究工作为选择最佳送粉参量和控制<span style=\"color:red\">粉末</span><span style=\"color:red\">粒子</span>在等离子流场中的运动提供了依据.","authors":[{"authorName":"王赫莹","id":"05b94103-6fb7-45bb-9a79-581b7059e4fc","originalAuthorName":"王赫莹"},{"authorName":"李德元","id":"0b3eab89-06a9-4ae5-bd94-2d79a8112262","originalAuthorName":"李德元"},{"authorName":"吴卫枫","id":"5bde5c94-72ed-45ce-99f0-ffd805710fac","originalAuthorName":"吴卫枫"}],"doi":"10.3969/j.issn.1001-3660.2005.05.013","fpage":"40","id":"8615bc5a-4fb4-4829-8f3c-87deb80e3a36","issue":"5","journal":{"abbrevTitle":"BMJS","coverImgSrc":"journal/img/cover/BMJS.jpg","id":"3","issnPpub":"1001-3660","publisherId":"BMJS","title":"表面技术   "},"keywords":[{"id":"87ce05bb-b0ff-4661-abf3-66f9a80ba1e0","keyword":"等离子喷涂","originalKeyword":"等离子喷涂"},{"id":"85646b75-09d3-4771-9a09-0deb6c007d5f","keyword":"送粉参量","originalKeyword":"送粉参量"},{"id":"f77ecde8-8480-4bbb-838e-94b827d280b7","keyword":"<span style=\"color:red\">粉末</span><span style=\"color:red\">粒子</span>","originalKeyword":"粉末粒子"},{"id":"605a2e04-490a-436d-ab41-0ba08b00f715","keyword":"运动行为","originalKeyword":"运动行为"}],"language":"zh","publisherId":"bmjs200505013","title":"等离子喷涂送粉参量对<span style=\"color:red\">粉末</span><span style=\"color:red\">粒子</span>运动行为的影响分析","volume":"34","year":"2005"},{"abstractinfo":"以纳米CaCO3浆料和丁苯胶乳（SBR）为原料，将两者直接混合制得了纳米CaCO3填充型<span style=\"color:red\">粉末</span>橡胶复合<span style=\"color:red\">粒子</span>。研究表明，当<span style=\"color:red\">粉末</span>化体系中纳米CaCO3和SBR的重量比≥1时，纳米CaCO3兼具隔离剂和凝聚剂的作用。复合<span style=\"color:red\">粒子</span>的粒径随着纳米CaCO3填充量的增加而减小，所制得的复合<span style=\"color:red\">粒子</span>的颗粒尺寸均小于200tLm，纳米CaCO3以50nm原始粒径均匀分散在复合<span style=\"color:red\">粒子</span>中；其成粉机理为纳米CaCO3表面的钙离子和胶乳<span style=\"color:red\">粒子</span>表面的负离子发生键合作用，破乳而形成<span style=\"color:red\">粉末</span>橡胶复合<span style=\"color:red\">粒子</span>。","authors":[{"authorName":"张周达","id":"ab66423b-9cd4-426b-9b0a-c5b18f2a4bf9","originalAuthorName":"张周达"},{"authorName":"陈雪梅","id":"7b4efac3-a7d0-4e67-894f-48ddd4c5c122","originalAuthorName":"陈雪梅"},{"authorName":"马新胜","id":"3329dbb3-a9c3-4940-83f1-3d93e454e0c2","originalAuthorName":"马新胜"}],"doi":"","fpage":"844","id":"02cdd0a2-0f4a-469e-a92d-d0bd76ddd097","issue":"6","journal":{"abbrevTitle":"CLKXYGCXB","coverImgSrc":"journal/img/cover/CLKXYGCXB.jpg","id":"13","issnPpub":"1673-2812","publisherId":"CLKXYGCXB","title":"材料科学与工程学报"},"keywords":[{"id":"709d7872-0ac9-402e-82a3-35f77f995e05","keyword":"纳米CaCO3","originalKeyword":"纳米CaCO3"},{"id":"01c29be3-0710-4c48-849b-14394dcc301c","keyword":"填充型<span style=\"color:red\">粉末</span>橡胶","originalKeyword":"填充型粉末橡胶"},{"id":"9c202508-109a-4813-a828-920a5af54837","keyword":"复合<span style=\"color:red\">粒子</span>","originalKeyword":"复合粒子"},{"id":"6ede2f6e-2206-4c5a-820c-18deb8d6621f","keyword":"成粉机理","originalKeyword":"成粉机理"}],"language":"zh","publisherId":"clkxygc201206008","title":"纳米CaCO3填充型<span style=\"color:red\">粉末</span>橡胶复合<span style=\"color:red\">粒子</span>的制备及成粉机理","volume":"30","year":"2012"},{"abstractinfo":"以纳米CaCO3浆料和丁苯胶乳、羧基丁苯胶乳、丁腈胶乳为原料，采用共凝聚法分别制备了三种纳米CaCO3-<span style=\"color:red\">粉末</span>橡胶复合<span style=\"color:red\">粒子</span>，并制备了三种纳米CaCO3-<span style=\"color:red\">粉末</span>橡胶／聚氯乙烯（PVC）复合材料，系统研究了复合<span style=\"color:red\">粒子</span>含量对PVC力学性能的影响，并探讨了复合<span style=\"color:red\">粒子</span>的增强增韧机制。结果表明：复合<span style=\"color:red\">粒子</span>在PVC树脂中分散均匀，复合<span style=\"color:red\">粒子</span>中的纳米CaCO3<span style=\"color:red\">粒子</span>以“裸露态”和橡胶“包裹态”两种形式存在于PVC基体中；三种复合<span style=\"color:red\">粒子</span>均能显著提高PVC的缺口冲击强度，纳米CaCO3-<span style=\"color:red\">粉末</span>丁腈橡胶（CaCO3-NBR）能同时起到增强增韧的效果，而纳米CaCO3-<span style=\"color:red\">粉末</span>丁苯橡胶（CaCO3-SBR）在提高缺口冲击强度的同时也损失了PVC原有的刚性，使其弯曲模量和拉伸强度大幅度降低，纳米CaCO3-<span style=\"color:red\">粉末</span>羧基丁苯橡胶（CaCO3-X—SBR）的改性效果鉴于前两者之间；复合<span style=\"color:red\">粒子</span>与PVC基体的相容性是影响复合<span style=\"color:red\">粒子</span>增强增韧改性效果的决定性因素，相容性好的复合<span style=\"color:red\">粒子</span>能同时起到增强增韧的效果。","authors":[{"authorName":"张周达","id":"654d0f3b-669d-4586-aae4-3414c3e3a200","originalAuthorName":"张周达"},{"authorName":"陈雪梅","id":"83068a53-a325-4dd5-8ca8-3433ac563299","originalAuthorName":"陈雪梅"},{"authorName":"董源","id":"dfcd6e9f-68c1-4804-a2eb-c4395832c011","originalAuthorName":"董源"},{"authorName":"陈西知","id":"8b1e975e-3ab8-4a95-a85a-21e367e7db60","originalAuthorName":"陈西知"},{"authorName":"马新胜","id":"6cb72268-3b8b-41f7-8545-97e30415d370","originalAuthorName":"马新胜"}],"doi":"","fpage":"19","id":"d9e336e9-e175-4cf6-9b08-4431f96e19e4","issue":"6","journal":{"abbrevTitle":"FHCLXB","coverImgSrc":"journal/img/cover/FHCLXB.jpg","id":"26","issnPpub":"1000-3851","publisherId":"FHCLXB","title":"复合材料学报"},"keywords":[{"id":"3f42c0c8-559b-4059-bbd3-aacac6edf148","keyword":"纳米CaCO3","originalKeyword":"纳米CaCO3"},{"id":"885841c6-70cf-4078-bfac-9ae19aba46f4","keyword":"<span style=\"color:red\">粉末</span>橡胶","originalKeyword":"粉末橡胶"},{"id":"b3feb8d2-440f-420c-b043-b959da5cd4ca","keyword":"聚氯乙烯","originalKeyword":"聚氯乙烯"},{"id":"50a0dc2d-38c6-42b3-be59-f098930390b0","keyword":"增强","originalKeyword":"增强"},{"id":"622f6472-461c-416e-b58a-efc490b769fc","keyword":"增韧","originalKeyword":"增韧"}],"language":"zh","publisherId":"fhclxb201206003","title":"纳米碳酸钙-<span style=\"color:red\">粉末</span>橡胶复合<span style=\"color:red\">粒子</span>增强增韧聚氯乙烯","volume":"29","year":"2012"},{"abstractinfo":"研究了纳米TiO2、SiO2及其质量比为1:1的混合物对自制的紫外光固化<span style=\"color:red\">粉末</span>涂料性能的影响.结果表明,纳米<span style=\"color:red\">粒子</span>的添加可提高漆膜的硬度、附着力、抗冲击强度,并能明显改善漆膜的耐候性能,但会使光泽度和鲜映性有所降低.当纳米TiO2及m(纳米TiO2):m(纳米SiO2)=1:1的混合物的质量分数分别为3.0%～5.0%和2.0%～4.O%时,可制得综合性能较佳的紫外光固化<span style=\"color:red\">粉末</span>涂料.","authors":[{"authorName":"周诗彪","id":"1e6878f5-e1c8-44e6-a084-a9c0bf1b6e58","originalAuthorName":"周诗彪"},{"authorName":"张维庆","id":"4f384b1a-9377-4267-88a7-4a72ae53bd5b","originalAuthorName":"张维庆"},{"authorName":"李林","id":"b0dcd383-1cf9-4813-b1b2-834afc4b1383","originalAuthorName":"李林"},{"authorName":"郝爱平","id":"146d21b2-feb1-41ad-82b0-00894e1e819f","originalAuthorName":"郝爱平"},{"authorName":"熊志夫","id":"cc3f698f-1861-4f46-8c07-362da096871d","originalAuthorName":"熊志夫"},{"authorName":"曹水秀","id":"a1c4b1d9-f069-43b7-bb81-d6c0594dd937","originalAuthorName":"曹水秀"}],"doi":"","fpage":"58","id":"4d9d8453-a271-4e73-889f-423e0d96be34","issue":"2","journal":{"abbrevTitle":"DDYTS","coverImgSrc":"journal/img/cover/DDYTS.jpg","id":"21","issnPpub":"1004-227X","publisherId":"DDYTS","title":"电镀与涂饰   "},"keywords":[{"id":"7f5c3d46-ca27-4aab-809f-a187f527e5c6","keyword":"<span style=\"color:red\">粉末</span>涂料","originalKeyword":"粉末涂料"},{"id":"16324161-d41e-434f-be75-80785c3bd96c","keyword":"紫外光固化","originalKeyword":"紫外光固化"},{"id":"01791088-7083-4a5b-9b3d-bc0fb041f9ea","keyword":"纳米TiO2","originalKeyword":"纳米TiO2"},{"id":"765ac0f5-e16f-4da4-8d21-f6186f5cf053","keyword":"纳米SiO2","originalKeyword":"纳米SiO2"},{"id":"2555033f-2303-4104-b7a9-86b3bf428bbc","keyword":"耐候性","originalKeyword":"耐候性"}],"language":"zh","publisherId":"ddyts200802020","title":"无机纳米<span style=\"color:red\">粒子</span>对UV<span style=\"color:red\">粉末</span>涂料的影响","volume":"27","year":"2008"},{"abstractinfo":"研究了气体雾化高硅铝合金<span style=\"color:red\">粉末</span>的中值直径d50与硅<span style=\"color:red\">粒子</span>尺寸的关系,并用传热学分析了这一现象.结果表明,<span style=\"color:red\">粉末</span>中值直径d50与硅<span style=\"color:red\">粒子</span>细化有密切的关系,存在一定的规律,并认为当d50＜50μm时,硅<span style=\"color:red\">粒子</span>尺寸＜3μm. ","authors":[{"authorName":"胡锐","id":"45ea7d7b-0828-479f-9fec-d336f5ed1384","originalAuthorName":"胡锐"},{"authorName":"邱嵩","id":"e068770c-16d5-41d7-8d64-396307b95d1c","originalAuthorName":"邱嵩"},{"authorName":"李进学","id":"7cbeb373-fefe-43fe-b369-39b64162ec12","originalAuthorName":"李进学"},{"authorName":"毛志英","id":"c2f97c0f-cc34-4ad3-b278-eaccc4c7ac40","originalAuthorName":"毛志英"},{"authorName":"商宝禄","id":"b5d80738-cf67-4ff3-80b2-10c2fd2ce6bf","originalAuthorName":"商宝禄"}],"doi":"10.3969/j.issn.1004-244X.2002.02.006","fpage":"23","id":"00d5774e-fb64-4959-8191-3a10c4ffcc4e","issue":"2","journal":{"abbrevTitle":"BQCLKXYGC","coverImgSrc":"journal/img/cover/BQCLKXYGC.jpg","id":"4","issnPpub":"1004-244X","publisherId":"BQCLKXYGC","title":"兵器材料科学与工程   "},"keywords":[{"id":"33279db5-3ff2-4814-acaa-92fab2e5e6b8","keyword":"气体雾化","originalKeyword":"气体雾化"},{"id":"8c5c7252-d650-40d5-aff5-7a542d08d780","keyword":"高硅铝<span style=\"color:red\">粉末</span>","originalKeyword":"高硅铝粉末"}],"language":"zh","publisherId":"bqclkxygc200202006","title":"快速凝固高硅铝合金<span style=\"color:red\">粉末</span>中值直径d50对硅<span style=\"color:red\">粒子</span>尺寸的影响","volume":"25","year":"2002"},{"abstractinfo":"目的 提高碳化钨涂层的性能.方法 运用Fluent软件进行超音速火焰喷涂焰流的仿真模拟,得出喷涂距离-焰流速度、喷涂距离-焰流温度曲线.采用<span style=\"color:red\">粒子</span>飞行监测仪对三组不同粒度(<span style=\"color:red\">粒子</span>平均直径分别为21.72、32.92、42.56 μm)WC-17Co<span style=\"color:red\">粉末</span>在超音速火焰喷涂过程中的飞行状态进行监测,并得出喷涂距离-速度、喷涂距离-温度曲线,揭示喷涂过程中焰流速度、温度对<span style=\"color:red\">粒子</span>速度和温度的影响.通过扫描电镜观察分析不同粒度WC-17Co<span style=\"color:red\">粉末</span>撞击镍718合金基体后的扁平化程度,测量不同粒度WC-17Co涂层的孔隙率,比较涂层致密度的差异,同时采用压痕法测量涂层的硬度.结果 WC-17Co<span style=\"color:red\">粒子</span>飞行速度和温度随喷涂距离的增加呈先增大后减小的趋势,且<span style=\"color:red\">粒子</span>飞行速度和温度随<span style=\"color:red\">粉末</span>粒径的增大而减小,根据<span style=\"color:red\">粉末</span>粒径的不同,其速度峰值在690～810 m/s之间变化,温度峰值在1890～2050℃之间变化.直径越小的<span style=\"color:red\">粒子</span>撞击基体后的扁平率越高,扁平率在1.94～2.35之间.WC-17Co涂层的孔隙率随<span style=\"color:red\">粒子</span>直径的增大而升高,涂层的硬度与孔隙率成反比,涂层努氏硬度在1072～1284HK之间.结论 超音速火焰喷涂过程中,碳化钨<span style=\"color:red\">粉末</span>的飞行速度和温度呈先增大后减小的趋势,且飞行速度和温度与<span style=\"color:red\">粒子</span>直径大小成反比.碳化钨涂层的致密度与硬度随<span style=\"color:red\">粒子</span>直径的增大而减小.","authors":[{"authorName":"刘延宽","id":"b3e20f9f-cce7-4b89-9e91-963b240ff7aa","originalAuthorName":"刘延宽"},{"authorName":"王志平","id":"aedf5221-c163-4123-a33e-2e59fed0c2f8","originalAuthorName":"王志平"},{"authorName":"丁坤英","id":"df3d9af2-41c8-48a0-9f9f-087bfb42458b","originalAuthorName":"丁坤英"}],"doi":"10.16490/j.cnki.issn.1001-3660.2016.06.012","fpage":"76","id":"eebfdfdb-87eb-42c9-87b0-b261a631a3f8","issue":"6","journal":{"abbrevTitle":"BMJS","coverImgSrc":"journal/img/cover/BMJS.jpg","id":"3","issnPpub":"1001-3660","publisherId":"BMJS","title":"表面技术   "},"keywords":[{"id":"9546efb0-2d8d-4027-896b-17a223a4818e","keyword":"超音速火焰喷涂","originalKeyword":"超音速火焰喷涂"},{"id":"7074aadd-458f-4c90-afb5-90a82323d9e5","keyword":"碳化钨-17钴","originalKeyword":"碳化钨-17钴"},{"id":"789b27dd-a5dd-40f9-941d-2a8659001304","keyword":"焰流特性","originalKeyword":"焰流特性"},{"id":"76525f39-7e38-4b8e-8ad5-8783f6813f77","keyword":"<span style=\"color:red\">粒子</span>飞行状态","originalKeyword":"粒子飞行状态"},{"id":"01255bf7-9e4a-4f59-b46e-a770ced9753a","keyword":"涂层","originalKeyword":"涂层"},{"id":"1aca11c5-5c6b-4fa2-8feb-42bb461e930a","keyword":"孔隙率","originalKeyword":"孔隙率"},{"id":"1486a22c-1cf8-4a2c-b497-ccc7a4a5c15d","keyword":"努氏硬度","originalKeyword":"努氏硬度"}],"language":"zh","publisherId":"bmjs201606012","title":"WC-17Co<span style=\"color:red\">粉末</span>尺寸对<span style=\"color:red\">粒子</span>飞行状态与涂层性能的影响分析","volume":"45","year":"2016"},{"abstractinfo":"使用不同粒度的铁粉, 采用电流直加热动态热压烧结工艺制备了10%(体积分数)的SiC颗粒增强铁基复合材料, 研究了铁粉与SiC<span style=\"color:red\">粒子</span>颗粒级配对复合材料显微组织和力学性能的影响. 结果表明, SiC<span style=\"color:red\">粒子</span>与铁粉的颗粒级配, 显著影响复合材料基体中增强<span style=\"color:red\">粒子</span>的分布状况和力学性能. 建立了<span style=\"color:red\">粒子</span>分布的双基体颗粒级配模型, 只有铁粉中一次颗粒与二次颗粒的粒径比为6.5、二次颗粒含量为4.6\\%、铁粉一次颗粒与SiC的粒度比值为15.9时, SiC颗粒才能很好地填充铁粉间隙并均匀地分布在基体中, 复合材料将具有较高的力学性能. 模型计算的结果和实验结果相符合.","authors":[{"authorName":"王耀勉宗亚平李杰","id":"994e0e18-290c-4185-b2f4-c75828a77282","originalAuthorName":"王耀勉宗亚平李杰"}],"categoryName":"|","doi":"","fpage":"466","id":"83a5e522-3067-4341-a5d8-b772f0cac146","issue":"5","journal":{"abbrevTitle":"CLYJXB","coverImgSrc":"journal/img/cover/CLYJXB.jpg","id":"16","issnPpub":"1005-3093","publisherId":"CLYJXB","title":"材料研究学报"},"keywords":[{"id":"10bac7f1-164b-4795-9f0e-038f1a9ddab2","keyword":"复合材料","originalKeyword":"复合材料"},{"id":"aea22ab8-1fed-451b-8d13-9f33b9f6e9af","keyword":"particle distribution model","originalKeyword":"particle distribution model"},{"id":"752cfb63-53e6-423b-9759-7f258352d464","keyword":"size match","originalKeyword":"size match"},{"id":"8cdd74f4-2896-4795-9a83-e48db5e6b2d8","keyword":"specimen current heating dynamic hot press sintering","originalKeyword":"specimen current heating dynamic hot press sintering"},{"id":"33925a29-56a1-447d-8f3f-3557facbe44c","keyword":"mechanical properties","originalKeyword":"mechanical properties"}],"language":"zh","publisherId":"1005-3093_2009_5_9","title":"基体<span style=\"color:red\">粉末</span>与增强<span style=\"color:red\">粒子</span>的粒度级配对SiCp/Fe性能的影响","volume":"23","year":"2009"},{"abstractinfo":"以Cu(NO3)2·3H2O与Na2CO3·10H2O为原料沉淀法制得纳米CuO前驱体--碱式碳酸铜,在不同温度(200℃、300℃、400℃、500℃、600℃)下分别焙烧2h得到CuO<span style=\"color:red\">粉末</span>后,直接倒入室温下的正丁醇溶液中,发生氧化-还原反应,得到组成不同的各种产物.经XRD、TEM、SEM研究表明,产物的组成随上述热处理温度的改变而变化,500℃时可得到纯的纳米铜粉,600℃时可得到Cu2O-Cu核-壳型纳米<span style=\"color:red\">粒子</span>.","authors":[{"authorName":"郑惠梅","id":"ede1b1da-67e2-46e2-96be-b43b4143a380","originalAuthorName":"郑惠梅"},{"authorName":"杨水彬","id":"e7db7d95-348e-4f48-ba00-7bef2d6d0ba9","originalAuthorName":"杨水彬"},{"authorName":"刘孝恒","id":"4dfbba02-86ef-4704-9a31-bab1bf1819f8","originalAuthorName":"刘孝恒"},{"authorName":"杨绪杰","id":"c8098c24-0d4e-4582-bc57-e8b17cd92ef5","originalAuthorName":"杨绪杰"},{"authorName":"汪信","id":"6a272d5c-95e4-48b6-b85d-65ae47c2d807","originalAuthorName":"汪信"}],"doi":"","fpage":"3104","id":"5f3e310c-8db0-44f5-95b1-1d134c84d0fa","issue":"z1","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"72cad44f-be51-4b8c-b72a-db6a0fa963e9","keyword":"铜纳米<span style=\"color:red\">粒子</span>","originalKeyword":"铜纳米粒子"},{"id":"57991258-c866-40b2-8e1a-98247bcfd037","keyword":"Cu2O-Cu核-壳型纳米<span style=\"color:red\">粒子</span>","originalKeyword":"Cu2O-Cu核-壳型纳米粒子"},{"id":"7726bcdf-7230-4ebc-8cee-26354a76ef27","keyword":"正丁醇","originalKeyword":"正丁醇"}],"language":"zh","publisherId":"gncl2004z1873","title":"新方法制备Cu超细<span style=\"color:red\">粉末</span>以及Cu2O-Cu核-壳型复合<span style=\"color:red\">粒子</span>","volume":"35","year":"2004"},{"abstractinfo":"选用Cr3C2-NiCr<span style=\"color:red\">粉末</span>、Ni包MoS2粉、Ni60<span style=\"color:red\">粉末</span>以及3种<span style=\"color:red\">粉末</span>的混合<span style=\"color:red\">粉末</span>,采用超音速火焰喷涂技术制备涂层试样.研究了异种<span style=\"color:red\">粒子</span>共喷对涂层的显微组织结构特征和涂层的结合强度的影响.研究结果表明:与喷涂单一<span style=\"color:red\">粒子</span>相比,单枪共喷异种<span style=\"color:red\">粒子</span>在堆叠过程中更容易形成孔隙,造成涂层组织疏松;与单一<span style=\"color:red\">粒子</span>涂层相比,单枪共喷异种<span style=\"color:red\">粒子</span>涂层的结合强度明显下降;异种<span style=\"color:red\">粒子</span>共喷涂层的结合强度与异种<span style=\"color:red\">粒子</span>的配比相关.","authors":[{"authorName":"肖明颖","id":"8b354bfd-1e74-4c66-bcf4-61a0c7f221dd","originalAuthorName":"肖明颖"},{"authorName":"王引真","id":"36af27ee-1dd3-4324-8e7c-8824ae30a923","originalAuthorName":"王引真"},{"authorName":"秦清彬","id":"72bd1f50-ab89-40cf-9857-de8b082f3a9f","originalAuthorName":"秦清彬"},{"authorName":"范振红","id":"30349d2b-abce-47c5-a4db-a67e83aaf850","originalAuthorName":"范振红"}],"doi":"10.3969/j.issn.1001-3660.2007.02.004","fpage":"9","id":"dcf4b189-4656-4990-9ed7-dde374bd951e","issue":"2","journal":{"abbrevTitle":"BMJS","coverImgSrc":"journal/img/cover/BMJS.jpg","id":"3","issnPpub":"1001-3660","publisherId":"BMJS","title":"表面技术   "},"keywords":[{"id":"05763930-56db-4db0-99d9-34eadea00206","keyword":"复合涂层","originalKeyword":"复合涂层"},{"id":"2180117c-3eae-4399-b5bb-c64a905f6bc7","keyword":"单枪共喷","originalKeyword":"单枪共喷"},{"id":"66606ad2-70f0-4047-8792-3a209e826dac","keyword":"超音速火焰喷涂","originalKeyword":"超音速火焰喷涂"},{"id":"7f99a8c0-d13c-49a7-9de2-8b25e47517af","keyword":"涂层结构","originalKeyword":"涂层结构"},{"id":"948ab20d-5da2-450a-923b-355032cb35d6","keyword":"结合强度","originalKeyword":"结合强度"}],"language":"zh","publisherId":"bmjs200702004","title":"单枪共喷异种<span style=\"color:red\">粒子</span>涂层结构及结合强度分析","volume":"36","year":"2007"},{"abstractinfo":"作者采用蒸发凝聚法制奋了金属基超微<span style=\"color:red\">粉末</span>,采用化学反应法制备了氧化物超微<span style=\"color:red\">粉末</span>,深入研究了超微<span style=\"color:red\">粉末</span>的制备工艺.设计了一种新型的超微<span style=\"color:red\">粉末</span>收集器,研究了超微合金<span style=\"color:red\">粉末</span>中合金相的生成规律和机理,解决了超微<span style=\"color:red\">粉末</span>制备过程中的一系列难题,实现了批量制备超微<span style=\"color:red\">粉末</span>.","authors":[{"authorName":"陈振华","id":"a31b4fef-1c78-460e-a5ed-755b84eb6cb5","originalAuthorName":"陈振华"},{"authorName":"严红革","id":"90adedcb-b18a-4027-a14d-99e1168a076a","originalAuthorName":"严红革"},{"authorName":"段学臣","id":"9c3609f1-9710-44ef-b169-d557eb331926","originalAuthorName":"段学臣"}],"doi":"","fpage":"36","id":"4d7f20f5-6cba-4c7d-9bae-8ba77360626e","issue":"1","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"9a016142-487b-47dc-b0d1-ab885455b07d","keyword":"超微<span style=\"color:red\">粉末</span>","originalKeyword":"超微粉末"},{"id":"78b2386a-e3b4-4587-ad95-a063b15d1c23","keyword":"蒸发凝聚","originalKeyword":"蒸发凝聚"},{"id":"1a516d05-e304-4b1f-84a5-b797a7554a3b","keyword":"醇盐水解","originalKeyword":"醇盐水解"},{"id":"855a2de8-ac7a-4ead-97b2-e5fbefe187b4","keyword":"化学沉淀","originalKeyword":"化学沉淀"}],"language":"zh","publisherId":"gncl200001011","title":"超微<span style=\"color:red\">粉末</span>的研究","volume":"31","year":"2000"}],"totalpage":1402,"totalrecord":14012}