{"currentpage":1,"firstResult":0,"maxresult":10,"pagecode":5,"pageindex":{"endPagecode":5,"startPagecode":1},"records":[{"abstractinfo":"采用SRV Ⅳ型摩擦磨损试验机对比研究了喷射成型-锻造(SF-<span style=\"color:red\">F</span>)、电渣重熔-锻造(ESR-<span style=\"color:red\">F</span>)和电渣重熔(ESR)三种工艺制备的HGSF<span style=\"color:red\">01</span>高合金工具钢的摩擦磨损性能,重点研究了摩擦速度和载荷对SF-<span style=\"color:red\">F</span>态钢摩擦磨损性能的影响及其磨损机制.结果表明:SF-<span style=\"color:red\">F</span>态钢的摩擦磨损性能比ESR-<span style=\"color:red\">F</span>态和ESR态的都好;SF-<span style=\"color:red\">F</span>态钢的摩擦因数在低载荷时随摩擦速度的增大而增大,在高载荷时先增大后减小,摩擦速度一定时随载荷的增大而增大;随着摩擦速度和载荷的增大,SF-<span style=\"color:red\">F</span>态钢的磨损量增大,其磨损机制主要是磨粒磨损和粘着磨损.","authors":[{"authorName":"刘丘林","id":"6c2fc232-37ef-4a32-b4d1-d3a02f9d7148","originalAuthorName":"刘丘林"},{"authorName":"刘允中","id":"c3b8f2e6-fc79-4069-9d14-b89a71cae313","originalAuthorName":"刘允中"},{"authorName":"肖文华","id":"68b3ed9c-7494-4091-bb75-a7e95e9d065b","originalAuthorName":"肖文华"},{"authorName":"康少付","id":"b2a6e4dd-5351-4187-affd-38a703b0f325","originalAuthorName":"康少付"},{"authorName":"李元元","id":"26e45575-f9f4-4681-8816-263baf5b243a","originalAuthorName":"李元元"}],"doi":"","fpage":"67","id":"ac3adebb-b26f-42d9-aa9a-8d4b4ac23e31","issue":"6","journal":{"abbrevTitle":"JXGCCL","coverImgSrc":"journal/img/cover/JXGCCL.jpg","id":"45","issnPpub":"1000-3738","publisherId":"JXGCCL","title":"机械工程材料"},"keywords":[{"id":"091e8110-47d8-4905-aed3-adf5523fb954","keyword":"喷射成型","originalKeyword":"喷射成型"},{"id":"4e03824e-1b55-464b-acf0-ca3280fc06e1","keyword":"高合金工具钢","originalKeyword":"高合金工具钢"},{"id":"9f9274c6-2ee4-4eb4-9262-b85067514567","keyword":"摩擦磨损性能","originalKeyword":"摩擦磨损性能"}],"language":"zh","publisherId":"jxgccl201006018","title":"喷射成型HGSF<span style=\"color:red\">01</span>高合金工具钢的摩擦磨损性能","volume":"34","year":"2010"},{"abstractinfo":"采用有机硅树脂掺杂无机粒子制备了一种耐高温腻子(HIT-J<span style=\"color:red\">01</span>),研究了其粘接性能、膨胀特性和抗热震性能.通过SEM及XRD分析了腻子的微观结构和相变化.结果表明:制备的腻子具有良好的粘接和抗热震性能,粘接C/SiC的单搭接剪切强度为5.5 MPa,1 200℃在线单搭接剪切强度1.8 MPa.腻子同基材C/SiC具有良好的热膨胀匹配性能.HIT-J<span style=\"color:red\">01</span>腻子在高温条件下生成的Al2O3·(B2O3)n融体.在风洞考核环境下,腻子封堵面平均温度高达1 200℃,最高温度达到1 400℃,风洞实验后,腻子表观平整、无裂纹.","authors":[{"authorName":"钟正祥","id":"deabec34-3393-46eb-8b48-fbd59cf7f628","originalAuthorName":"钟正祥"},{"authorName":"刘丽","id":"472389d0-c86c-4c1b-a512-3073ce503c78","originalAuthorName":"刘丽"},{"authorName":"彭磊","id":"83134d6f-4ee6-42ab-a439-afbe06ab7199","originalAuthorName":"彭磊"},{"authorName":"金兆国","id":"c608e7da-f100-40f5-9788-30441696ef59","originalAuthorName":"金兆国"},{"authorName":"刘斌","id":"666b31d3-f4af-4743-83e1-eb8fd0e8fab0","originalAuthorName":"刘斌"}],"doi":"10.3969/j.issn.1007-2330.2015.04.009","fpage":"40","id":"2064ebf4-9495-4dac-8879-692ee0dd5895","issue":"4","journal":{"abbrevTitle":"YHCLGY","coverImgSrc":"journal/img/cover/YHCLGY.jpg","id":"77","issnPpub":"1007-2330","publisherId":"YHCLGY","title":"宇航材料工艺   "},"keywords":[{"id":"9d48a8cd-fdf0-4be8-855d-ac28e0657288","keyword":"耐高温","originalKeyword":"耐高温"},{"id":"54b571ba-1633-4dd0-b1d3-d39def96b1b5","keyword":"热膨胀","originalKeyword":"热膨胀"},{"id":"3856e985-2895-493a-a788-d425efe0ad46","keyword":"风洞考核","originalKeyword":"风洞考核"},{"id":"f2d6bec0-e263-4cdf-bd64-82c9965de941","keyword":"剪切强度","originalKeyword":"剪切强度"}],"language":"zh","publisherId":"yhclgy201504009","title":"HIT-J<span style=\"color:red\">01</span>腻子的制备及性能","volume":"45","year":"2015"},{"abstractinfo":"生产检验中发现DC<span style=\"color:red\">01</span>钢断后伸长率不合格.介绍了DC<span style=\"color:red\">01</span>钢的生产工艺流程,对断后伸长率不合格的DC<span style=\"color:red\">01</span>钢试样进行化学成分、夹杂物和金相组织分析.结果表明:DC<span style=\"color:red\">01</span>断后伸长率不合格的主要原因是金相组织中渗碳体含量多,且呈链状和聚集状,钢中夹杂物也会引起断后伸长率不合格,提出了解决问题的措施.","authors":[{"authorName":"陈艳华","id":"45076dec-4e7a-4f70-8337-be2da819e4b7","originalAuthorName":"陈艳华"},{"authorName":"杨金","id":"4a576d9b-763f-49d0-8f02-ecc11eb14fd5","originalAuthorName":"杨金"},{"authorName":"王秀琴","id":"1bcffce5-af09-4b8f-8428-77cca10a99ed","originalAuthorName":"王秀琴"},{"authorName":"魏焕君","id":"70f09d73-f919-42b4-ae08-749041a6990d","originalAuthorName":"魏焕君"}],"doi":"","fpage":"29","id":"4b02409a-37c0-46a1-b5ee-6607b6fd6091","issue":"1","journal":{"abbrevTitle":"WLCS","coverImgSrc":"journal/img/cover/WLCS.jpg","id":"64","issnPpub":"1001-0777","publisherId":"WLCS","title":"物理测试"},"keywords":[{"id":"671797e5-e2e8-4f71-ba4b-a7fb561ca3c2","keyword":"DC<span style=\"color:red\">01</span>带钢","originalKeyword":"DC01带钢"},{"id":"a8b99fce-b93c-4a62-be20-a186613ddb58","keyword":"生产工艺","originalKeyword":"生产工艺"},{"id":"c5986c04-e2f6-4bbd-8b67-ed0ca0ce71ce","keyword":"伸长率","originalKeyword":"伸长率"},{"id":"87c374af-7bec-457d-a553-d07675646cf7","keyword":"措施","originalKeyword":"措施"}],"language":"zh","publisherId":"wlcs201401009","title":"DC<span style=\"color:red\">01</span>带钢生产工艺与断后伸长率不合格分析","volume":"32","year":"2014"},{"abstractinfo":"阐述了运用ASTM E1268-<span style=\"color:red\">01</span>标准定量评定钢中显微带状组织,分析了影响测量精度和准确度的主要因素,与国标GB/T13299-91显微组织评定方法作了简要的比较.","authors":[{"authorName":"刘金源","id":"f142c3fe-df76-4d38-a2f3-80f91e3a4c8c","originalAuthorName":"刘金源"},{"authorName":"陈远生","id":"643ec061-1d43-4edc-a1f7-6d7c8305fb60","originalAuthorName":"陈远生"},{"authorName":"雷中钰","id":"1557fa08-6611-4f0b-a5df-32ebc2df5f6b","originalAuthorName":"雷中钰"},{"authorName":"杨明梅","id":"3dbf16dd-d06e-404a-aea1-f6bf91cac3ce","originalAuthorName":"杨明梅"},{"authorName":"潘仁宗","id":"0746c952-899f-4bab-be83-57ac6a3ae580","originalAuthorName":"潘仁宗"}],"doi":"","fpage":"37","id":"0a6e21e2-73d0-4e34-b332-0257a76cad24","issue":"6","journal":{"abbrevTitle":"WLCS","coverImgSrc":"journal/img/cover/WLCS.jpg","id":"64","issnPpub":"1001-0777","publisherId":"WLCS","title":"物理测试"},"keywords":[{"id":"9cf22dde-098a-4a09-8130-47a1cae1211a","keyword":"标准","originalKeyword":"标准"},{"id":"fed92333-1d93-4cfb-b112-4c1830ed2bdf","keyword":"带状组织","originalKeyword":"带状组织"},{"id":"55ba7f81-d10f-4851-b13f-2f33cb550ab6","keyword":"定量评定","originalKeyword":"定量评定"}],"language":"zh","publisherId":"wlcs201006011","title":"运用ASTM E1268-<span style=\"color:red\">01</span>标准定量评定钢中显微带状组织","volume":"28","year":"2010"},{"abstractinfo":"文章选取了我国某类型高速列车常用的A7N<span style=\"color:red\">01</span>S-T5铝合金材料,进行了恒载荷应力腐蚀试验,对A7N<span style=\"color:red\">01</span>S-T5材料的应力腐蚀机理、应力腐蚀强度因子K1SCC和裂纹生长机制进行了研究.结果表明,A7N<span style=\"color:red\">01</span>S-T5铝合金的应力腐蚀破坏敏感性很高,其临界应力场强度因子K1 SCC为5.2 MPa.m1/2,仅为断裂韧度K1 C的0.15,对应的临界应力门槛值б为123MPa,仅为拉伸强度бb0.27.裂纹断口面有明显的舌状凸起和凹坑的存在.A7N<span style=\"color:red\">01</span>S-T5铝合金的应力腐蚀裂纹以沿晶开裂为主,形貌呈树枝状,同时相邻二次裂纹之间有竞争生长的关系.","authors":[{"authorName":"苟国庆","id":"e0ba0c39-8946-4cab-b884-696f8605187c","originalAuthorName":"苟国庆"},{"authorName":"黄楠","id":"0531ffe7-c1dc-43d7-87d1-25906268f0d1","originalAuthorName":"黄楠"},{"authorName":"陈辉","id":"8fc45843-1bf4-425e-9ec9-f1dc80346458","originalAuthorName":"陈辉"},{"authorName":"孟立春","id":"28f53cdc-bfa5-49a9-9005-c8bf26b3a5ac","originalAuthorName":"孟立春"},{"authorName":"吴沛沛","id":"f042de6d-920c-4c90-a190-b9bbf791eadf","originalAuthorName":"吴沛沛"}],"doi":"","fpage":"134","id":"f7c80438-693b-4f59-b1d0-56cd720be612","issue":"4","journal":{"abbrevTitle":"CLKXYGY","coverImgSrc":"journal/img/cover/CLKXYGY.jpg","id":"14","issnPpub":"1005-0299","publisherId":"CLKXYGY","title":"材料科学与工艺"},"keywords":[{"id":"e7f01d63-6a41-4cd9-a478-2ebac57cdf0b","keyword":"高速列车","originalKeyword":"高速列车"},{"id":"170289a2-d066-4a1c-9d75-0f00e38acb52","keyword":"A7N<span style=\"color:red\">01</span>S-T5铝合金","originalKeyword":"A7N01S-T5铝合金"},{"id":"3e647e96-9ee9-4134-b70e-a5b70e4f77f8","keyword":"应力腐蚀","originalKeyword":"应力腐蚀"},{"id":"9eb27a8b-7d98-407b-95d8-00918ad5b1d3","keyword":"K1SCC","originalKeyword":"K1SCC"}],"language":"zh","publisherId":"clkxygy201204025","title":"高速列车A7N<span style=\"color:red\">01</span>S-T5铝合金应力腐蚀行为研究","volume":"20","year":"2012"},{"abstractinfo":"利用光学金相、扫描电镜、透射电镜、硬度和差热分析等研究了7N<span style=\"color:red\">01</span>铝合金在120℃下时效性能变化与析出演变情况。结果表明：7N<span style=\"color:red\">01</span>强化元素充分固溶处理后,难溶的Fe、Mn元素等与Al、Si等形成了棒状α-Al（FeMn）Si相,时效过程中,α-Al（FeMn）Si吸附并溶解基体析出的Mg、Zn等元素,形成α-Al（FeMnMgZn）Si。合金在120℃下时效,随着时效时间的延长,硬度不断上升,并在时效48 h后达到第一个硬度峰值,峰值硬度为138 VHN,继续时效,硬度开始稍有下降,时效到72 h后硬度又缓慢上升,直至时效到96 h时,7N<span style=\"color:red\">01</span>硬度达到第二个峰值,峰值硬度为146 VHN。硬度变化本质上反映了120℃时效过程中强化相从GPⅡ到η＇相转变。","authors":[{"authorName":"宋涛","id":"8bf647b2-0a15-4d4f-936e-ff0d030ba66c","originalAuthorName":"宋涛"},{"authorName":"高家诚","id":"b768954f-b0d8-4139-b6f1-ff403b1e8368","originalAuthorName":"高家诚"},{"authorName":"乔丽英","id":"bb87df14-65ba-4ec9-9e65-36e24c7fc7df","originalAuthorName":"乔丽英"},{"authorName":"高安江","id":"aad965c9-109d-4302-96a7-4deffad42187","originalAuthorName":"高安江"}],"doi":"","fpage":"104","id":"45a649f6-496f-42f7-9d57-55222c5360b6","issue":"7","journal":{"abbrevTitle":"CLRCLXB","coverImgSrc":"journal/img/cover/CLRCLXB.jpg","id":"15","issnPpub":"1009-6264","publisherId":"CLRCLXB","title":"材料热处理学报"},"keywords":[{"id":"e8a88d82-0c60-4369-9e08-9ef2b07ef58f","keyword":"7N<span style=\"color:red\">01</span>铝合金","originalKeyword":"7N01铝合金"},{"id":"12c0257e-28b9-4b68-9ffc-7373f7ab9440","keyword":"时效","originalKeyword":"时效"},{"id":"d484bcd7-e026-46ec-b0df-2364ae675b38","keyword":"显微组织","originalKeyword":"显微组织"},{"id":"06bc6187-c993-4a9b-aa15-9ae82abb5a0d","keyword":"硬度","originalKeyword":"硬度"}],"language":"zh","publisherId":"jsrclxb201107020","title":"7N<span style=\"color:red\">01</span>铝合金120℃单级时效的组织和性能","volume":"32","year":"2011"},{"abstractinfo":"本文祥细阐述了运用ASTM E1268-<span style=\"color:red\">01</span>标准定量评定钢中显微带状组织，分析了影响测量精度和准确度的主要因素，与国标GB/T13299-91显微组织评定方法作了简要的比较。","authors":[{"authorName":"刘金源","id":"e9ba50e2-b429-4f1f-8e6b-47a152df7eda","originalAuthorName":"刘金源"}],"categoryName":"|","doi":"","fpage":"35","id":"bb169979-251b-4c20-a0e1-e3b4d22f1868","issue":"6","journal":{"abbrevTitle":"WLCS","coverImgSrc":"journal/img/cover/WLCS.jpg","id":"64","issnPpub":"1001-0777","publisherId":"WLCS","title":"物理测试"},"keywords":[{"id":"98294a43-f344-4754-ab88-7c6692e22647","keyword":"ASTM E1268-<span style=\"color:red\">01</span>标准","originalKeyword":"ASTM E1268-01标准"},{"id":"9113022a-4aec-4de4-8a8c-2ff60ef1cf37","keyword":"GB/T13299-91","originalKeyword":"GB/T13299-91"},{"id":"93f977b4-b3b4-4321-84a5-fc4471d91fde","keyword":"banding microstructure","originalKeyword":"banding microstructure"},{"id":"f42867b9-76b6-4d0f-8ed6-62da5b527301","keyword":"quantiative measurement","originalKeyword":"quantiative measurement"}],"language":"zh","publisherId":"1001-0777_2010_6_12","title":"运用ASTM E1268-<span style=\"color:red\">01</span>标准定量评定钢中显微带状组织","volume":"28","year":"2010"},{"abstractinfo":"Modified CNS-Ⅱ <span style=\"color:red\">F</span>/M steel was designed for in-core components of supercritical water cooled reactor. Study on the hot deformation behavior of modified CNS-Ⅱ <span style=\"color:red\">F</span>/M steel is of great importance for processing parameter planning and microstructure controlling during hot deformation. The hot deformation behavior of modified CNS-Ⅱ <span style=\"color:red\">F</span>/M steel was investigated through isothermal hot compression test at temperature ranging from 1223 to 1373 K and strain rate 0<span style=\"color:red\">01</span> to 10 s-1. The true stress-true strain data gained from compression tests were used to built constitutive equation of modified CNS-Ⅱ <span style=\"color:red\">F</span>/M steel. The influence of strain on the accuracy of constitutive analysis was incorporated, assuming strain has a influence on material constants. A 5th order polynominal equation with very good accuracy was used to represent the influence of strain on material constant. The flow stresses calculated from the constitutive equation were compared with test values in the whole experiment range and the absolute average error for the constitutive equation in predicting flow stress is 4728%. At last, the recrystallization behavior of modified CNS-Ⅱ <span style=\"color:red\">F</span>/M steel was investigated. The relationship of critical strain and peak strain with Zener-Hollomon parameter were given by an experimental equation.","authors":[{"authorName":"YANG Ying","id":"9a037d75-0767-485e-b614-a4c8ab715020","originalAuthorName":"YANG Ying"},{"authorName":"YAN Qing-zhi","id":"0fa58a57-b46a-415a-a3fc-463a31f5999a","originalAuthorName":"YAN Qing-zhi"},{"authorName":"GE Chang-chun","id":"b3239e43-73b8-4f16-b707-388cf27e2ed0","originalAuthorName":"GE Chang-chun"}],"categoryName":"|","doi":"","fpage":"60","id":"9791f224-8d11-4aa4-a85c-220a0473eb09","issue":"1","journal":{"abbrevTitle":"GTYJXBYWB","coverImgSrc":"journal/img/cover/GTYJXBEN.jpg","id":"1","issnPpub":"1006-706X","publisherId":"GTYJXBYWB","title":"钢铁研究学报(英文版)"},"keywords":[{"id":"a1b1be52-38ac-448f-979b-e4343142d5bc","keyword":"<span style=\"color:red\">F</span>/M steel ","originalKeyword":"F/M steel "},{"id":"6c897dcd-d0c0-4f1d-a067-a6a901c2f607","keyword":"  constitutive equation ","originalKeyword":"  constitutive equation "},{"id":"1fd22c20-9ce3-4ed7-a011-d31f943240d8","keyword":"  dynamic recrystallization","originalKeyword":"  dynamic recrystallization"}],"language":"en","publisherId":"1006-706X_2012_1_5","title":"Hot Deformation Behavior of Modified CNS-Ⅱ <span style=\"color:red\">F</span>/M Steel","volume":"19","year":"2012"},{"abstractinfo":"采用Gleeble-1500D热模拟机进行热压缩变性试验,研究7N<span style=\"color:red\">01</span>铝合金在变形温度为340 ～460℃、应变速率为0.01～ 10.00 s-1条件下的流变应力行为.结果表明:变形温度和应变速率对合金流变应力有显著影响,流变应力随变形温度的升高而降低,随应变速率的增加而升高；合金在低应变速率(0.01,0.10,1.00s-1)时主要为动态回复软化机制,而在高应变速率(10.00 s-1)时出现动态再结晶软化；7N<span style=\"color:red\">01</span>铝合金的高温流变行为可用Zener-Hollomon参数描述.","authors":[{"authorName":"刘君城","id":"9e2f5a1c-38bf-46dd-9161-242716173a27","originalAuthorName":"刘君城"},{"authorName":"金龙兵","id":"83a5eba7-8913-4d1e-b565-26d5e3cdc431","originalAuthorName":"金龙兵"},{"authorName":"何振波","id":"58868b17-c1fa-4685-bc9e-1cb1e3d5f425","originalAuthorName":"何振波"},{"authorName":"路丽英","id":"d61c63b6-e740-4b35-bcc0-34e0f420c0ca","originalAuthorName":"路丽英"},{"authorName":"刘红伟","id":"7f2b23b7-cbb8-4bd6-b5ce-c4fdacf55908","originalAuthorName":"刘红伟"},{"authorName":"张永安","id":"350cd256-b686-4117-9dc3-f0abaabf9c83","originalAuthorName":"张永安"}],"doi":"10.3969/j.issn.0258-7076.2011.06.004","fpage":"812","id":"2745eb60-8918-4682-9794-f3a1a2fb7866","issue":"6","journal":{"abbrevTitle":"XYJS","coverImgSrc":"journal/img/cover/XYJS.jpg","id":"67","issnPpub":"0258-7076","publisherId":"XYJS","title":"稀有金属"},"keywords":[{"id":"a7e50c6f-bbcd-4463-ae31-db1abb56eef6","keyword":"7N<span style=\"color:red\">01</span>铝合金","originalKeyword":"7N01铝合金"},{"id":"98ab687f-3935-46fa-b7b9-36e7f8867c94","keyword":"热压缩变形","originalKeyword":"热压缩变形"},{"id":"b016945c-7503-4899-9705-37d087264f9d","keyword":"流变应力","originalKeyword":"流变应力"},{"id":"e57a95a6-59ff-49eb-a70e-5bebfee2aacd","keyword":"Zener-Hollomon参数","originalKeyword":"Zener-Hollomon参数"}],"language":"zh","publisherId":"xyjs201106004","title":"7N<span style=\"color:red\">01</span>铝合金热压缩流变行为研究","volume":"35","year":"2011"},{"abstractinfo":"采用铝镁系合金的应力腐蚀和剥落腐蚀试验方法，研究了船用5A<span style=\"color:red\">01</span>高镁Al-Mg合金厚板的抗应力腐蚀和抗剥落腐蚀性能，利用金相显微镜和透射电子显微镜观察了合金的显微组织。结果表明，5A<span style=\"color:red\">01</span>铝合金厚板具有良好的抗应力腐蚀和剥落腐蚀性能，这是由于合金变形组织中均匀弥散分布着β（Mg5Al8、Mg2Al3）沉淀相，在晶界上未出现连续β相形成的网络。","authors":[{"authorName":"王月","id":"4ab3ca0d-2fb6-4f9a-97dc-badf2b9e368f","originalAuthorName":"王月"},{"authorName":"刘国元","id":"89ad69b8-a7a6-4a0a-af9a-f80314235a51","originalAuthorName":"刘国元"}],"doi":"","fpage":"525","id":"9618f0bc-1f43-4ebb-95c4-ae0f8e4d0132","issue":"7","journal":{"abbrevTitle":"FSYFH","coverImgSrc":"journal/img/cover/FSYFH.jpg","id":"25","issnPpub":"1005-748X","publisherId":"FSYFH","title":"腐蚀与防护"},"keywords":[{"id":"dcb312ec-6d43-4bfb-b694-a0b2874c6599","keyword":"铝合金","originalKeyword":"铝合金"},{"id":"088447fc-a3fd-4cb5-a769-d429a9eeb715","keyword":"耐腐蚀性","originalKeyword":"耐腐蚀性"},{"id":"f324d788-3df8-416b-8b19-38cd4680f899","keyword":"显微组织","originalKeyword":"显微组织"}],"language":"zh","publisherId":"fsyfh201107008","title":"船用5A<span style=\"color:red\">01</span>铝合金厚板的耐腐蚀性能","volume":"32","year":"2011"}],"totalpage":482,"totalrecord":4811}