功能材料, 2011, 42(5): 897-902.
熔体快淬对纳米晶和非晶Mg2Ni型合金贮氢动力学性能的影响
张羊换 1, , 李贵","id":"8b00d15e-37f8-401f-b218-0e9dd0984f9f","originalAuthorName":"李贵"},{"authorName":"宋钢","id":"4bf5f314-223d-4a56-bacf-22a25c6146b5","originalAuthorName":"宋钢"},{"authorName":"汪卫华","id":"ed5d807b-1735-4c84-9c43-967476924d72","originalAuthorName":"汪卫华"},{"authorName":"吴宜灿","id":"84ae1d42-ade3-4b68-b846-a93e5053f191","originalAuthorName":"吴宜灿"},{"authorName":"FDS团队","id":"679e79b8-5a02-438e-be56-3ccabb4c2845","originalAuthorName":"FDS团队"}],"doi":"","fpage":"103","id":"9e81184c-77cb-4fd3-a75e-2aab609b3eaf","issue":"1","journal":{"abbrevTitle":"YZHWLPL","coverImgSrc":"journal/img/cover/YZHWLPL.jpg","id":"78","issnPpub":"1007-4627","publisherId":"YZHWLPL","title":"原子核物理评论 "},"keywords":[{"id":"9d86948b-ee37-4385-8dc0-d75ec475aeb6","keyword":"调强放疗","originalKeyword":"调强放疗"},{"id":"542c4c1d-55aa-442d-bc86-9bc0410f490e","keyword":"共轭梯度法","originalKeyword":"共轭梯度法"},{"id":"8138e813-6293-48b4-9510-43925c790146","keyword":"精确放疗系统","originalKeyword":"精确放疗系统"},{"id":"d1e50397-d152-4764-89e5-9f153386e736","keyword":"子野权重优化","originalKeyword":"子野权重优化"}],"language":"zh","publisherId":"yzhwlpl201101016","title":"调强放射治疗子野权重优化方法研究","volume":"28","year":"2011"},{"abstractinfo":"针对逆向调强放疗中强度分布优化涉及的参数多,且临床上对其优化速度要求高的特点,将医生期望的靶区剂量和周围正常组织剂量限制转化为二次函数形式的目标函数,然后利用共轭梯度法对该目标函数进行优化.最后采用一例C形靶区紧密包围危及器官的模拟病例和一例临床常用的前列腺实例,在PC机(CPU E7200@2.53GHz,2.00GB内存,Windows XP)上对强度分布优化效果进行测试,对模拟病例10 s便找到最优解;而对前列腺病例20 s便可以找到最优解;且两个测试病例优化所得强度分布对应的剂量分布均满足要求.测试结果表明,采用共轭梯度法优化强度分布具有快速和效果好的优点,因此可以将其应用在精确放疗系统中.","authors":[{"authorName":"曹瑞芬","id":"039d881f-9d6b-4609-a4b9-214dc5331d7f","originalAuthorName":"曹瑞芬"},{"authorName":"裴曦","id":"78f5ebe6-d771-4f56-b6e2-ea1a7ab8e78b","originalAuthorName":"裴曦"},{"authorName":"郑华庆","id":"fd23a411-acf0-4c39-bc1c-ee6fc911b7ad","originalAuthorName":"郑华庆"},{"authorName":"景佳","id":"a705dee5-5839-4972-8293-63ca1f976c54","originalAuthorName":"景佳"},{"authorName":"程梦云","id":"dc2382f7-fd94-4bd5-b908-fd2961aa14e3","originalAuthorName":"程梦云"},{"authorName":"李贵","id":"9e000d6c-3571-4830-b99c-bd4141edfbfd","originalAuthorName":"李贵"},{"authorName":"吴宜灿","id":"56634f3c-bbdc-4ec0-913f-6ffec7ab0e5e","originalAuthorName":"吴宜灿"},{"authorName":"FDS Team","id":"c01c5382-0b1b-49d0-8eef-fefcd72a9ba5","originalAuthorName":"FDS Team"}],"doi":"","fpage":"212","id":"6c7622d9-a4b2-428c-b00e-122fe7991678","issue":"2","journal":{"abbrevTitle":"YZHWLPL","coverImgSrc":"journal/img/cover/YZHWLPL.jpg","id":"78","issnPpub":"1007-4627","publisherId":"YZHWLPL","title":"原子核物理评论 "},"keywords":[{"id":"f4bf7324-53de-4fe3-a02b-ac3532e1fb05","keyword":"目标函数","originalKeyword":"目标函数"},{"id":"b8c85b17-0dba-4527-8ed0-c59b8b088a2e","keyword":"调强放射治疗","originalKeyword":"调强放射治疗"},{"id":"2041d5fa-d3b3-4fad-af48-b159c01ab1ba","keyword":"强度分布","originalKeyword":"强度分布"}],"language":"zh","publisherId":"yzhwlpl201002019","title":"基于共轭梯度法的调强放疗射束强度分布优化","volume":"27","year":"2010"},{"abstractinfo":"在精确放射治疗中,精确计算楔形挡板的楔形因子是精确修正加入楔形挡板后剂量值的关键.提出了基于衰减系数法思想的改进楔形野剂量修正算法,首先计算了楔形挡板材料的线性衰减系数,再根据楔形挡板的实际剖面尺寸,建立了线性拟合公式计算射线束穿过楔形挡板的实际厚度,精确计算楔形因子,并以AAPM55号报告提供的45°楔形挡板进行了验证.该方法在保证计算精度的同时减少了大量离轴测量数据,减轻了物理师的负担,可以作为一种有效的楔形挡板修正算法应用于放射治疗计划系统中.","authors":[{"authorName":"兰海洋","id":"56cf6f3b-9a24-4aeb-87ed-385a52a251ab","originalAuthorName":"兰海洋"},{"authorName":"郑华庆","id":"e187f53a-0af9-4ced-91f4-7f4a68a9e2aa","originalAuthorName":"郑华庆"},{"authorName":"李贵","id":"4717c19d-e549-41f3-81ae-bd9950558746","originalAuthorName":"李贵"},{"authorName":"宋钢","id":"4edd678b-69df-430e-b777-a987bf5f0853","originalAuthorName":"宋钢"},{"authorName":"程梦云","id":"b004a8df-dc0a-412f-8cc8-e39f2e78bec2","originalAuthorName":"程梦云"},{"authorName":"吴宜灿","id":"b237ae6e-3c53-4a2f-98b0-137ca1381f9f","originalAuthorName":"吴宜灿"},{"authorName":"FDS 团队","id":"6630bcd9-567e-4d20-80af-5603c5761af1","originalAuthorName":"FDS 团队"}],"doi":"","fpage":"77","id":"3bac20df-ecc1-4581-87d4-4713d7d23f47","issue":"1","journal":{"abbrevTitle":"YZHWLPL","coverImgSrc":"journal/img/cover/YZHWLPL.jpg","id":"78","issnPpub":"1007-4627","publisherId":"YZHWLPL","title":"原子核物理评论 "},"keywords":[{"id":"09137a34-0e05-444e-89c3-0e7be34a149b","keyword":"精确放射治疗","originalKeyword":"精确放射治疗"},{"id":"5e320241-631f-4280-8dc2-c8f04cebef4b","keyword":"楔形挡板","originalKeyword":"楔形挡板"},{"id":"b9de55de-ad9a-45af-9360-11bf541c7724","keyword":"楔形因子","originalKeyword":"楔形因子"},{"id":"312e01fb-ecc8-4daf-8e72-70fcc0d3f062","keyword":"线性衰减系数","originalKeyword":"线性衰减系数"},{"id":"3f317ace-e76f-4619-aee3-09cc7d66c19e","keyword":"剂量计算","originalKeyword":"剂量计算"}],"language":"zh","publisherId":"yzhwlpl201001014","title":"精确放射治疗中改进的楔形挡板剂量修正算法","volume":"27","year":"2010"},{"abstractinfo":"以氯化镁为镁源,石灰水为沉淀剂,分别采用正向、反向、双向和双向底液4种滴定方式制备氢氧化镁,其中双向底液合成方式最佳.研究了氯化钙底液浓度、体积对氢氧化镁沉降性能的影响.研究表明,氯化钙溶液质量分数为15 ％、溶液体积为50mL时,氢氧化镁沉降性能最佳.研究了不同反应体系活度积对氢氧化镁沉降性能的影响,结果表明,氯化钙溶液质量分数和体积的增加都有利于反应体系过饱和度的降低.","authors":[{"authorName":"刘卫平","id":"cdee2d8d-d8be-4136-8f4e-7265fb9a37f1","originalAuthorName":"刘卫平"},{"authorName":"徐徽","id":"f03d3577-34d9-483e-af39-e0080d1df7ad","originalAuthorName":"徐徽"},{"authorName":"程俊峰","id":"c579d965-6a1a-43fb-b716-3c1aca0926d9","originalAuthorName":"程俊峰"},{"authorName":"李贵","id":"2d39c5c3-3e69-4433-9eb5-42ff26fa0993","originalAuthorName":"李贵"},{"authorName":"石西昌","id":"840ab5c7-0ae1-474f-8b60-1ba937748576","originalAuthorName":"石西昌"},{"authorName":"杨喜云","id":"3fb13fb8-a52f-4651-91b3-6e96573ec671","originalAuthorName":"杨喜云"}],"doi":"","fpage":"313","id":"495d6030-811c-49fe-a05d-bc6808bb5101","issue":"z1","journal":{"abbrevTitle":"CLDB","coverImgSrc":"journal/img/cover/CLDB.jpg","id":"8","issnPpub":"1005-023X","publisherId":"CLDB","title":"材料导报"},"keywords":[{"id":"e1ad280d-c679-41fc-bf3b-fa7c7171aeb6","keyword":"氢氧化镁","originalKeyword":"氢氧化镁"},{"id":"ea83a226-1b70-4827-a3d1-dcb42c26a27e","keyword":"石灰水","originalKeyword":"石灰水"},{"id":"f2f48678-c9fd-4be2-b15e-98afceedf3ef","keyword":"过饱和度","originalKeyword":"过饱和度"},{"id":"eb16286b-c2db-48fd-bb22-25ce21b9113c","keyword":"双向底液","originalKeyword":"双向底液"},{"id":"8e06fe43-1311-424a-94ed-795b1dec678d","keyword":"溶液活度积","originalKeyword":"溶液活度积"},{"id":"e2cf280e-0544-4e62-af58-f6fb30d5597e","keyword":"沉降性能","originalKeyword":"沉降性能"}],"language":"zh","publisherId":"cldb2012z1084","title":"底液对石灰水法制备氢氧化镁沉降性能的影响","volume":"26","year":"2012"},{"abstractinfo":"研究了尼古丁印迹聚合物(MIP)的制备及其对烟气中尼古丁的吸附能力与选择性.用扫描电镜观察了聚合物的表面特征,热重法分析了聚合物的热失重行为；测试了MIP对尼古丁的吸附热力学及选择吸附行为；液相色谱及气相色谱质谱用于对溶液及烟气的尼古丁及化学组成进行定性定量分析.测得吸附热为3.516kJ/mol,表明印迹聚合物对尼古丁的吸附是一个吸热过程.MIP对烟碱与吡啶的选择性系数为2.275,高于非印迹聚合物NIP(2.134).当用分子印迹聚合物、非印迹聚合物及硅胶为吸附剂时,烟气中尼古丁吸附率分别为94.81％、94.04％和66.19％,显示了印迹聚合物对烟气中尼古丁的高吸附能力.","authors":[{"authorName":"李昱琢","id":"990b1747-c770-45fe-9362-e8f32c66e0ad","originalAuthorName":"李昱琢"},{"authorName":"李辉","id":"b786e1df-f105-4bea-9781-3d9dd6c91c6a","originalAuthorName":"李辉"},{"authorName":"逯翠梅","id":"76ad66ed-afa1-4537-b775-9baa22cfa7b7","originalAuthorName":"逯翠梅"},{"authorName":"李贵","id":"86bdb69d-cfd6-4407-90c3-39d1ce372acd","originalAuthorName":"李贵"},{"authorName":"李志平","id":"a5ffc38d-07ba-4344-8d00-4dca07db87dc","originalAuthorName":"李志平"},{"authorName":"符再德","id":"5ce8e2d4-9a6b-4f07-ac87-7a179386ca12","originalAuthorName":"符再德"}],"doi":"10.3969/j.issn.1001-9731.2013.09.018","fpage":"1289","id":"ca293cae-adfe-4f23-b4b9-3433eb3917e8","issue":"9","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"bdd4850e-a72d-4e08-879c-506fac0d4f22","keyword":"分子印迹聚合物","originalKeyword":"分子印迹聚合物"},{"id":"d4125c62-34f7-475d-ac0c-8f926097a253","keyword":"尼古丁","originalKeyword":"尼古丁"},{"id":"96b9a6a6-0abd-434e-8fdb-49225c2394cd","keyword":"气相识别","originalKeyword":"气相识别"},{"id":"2c77eb7b-d407-48ae-a459-8eaf9c4a3c73","keyword":"吸附","originalKeyword":"吸附"}],"language":"zh","publisherId":"gncl201309018","title":"尼古丁印迹材料的制备表征及对烟气中尼古丁的吸附研究","volume":"44","year":"2013"},{"abstractinfo":"以水氯镁石为原料,采用氨法沉镁—煅烧—添加剂的方法制备硅钢级氧化镁.考察了反应温度、反应pH值、陈化时间对中间体氢氧化镁纯度及转化率的影响；研究了煅烧温度和煅烧时间对氧化镁水化率的影响及添加剂的量对氧化镁悬浮性能的影响.控制实验条件为:反应温度55℃,pH值为9.5,陈化时间2h,煅烧温度1050℃,煅烧时间2h,添加剂量为0.8％,制得氧化镁的纯度为98.99％、水化率为2.92％、悬浮性能为3 mm/h,达到硅钢级氧化镁的要求.","authors":[{"authorName":"徐徽","id":"328b0352-566a-4ff2-a15b-f6fb1defc0f5","originalAuthorName":"徐徽"},{"authorName":"程俊峰","id":"bcfe6f5f-3735-4462-9a9c-c01a8cb9e1f5","originalAuthorName":"程俊峰"},{"authorName":"李贵","id":"50feeaca-a0bc-436e-9fdc-e44e841692f7","originalAuthorName":"李贵"},{"authorName":"杨喜云","id":"9d0b1310-1343-4fe4-9bdb-f8e55e42562f","originalAuthorName":"杨喜云"},{"authorName":"刘卫平","id":"6b40df36-276e-4de2-8677-66a38124a260","originalAuthorName":"刘卫平"}],"doi":"","fpage":"104","id":"dcac3120-4c5c-42a6-83bd-425ab3a176c5","issue":"16","journal":{"abbrevTitle":"CLDB","coverImgSrc":"journal/img/cover/CLDB.jpg","id":"8","issnPpub":"1005-023X","publisherId":"CLDB","title":"材料导报"},"keywords":[{"id":"2dfcf0f7-c30d-467c-a598-9c633fdc71c9","keyword":"硅钢级氧化镁","originalKeyword":"硅钢级氧化镁"},{"id":"b32c1561-5a85-4958-94fb-b2e32c241c33","keyword":"氢氧化镁","originalKeyword":"氢氧化镁"},{"id":"31066563-6c52-4948-9072-3f8b6f450cbe","keyword":"水氯镁石","originalKeyword":"水氯镁石"},{"id":"7c3218fa-efe4-4946-98dd-733eaa81a10f","keyword":"氨水","originalKeyword":"氨水"}],"language":"zh","publisherId":"cldb201316028","title":"水氯镁石制备硅钢级氧化镁","volume":"27","year":"2013"},{"abstractinfo":"以含锂氢氧化镁废渣为原料,采用碳酸氢铵碳化法提取锂,恒温热分解法制备高纯碳酸锂.最优碳化条件为:反应温度40℃、反应时间120 min、NH4HCO3/Mg(OH)2物质的量比1∶0.8、液固比20,锂提取率高达97.5％.母液循环10次后,锂质量浓度由0.7 mg/L富集至5.5 g/L.80℃恒温分解母液60 min,制得产率为81.7％,纯度为99.3％的工业级碳酸锂.同时,推导出碳酸锂结晶符合准二级反应动力学,0～30 min和40～125min两个阶段的活化能分别为140.67 kJ/mol和107.56 kJ/mol.表明碳酸锂的结晶决定步骤是由化学反应控制的.","authors":[{"authorName":"廖浩然","id":"9084a4e5-eafa-400a-90ec-a33bc9d38935","originalAuthorName":"廖浩然"},{"authorName":"徐徽","id":"dbac87cc-7f5c-4915-aa34-2be5b57f0d8b","originalAuthorName":"徐徽"},{"authorName":"李贵","id":"49761370-0188-4f60-b76c-a1c11dd1d053","originalAuthorName":"李贵"},{"authorName":"程俊峰","id":"f3643388-4a4f-462b-8540-af1e14618daa","originalAuthorName":"程俊峰"},{"authorName":"刘卫平","id":"65b01087-d618-4635-afc2-ac40e3f17eb7","originalAuthorName":"刘卫平"}],"doi":"10.11896/j.issn.1005-023X.2015.04.022","fpage":"90","id":"e783923c-3d11-40ef-8844-6e76435dd74e","issue":"4","journal":{"abbrevTitle":"CLDB","coverImgSrc":"journal/img/cover/CLDB.jpg","id":"8","issnPpub":"1005-023X","publisherId":"CLDB","title":"材料导报"},"keywords":[{"id":"4207f82a-f072-4a01-a961-d5d7286f24b7","keyword":"含锂氢氧化镁","originalKeyword":"含锂氢氧化镁"},{"id":"3fe9006f-1e0f-4f72-a84c-db6b9c9c7490","keyword":"碳酸氢铵","originalKeyword":"碳酸氢铵"},{"id":"d92fb203-add7-4cd5-be8d-a9de63d9c270","keyword":"碳酸锂","originalKeyword":"碳酸锂"}],"language":"zh","publisherId":"cldb201504022","title":"纳滤法提锂氢氧化镁废渣制取碳酸锂的研究","volume":"29","year":"2015"},{"abstractinfo":"用LCD做空调遥控器显示,由于其外形及尺寸的限制,显示内容的复杂多样,使得布线空间狭小,走线困难,而产品功能要求越来越高,这些都造成此类LCD易出现显示对比度不良的现象.结合设计和生产中的实际情况分析了产生显示对比度不良现象的诸多原因,分别通过降低液晶阈值电压、调整电极走线电阻及寻求与LCD相匹配的驱动IC 3个方面加以改进,以期为今后的设计和生产提供参考.","authors":[{"authorName":"代泽","id":"4f81bdf6-9738-4029-beb7-7808f2080ffa","originalAuthorName":"代泽"},{"authorName":"宋莉丽","id":"348945fd-950a-46a1-b1ca-2989597e50d8","originalAuthorName":"宋莉丽"},{"authorName":"李贵","id":"803a564f-c509-4a42-931c-4cd250ac2e7e","originalAuthorName":"李贵"},{"authorName":"袁传宝","id":"9d50426b-28d7-4876-b0af-f79d8bd04aec","originalAuthorName":"袁传宝"},{"authorName":"李燕","id":"209c49bf-83da-40e2-81dc-09f85abcecfc","originalAuthorName":"李燕"}],"doi":"10.3969/j.issn.1007-2780.2002.04.012","fpage":"301","id":"3cace518-5029-4812-96cc-e9b1a667381f","issue":"4","journal":{"abbrevTitle":"YJYXS","coverImgSrc":"journal/img/cover/YJYXS.jpg","id":"72","issnPpub":"1007-2780","publisherId":"YJYXS","title":"液晶与显示 "},"keywords":[{"id":"0e5d31a0-d0bf-4953-9772-22830fbe1ba2","keyword":"背电极","originalKeyword":"背电极"},{"id":"7e60a391-5314-48b3-8d9e-bf63068ca70f","keyword":"像素","originalKeyword":"像素"},{"id":"7358f023-54b5-4c39-b356-253378a3af15","keyword":"阈值电压","originalKeyword":"阈值电压"},{"id":"151a7aaa-ca90-4797-86b7-4082caa6ffa7","keyword":"盒厚","originalKeyword":"盒厚"},{"id":"c6bceb29-62bc-44a3-acb4-ad4f340ac4a1","keyword":"方块电阻","originalKeyword":"方块电阻"},{"id":"6a76832b-c6d2-4a4b-ac40-5a91dca573b2","keyword":"驱动","originalKeyword":"驱动"}],"language":"zh","publisherId":"yjyxs200204012","title":"空调遥控器的LCD显示对比度不良现象分析","volume":"17","year":"2002"},{"abstractinfo":"针对临床剂量学验证中二维评价方法只能反映每张平片上剂量分布情况，并根据剂量引导精确放疗系统中三维剂量验证需求设计算法实现对三维剂量分布的比较。根据公式，在Visualc＋＋控制台下实现剂量偏差、位置偏差及Y分析三维评价算法。设计两个计划进行算法验证：计划1为方野照射等效水，用于验证算法的正确性；计划2为适形野照射仿真头模，用于验证算法的实用性。结果表明，计划1中，对剂量偏差，容许值范围内通过率为100％；对位置偏差和Y分析，容许范围内通过率为100％，容许边界值处为100±7．7％。计划2中，3种算法通过率分别为88．35％、100％和95．07％。这说明该算法可用于剂量引导精确放疗系统中实现三维剂量分布的评价。","authors":[{"authorName":"王玉","id":"532af972-d193-49d3-b146-8de265837c1e","originalAuthorName":"王玉"},{"authorName":"李贵","id":"d27f294a-6e30-4289-a55d-f13362eba5aa","originalAuthorName":"李贵"},{"authorName":"汪冬","id":"60aaa72e-7ce4-49a5-a1a8-0db1512b0785","originalAuthorName":"汪冬"},{"authorName":"吴宜灿","id":"f96ef723-95a2-4cde-9083-b4ba07c9fcc5","originalAuthorName":"吴宜灿"},{"authorName":"FDS团队","id":"9e65f3c4-9737-4e31-8863-a8bffff9b78b","originalAuthorName":"FDS团队"}],"doi":"","fpage":"305","id":"24c6f092-1c63-4b0b-8327-c0a7287f9449","issue":"3","journal":{"abbrevTitle":"YZHWLPL","coverImgSrc":"journal/img/cover/YZHWLPL.jpg","id":"78","issnPpub":"1007-4627","publisherId":"YZHWLPL","title":"原子核物理评论 "},"keywords":[{"id":"c654da26-3512-45a2-8b42-dc1ceaad0693","keyword":"剂量引导精确放射治疗","originalKeyword":"剂量引导精确放射治疗"},{"id":"000d50a2-74c3-4e40-912a-79687c4f8150","keyword":"三维剂量分布","originalKeyword":"三维剂量分布"},{"id":"ab2be0ed-a863-4a54-a083-20218ac10aee","keyword":"Y分析","originalKeyword":"Y分析"},{"id":"9aec95f6-f450-4c6f-b066-a986845090f3","keyword":"剂量偏差","originalKeyword":"剂量偏差"},{"id":"ca6c5621-4cdc-4157-9515-bb63ba895377","keyword":"位置偏差","originalKeyword":"位置偏差"}],"language":"zh","publisherId":"yzhwlpl201203017","title":"剂量引导精确放射治疗中三维评价算法设计及实现","volume":"29","year":"2012"},{"abstractinfo":"从理论上分析了采用真空蒸馏法分离贵铅中铅、银、铜、铋、锑的可行性，研究了蒸馏时间、蒸馏温度对贵铅中金属分离效果的影响规律。实验结果表明，当系统压力在10~20 Pa，温度在800℃以上，保温时间≥2 h时，铅和铋的挥发率接近100%，银和锑的挥发率随温度的升高、保温时间的增长而逐渐增大。当温度为850℃，保温时间为2 h时，所得残留物中铅、银、铜、铋、锑的含量分别为0.21%、45.31%、13.24%、0.0001%、33.6%，挥发物中铅、银、铜、铋、锑的含量分别为46.15%、0.236%、0.022%、8.87%、35.4%。","authors":[{"authorName":"包崇军","id":"892754f3-82fd-4d26-8b2a-7a985d5be010","originalAuthorName":"包崇军"},{"authorName":"蒋文龙","id":"ee09dad7-109d-407f-ad7c-5cc4de1efe34","originalAuthorName":"蒋文龙"},{"authorName":"李晓阳","id":"b6dfdb2f-f43d-42f2-b146-94ad2c089d63","originalAuthorName":"李晓阳"},{"authorName":"吴红林","id":"3dd5453d-7baa-4ee2-b02f-1c00703c8d91","originalAuthorName":"吴红林"},{"authorName":"邹利明","id":"14252ee7-e2ee-4b12-bd47-b0bb974eabe3","originalAuthorName":"邹利明"},{"authorName":"罗凌艳","id":"d4dadb7b-ba4a-4489-afbd-dfdf5ada3e4b","originalAuthorName":"罗凌艳"},{"authorName":"柯浪","id":"1ed7aced-dded-4cd8-9b24-2ef93472f036","originalAuthorName":"柯浪"},{"authorName":"许娜","id":"2ecfc2ad-da25-4c8f-ab3e-bea9cea9b8fa","originalAuthorName":"许娜"},{"authorName":"田林","id":"7dd6811d-a25d-4985-9dcc-e24c9eab878f","originalAuthorName":"田林"}],"doi":"","fpage":"31","id":"8d276d92-5362-4625-b264-5da4f70330d8","issue":"z1","journal":{"abbrevTitle":"GJS","coverImgSrc":"journal/img/cover/GJS.jpg","id":"38","issnPpub":"1004-0676","publisherId":"GJS","title":"贵金属"},"keywords":[{"id":"b67ae8fb-8a6e-499c-b899-bb81257fef54","keyword":"有色金属冶金","originalKeyword":"有色金属冶金"},{"id":"37726ddb-e999-45ef-a001-03fcbb31aedb","keyword":"真空蒸馏法","originalKeyword":"真空蒸馏法"},{"id":"f68cb13c-d6df-45ec-bb8f-cc9af58293cd","keyword":"贵铅","originalKeyword":"贵铅"},{"id":"3bf693ce-1bb1-4d15-a3c2-4c3b39b2b500","keyword":"金属分离","originalKeyword":"金属分离"}],"language":"zh","publisherId":"gjs2014z1008","title":"真空蒸馏法处理贵铅新工艺研究","volume":"","year":"2014"}],"totalpage":15,"totalrecord":148}