{"currentpage":1,"firstResult":0,"maxresult":10,"pagecode":5,"pageindex":{"endPagecode":5,"startPagecode":1},"records":[{"abstractinfo":"以<span style=\"color:red\">氢氧化</span>钠、六水合硝酸<span style=\"color:red\">镍</span>、硝酸<span style=\"color:red\">银</span>为原料,采用化学共沉淀法制备<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>-<span style=\"color:red\">氧化银</span><span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>;然后在封闭循环氢还原炉中还原<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>-<span style=\"color:red\">氧化银</span><span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>,得到<span style=\"color:red\">银</span><span style=\"color:red\">镍</span><span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>.结果表明:制备<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>-<span style=\"color:red\">氧化银</span><span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>的最佳工艺为,温度25℃,搅拌速度1200r/min,搅拌时间60 min,反应终点的pH值13,滴加<span style=\"color:red\">氢氧化</span>钠溶液的速度为50 ml/min;<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>-<span style=\"color:red\">氧化银</span><span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>的粒度为3～45 nm;在封闭循环氢还原炉中的还原条件为300℃,30 min,<span style=\"color:red\">镍</span><span style=\"color:red\">银</span><span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>的粒度为2～20nm.","authors":[{"authorName":"李在元","id":"0e6d1d06-3244-409d-b4c3-5010ec8fcba7","originalAuthorName":"李在元"},{"authorName":"翟玉春","id":"89790637-5186-4e1c-aa44-c466c451561f","originalAuthorName":"翟玉春"},{"authorName":"杨帆","id":"c6380bbd-d1ed-4318-9076-b076d258766f","originalAuthorName":"杨帆"}],"doi":"","fpage":"1245","id":"a8e8b0ae-04fb-4376-ab86-3083344b5378","issue":"7","journal":{"abbrevTitle":"XYJSCLYGC","coverImgSrc":"journal/img/cover/XYJSCLYGC.jpg","id":"69","issnPpub":"1002-185X","publisherId":"XYJSCLYGC","title":"稀有金属材料与工程"},"keywords":[{"id":"4ef4c9a1-862f-4baf-9ce6-195d4d8adb19","keyword":"<span style=\"color:red\">镍</span><span style=\"color:red\">银</span>合金粉","originalKeyword":"镍银合金粉"},{"id":"9e3eb1a4-2ce1-46ca-a478-fbdbb086b72f","keyword":"<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>-<span style=\"color:red\">氧化银</span><span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>","originalKeyword":"氢氧化镍-氧化银复合粉"},{"id":"76c572bd-c413-46c2-a1f7-11d24f3adc7b","keyword":"化学共沉淀法","originalKeyword":"化学共沉淀法"},{"id":"f73e2e66-ebd5-4879-a5f5-d71739bec2b2","keyword":"封闭循环氢还原法","originalKeyword":"封闭循环氢还原法"}],"language":"zh","publisherId":"xyjsclygc200707026","title":"氢还原法制备80:20<span style=\"color:red\">镍</span><span style=\"color:red\">银</span>纳米<span style=\"color:red\">复合</span><span style=\"color:red\">粉</span>的研究","volume":"36","year":"2007"},{"abstractinfo":"采用共沉淀法制备了<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>/还原<span style=\"color:red\">氧化</span>石墨烯<span style=\"color:red\">复合</span>材料,并以此为电极研究了其超级电容性能.实验发现,六方<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>纳米片被成功插入到还原<span style=\"color:red\">氧化</span>石墨烯的层间,这有效抑制了还原<span style=\"color:red\">氧化</span>石墨烯和<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的团聚,提高了电极的稳定性.当<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>和还原<span style=\"color:red\">氧化</span>石墨烯的质量比为5．5∶1时,显示了最佳的电化学性能：在－0．1~0．37 V 的电位窗口,1 A/g 的电流密度下,比电容高达1036 F/g；4 A/g 的电流密度下快速循环3000次后,仍然保持70％的比电容.","authors":[{"authorName":"黄振楠","id":"7ac9fc70-eb16-419f-b461-79706d82f8a6","originalAuthorName":"黄振楠"},{"authorName":"寇生中","id":"20bc3238-9f04-4aa2-80f6-af5757732373","originalAuthorName":"寇生中"},{"authorName":"金东东","id":"43fc7325-c571-4f32-983e-357042ecbcae","originalAuthorName":"金东东"},{"authorName":"杨杭生","id":"078f396e-69a2-4c3c-ac95-b150f15553e2","originalAuthorName":"杨杭生"},{"authorName":"张孝彬","id":"86118d98-1fd3-4456-b3f6-4450894ff091","originalAuthorName":"张孝彬"}],"doi":"10.3969/j.issn.1001-9731.2015.05.017","fpage":"5084","id":"651a3bda-dbcb-42f6-9109-53e125243c4f","issue":"5","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"3ff3ff8d-a6a1-4f8b-ab79-c0de5c18d8f6","keyword":"超级电容器","originalKeyword":"超级电容器"},{"id":"7c368021-7a7d-421b-8e0c-54236721d2fc","keyword":"<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>","originalKeyword":"氢氧化镍"},{"id":"3e9f8f74-0364-4e9d-af18-ac31813c8c4e","keyword":"还原<span style=\"color:red\">氧化</span>石墨烯","originalKeyword":"还原氧化石墨烯"}],"language":"zh","publisherId":"gncl201505017","title":"<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>/还原<span style=\"color:red\">氧化</span>石墨烯<span style=\"color:red\">复合</span>物的超级电容性能?","volume":"","year":"2015"},{"abstractinfo":"采用三角波电位扫描、X射线衍射及恒流充放电曲线法研究了在<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极中添加Co(OH)2和Ni<span style=\"color:red\">粉</span>后对电极性能的影响.结果表明,<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极中加入质量分数为8%Co(OH)2和13%Ni<span style=\"color:red\">粉</span>时,电极的放电容量最高,电极在充放电循环过程中的膨胀最小.","authors":[{"authorName":"蒋洪寿","id":"b0414bdb-2799-4db4-a4d3-c9556aa81322","originalAuthorName":"蒋洪寿"},{"authorName":"张昊","id":"c936a6cc-52a4-49a2-adf7-5d81c38809a3","originalAuthorName":"张昊"}],"doi":"10.3969/j.issn.1000-0518.2000.06.012","fpage":"628","id":"befe0df0-c160-4c2e-b26c-49e8efa4e7ab","issue":"6","journal":{"abbrevTitle":"YYHX","coverImgSrc":"journal/img/cover/YYHX.jpg","id":"73","issnPpub":"1000-0518","publisherId":"YYHX","title":"应用化学"},"keywords":[{"id":"e637210e-d1c5-4e57-9bbb-31794721da1f","keyword":"MH-Ni电池","originalKeyword":"MH-Ni电池"},{"id":"6f4661ad-7e38-4b9a-8233-0e0c5faaeb8d","keyword":"<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极","originalKeyword":"氢氧化镍电极"},{"id":"12f55b36-09bc-473f-91c4-3c848830ff14","keyword":"Co(OH)2","originalKeyword":"Co(OH)2"},{"id":"545ece7a-d853-4a54-a40c-ec0aebb4ab07","keyword":"Ni<span style=\"color:red\">粉</span>","originalKeyword":"Ni粉"}],"language":"zh","publisherId":"yyhx200006012","title":"Co(OH)2和Ni<span style=\"color:red\">粉</span>对<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极性能的影响","volume":"17","year":"2000"},{"abstractinfo":"研究了<span style=\"color:red\">镍</span><span style=\"color:red\">粉</span>、<span style=\"color:red\">镍</span><span style=\"color:red\">粉</span>和石墨的混合物、石墨以及石墨和乙炔黑的混合物分别作为导电剂以机械混合的方式添加到电极活性物质中对<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极性能的影响,并用循环伏安法和交流阻抗法分析了实验结果.结果表明:在这四种导电剂中,<span style=\"color:red\">镍</span><span style=\"color:red\">粉</span>作导电剂时<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极的性能最好,其次是以石墨或<span style=\"color:red\">镍</span><span style=\"color:red\">粉</span>和石墨的混合物作导电剂的<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极,当石墨和乙炔黑的混合物作导电剂时<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极的性能最差.这是因为当<span style=\"color:red\">镍</span>作导电剂时<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极的电化学反应电阻最小,质子扩散最容易,电极的可逆性最好,且氧气析出最困难;而当石墨和乙炔黑的混合物作导电剂时<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极的电化学反应电阻最大,质子扩散最困难,电极充电过程和析氧过程几乎同时进行,因而充电效率最低,活性物质的利用率最小,电极性能最差.","authors":[{"authorName":"原鲜霞","id":"cc7480e3-0153-4034-a977-9a8ffe0abcf2","originalAuthorName":"原鲜霞"},{"authorName":"王荫东","id":"148823c8-7524-4500-a330-e4effb6110f4","originalAuthorName":"王荫东"},{"authorName":"詹锋","id":"f45d1a55-b727-4075-9304-ae711d5b60dc","originalAuthorName":"詹锋"}],"doi":"","fpage":"496","id":"d5b59a46-b2d6-4098-b39a-783a9ca4b4b7","issue":"5","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"597522ab-8e6e-42fc-90a0-fbdd632bb8cd","keyword":"<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极","originalKeyword":"氢氧化镍电极"},{"id":"e55922b5-ecc3-4a42-b05f-71a3556472f5","keyword":"导电剂","originalKeyword":"导电剂"},{"id":"b0e95c76-e31b-40ef-82f7-ae28e8427662","keyword":"循环伏安法","originalKeyword":"循环伏安法"},{"id":"bca314a9-c936-4796-a826-12feb47f3235","keyword":"交流阻抗法","originalKeyword":"交流阻抗法"}],"language":"zh","publisherId":"gncl200105017","title":"<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极导电剂的研究","volume":"32","year":"2001"},{"abstractinfo":"分别以化学共沉淀法和机械混合法制备了不同掺杂量的<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>,详细研究了掺杂方式和掺杂量对<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>晶体类型和结构的影响。XRD结果表明化学共沉淀法制得掺杂锌量在11%以下的<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>均为β型晶体结构,并且<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的结晶程度随掺杂量的增加而提高,增加晶体缺陷,这些特征都将利于提高<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的电化学性能;但共沉淀法掺杂量超过11%,机械混合法掺杂量超过1%后,在XRD图谱上出现明显的Zn（OH）2的特征峰,说明产品中出现了两种晶相,这对提高<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的电化学性能是不利的。","authors":[{"authorName":"张金玉","id":"bae13731-0348-4f5b-ace8-1c3f3c787b61","originalAuthorName":"张金玉"},{"authorName":"常建勇","id":"5c1aae98-b28b-4fd2-9e08-b7376d56c05b","originalAuthorName":"常建勇"},{"authorName":"苗旺","id":"fd70dae5-f040-45f2-bb4d-b9cef71c88ed","originalAuthorName":"苗旺"},{"authorName":"常照荣","id":"7a18f852-62ff-4d2b-b2ba-5375b619e49e","originalAuthorName":"常照荣"}],"doi":"","fpage":"2298","id":"e35e54f8-de3b-44b9-a7cf-e0199e4326a5","issue":"12","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"d7298187-8ab3-4d20-a5c1-255ba595ef40","keyword":"<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>","originalKeyword":"氢氧化镍"},{"id":"4c5d9907-5dab-4f28-a58d-9764cc80089d","keyword":"掺杂","originalKeyword":"掺杂"},{"id":"066c2140-17ee-4095-94de-78f98932a52d","keyword":"化学共沉淀","originalKeyword":"化学共沉淀"},{"id":"016dd747-afa8-4340-b873-64175656de70","keyword":"机械混合","originalKeyword":"机械混合"}],"language":"zh","publisherId":"gncl201112045","title":"掺锌对<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>结构的影响","volume":"42","year":"2011"},{"abstractinfo":"用液相共沉淀技术制备了具有α-Ni(OH)2和β-Ni(OH)2混合结构的多相<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>,并且扫描电镜研究了其形貌,用XRD研究了其多相<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>形成的过程,探讨了在陈化过程中和用0.2C率充放电过程中的结构稳定性,通过充放电测试讨论了其放电性能.结果发现,通过控制掺杂元素和工艺条件,多相<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>在碱性溶液中结构稳定,充放电过程中能交换1.3个电子,其放电比容量最大可达375mAh/g,放电电位平台比β-Ni(OH)2电极高100mV左右.","authors":[{"authorName":"罗方承","id":"0fb07753-bfbd-4617-bbd1-8e185fee1cc7","originalAuthorName":"罗方承"},{"authorName":"陈启元","id":"27aaad59-3742-4092-bbcd-b6f309c7afc3","originalAuthorName":"陈启元"},{"authorName":"李新海","id":"663d76f9-3c09-4c45-b825-a24dddcf61a8","originalAuthorName":"李新海"}],"doi":"","fpage":"924","id":"a52fc2f2-8255-4365-9a4f-40e1e2973826","issue":"6","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"ac5dab70-5655-4a3f-9a39-fde83f40e29c","keyword":"多相<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>","originalKeyword":"多相氢氧化镍"},{"id":"5ae08b19-4fbf-4d38-9b5d-a76a649daa51","keyword":"结构","originalKeyword":"结构"},{"id":"6a27a9df-b47c-41c0-9f72-004379823343","keyword":"放电比容量","originalKeyword":"放电比容量"},{"id":"90f4cc3e-74e1-4745-8599-0e81d0b0848a","keyword":"振实密度","originalKeyword":"振实密度"},{"id":"4a5bdd85-2a5e-4df2-81e8-16cb7c15fac0","keyword":"放电电位","originalKeyword":"放电电位"}],"language":"zh","publisherId":"gncl200706020","title":"多相<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的合成及其性能研究","volume":"38","year":"2007"},{"abstractinfo":"通过充放电曲线和交流阻抗谱的测定探讨了纳米级<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>和<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>表面包复CoOOH以及<span style=\"color:red\">镍</span>箔上电镀钴层对<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>粉末压制的<span style=\"color:red\">镍</span>电极性能的影响.结果表明,纳米级<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>有较快的活化能力,CoOOH包Ni(OH)2则有较高的放电容量,而比例适当的纳米<span style=\"color:red\">复合</span><span style=\"color:red\">镍</span>电极才有更好的电化学性能.<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>表面包复CoOOH可改善<span style=\"color:red\">镍</span>电极的充放电性能;<span style=\"color:red\">镍</span>箔上镀钴可大大降低电极过程的电荷转移电阻;钴含量大于3%后,虽然活化速度有所下降,但是大电流充放电时,<span style=\"color:red\">镍</span>电极活性物的利用率更高,放电容量更大.纳米级Ni(OH)2含量大于30%后,<span style=\"color:red\">镍</span>电极的活化速度不仅未能加快,反而略有减慢,而且容量也降低.","authors":[{"authorName":"郑辅养","id":"824ea3bb-f810-4da0-afc4-ed8bafb562ab","originalAuthorName":"郑辅养"},{"authorName":"余兴增","id":"a81e25c7-e41c-468b-8095-ac4b7adf24b3","originalAuthorName":"余兴增"},{"authorName":"蔡长寿","id":"047fbd68-b792-4c35-b5d4-0d6dcc7b6338","originalAuthorName":"蔡长寿"}],"doi":"","fpage":"167","id":"6c189f2e-48c3-4cea-b695-d0e27a5c7963","issue":"2","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"45ef97d0-ee6d-4e14-951e-05e08fbfd740","keyword":"纳米<span style=\"color:red\">复合</span><span style=\"color:red\">镍</span>电极","originalKeyword":"纳米复合镍电极"},{"id":"4a48a116-1a10-4741-8116-e45d1ca5c3aa","keyword":"表面包复CoOOH","originalKeyword":"表面包复CoOOH"},{"id":"55b21d35-32b0-4f5a-b762-bba92bc3b310","keyword":"镀钴层","originalKeyword":"镀钴层"}],"language":"zh","publisherId":"gncl200302019","title":"纳米级<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>和钴对<span style=\"color:red\">镍</span>电极性能的影响","volume":"34","year":"2003"},{"abstractinfo":"球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的微结构对氢<span style=\"color:red\">镍</span>电池(MH-Ni)<span style=\"color:red\">镍</span>电极的电化学性能有重要的影响.本文通过扫描电镜(SEM)和透射电镜(TEM)研究了用控制沉淀-结晶法制备的球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的结构特征,并与传统非球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>进行了比较,同时讨论了球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>活性物质的电化学行为.研究结果表明,球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span><span style=\"color:red\">粉</span>体由微球颗粒组成,每一个微球由片状<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>叠砌而成,这种片状<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>晶粒又由约0.5nm厚的40层晶片组成,因而球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>是一种纳米结构材料.片状<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>晶粒在微球内基本上沿径向排列,晶粒之间相互连接形成三维网络结构,晶粒解理面之间存在许多孔隙或缝隙.这种结构在电池的充放电过程中具有良好的力学稳定性,微球内存在的孔隙或缝隙可以用作质子传递的通道而有利于缩短质子在固相中扩散的距离,从而降低电极极化和提高电极的电化学性能及使用寿命.","authors":[{"authorName":"沈湘黔","id":"3ed3b6c0-94af-456a-9d34-f979d014d9d6","originalAuthorName":"沈湘黔"},{"authorName":"彭美勋","id":"688e3729-af16-4f09-9359-0fbd7545df93","originalAuthorName":"彭美勋"},{"authorName":"景茂祥","id":"729078fb-24b9-4b9d-a336-3ce632e7e73e","originalAuthorName":"景茂祥"},{"authorName":"危亚辉","id":"de973356-2c6b-412a-a5ee-ceb53526186a","originalAuthorName":"危亚辉"}],"doi":"","fpage":"1798","id":"d484efb3-8b91-42d4-9547-9498125ffff0","issue":"11","journal":{"abbrevTitle":"GNCL","coverImgSrc":"journal/img/cover/GNCL.jpg","id":"33","issnPpub":"1001-9731","publisherId":"GNCL","title":"功能材料"},"keywords":[{"id":"471a7c4c-c5cf-47bf-883f-3a05ebf8206f","keyword":"球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>","originalKeyword":"球形氢氧化镍"},{"id":"3f13adc7-1080-491e-9647-52c10a898ea3","keyword":"结构特征","originalKeyword":"结构特征"},{"id":"1034a710-a1f4-4b42-853d-c44d12c04ab7","keyword":"质子传递","originalKeyword":"质子传递"},{"id":"c4563e99-c772-49aa-b623-da90ca31880b","keyword":"电化学行为","originalKeyword":"电化学行为"}],"language":"zh","publisherId":"gncl200511046","title":"电极活性物质球形<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>的结构特征研究","volume":"36","year":"2005"},{"abstractinfo":"锌<span style=\"color:red\">银</span>蓄电池具有一系列优异的电化学性能(比能量高、内阻小等),使其在航空航天等应用领域中始终保持重要的地位.从锌<span style=\"color:red\">银</span>蓄电池的关键部件--<span style=\"color:red\">氧化银</span>电极的制备和应用研究现状,根据<span style=\"color:red\">氧化银</span>电极的性能直接影响电池的工作效能和寿命,提出了<span style=\"color:red\">氧化银</span>电极应用中所面临的问题:即高阶电压段、<span style=\"color:red\">银</span>迁移及过<span style=\"color:red\">氧化银</span>分解等,综述了解决这些问题的方法和改进措施,并探讨了锌<span style=\"color:red\">银</span>蓄电池中<span style=\"color:red\">氧化银</span>电极的未来研究方向和发展趋势.","authors":[{"authorName":"张辉","id":"0f7fed6c-300c-4c8b-b337-be66a44b204e","originalAuthorName":"张辉"},{"authorName":"朱立群","id":"b7a6c7ac-426b-438d-ab54-310d0c948588","originalAuthorName":"朱立群"}],"doi":"","fpage":"1124","id":"8eb4588d-02a3-491f-9c9c-6372f6dc384e","issue":"6","journal":{"abbrevTitle":"XYJSCLYGC","coverImgSrc":"journal/img/cover/XYJSCLYGC.jpg","id":"69","issnPpub":"1002-185X","publisherId":"XYJSCLYGC","title":"稀有金属材料与工程"},"keywords":[{"id":"6e0ca0e3-3547-4a06-872b-c0a3443ea760","keyword":"锌<span style=\"color:red\">银</span>蓄电池","originalKeyword":"锌银蓄电池"},{"id":"0e795d92-2cf1-4792-9b86-7bfc7bfddc3a","keyword":"<span style=\"color:red\">氧化银</span>电极","originalKeyword":"氧化银电极"},{"id":"e6545565-e563-4c44-ab2f-08c5a0d0d320","keyword":"循环寿命","originalKeyword":"循环寿命"},{"id":"791adbee-0148-48bd-80cc-7b65aa51d56f","keyword":"电化学性能","originalKeyword":"电化学性能"}],"language":"zh","publisherId":"xyjsclygc200806043","title":"用于锌<span style=\"color:red\">银</span>蓄电池<span style=\"color:red\">氧化银</span>电极的研究进展","volume":"37","year":"2008"},{"abstractinfo":"采用微乳液快速共沉淀法制备稀土La(Ⅲ)与Sr(Ⅱ)<span style=\"color:red\">复合</span>掺杂非晶态<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span><span style=\"color:red\">粉</span>体.样品材料的微观结构和形貌采用XRD,Raman光谱和SEM进行表征分析.将样品作为电极活性材料,组装成MH-Ni模拟电池,研究了稀土La(Ⅲ)与Sr(Ⅱ)<span style=\"color:red\">复合</span>掺杂对<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电极材料电化学性能的影响及其相应的作用机理.实验结果发现,在0.1 C恒电流放电,终止电压为1.0 V的放电制度下,La(Ⅲ)与Sr(Ⅱ)<span style=\"color:red\">复合</span>掺杂样品的放电平台为1.265 V.放电容量为340.56mAh·g-1,且电极材料在充放电过程中的稳定性和循环可逆性较好,并能有效抑制析氧反应的发生.","authors":[{"authorName":"刘长久","id":"16075ba1-169f-4ec6-bae7-f1c26a092564","originalAuthorName":"刘长久"},{"authorName":"吴华斌","id":"aa711b16-57fa-4663-8708-571b28a02ebd","originalAuthorName":"吴华斌"},{"authorName":"李延伟","id":"7b78fcaf-43bb-49e2-9e97-2ab725705f7a","originalAuthorName":"李延伟"},{"authorName":"陈世娟","id":"e94bc678-5125-4e0c-93e2-7925c2d5d2eb","originalAuthorName":"陈世娟"}],"doi":"10.3969/j.issn.1001-4381.2008.10.018","fpage":"68","id":"3a555e89-793f-4460-9e41-b1ebd05e6656","issue":"10","journal":{"abbrevTitle":"CLGC","coverImgSrc":"journal/img/cover/CLGC.jpg","id":"9","issnPpub":"1001-4381","publisherId":"CLGC","title":"材料工程"},"keywords":[{"id":"9185bac5-1e9b-4524-b4ae-292548ef1ea6","keyword":"微乳液法","originalKeyword":"微乳液法"},{"id":"62c61ee9-2d6c-4e38-ae94-24dee80b5df9","keyword":"<span style=\"color:red\">复合</span>掺杂","originalKeyword":"复合掺杂"},{"id":"6b760ac9-1b60-4446-a876-a2b70e8ce7e1","keyword":"非晶态<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>","originalKeyword":"非晶态氢氧化镍"},{"id":"27de3731-a32b-484e-8f9d-11151ce9b519","keyword":"电化学性能","originalKeyword":"电化学性能"}],"language":"zh","publisherId":"clgc200810018","title":"La(Ⅲ)与Sr(Ⅱ)<span style=\"color:red\">复合</span>掺杂非晶态<span style=\"color:red\">氢氧化</span><span style=\"color:red\">镍</span>电化学性能研究","volume":"","year":"2008"}],"totalpage":6890,"totalrecord":68891}