{"currentpage":1,"firstResult":0,"maxresult":10,"pagecode":5,"pageindex":{"endPagecode":5,"startPagecode":1},"records":[{"abstractinfo":"采用商品PtRu黑和Pt黑催化剂制备成甲醇阳极和氧阴极,Nafion(R)-117为固体电解质膜,组装成活性面积为6.4516cm2的<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>,研究了<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的极化与功率特性以及<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>在放电运转过程中各种操作条件,如甲醇进样浓度、阴极氧化剂种类和压力、操作温度、燃料和氧化剂的进样方向等对<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>性能的影响,并考察了<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的放电性能.结果表明:<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>极化曲线由3个特征区构成,最大功率密度约为15mW/cm2;甲醇浓度对<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>性能的影响与<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>运行温度有关;较之纯氧,以空气作为氧化剂时<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的性能有所降低,随着空气压力的增加<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的性能有所提高;随着操作温度的升高<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>性能明显改善;阳极甲醇由下往上进样,同时阴极空气由上往下进样时<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>性能最好;<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>在放电过程中具有性能自恢复特征.","authors":[{"authorName":"彭程","id":"473a7333-8efd-4163-ad72-1796509f781c","originalAuthorName":"彭程"},{"authorName":"张震","id":"e302cd8a-ab34-4daf-866e-a8dc2a4dfed0","originalAuthorName":"张震"}],"doi":"","fpage":"141","id":"12fd40e0-aa5b-42e4-a1de-21dee1d65c80","issue":"2","journal":{"abbrevTitle":"CLDB","coverImgSrc":"journal/img/cover/CLDB.jpg","id":"8","issnPpub":"1005-023X","publisherId":"CLDB","title":"材料导报"},"keywords":[{"id":"a04c1674-7acd-4a90-a473-4da9f0d2ee4b","keyword":"直接甲醇燃料<span style=\"color:red\">电池</span>","originalKeyword":"直接甲醇燃料电池"},{"id":"bd1a2867-4dc1-44db-b0a1-ecc9d66d6be8","keyword":"<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>","originalKeyword":"单电池"},{"id":"3c1a32e1-d517-4561-a7b3-ca6f055571dc","keyword":"<span style=\"color:red\">电池</span>性能","originalKeyword":"电池性能"},{"id":"7755a1fb-02bd-48b2-b0f2-e9fa7d639329","keyword":"极化曲线","originalKeyword":"极化曲线"}],"language":"zh","publisherId":"cldb200702037","title":"液相进样直接甲醇燃料<span style=\"color:red\">电池</span>性能研究","volume":"21","year":"2007"},{"abstractinfo":"通过溶胶混合法将超级电容器材料RuO_2负载到Pt/C上,制成了Pt/C-RuO_2催化剂,并用这种催化剂组装成质子交换膜燃料<span style=\"color:red\">电池</span>(PEMFC)<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>,测试了其循环伏安曲线和多电位阶跃计时电流.结果表明,加入RuO_2之后,催化剂的双电层电容明显增大.<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的放电曲线测试结果表明,在加入少量RuO2(w≤8%)的情况下,<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的性能略有降低.通过<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>在不同电流下电压动态响应和对脉冲电流的动态响应测试,表明在加入RuO_2之后,<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>电压的瞬间衰减明显减缓.这说明RuO_2具有在瞬间加大电流负载时缓冲<span style=\"color:red\">电池</span>电压的作用,即以Pt/C-RuO_2为催化剂的PEMFC<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的动态响应性能大幅度提高.","authors":[{"authorName":"韩亚坤","id":"77387696-feb9-4d8d-8617-f42bdcfc5720","originalAuthorName":"韩亚坤"},{"authorName":"徐洪峰","id":"1f7bad54-7c29-4c85-8b2c-90018713ab0e","originalAuthorName":"徐洪峰"},{"authorName":"卢璐","id":"5ef35569-bb24-414e-8e0c-01f916f68f13","originalAuthorName":"卢璐"}],"doi":"","fpage":"1063","id":"f16708a7-4968-4727-8ca8-53cafbd7a1c0","issue":"10","journal":{"abbrevTitle":"CHXB","coverImgSrc":"journal/img/cover/CHXB.jpg","id":"18","issnPpub":"0253-9837","publisherId":"CHXB","title":"催化学报   "},"keywords":[{"id":"a54d45f4-53f0-48d1-94a6-1bfa00278a45","keyword":"质子交换膜燃料<span style=\"color:red\">电池</span>","originalKeyword":"质子交换膜燃料电池"},{"id":"910c79dd-738c-4fe0-88bf-f3ca514e1050","keyword":"<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>","originalKeyword":"单电池"},{"id":"1e7b057a-7d67-4c28-8c94-6b3cc739db6e","keyword":"动态响应","originalKeyword":"动态响应"},{"id":"4884fcb9-5b1a-4696-91cd-4b561102749c","keyword":"铂","originalKeyword":"铂"},{"id":"c5d64070-7582-4d0a-baf4-9314fd073190","keyword":"碳","originalKeyword":"碳"},{"id":"2e85de9c-9901-4eaf-96dc-c08015a1934b","keyword":"二氧化钉","originalKeyword":"二氧化钉"}],"language":"zh","publisherId":"cuihuaxb200910017","title":"Pt/C-RuO_2催化剂对提高质子交换膜燃料<span style=\"color:red\">电池</span>动态响应性能的作用","volume":"30","year":"2009"},{"abstractinfo":"为了制备高性能大面积固体氧化物燃料<span style=\"color:red\">电池</span>(SOFC)<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>,解决由于面积过大而导致的<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>上气体分配不均匀及各部分温度差异,通过实验设计测试了<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>的各个区域的性能,包括局部电性能和局部温度.实验在1片10cm×10cm(有效反应面积9cm×9cm)的阳极支撑SOFC<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>上进行,<span style=\"color:red\">电池</span>的阴极以及空气气体分配板和集流器都被分成电绝缘的9个分块单元.每个分块单元的面积是2.8cm×2.8cm,均布置有独立的电流电压监测及温度监测系统.同时,利用计算流体力学模拟计算阴极侧的气体流场分布,并将计算的结果与实验测量结果进行了比较.模拟计算和实验测量的结果均显示大面积<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>存在局部的气体分布不均匀及其导致的性能不均匀,这为大面积SOFC<span style=\"color:red\">电池</span>的性能优化及电堆模块的设计提供依据.","authors":[{"authorName":"汪杰","id":"ae4018f7-2ffb-4e4b-9df5-799800c80d5c","originalAuthorName":"汪杰"},{"authorName":"颜冬","id":"30e0cca3-555c-473e-8ccc-dc0b971c2a59","originalAuthorName":"颜冬"},{"authorName":"朱彬","id":"2a4f4fce-9164-461d-8775-0c49af5b500b","originalAuthorName":"朱彬"},{"authorName":"池波","id":"75d00f2f-66eb-4243-91fd-ff75d3dc7055","originalAuthorName":"池波"},{"authorName":"蒲健","id":"30624d0f-2cdc-43db-87a8-cbae345b3ea5","originalAuthorName":"蒲健"},{"authorName":"张宜生","id":"4379a10d-96a5-434d-ba36-f2de8e04a9b6","originalAuthorName":"张宜生"},{"authorName":"李箭","id":"f1f098e0-5971-46c7-9c2b-832b95592236","originalAuthorName":"李箭"}],"doi":"","fpage":"951","id":"d44df9cb-7819-4ca3-9ba7-dbe6d740c95d","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":"bd6e45e0-aa2d-4b79-b7e9-097f2590a400","keyword":"固体氧化物燃料<span style=\"color:red\">电池</span>","originalKeyword":"固体氧化物燃料电池"},{"id":"aa6877e2-e173-4ca9-b1a4-c4879e149ca3","keyword":"局部性能","originalKeyword":"局部性能"},{"id":"d8d238e3-8ed1-41a5-a15f-d763975d92a0","keyword":"气体分布","originalKeyword":"气体分布"},{"id":"fc9e3121-6e76-437a-97c4-13d25f1bc1a3","keyword":"计算流体力学","originalKeyword":"计算流体力学"}],"language":"zh","publisherId":"gncl201105047","title":"SOFC<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>局部性能的评价与测试","volume":"42","year":"2011"},{"abstractinfo":"使用浆料旋涂法制备了致密氧化钇稳定的氧化锆电解质薄膜,进而组装成阳极支撑型<span style=\"color:red\">单</span>气室固体氧化物燃料<span style=\"color:red\">电池</span>.该<span style=\"color:red\">电池</span>在CH4,N2和O2混合气氛下运行,可产生很高的输出性能.在700℃时开路电压达到1 V,最大功率密度达到398 mW/cm2.在开路状态下,<span style=\"color:red\">电池</span>的欧姆电阻为0.097 Ω·cm2,仅为电极阻抗的6.4%,远小于电极极化电阻.通过优化电极材料,阳极支撑型<span style=\"color:red\">单</span>气室固体氧化物燃料<span style=\"color:red\">电池</span>将具有更优异的输出性能和更广阔的应用前景.","authors":[{"authorName":"艾刚","id":"f0052e9f-5178-47d3-ab12-cb54a6cc6da8","originalAuthorName":"艾刚"},{"authorName":"吕喆","id":"a14275b9-cd56-4738-aea4-43961b5b1f48","originalAuthorName":"吕喆"},{"authorName":"魏波","id":"02a92894-c79b-48ae-959c-df4046d5d632","originalAuthorName":"魏波"},{"authorName":"黄喜强","id":"20e71b98-9e96-476f-8029-5f39910fcc4b","originalAuthorName":"黄喜强"},{"authorName":"陈孔发","id":"667feb74-66e2-4900-bd86-3a599f9490fa","originalAuthorName":"陈孔发"},{"authorName":"苏文辉","id":"024eada6-a463-4f02-9e53-65c279ceecff","originalAuthorName":"苏文辉"}],"doi":"","fpage":"885","id":"38b70fd7-0181-4fcc-b44c-ec2f49302d56","issue":"10","journal":{"abbrevTitle":"CHXB","coverImgSrc":"journal/img/cover/CHXB.jpg","id":"18","issnPpub":"0253-9837","publisherId":"CHXB","title":"催化学报   "},"keywords":[{"id":"46d45b57-e928-4225-8351-5781bf94dbe0","keyword":"<span style=\"color:red\">单</span>气室","originalKeyword":"单气室"},{"id":"e03c3c3b-d653-4cb0-b3fe-104e42272cca","keyword":"固体氧化物","originalKeyword":"固体氧化物"},{"id":"d3f6df19-1873-4e39-83b9-39deb5f1e430","keyword":"燃料<span style=\"color:red\">电池</span>","originalKeyword":"燃料电池"},{"id":"2491d3e2-b58f-4251-b75b-b0c710f8b825","keyword":"阳极支撑型<span style=\"color:red\">电池</span>","originalKeyword":"阳极支撑型电池"},{"id":"82817b0c-cb53-49e0-ba86-bdbe187d7f8f","keyword":"甲烷","originalKeyword":"甲烷"},{"id":"17beb8c5-2aae-4627-8bd9-2298e25dba21","keyword":"氮","originalKeyword":"氮"},{"id":"99e5cfa4-4e6f-4e03-aad6-e9c2e37f7ea3","keyword":"氧","originalKeyword":"氧"},{"id":"926895f6-5b64-4b46-8fff-9284d5816285","keyword":"选择催化","originalKeyword":"选择催化"},{"id":"a31512fd-3f4f-4b7a-bcd4-e48e004b8dbe","keyword":"阻抗谱","originalKeyword":"阻抗谱"}],"language":"zh","publisherId":"cuihuaxb200610011","title":"阳极支撑型<span style=\"color:red\">单</span>气室固体氧化物燃料<span style=\"color:red\">电池</span>的性能","volume":"27","year":"2006"},{"abstractinfo":"实验研究了阳极分别采用蛇形和交指型流场的<span style=\"color:red\">单</span>室微生物燃料<span style=\"color:red\">电池</span>(MFC)性能,发现采用蛇形流场的<span style=\"color:red\">单</span>室MFC 不仅启动时间较快,而且性能较好.通过对中间腔室侧的阴阳极电极表面SEM表征发现,阳极采用交指型流场的<span style=\"color:red\">单</span>室MFC阴阳极表面均有生物膜存在,这部分额外的生物膜阻碍了阴阳极之间的氢离子传输,从而导致阳极采用交指型流场的MFC欧姆内阻增加,<span style=\"color:red\">电池</span>性能恶化.研究还发现当中间腔室厚度为20 mm时,阳极采用蛇形流场的<span style=\"color:red\">单</span>室MFC性能最佳.","authors":[{"authorName":"李明","id":"81792080-ee49-4b1c-b1a1-954f5cf30dbe","originalAuthorName":"李明"},{"authorName":"李俊","id":"be4bff93-ec65-4809-bc38-9c3b55a1cc65","originalAuthorName":"李俊"},{"authorName":"朱恂","id":"b74595af-21d7-4db3-a9f7-90991df14a37","originalAuthorName":"朱恂"},{"authorName":"叶丁丁","id":"63b2bee6-712e-4470-b054-29edb36c7dcb","originalAuthorName":"叶丁丁"},{"authorName":"廖强","id":"84a582cd-dcd9-430d-a777-6b6a4c6d083a","originalAuthorName":"廖强"}],"doi":"","fpage":"855","id":"85978f60-bfa4-4760-9d3d-526d9c6f146b","issue":"5","journal":{"abbrevTitle":"GCRWLXB","coverImgSrc":"journal/img/cover/GCRWLXB.jpg","id":"32","issnPpub":"0253-231X","publisherId":"GCRWLXB","title":"工程热物理学报   "},"keywords":[{"id":"8146654c-8a59-40f8-9db9-5df0c0cf1216","keyword":"<span style=\"color:red\">单</span>室微生物燃料<span style=\"color:red\">电池</span>","originalKeyword":"单室微生物燃料电池"},{"id":"1c29801b-6fd1-4992-b798-9566833447c0","keyword":"流场结构","originalKeyword":"流场结构"},{"id":"de67145a-de81-46a6-9ec8-76bd07533d60","keyword":"生物膜","originalKeyword":"生物膜"},{"id":"956496e1-f41b-493c-bebc-7bb7966ac428","keyword":"<span style=\"color:red\">电池</span>性能","originalKeyword":"电池性能"}],"language":"zh","publisherId":"gcrwlxb201105034","title":"阳极流场对<span style=\"color:red\">单</span>室微生物燃料<span style=\"color:red\">电池</span>性能的影响","volume":"32","year":"2011"},{"abstractinfo":"综述了蒸发法、溅射后硒化法、<span style=\"color:red\">单</span>靶直接溅射法制备CIGS光吸收层的工艺和<span style=\"color:red\">电池</span>性能,比较了它们的优缺点;详细介绍了粉末冶金参数(如烧结温度、压力、时间)对制备CIGS靶材致密度、成分均匀性的影响;着重阐述了<span style=\"color:red\">单</span>靶溅射工艺参数(如衬底温度、溅射功率、工作气压)对沉积的CIGS薄膜的相结构、形貌、光学及电学性能的影响.","authors":[{"authorName":"王丹","id":"7065a9c6-544b-4f98-8213-45bc51c87bb9","originalAuthorName":"王丹"},{"authorName":"余洲","id":"24c6dde5-fddb-4e1f-98fc-92aa9a4c01e3","originalAuthorName":"余洲"},{"authorName":"冀亚欣","id":"6f15f3b0-f349-466a-bee6-66832bd6b5a8","originalAuthorName":"冀亚欣"},{"authorName":"闫勇","id":"6a5ed3c9-0870-4a26-bf18-bb2f1ec1f1d6","originalAuthorName":"闫勇"},{"authorName":"欧玉峰","id":"b3623559-ae5b-42cf-bdb0-6d6e1bae96ad","originalAuthorName":"欧玉峰"},{"authorName":"晏传鹏","id":"561ae5a2-70b4-4c27-9aa4-09cea6e01be1","originalAuthorName":"晏传鹏"},{"authorName":"刘连","id":"56efc181-de2f-421a-a810-51d749fbc5d4","originalAuthorName":"刘连"},{"authorName":"张勇","id":"e0c27398-5729-4179-9c94-e5f28927bbb2","originalAuthorName":"张勇"},{"authorName":"赵勇","id":"45f0e0e7-d413-416d-90b2-872af846ecb8","originalAuthorName":"赵勇"}],"doi":"10.11896/j.issn.1005-023X.2016.03.025","fpage":"128","id":"81aeb86e-7f16-4903-8829-aa4a74141978","issue":"3","journal":{"abbrevTitle":"CLDB","coverImgSrc":"journal/img/cover/CLDB.jpg","id":"8","issnPpub":"1005-023X","publisherId":"CLDB","title":"材料导报"},"keywords":[{"id":"bf6b22f4-70f1-44ac-b51c-fd540127d1fa","keyword":"CIGS<span style=\"color:red\">电池</span>","originalKeyword":"CIGS电池"},{"id":"57cc8899-4827-402e-88df-da2324a82119","keyword":"粉末冶金","originalKeyword":"粉末冶金"},{"id":"d1d3f228-86f4-477f-945e-c15886fba378","keyword":"<span style=\"color:red\">单</span>靶溅射","originalKeyword":"单靶溅射"},{"id":"6997740c-9952-4867-aeab-def979dbb2fe","keyword":"光电性能","originalKeyword":"光电性能"}],"language":"zh","publisherId":"cldb201603025","title":"CIGS<span style=\"color:red\">电池</span>、靶材及<span style=\"color:red\">单</span>靶溅射工艺研究进展","volume":"30","year":"2016"},{"abstractinfo":"本文采用柠檬酸燃烧法制备了柠檬酸与金属离子摩尔比（MRCM）为1．5的NiO／Ce0.8Sm0.2O1.9（NiO／SDC）粉体，对其相组成和形貌等进行了表征。以NiO／SDC为阳极原料，共压法制备了SOFC<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>，对其电化学性能性能进行测试。结果表明，用柠檬酸燃烧法成功制备出NiO／Ce0.8Sm0.2O1.9（NiO／SDC）粉体，NiO／SDC粉体中NiO与SDC晶体的粒度分别为10．39nm和7．01nm，粉体的分散性好，比表面积大。所制备的<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>在800℃测试温度下开路电压为0．721V，最大输出功率密度可达224．2mW／cm2。本试验的初步实验结果表明，以柠檬酸燃烧法制备的NiO／Ce0.8Sm0.2O1.9（NiO／SDC）粉体为原料制备的阳极材料所构建的SOFC<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>表现出较好的<span style=\"color:red\">电池</span>性能，为阳极材料的研究开拓了新的发展方向。．","authors":[{"authorName":"方海燕","id":"ce9140f9-65cc-42cb-8f73-635431eeeeba","originalAuthorName":"方海燕"},{"authorName":"程继贵","id":"39e65cc2-209a-495f-938c-e12cee42ec7d","originalAuthorName":"程继贵"},{"authorName":"杨俊芳","id":"0328cb05-9828-4e12-8929-6d9bab64ba69","originalAuthorName":"杨俊芳"},{"authorName":"李明玲","id":"18675a5c-4d7d-49ab-b20f-904f080c492f","originalAuthorName":"李明玲"}],"doi":"","fpage":"924","id":"dc763311-ad7e-4cee-a24b-4fa1f5bf04fb","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":"f865f55f-0069-4ae9-9765-43de9ea057f4","keyword":"中温固体氧化物燃料<span style=\"color:red\">电池</span>","originalKeyword":"中温固体氧化物燃料电池"},{"id":"2c74d813-eefe-4976-8efa-44c5aeb87470","keyword":"NiO","originalKeyword":"NiO"},{"id":"e2847781-9b02-49e5-8896-8a9df0b1345f","keyword":"Ce0","originalKeyword":"Ce0"},{"id":"1568b3d6-2ace-4c37-8a86-422cc31e2ac4","keyword":"8Sm0","originalKeyword":"8Sm0"},{"id":"142fca92-6cb0-4f1d-b6a6-f1c765363316","keyword":"2O2","originalKeyword":"2O2"},{"id":"a8ba9c39-c5ff-4e54-834d-88f8521dd391","keyword":"9","originalKeyword":"9"},{"id":"f97cf662-57a5-44ee-afe8-c0c7afb0bac4","keyword":"阳极材料","originalKeyword":"阳极材料"},{"id":"f3395998-7ce4-411c-83cc-6e75c5e390f3","keyword":"柠檬酸燃烧法","originalKeyword":"柠檬酸燃烧法"},{"id":"ddfd15f2-0a7e-4d3e-b313-1b3865c5bdda","keyword":"电化学性能","originalKeyword":"电化学性能"}],"language":"zh","publisherId":"clkxygc201206024","title":"NiO／Ce0.8Sm0.2O1.9阳极材料制备及<span style=\"color:red\">单</span><span style=\"color:red\">电池</span>性能","volume":"30","year":"2012"},{"abstractinfo":"首先综述了硅基<span style=\"color:red\">单</span>结太阳能<span style=\"color:red\">电池</span>的分类、制备方法及进展,介绍了化学气相沉积法、液相外延法(LPPE)、金属诱导结晶法(MIC)、磁控溅射法以及分子束外延法等各种硅基太阳能<span style=\"color:red\">电池</span>的制备方法,阐述了各种制备工艺的优缺点.其次,总结了单晶硅、多晶硅以及非晶硅太阳能<span style=\"color:red\">电池</span>在组织结构、缺陷方面的研究现状.最后,对硅基太阳能<span style=\"color:red\">电池</span>的机械、电学、光学以及光电性能等方面的研究进展做了论述.","authors":[{"authorName":"季鑫","id":"95edc2b7-a8ed-40a2-a809-d242ad3fb88f","originalAuthorName":"季鑫"},{"authorName":"杨德仁","id":"cf85eb44-7817-430d-b5e0-f9aaea7662c3","originalAuthorName":"杨德仁"},{"authorName":"答建成","id":"76df2014-6575-4e5a-827e-79db9b4e9c35","originalAuthorName":"答建成"}],"doi":"10.11896/j.issn.1005-023X.2016.03.003","fpage":"15","id":"ec56be34-e455-43df-9199-cd694f17dad6","issue":"3","journal":{"abbrevTitle":"CLDB","coverImgSrc":"journal/img/cover/CLDB.jpg","id":"8","issnPpub":"1005-023X","publisherId":"CLDB","title":"材料导报"},"keywords":[{"id":"4c668a91-049e-4f08-a8ce-2dbf9e8d5dfc","keyword":"硅基<span style=\"color:red\">单</span>结太阳能<span style=\"color:red\">电池</span>","originalKeyword":"硅基单结太阳能电池"},{"id":"7040a94f-2fec-4e33-be7c-493436572d9a","keyword":"制备方法","originalKeyword":"制备方法"},{"id":"c4000e5c-357b-4885-abe9-74cf5182af26","keyword":"单晶硅","originalKeyword":"单晶硅"},{"id":"d0482b60-7f37-477a-8266-e5a60cb904e8","keyword":"多晶硅","originalKeyword":"多晶硅"},{"id":"0debcf03-c427-4441-af42-dd6743d1ef97","keyword":"非晶硅","originalKeyword":"非晶硅"},{"id":"f8d3637b-b675-4548-8011-c06771acca29","keyword":"缺陷","originalKeyword":"缺陷"},{"id":"35d08ce3-e5ef-4414-9a16-3478022dcdb5","keyword":"力学性能","originalKeyword":"力学性能"}],"language":"zh","publisherId":"cldb201603003","title":"硅基<span style=\"color:red\">单</span>结太阳能<span style=\"color:red\">电池</span>的制备技术、缺陷及其性能的研究","volume":"30","year":"2016"},{"abstractinfo":"采用无溶剂法合成了马来酸<span style=\"color:red\">单</span>聚乙二醇<span style=\"color:red\">单</span>甲醚酯,并对其合成工艺进行了探讨。实验以原料醇酸摩尔比、催化剂用量、阻聚剂用量、反应温度和反应时间为五因素,设计成五因素四水平的正交实验,由实验确定出组分质量分数和最佳酯化反应条件：醇酸摩尔比1．0∶1、催化剂质量分数5%、阻聚剂质量分数3%、反应温度120℃、反应时间5h,酯化率达到95．25%。进一步由大单体与丙烯酸、丙烯酸丁酯、烯丙基苯磺酸钠共聚制备出锂离子<span style=\"color:red\">电池</span>浆料分散剂,在分散剂质量分数为1．0%,LiFePO4质量分数为75%时,浆料粘度为2120mPa·s,静置90min后,粘度为2560mPa·s。","authors":[{"authorName":"任云","id":"21df0127-70a4-4407-9ce5-4759b066ba3b","originalAuthorName":"任云"},{"authorName":"王博","id":"2457919d-6f8a-4288-9c93-ca5e11d15795","originalAuthorName":"王博"},{"authorName":"张大海","id":"b8548f2b-592a-40b7-925d-300d31f24c30","originalAuthorName":"张大海"}],"doi":"","fpage":"1","id":"9be8a38b-3c33-4c7d-853d-afcafc6bcd71","issue":"4","journal":{"abbrevTitle":"HCCLLHYYY","coverImgSrc":"journal/img/cover/HCCLLHYYY.jpg","id":"42","issnPpub":"1671-5381","publisherId":"HCCLLHYYY","title":"合成材料老化与应用"},"keywords":[{"id":"4acad565-3bac-462b-840e-3deef931a609","keyword":"锂离子<span style=\"color:red\">电池</span>","originalKeyword":"锂离子电池"},{"id":"d11b2413-d030-4054-b95e-345e7af99191","keyword":"浆料","originalKeyword":"浆料"},{"id":"48aa3bdc-b31c-40ef-8034-28149bc09430","keyword":"分散剂","originalKeyword":"分散剂"},{"id":"5df9630d-c1ad-4807-a1e8-54a9d088efda","keyword":"单体","originalKeyword":"单体"},{"id":"41864623-dad5-4f77-be12-1ba4fc8c4581","keyword":"马来酸<span style=\"color:red\">单</span>聚乙二醇<span style=\"color:red\">单</span>甲醚酯","originalKeyword":"马来酸单聚乙二醇单甲醚酯"}],"language":"zh","publisherId":"hccllhyyy201404001","title":"锂离子<span style=\"color:red\">电池</span>浆料分散剂大单体马来酸<span style=\"color:red\">单</span>聚乙二醇<span style=\"color:red\">单</span>甲醚酯的合成及应用*","volume":"","year":"2014"},{"abstractinfo":"利用VHF-PECVD分解硅烷和氢气的混合气体来制备本征微晶硅薄膜.运用拉曼散射和X射线衍射研究了不同硅烷浓度对薄膜的影响.随着硅烷浓度的增加,沉积速率和光敏性增加而晶化率下降.将优化的本征材料应用到pin<span style=\"color:red\">电池</span>中,得到本征层厚度约为1μm的微晶<span style=\"color:red\">电池</span>,效率达5.87%.","authors":[{"authorName":"吴志猛","id":"ee55cd4f-3360-48cf-a8aa-d63786c27aa3","originalAuthorName":"吴志猛"},{"authorName":"雷青松","id":"c4619fc4-d56c-40d2-9f16-47699893cf60","originalAuthorName":"雷青松"},{"authorName":"赵颖","id":"ea3a644b-eca0-417a-ada1-51e85b12c38c","originalAuthorName":"赵颖"},{"authorName":"耿新华","id":"609516f5-2626-467d-a291-9a32bd030949","originalAuthorName":"耿新华"},{"authorName":"奚建平","id":"35549e9d-8200-4846-a81b-3c3428671cd6","originalAuthorName":"奚建平"}],"doi":"10.3969/j.issn.1000-985X.2005.06.029","fpage":"1122","id":"0babd7de-66d4-4633-856e-1744e3f8c507","issue":"6","journal":{"abbrevTitle":"RGJTXB","coverImgSrc":"journal/img/cover/RGJTXB.jpg","id":"57","issnPpub":"1000-985X","publisherId":"RGJTXB","title":"人工晶体学报"},"keywords":[{"id":"edb9f7b0-f098-492f-ab85-a47dfbb14ebd","keyword":"微晶硅","originalKeyword":"微晶硅"},{"id":"883b1f6f-1a81-4824-8ca5-8e2ea537702e","keyword":"硅烷浓度","originalKeyword":"硅烷浓度"},{"id":"2e64c035-37b5-49fd-a31a-baa799814262","keyword":"太阳<span style=\"color:red\">电池</span>","originalKeyword":"太阳电池"}],"language":"zh","publisherId":"rgjtxb98200506029","title":"VHF-PECVD法制备氢化硅薄膜及<span style=\"color:red\">单</span>结<span style=\"color:red\">电池</span>","volume":"34","year":"2005"}],"totalpage":1020,"totalrecord":10192}