固体氧化物燃料电池用AISI430钢表面铜-铁氧体尖晶石涂层的研制

S. N. Hosseini, F. Karimzadeh, M. Enayati
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引用次数: 1

摘要

裸露的和预氧化的AISI 430片通过铜-铁氧体-尖晶石涂层丝网印刷。通过还原涂层的反应烧结工艺实现了涂层与基体之间的良好结合。能量色散*:n.hosseini@pgu.ac.irD ow nl oa de D fr om ja m e.iu t.a c.ir at 3:5 7 ir D t o n t hu rs da y a ug us t t t 5 th 2 02 1[D o I:10.4 71 76/ja m e.39.4 96 62]یی。。。24لابیدن1607;مرد㻫تٕا\1740پ\1583او1605;。结果表明,尖晶石保护层不仅显著降低了面积比电阻(ASR),而且作为氧气向内扩散的屏障,抑制了亚尺度生长。在800°C下,经过400小时氧化后,裸露和预氧化的铜-铁氧体-尖晶石涂层样品的ASR分别为19.7和32.5 mΩ/cm2,远低于裸露衬底的ASR(153.4 mΩ.cm2)。在800°C下暴露600小时后,铜铁氧体涂层获得了优异、稳定的ASR(20.5 mΩ.cm)。CuFe2O4的高电导率及其Mn掺杂、Cr2O3氧化皮的生长减少以及涂层与基体的良好粘附性被认为是电导率显著提高的原因。
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Development of Copper-Ferrite Spinel Coating on AISI 430 Steel Used as Solid Oxide Fuel Cell
The bare and pre-oxidized AISI 430 pieces were screen printed by copper ferrite spinel coatings. Good bonding between the coating and the substrate was achieved by the reactive sintering process of the reduced coating. The energy dispersive * :یکینورتکلا تسپ ،تابتاکم لوئسم : n.hosseini@pgu.ac.ir D ow nl oa de d fr om ja m e. iu t.a c. ir at 3 :5 7 IR D T o n T hu rs da y A ug us t 5 th 2 02 1 [ D O I: 10 .4 71 76 /ja m e. 39 .4 .1 96 62 ] ینیسح ناراکمه و دلاوف يور سم تیرف یلنیپسا ششوپ داجیا AISI430 يارب ... 24 لاس ،یسدنهم رد هتفرشیپ داوم 39 رامش ، ه 4 ، ناتسمز 1399 X-ray spectroscopy (EDS) analysis revealed that the scale is a double layer consisting of a chromia-rich subscale and an outer Cu/Fe-rich spinel. The results showed that the spinel protection layer not only significantly decreased the area specific resistance (ASR), but also inhibited the subscale growth by acting as a barrier to the inward diffusion of oxygen. ASRs of 19.7 and 32.5 mΩ.cm2, much lower than that of the bare substrate (153.4 mΩ.cm2), at 800 °C after 400 h oxidation were achieved for the bare and pre-oxidized copper ferrite spinel coated samples, respectively. Excellent, stable ASR (20.5 mΩ.cm) was obtained with copper ferrite coating after 600 h of exposure at 800 °C. The high electrical conductivity of CuFe2O4 and its doping by Mn, the growth reduction of Cr2O3 oxide scale and the good coating to substrate adherence are proposed to be responsible for substantial improvement in electrical conductivity.
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