CN108950489B - 一种Pt和Y改性的梯度Al涂层及其制备工艺 - Google Patents

一种Pt和Y改性的梯度Al涂层及其制备工艺 Download PDF

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CN108950489B
CN108950489B CN201810953643.6A CN201810953643A CN108950489B CN 108950489 B CN108950489 B CN 108950489B CN 201810953643 A CN201810953643 A CN 201810953643A CN 108950489 B CN108950489 B CN 108950489B
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孙超
孙健
李伟
刘书彬
姜肃猛
宫俊
于昊君
何平
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Abstract

本发明公开了一种Pt和Y改性的梯度Al涂层及其制备工艺,属于高温防护涂层技术领域。首先采用电弧离子镀,在高温合金基体上镀一层MCrAlY底层;然后采用电镀的方法在MCrAlY底层上镀一层纯Pt层,并且在真空条件下进行退火;最后采用气相沉积法渗AlY,获得Pt和Y改性的梯度Al涂层。该涂层外层富Al内层富Cr,外层为β‑(Ni,Pt)Al单相,Pt元素均匀的分布在整个涂层范围内。本发明的优点:可以显著增加MCrAlY底层中的Al含量,提高其抗高温氧化性能;涂层中Pt元素的含量和涂层厚度可控。

Description

一种Pt和Y改性的梯度Al涂层及其制备工艺
技术领域
本发明涉及高温防护涂层技术领域,具体涉及一种Pt和Y改性的梯度Al涂层及其制备工艺。
技术背景
MCrAlY涂层广泛的应用在燃气轮机叶片和其他热端的部件作为高温防护涂层,MCrAlY涂层中的Al含量一般在8~16wt.%。在高温服役环境中,涂层表面形成致密的Al2O3膜,起到保护作用,但是Al元素被大量的消耗,所以MCrAlY涂层的抗氧化性能和服役寿命很大程度上取决于涂层中的Al含量。但是直接增加MCrAlY涂层中的Al含量会导致涂层的熔点降低,脆性增加。如果采用复合涂层或者梯度涂层设计可以很好的解决这一问题,同时可以提高MCrAlY涂层中的Al含量提高其抗高温氧化性能。相关应用文献如:①中国发明专利,一种MCrAlY加复合梯度涂层及制备工艺,申请号200710011431.8;②中国发明专利,一种共沉积梯度MCrAlY涂层及制备工艺,申请号200710011432.2;③中国发明专利,一种MCrAlY+AlSiY复合涂层及制备工艺,申请号200810228097.6等。
Pt是一种贵金属,化学性质极其稳定。Pt的添加提高了铝化物涂层中氧化膜与涂层的结合力,抑制了氧化膜的剥落。氧化膜的结合力对高温防护涂层的性能及寿命至关重要,良好的结合力可抑制氧化膜的剥落,减缓涂层中Al元素的消耗,从而延长了涂层寿命。因此考虑到Pt改性铝化物涂层和梯度MCrAlY涂层的优点,本发明提供了一种制备Pt和Y改性的梯度Al涂层及其制备方法。
发明内容
本发明的目的在于提供一种Pt和Y改性的梯度Al涂层及其制备工艺,利用电弧离子镀、电镀和化学气相沉积相结合制备了Pt和Y改性的梯度Al涂层,在不导致涂层的熔点降低、脆性增加的前提下,增加MCrAlY涂层中的Al含量,提高MCrAlY涂层的抗高温氧化和热腐蚀性能。
为实现上述目的,本发明所采用的技术方案如下:
一种Pt和Y改性的梯度Al涂层的制备工艺,该工艺包括以下步骤:
(1)MCrAlY底层的制备:采用电弧离子镀在高温合金基体上制备MCrAlY底层;
(2)纯Pt层的制备:采用电镀方法在MCrAlY底层上制备一层纯Pt层;
(3)真空退火处理:电镀纯Pt层后在真空退火炉中进行退火,退火处理过程为:首先升温到500~700℃保温1~3h,以除去镀Pt层中残留的H2;然后升温到900~1000℃保温3~5h,以使纯Pt层和MCrAlY底层发生互扩散,保温结束后随炉冷却到室温;
(4)渗AlY:退火处理后,采用化学气相沉积法在纯Pt层上渗AlY,从而在高温合金基体上获得Pt和Y改性的梯度Al涂层。
上述步骤(1)中,高温合金基体在制备MCrAlY底层前,进行表面处理,表面处理过程为:对基体进行打磨和喷砂处理后,先在去离子水中超声15~30min,然后在丙酮中超声15~30min。
上述步骤(1)中,所述电弧离子镀过程为:首先将真空室的真空度抽到6.0×10-3~1.0×10-2Pa,通入高纯Ar气,压强升到5.0×10-2~3.0×10-1Pa;然后对基体进行溅射清洗,清洗工艺参数为:靶材和样品间的距离为200~300mm,脉冲偏压为-400~-800V,占空比为20~40%,清洗时间为5~8min;然后沉积MCrAlY底层,工艺参数为:靶材和样品间的距离为200~300mm,弧电压为20~25V,弧电流为60~100A,脉冲偏压为-100~-250V,占空比为20~40%,沉积时间为200~500min。
上述步骤(1)中,制备的MCrAlY底层的厚度为25~40μm。
上述步骤(2)中,采用电镀方法制备纯Pt层过程中,采用的镀液组成为:二亚硝基二胺合铂(以Pt当量计算)4~10g/L,其余为去离子水;镀液pH值为1~3;电镀时镀液温度为50~90℃,电流密度为2~8A/dm2,电镀时间为25~60min;镀Pt层的厚度为1~6μm。
上述步骤(3)退火处理过程中:压强小于1.0×10-3Pa,升温速率小于8℃/min;
上述步骤(3)中,经退火处理后,纯Pt层和MCrAlY底层发生互扩散,Pt元素向MCrAlY底层扩散深度为10~18μm,且分布均匀。
上述步骤(4)中采用化学气相沉积法渗AlY的过程中,所用渗剂由FeAl合金(粉体或块体)、Y2O3和活化剂组成,以FeAl合金作为Al供体,以Y2O3作为Y的供体,其中:Y2O3含量为0.2~3.0wt.%,活化剂含量为0.5~3.0wt.%,余量为FeAl合金;FeAl合金中Fe含量为50wt.%;所述活化剂为NH4Cl、NaF或NH4F;化学气相沉积的温度为1050℃,沉积时间6h,沉积过程中以Ar气作为保护气体。
本发明具有以下优点:
1、采用电弧离子镀、电镀和化学气相沉积相结合,制备出外层富Al、内层富Cr的梯度涂层。
2、采用化学气相沉积法渗AlY,不受试样的尺寸和形状的影响,通过控制渗铝工艺可以控制涂层的涂层的厚度,涂层的可控性强。
3、所制备的Pt和Y改性的梯度Al具有优异的抗高温氧化性能和热腐蚀性能,能有效的保护基体合金,显著的提高发动机热端部件的使用寿命。
附图说明
图1为MCrAlY底层的截面形貌。
图2为电镀Pt后截面形貌。
图3为电镀Pt退火后截面形貌。
图4为Pt和Y改性梯度Al涂层的截面形貌。
图5为Pt和Y改性梯度Al涂层的XRD图谱分析。
图6为Pt和Y改性梯度Al涂层截面的主要元素分布。
图7为为Pt和Y改性梯度Al涂层1100℃恒温氧化增重曲线。
具体实施方式
以下结合附图和实施例详述本发明。
实施例1
本实施例是在镍基高温合金上制备Pt和Y改性的梯度Al涂层,所用的镍基单晶高温合金的成分(wt.%):Co 10.0%,Cr 8.0%,W 11.0%,Al 6.0%,Ti 1.0%,Mo 1.0%,Nb1.5%,C 0.05%,余量为Ni。涂层制备过程如下:
首先对基体进行打磨、喷砂,并且在去离子水和丙酮中先后超声30min。用酒精清洗后烘干待用。采用电弧离子镀沉积MCrAlY涂层时,预抽真空至7×10-3Pa,轰击和沉积时通入Ar气,真空度为2×10-1Pa。对样品进行预溅射轰击清洗时,靶基距为240mm,脉冲偏压为-600V,占空比33%,清洗时间5min;沉积时,靶基距为240mm,弧电压为20V,弧电流为60~65A,脉冲偏压为-250V,占空比33%,沉积温度为300℃,沉积时间为400min,获得的涂层厚度约为35μm左右,图1为MCrAlY底层的截面形貌;
然后进行电镀Pt,对MCrAlY底层进行电化学除油、活化、预镀Ni处理,以提高底层和Pt层之间的结合力。电化学除油的具体工艺参数为:在5wt.%的NaOH水溶液中,样品作为阴极,阳极为纯Ni板,在8A/dm2的电流密度下除油60s。活化工艺参数为:37wt.%浓盐酸和去离子水按照体积比1:5混合,将样品放入其中活化30s后取出。预镀Ni过程中:镀液组成为:氯化镍200g/L,盐酸200ml/L,其余为去离子水;将样品作为阴极放入镀液中,在8A/dm2的电流密度下预镀Ni一分钟,阳极为纯镍板。用去离子水清洗样品后,将样品作为阴极放入镀Pt液中,具体的镀Pt工艺如下:温度80℃,电流密度3A/dm2,pH为2.0,铂钛网为阳极。镀Pt液组成为:二亚硝基二胺合铂(以Pt当量计算)4g/L,其余为去离子水。电镀时间为35min,Pt层厚度为2μm左右,图2为电镀Pt层后截面形貌;
电镀完成后,将样品进行扩散退火,以降低样品表面的Pt含量。退火的具体工艺为:升温速率为5℃/min,现在650℃除氢2.5h,然后在900℃扩散4h,最后随炉冷却,图3为电镀Pt退火后截面形貌;
最后进行气相渗AlY,具体的渗AlY工艺如下:渗剂为50wt.%的FeAl合金粉100g,Y2O3为0.5g,NH4Cl作为活化剂1.0g,渗AlY温度为1050℃,时间为6h,渗AlY过程中以Ar气作为保护气,结束后随炉冷却到室温,图4为Pt和Y改性的梯度Al涂层的截面形貌,涂层分为两层;
本实施例中,采用XRD检测涂层的相组成。根据图5涂层的XRD图谱分析,渗AlY后涂层外层主要由β-(Ni,Pt)Al组成;
本实施例中,为了进一步确定涂层中主要元素的分布,采用EDS对涂层进行分析,获得涂层的主要元素的分布,如图6为Pt和Y改性的梯度Al涂层截面的主要元素分布;
本实施例中,对获得Pt和Y改性梯度Al涂层进行1100℃恒温氧化实验,并且以普通渗铝涂层和Y改性的梯度Al涂层作为对比样,如图7所示,Pt和Y改性梯度Al涂层氧化增重最低。Pt元素添加后能降低氧化速率,提高氧化膜的与涂层之间的粘结性。
以上所述仅为发明的较佳实施例而已,并不用以限制本发明,凡在本发明的精神和原则之内,所作的任何修改、等同替换、改进等,均应包含在本发明的保护范围之内。

Claims (8)

1.一种Pt和Y改性的梯度Al涂层的制备工艺,其特征在于:该工艺包括以下步骤:
(1)MCrAlY底层的制备:采用电弧离子镀在高温合金基体上制备MCrAlY底层;
(2)纯Pt层的制备:采用电镀方法在MCrAlY底层上制备一层纯Pt层;采用电镀方法制备纯Pt层过程中,采用的镀液组成为:二亚硝基二胺合铂为4~10g/L,其余为去离子水;镀液pH值为1~3;电镀时镀液温度为50~90℃,电流密度为2~8A/dm2,电镀时间为25~60min;
(3)真空退火处理:电镀纯Pt层后在真空退火炉中进行退火,退火处理过程为:首先升温到500~700℃保温1~3h,以除去镀Pt层中残留的H2;然后升温到900~1000℃保温3~5h,以使纯Pt层和MCrAlY底层发生互扩散,保温结束后随炉冷却到室温;
(4)渗AlY:退火处理后,采用化学气相沉积法在纯Pt层上渗AlY,从而在高温合金基体上获得Pt和Y改性的梯度Al涂层;采用化学气相沉积法渗AlY的过程中,所用渗剂由FeAl合金、Y2O3和活化剂组成,其中:Y2O3含量为0.2~3.0wt.%,活化剂含量为0.5~3.0wt.%,余量为FeAl合金;FeAl合金中Fe含量为50wt.%;所述活化剂为NH4Cl、NaF或NH4F;化学气相沉积的温度为1050℃,沉积时间6h,沉积过程中以Ar气作为保护气体。
2.根据权利要求1所述的Pt和Y改性的梯度Al涂层的制备工艺,其特征在于:步骤(1)中,高温合金基体在制备MCrAlY底层前,进行表面处理,表面处理过程为:对基体进行打磨和喷砂处理后,先在去离子水中超声15~30min,然后在丙酮中超声15~30min。
3.根据权利要求1所述的Pt和Y改性的梯度Al涂层的制备工艺,其特征在于:步骤(1)中,所述电弧离子镀过程为:首先将真空室的真空度抽到6.0×10-3~1.0×10-2Pa,通入高纯Ar气,压强升到5.0×10-2~3.0×10-1Pa;然后对基体进行溅射清洗,清洗工艺参数为:靶材和样品间的距离为200~300mm,脉冲偏压为-400~-800V,占空比为20~40%,清洗时间为5~8min;然后沉积MCrAlY底层,工艺参数为:靶材和样品间的距离为200~300mm,弧电压为20~25V,弧电流为60~100A,脉冲偏压为-100~-250V,占空比为20~40%,沉积时间为200~500min。
4.根据权利要求1或3所述的Pt和Y改性的梯度Al涂层的制备工艺,其特征在于:步骤(1)中,制备的MCrAlY底层的厚度为25~40μm。
5.根据权利要求1所述的Pt和Y改性的梯度Al涂层的制备工艺,其特征在于:步骤(2)中,镀Pt层的厚度为1~6μm。
6.根据权利要求1所述的Pt和Y改性的梯度Al涂层的制备工艺,其特征在于:步骤(3)退火处理过程中:压强小于1.0×10-3Pa,升温速率小于8℃/min。
7.根据权利要求1所述的Pt和Y改性的梯度Al涂层的制备工艺,其特征在于:步骤(3)中,经退火处理后,纯Pt层和MCrAlY底层发生互扩散,Pt元素向MCrAlY底层扩散深度为10~18μm,且分布均匀。
8.一种利用权利要求1所述工艺制备的Pt和Y改性的梯度Al涂层。
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