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Electroless and Electrolytic Copper Plating of Glass Interposer Combined with Metal Oxide Adhesion Layer for Manufacturing 3D RF Devices

机译:玻璃中介层的化学镀和电解镀铜结合金属氧化物粘附层以制造3D RF器件

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High performance radio frequency (RF) front end filters were fabricated using glass interposer and 3D packaging technologies, especially through glass vias (TGV) and direct Cu metallization on the glass. Major challenges for the use of TGV in RF and electronics applications are the cost competitiveness, high throughput and reliable metallization of both TGV and flat glass surface with an excellent adhesion. In this study, a thin metal oxide adhesion promotion layer (about 8-9 nm) called VitroCoat layer is dip-coated by a modified sol-gel process followed by sintering which creates chemical bonds to the glass. Sol-gel dip coating process has good coating uniformity on both TGV and top surface under optimized coating conditions. Uniform coating can be achieved on minimum 30 μm diameter TGVs on a 300 μm thick and 200 mm diameter glass wafers. The thin adhesive layer enables electroless and electrolytic copper plating directly onto glass substrates without impacting high frequency performance. Excellent adhesion of electroless plated copper seed layer on glass can be achieved by using the adhesive layer and annealing technology. The thin adhesive layer is non-conductive and can be easily removed from the area between circuit traces during electroless copper seed layer etching. We have successfully integrated the adhesion layer and electroless and electrolytic copper plating technologies into semi-additive process (SAP) and built up a 3D RF front end filter devices on 400 μm thick 200mm diameter glass wafers as well as 300mm x 300mm glass panels with 80 μm diameter holes.
机译:高性能射频(RF)前端滤波器是使用玻璃中介层和3D封装技术制造的,尤其是通过玻璃通孔(TGV)和在玻璃上直接进行铜金属化处理而成的。在射频和电子应用中使用TGV的主要挑战是TGV和平板玻璃表面的成本竞争力,高通量以及可靠的金属镀层以及出色的附着力。在这项研究中,通过改良的溶胶-凝胶工艺对称为VitroCoat层的薄金属氧化物粘合促进层(约8-9 nm)进行浸涂,然后进行烧结以形成与玻璃的化学键。溶胶-凝胶浸涂工艺在优化的涂覆条件下在TGV和顶部表面均具有良好的涂覆均匀性。可以在300μm厚和200 mm直径的玻璃晶圆上使用最小30μm直径的TGV进行均匀涂覆。薄的粘合剂层可将化学镀和电解铜直接镀在玻璃基板上,而不会影响高频性能。通过使用粘合层和退火技术,可以实现化学镀铜籽晶层在玻璃上的出色粘合。薄的粘合剂层是不导电的,可以在化学镀铜籽晶层蚀刻期间轻松地从电路走线之间的区域中除去。我们已经成功地将粘附层以及化学镀和电解镀铜技术集成到了半添加工艺(SAP)中,并在400μm厚,200mm直径的玻璃晶片以及300mm x 300mm的80毫米玻璃面板上建立了3D RF前端过滤器设备直径为μm的孔。

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