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A Novel Wet Metallization on Photo-Imageable Dielectric Material with High T-Peel Adhesion Using Pd Nanoparticle Catalyst and Micro Surface Roughening

机译:采用Pd纳米粒子催化剂和微表面粗糙化具有高T剥离粘合性的光学成像介电材料的新型湿金属化

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In this work, we pioneer to develop a process that combines a novel polymer-capped Pd nanoparticle as the catalyst in ELP and a special surface treatment which is able to create micro-craters on surface but without largely increasing surface roughness. Specifically, the catalyst agent was synthesized in the laboratory. We synthesized 2-5 nm Pd nanoparticles using polyvinyl alcohol (PVA) as the protecting agent in water. The PVA-Pd activator then work with a novel amine-based surfactant (polyethylenimine, PEI) via a molecular interaction between Pd core and amino-moieties on PEI. Due to this interaction, the adhesion of resultant ELP Cu on substrate is significantly enhanced. T-Peel adhesion of ELP Cu is further enhanced by applying a special surface roughening. This special surface treatment modifies traditional potassium permanganate desmear process but omitting swelling step in order to maintain the backbone structure of PID while mildly sculptures the surface to form micro-craters. Evaluated by water contact angle (WAC), scanning electron microscope (SEM) and surface profiler (alpha step), average T-peel adhesion of ELP-Cu on PID is enhanced from 185 to 571 gf/cm using this process. We believe this process paves a bright way for next generation SAP in advanced PCB application.
机译:在这项工作中,我们开发了一种将新型聚合物封端的PD纳米粒子与ELP中的催化剂结合的过程和能够在表面上产生微腔室但不增加表面粗糙度的特殊表面处理。具体地,催化剂剂在实验室中合成。我们使用聚乙烯醇(PVA)作为水中的保护剂合成2-5nM PD纳米颗粒。然后PVA-PD活化剂通过PEI对PD核和氨基部分之间的分子相互作用与基于新型胺基表面活性剂(聚乙烯亚胺,PEI)一起使用。由于这种相互作用,所得ELP Cu对基材上的粘附性显着提高。通过施加特殊表面粗糙化进一步提高ELP Cu的T-剥离粘附。这种特殊的表面处理改变了传统的高锰酸钾DESMER工艺,但省略了膨胀步骤,以保持PID的骨干结构,同时温和地雕塑表面以形成微陨石坑。通过水接触角(WAC),扫描电子显微镜(SEM)和表面分析仪(α步),PID上的ELP-Cu的平均T剥离粘附从185〜571gF / cm使用该方法来增强。我们认为,此过程为高级PCB应用中的下一代SAP铺平了明亮的方式。

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