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Post-CMOS microelectrode fabrication and packaging for on-CMOS electrochemical biosensor array.

机译:CMOS后电化学微传感器制造和封装,用于CMOS电化学生物传感器阵列。

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摘要

Miniaturized biosensor arrays are attractive for parallel analysis of multiple parameters and targets. Without the need for bulky bench-top instruments the miniaturized sensor arrays enable many applications such as DNA testing, drug screening, antibody and protein analysis and biosensing. With the advance of CMOS technology and microfabrication it becomes possible to integrate and miniaturize the sensors and CMOS electronics on a single chip. The integration work involves multidisciplinary knowledge including CMOS design, biosensing and biointerface, post-CMOS microfabrication and packaging. In this thesis, it seeks to overcome the challenges in the post-CMOS fabrication and packaging to interface with the CMOS electronics. Specifically, for the first time, CMOS-compatible die-level photolithography was characterized and developed besides wafer-level photolithography. The photolithographic photoresist spin coating was carried on 1.5x1.5mm2 and 3x3mm 2 silicon substrates and characterized. Then, the result was later applied to the fabrication of on-CMOS microelectrode array. After that, to enable on-CMOS biosensor measurement, the CMOS die with on-CMOS microelectrode array was wire-bonded into ceramic package and properly insulated by parylene. A novel masking method was developed to selectively etch away parylene to expose on-CMOS electrode to form biointerface. The cytochrome C biointerface was formed and characterized on CMOS to verify the functionality of the packaging and electronics. The instrumentation and post-CMOS fabrication processes reported here are suitable for forming single-chip electrochemical analysis microsystems with a wide range of biological and chemical sensor interfaces.
机译:小型化的生物传感器阵列对于多个参数和目标的并行分析具有吸引力。无需笨重的台式仪器,小型化的传感器阵列可实现许多应用,例如DNA测试,药物筛选,抗体和蛋白质分析以及生物传感。随着CMOS技术和微细加工的发展,将传感器和CMOS电子器件集成和小型化成为可能。集成工作涉及多学科知识,包括CMOS设计,生物传感和生物界面,后CMOS微细加工和封装。在这篇论文中,它试图克服在后CMOS制造和封装中与CMOS电子器件接口的挑战。具体而言,除晶片级光刻技术外,首次表征和开发了与CMOS兼容的裸片级光刻技术。在1.5×1.5mm 2和3×3mm 2的硅衬底上进行光刻胶旋涂并表征。然后,将结果随后应用于CMOS上微电极阵列的制造。之后,为了进行CMOS生物传感器的测量,将带有CMOS微电极阵列的CMOS管芯引线键合到陶瓷封装中,并用聚对二甲苯适当绝缘。开发了一种新颖的掩膜方法,以选择性地蚀刻掉聚对二甲苯,以暴露CMOS电极以形成生物界面。形成了细胞色素C生物界面并在CMOS上进行了表征,以验证包装和电子设备的功能。本文报道的仪器和CMOS后制造工艺适用于形成具有广泛的生物和化学传感器接口的单芯片电化学分析微系统。

著录项

  • 作者

    Li, Lin.;

  • 作者单位

    Michigan State University.;

  • 授予单位 Michigan State University.;
  • 学科 Engineering Electronics and Electrical.
  • 学位 M.S.
  • 年度 2012
  • 页码 67 p.
  • 总页数 67
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

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