针对生物流体的小型化传感系统的设备加工挑战。

S Stoukatch, F Dupont, J-M Redouté
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引用次数: 0

摘要

本文介绍了用于生物医学系统制造的器件加工技术,并强调了先进制造技术的要求。我们专注于生物医学系统,执行流体标本的诊断,分析物是在液相。在引言中,我们定义了生物医学系统及其多功能应用和基本的当前趋势。本文概述了在几种应用中通常必须检测或分析的最重要的生物分子。本文的结构如下。首先,介绍了生物传感系统的常规结构和结构。我们提供了目前用于生物分子检测及其分析的最常见的生物传感方法的概述。本文对生物芯片的报道进行了综述,并解释了生物功能化技术和检测原理,包括其相应的优点和缺点。接下来,我们将介绍微流体作为一种将样品输送到生物芯片传感区域的方法。一个特别的重点在于材料的要求和制造技术,制造微流体系统,既为利基和大规模生产环节。我们提出了集成生物芯片和微流控系统的要求和限制。对传统的微装配技术和加工方法对整个生物医学系统及其特定部件可能产生的影响也进行了描述。在此基础上,我们解释了替代微组装技术的需求,以使生物芯片和微流体系统集成到功能齐全的系统中。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Device Processing Challenges for Miniaturized Sensing Systems Targeting Biological Fluids.

This article presents a review of device processing technologies used in the fabrication of biomedical systems, and highlights the requirements of advanced manufacturing technology. We focus on biomedical systems that perform diagnostics of fluidic specimens, with analytes that are in the liquid phase. In the introduction, we define biomedical systems as well as their versatile applications and the essential current trends. The paper gives an overview of the most important biomolecules that typically must be detected or analyzed in several applications. The paper is structured as follows. First, the conventional architecture and construction of a biosensing system is introduced. We provide an overview of the most common biosensing methods that are currently used for the detection of biomolecules and its analysis. We present an overview of reported biochips, and explain the technology of biofunctionalization and detection principles, including their corresponding advantages and disadvantages. Next, we introduce microfluidics as a method for delivery of the specimen to the biochip sensing area. A special focus lies on material requirements and on manufacturing technology for fabricating microfluidic systems, both for niche and mass-scale production segments. We formulate requirements and constraints for integrating the biochips and microfluidic systems. The possible impacts of the conventional microassembly techniques and processing methods on the entire biomedical system and its specific parts are also described. On that basis, we explain the need for alternative microassembly technologies to enable the integration of biochips and microfluidic systems into fully functional systems.

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