核磁共振
核磁共振波谱
纳米技术
微流控
磁共振成像
实验室晶片
灵活性(工程)
光谱学
模态(人机交互)
旋转
核磁矩
灵敏度(控制系统)
微流控芯片
材料科学
计算机科学
物理
工程类
磁场
电子工程
磁化
自旋磁矩
人工智能
医学
量子力学
放射科
数学
统计
凝聚态物理
出处
期刊:Lab on a Chip
[Royal Society of Chemistry]
日期:2008-10-16
卷期号:9 (1): 17-23
被引量:27
摘要
This mini-review is focused on the use of nuclear magnetic resonance (NMR) spectroscopy and imaging to study processes on lab-on-a-chip devices. NMR as an analytical tool is unmatched in its impact across nearly every area of science, from biochemistry and medicine to fundamental chemistry and physics. The controls available to the NMR spectroscopist or imager are vast, allowing for everything from high level structural determination of proteins in solution to detailed contrast imaging of organs in-vivo. Unfortunately, the weak nuclear magnetic moment of the nucleus requires that a very large number of spins be present for an inductively detectable signal, making the use of magnetic resonance as a detection modality for microfluidic devices especially challenging. Here we present recent efforts to combat the inherent sensitivity limitation of magnetic resonance for lab-on-a-chip applications. Principles and examples of different approaches are presented that highlight the flexibility and advantages of this type of detection modality.
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