Developing Microfluidic Sensing Devices Using 3D Printing.
Developing Microfluidic Sensing Devices Using 3D Printing.
复制标题
DOI：
10.1021/acssensors.8b00079
复制
发表时间：
2018-03-23
期刊：
影响因子：
8.9
通讯作者：
Rusling JF
中科院分区：
文献类型：
--
作者：
Rusling JF
这个简短的视角评估了桌面3D打印设计和制造传感器的现状，特别是那些与微流体和多路复用相关的传感器。许多先进的设备已经被报道，本文简要介绍了一些有趣的成果。与竞争对手相比，在低成本的桌面3D打印机上可以更快、更容易地设计和优化微流体。快速原型设计直接导致在同一台3D打印机上制造出最终（可销售的）产品。虽然分辨率不如平版印刷方法，但SLA 3D打印机通常可以获得100 μm左右的通道和特征分辨率，非常适合所需的传感设备。我们团队研究中的两个例子用来说明如何使用3D打印机以及简单的自动化可以将复杂的微流体传感过程减少到更简单的自动化过程。讨论了传感器技术的未来可能性。
This short perspective assesses the present landscape for desktop 3D printing to design and fabricate sensors, in particular, those associated with microfluidics and multiplexing. Lots of advanced devices have already been reported, and this article briefly surveys interesting achievements. Microfluidics can be designed and optimized faster and more easily on low cost desktop 3D printers that with competing methods. Rapid prototyping leads directly to a final (marketable) product fabricated on the same 3D printer. While resolution is not as good as lithographic approaches, very often channel and feature resolution on the order of 100 μm obtainable with SLA 3D printers is perfectly suitable for the desired sensing device. Two examples from our team’s research are used to illustrate how using a 3D printer along with simple automation can reduce a complex microfluidic sensing procedure to a much simpler automated one. Future possibilities for sensor technology are discussed.
登录
查看更多内容
影响因子：
12.6
作者：
Chikkaveeraiah, Bhaskara V.;Mani, Vigneshwaran;Patel, Vyomesh;Gutkind, J. Silvio;Rusling, James F.
通讯作者：
Rusling, James F.
影响因子：
7.4
作者：
Meloni, Gabriel N.
通讯作者：
Meloni, Gabriel N.
3D打印的流体设备中的裸露和DNA涂层的石墨电极处的电化学发光。
影响因子：
8.9
作者：
Bishop GW;Satterwhite-Warden JE;Bist I;Chen E;Rusling JF
通讯作者：
Rusling JF
影响因子：
8.9
作者：
Kadimisetty K;Malla S;Rusling JF
通讯作者：
Rusling JF
影响因子：
7.4
作者：
Gross, Bethany C.;Erkal, Jayda L.;Spence, Dana M.
通讯作者：
Spence, Dana M.