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1 Fuchiwaki, Y., "Study of a Liquid Plug-Flow Thermal Cycling Technique Using a Temperature Gradient-Based Actuator" 14 (14): 20235-20244, 2014
2 Ognjanović, M., "Reliability for Design of Planetary Gear Drive Units" 49 (49): 829-841, 2014
3 Hashimoto, M., "Rapid Pcr in a Continuous Flow Device" 4 (4): 638-645, 2004
4 Becker, H., "Polymer Microfabrication Methods for Microfluidic Analytical Applications" 21 (21): 12-26, 2000
5 Koch, C., "PDMS and Tubing-Based Peristaltic Micropumps with Direct Actuation" 135 (135): 664-670, 2009
6 Tachibana, H., "On-Chip Quantitative Detection of Pathogen Genes by Autonomous Microfluidic PCR Platform" 74 : 725-730, 2015
7 Skafte-Pedersen, P., "Multi-Channel Peristaltic Pump for Microfluidic Applications Featuring Monolithic PDMS Inlay" 9 (9): 3003-3006, 2009
8 Chee, P. S., "Modular Architecture of a Non-Contact Pinch Actuation Micropump" 12 (12): 12572-12587, 2012
9 Woias, P., "Micropumps-Past, Progress and Future Prospects" 105 (105): 28-38, 2005
10 Jiang, X., "Microfluidic Chip Integrating High Throughput Continuous-Flow PCR and DNA Hybridization For Bacteria Analysis" 122 : 246-250, 2014
11 Lee, K. S., "Microfluidic Chemostat and Turbidostat with Flow Rate, Oxygen, and Temperature Control for Dynamic Continuous Culture" 11 (11): 1730-1739, 2011
12 Shen, M., "Magnetic Active-Valve Micropump Actuated by a Rotating Magnetic Assembly" 154 (154): 52-58, 2011
13 B. Leticia Fernández-Carballo, "Low-cost, real-time, continuous flow PCR system for pathogen detection" Springer Nature 18 (18): 2016
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19 Romoli, L., "Experimental Approach to the Laser Machining of PMMA Substrates for the Fabrication of Microfluidic Devices" 49 (49): 419-427, 2011
20 Schäpper, D., "Development of a Single-Use Microbioreactor for Cultivation of Microorganisms" 160 (160): 891-898, 2010
21 My Pham, "Development of a Peristaltic Micropump with Lightweight Piezo-Composite Actuator Membrane Valves" 한국항공우주학회 12 (12): 69-77, 2011
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24 Shallan, A. I., "Cost-Effective Three-Dimensional Printing of Visibly Transparent Microchips within Minutes" 86 (86): 3124-3130, 2014
25 Paydar, O. H., "Characterization of 3D-Printed Microfluidic Chip Interconnects with Integrated O-Rings" 205 : 199-203, 2014
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27 Ni, J., "An Integrated Planar Magnetic Micropump" 117 : 35-40, 2014
28 Zhou, Y., "An Electromagnetically-Actuated All-Pdms Valveless Micropump for Drug Delivery" 2 (2): 345-355, 2011
29 Zhang, X., "A Valve-Less Microfluidic Peristaltic Pumping Method" 9 (9): 014118-, 2015
30 Du, M., "A Peristaltic Micro Pump Driven by a Rotating Motor with Magnetically Attracted Steel Balls" 9 (9): 2611-2620, 2009
31 Cazorla, P. -H., "A Low Voltage Silicon Micro-Pump Based on Piezoelectric Thin Films" 250 : 35-39, 2016
32 Wu, M. -H., "A High Throughput Perfusion-Based Microbioreactor Platform Integrated with Pneumatic Micropumps for Three-Dimensional Cell Culture" 10 (10): 309-319, 2008
33 Nguyen, N. -T., "A Fully Polymeric Micropump with Piezoelectric Actuator" 97 (97): 137-143, 2004
34 Alam, M. N. H. Z., "A Continuous Membrane Microbioreactor System for Development of Integrated Pectin Modification and Separation Processes" 167 (167): 418-426, 2011
35 Hwang, Y., "3D Printed Molds for Non-Planar PDMS Microfluidic Channels" 226 : 137-142, 2015