References
143
83. F. Malloggi, S.A. Vanapalli, H. Gu, D. van den Ende, F. Mugele, Electrowetting-controlled
droplet generation in a microfluidic flow-focusing device. J. Phys. Condens. Matter 19(46),
462101 (2007)
84. F. Malloggi, H. Gu, A. Banpurkar, S. Vanapalli, F. Mugele, Electrowetting–a versatile tool for
controlling microdrop generation. Eur. Phys. J. E 26(1–2), 91–96 (2008)
85. D. Mark, S. Haeberle, G. Roth, F. von Stetten, R. Zengerle, Microfluidic Lab-on-a-Chip
platforms: requirements, characteristics and applications. Chem. Soc. Rev. 39(3), 1153–1182
(2010)
86. J. McDaniel, B. Crites, P. Brisk, W.H. Grover, Flow-layer physical design for microchips
based on monolithic membrane valves. J. Des. Test 32(6), 51–59 (2015)
87. W.H. Minhass, P. Pop, J. Madsen, System-level modeling and synthesis of flow-based
microfluidic biochips, in International Conference on Compilers, Architecture and Synthesis
for Embedded Systems (2011), pp. 225–233
88. W.H. Minhass, P. Pop, J. Madsen, F.S. Blaga, Architectural synthesis of flow-based microfluidic large-scale integration biochips, in International Conference on Compilers, Architecture
and Synthesis for Embedded Systems (2012), pp. 181–190
89. D. Mitra, S. Roy, S. Bhattacharjee, K. Chakrabarty, B.B. Bhattacharya, On-chip sample
preparation for multiple targets using digital microfluidics. Trans. Comput. Aided Des. Integr.
Circuits Syst. 33(8), 1131–1144 (2014)
90. T. Mohamed, T. Hoang, M. Jelokhani-Niaraki, P.P. Rao, Tau-derived-hexapeptide
306vqivyk311 aggregation inhibitors: nitrocatechol moiety as a pharmacophore in drug
design. ACS Chem. Neurosci. 4(12), 1559–1570 (2013)
91. G.E. Moore, Cramming more components onto integrated circuits. Electronics 38(8), 114–
117 (1965)
92. T.H. Nguyen, X. Chen, A. Sedighi, U.J. Krull, C.L. Ren, A droplet-based microfluidic
platform for rapid immobilization of quantum dots on individual magnetic microbeads.
Microfluid. Nanofluid. 22(6), 63 (2018)
93. K.W. Oh, K. Lee, B. Ahn, E.P. Furlani, Design of pressure-driven microfluidic networks using
electric circuit analogy. Lab Chip 12(3), 515–545 (2012)
94. G. Paschew, J. Schreiter, A. Voigt, C. Pini, J.P. Chávez, M. Allerdißen, U. Marschner,
S. Siegmund, R. Schüffny, F. Jülicher et al., Autonomous chemical oscillator circuit based
on bidirectional chemical-microfluidic coupling. Adv. Mater. Technol. 1(1), 1600005 (2016)
95. S. Poddar, S. Ghoshal, K. Chakrabarty, B.B. Bhattacharya, Error-correcting sample preparation with cyberphysical digital microfluidic Lab-on-Chip. Trans. Des. Autom. Electron. Syst.
22(1), 2 (2016)
96. M.G. Pollack, A.D. Shenderov, R.B. Fair, Electrowetting-based actuation of droplets for
integrated microfluidics. Lab Chip 2(2), 96–101 (2002)
97. P. Pop, I.E. Araci, K. Chakrabarty, Continuous-flow biochips: technology, physical-design
methods, and testing. J. Des. Test 32(6), 8–19 (2015)
98. M. Prakash, N. Gershenfeld, Microfluidic bubble logic. Science 315(5813), 832–835 (2007)
99. S. Roy, B.B. Bhattacharya, S. Ghoshal, K. Chakrabarty, High-throughput dilution engine for
sample preparation on digital microfluidic biochips. IET Comput. Digit. Tech. 8(4), 163–171
(2014)
100. E.K. Sackmann, A.L. Fulton, D.J. Beebe, The present and future role of microfluidics in
biomedical research. Nature 507(7491), 181 (2014)
101. M. Schindler, A. Ajdari, Droplet traffic in microfluidic networks: a simple model for
understanding and designing. Phys. Rev. Lett. 100(4), 044501 (2008)
102. M.F. Schmidt, Microfluidic flow-based biochips (2012). https://sites.google.com/site/
mlsibiochips/
103. M.F. Schmidt, W.H. Minhass, P. Pop, J. Madsen, Modeling and simulation framework for
flow-based microfluidic biochips, in Symposium on Design, Test, Integration & Packaging of
MEMS/MOEMS (2013), pp. 1–6
104. R. Seemann, M. Brinkmann, T. Pfohl, S. Herminghaus, Droplet based microfluidics. Rep.
Prog. Phys. 75(1), 016601 (2011)
143
83. F. Malloggi, S.A. Vanapalli, H. Gu, D. van den Ende, F. Mugele, Electrowetting-controlled
droplet generation in a microfluidic flow-focusing device. J. Phys. Condens. Matter 19(46),
462101 (2007)
84. F. Malloggi, H. Gu, A. Banpurkar, S. Vanapalli, F. Mugele, Electrowetting–a versatile tool for
controlling microdrop generation. Eur. Phys. J. E 26(1–2), 91–96 (2008)
85. D. Mark, S. Haeberle, G. Roth, F. von Stetten, R. Zengerle, Microfluidic Lab-on-a-Chip
platforms: requirements, characteristics and applications. Chem. Soc. Rev. 39(3), 1153–1182
(2010)
86. J. McDaniel, B. Crites, P. Brisk, W.H. Grover, Flow-layer physical design for microchips
based on monolithic membrane valves. J. Des. Test 32(6), 51–59 (2015)
87. W.H. Minhass, P. Pop, J. Madsen, System-level modeling and synthesis of flow-based
microfluidic biochips, in International Conference on Compilers, Architecture and Synthesis
for Embedded Systems (2011), pp. 225–233
88. W.H. Minhass, P. Pop, J. Madsen, F.S. Blaga, Architectural synthesis of flow-based microfluidic large-scale integration biochips, in International Conference on Compilers, Architecture
and Synthesis for Embedded Systems (2012), pp. 181–190
89. D. Mitra, S. Roy, S. Bhattacharjee, K. Chakrabarty, B.B. Bhattacharya, On-chip sample
preparation for multiple targets using digital microfluidics. Trans. Comput. Aided Des. Integr.
Circuits Syst. 33(8), 1131–1144 (2014)
90. T. Mohamed, T. Hoang, M. Jelokhani-Niaraki, P.P. Rao, Tau-derived-hexapeptide
306vqivyk311 aggregation inhibitors: nitrocatechol moiety as a pharmacophore in drug
design. ACS Chem. Neurosci. 4(12), 1559–1570 (2013)
91. G.E. Moore, Cramming more components onto integrated circuits. Electronics 38(8), 114–
117 (1965)
92. T.H. Nguyen, X. Chen, A. Sedighi, U.J. Krull, C.L. Ren, A droplet-based microfluidic
platform for rapid immobilization of quantum dots on individual magnetic microbeads.
Microfluid. Nanofluid. 22(6), 63 (2018)
93. K.W. Oh, K. Lee, B. Ahn, E.P. Furlani, Design of pressure-driven microfluidic networks using
electric circuit analogy. Lab Chip 12(3), 515–545 (2012)
94. G. Paschew, J. Schreiter, A. Voigt, C. Pini, J.P. Chávez, M. Allerdißen, U. Marschner,
S. Siegmund, R. Schüffny, F. Jülicher et al., Autonomous chemical oscillator circuit based
on bidirectional chemical-microfluidic coupling. Adv. Mater. Technol. 1(1), 1600005 (2016)
95. S. Poddar, S. Ghoshal, K. Chakrabarty, B.B. Bhattacharya, Error-correcting sample preparation with cyberphysical digital microfluidic Lab-on-Chip. Trans. Des. Autom. Electron. Syst.
22(1), 2 (2016)
96. M.G. Pollack, A.D. Shenderov, R.B. Fair, Electrowetting-based actuation of droplets for
integrated microfluidics. Lab Chip 2(2), 96–101 (2002)
97. P. Pop, I.E. Araci, K. Chakrabarty, Continuous-flow biochips: technology, physical-design
methods, and testing. J. Des. Test 32(6), 8–19 (2015)
98. M. Prakash, N. Gershenfeld, Microfluidic bubble logic. Science 315(5813), 832–835 (2007)
99. S. Roy, B.B. Bhattacharya, S. Ghoshal, K. Chakrabarty, High-throughput dilution engine for
sample preparation on digital microfluidic biochips. IET Comput. Digit. Tech. 8(4), 163–171
(2014)
100. E.K. Sackmann, A.L. Fulton, D.J. Beebe, The present and future role of microfluidics in
biomedical research. Nature 507(7491), 181 (2014)
101. M. Schindler, A. Ajdari, Droplet traffic in microfluidic networks: a simple model for
understanding and designing. Phys. Rev. Lett. 100(4), 044501 (2008)
102. M.F. Schmidt, Microfluidic flow-based biochips (2012). https://sites.google.com/site/
mlsibiochips/
103. M.F. Schmidt, W.H. Minhass, P. Pop, J. Madsen, Modeling and simulation framework for
flow-based microfluidic biochips, in Symposium on Design, Test, Integration & Packaging of
MEMS/MOEMS (2013), pp. 1–6
104. R. Seemann, M. Brinkmann, T. Pfohl, S. Herminghaus, Droplet based microfluidics. Rep.
Prog. Phys. 75(1), 016601 (2011)