![]() | Nanotech 2007 Vol. 3
Technical Proceedings of the 2007 NSTI Nanotechnology Conference and Trade Show, Volume 3
Chapter 4: Micro and Nano Fluidics |
| - | Fabrication of 1D nanochannels with thin glass wafers for single molecule studies |
| H. Hoang, I. Segers-Nolten, N. Tas, M. de Boer, V. Subramaniam and M. Elwenspoek | |
| Mesa+ Institute for Nanotechnology, NL | |
| - | Nanodroplet Impact on Liquid Substrates via Molecular Dynamics |
| D. Lussier, N.M.P. Kakalis and Y. Ventikos | |
| University of Oxford, UK | |
| - | Embeddable Low-Voltage Micropump using Electroosmosis of the Second Kind |
| T. Heldal, T. Volden, J. Auerswald and H. Knapp | |
| IQ Micro Inc., CH | |
| - | Novel piezo motor enables positive displacement microfluidic pump |
| D. Henderson | |
| New Scale Technologies, US | |
| - | Chaotic advection induced by a magnetic chain in a rotating magnetic field |
| T.G. Kang, M.A. Hulsen, P.D. Anderson, J.M.J den Toonder and H.E.H. Meijer | |
| Eindhoven University of Technology, NL | |
| - | Separation dynamics of binary liquid mixtures - Theory & Experiment |
| P. Truman, F. Varnik, P. Uhlmann, M. Stamm and D. Raabe | |
| Institute of Polymer Research, DE | |
| - | Dynamics and distribution of counterions in the vicinity of a flexible polyelectrolyte |
| T.S. Lo, B. Khusid, J. Koplik and A. Acrivos | |
| New Jersey Institute of Technology, US | |
| - | A Microfluidic Array with Micro Cell Sieves for Cell Cytotoxicity Screening |
| Z.H. Wang, M.C. Kim, M. Marquez and T. Thorsen | |
| Massachusetts Institute of Technology, US | |
| - | Development of Immunoassay Microfluidic Chip Using Serial-flow Method |
| J. Hsieh, H-L Yin, Y-C Huang, H-H Hsu, Y-S Lin and T-T Huang | |
| Instrument Technology Research Center, TW | |
| - | A method for the highly parallel analysis of gene expression of single cells |
| W.R.A. Meuleman, N. Milner, D.W.K. Lueerssen and E.M. Southern | |
| Oxford Gene Technology, UK | |
| - | Automated Microfluidic Chip and System for the Synthesis of Radiopharmaceuticals on Human-Dose Scales |
| R.M. van Dam, A.M. Elizarov, E. Ball, C.K-F Shen, H. Kolb, J. Rolland, L. Diener, D. Williams, B. Edgecombe, T. Stephen and J.R. Heath | |
| Siemens Molecular Imaging Biomarker Research, US | |
| - | Microfluidic Cell Culture System for Live Cell Imaging |
| M.J. Powell, L.K. Higashi, A.A. Cabasug, S.M. Giffin and R.K. Alley | |
| Nanopoint Inc., US | |
| - | Multifunctional Microvalves Control by Optical Illumination on Nanoheaters and its Application in Centrifugal Microfluidic Devices |
| J-M Park, Y-K Cho, B-S Lee, J-G Lee and C. Ko | |
| Samsung Advanced Institute of Technology, KR | |
| - | Methods of energizing micro flows by acoustic and electric fields |
| F. Schönfeld, D. Dadic, S. Hardt, R. Püschl and F. Schmitz | |
| Institut für Mikrotechnik Mainz / IMM, DE | |
| - | Droplet-based Segregation and Extraction of Concentrated Samples |
| C.R. Buie, P. Buckley, J. Hamilton, K.D. Ness and K.A. Rose | |
| Lawrence Livermore National Laboratory, US | |
| - | Liquid transport detection using single FET devices |
| P. Truman, P. Uhlmann and M. Stamm | |
| Institute of Polymer Research, DE | |
| - | Numerical and Experimental Investigation of Three-Dimensional Hydrodynamic Focusing in Polydimethylsiloxane (PDMS) Microchannels |
| C-C Chang and R-J Yang | |
| National Cheng Kung University, TW | |
| - | Molecular Dynamics Simulations of Nano-Droplet Wetting on a Solid Surface |
| N. Sedighi, S. Murad and S.K. Aggarwal | |
| University of Illinois at Chicago, US | |
| - | Lithographic fabricated ultra hydrophobic and porous plant-like surfaces for bio chip applications |
| O. Mertsch, A.D. Walter, B. Loechel and D. Schondelmaier | |
| BESSY GmbH, DE | |
| - | A Microfluidic Mixer for Chaotic Mixing of Magnetic Particles |
| M. Zolgharni, S.M. Azimi, M.R. Bahmanyar and W. Balachandran | |
| Brunel University, UK | |
| - | Enhancement of micro-flow mixing using DC nonlinear electrokinetic vortices |
| J-K Chen and R-J Yang | |
| National Cheng Kung University, TW | |
| - | Quick “easy?!” determination of the diameter of nanocapillaries |
| A. Lutfurakhmanov, R. Sailer, I. Akhatov and D.L. Schulz | |
| North Dakota State University, US | |
| - | Scaling Relation between Current through Suspensions of Carbon-doped TiO2 Nanoparticles in Silicone Oil and Reciprocal of Shear Rate under Combined Electric and Shear Fields |
| Z.Y. Qiu, Y. Shen, L.W. Zhou and Y.H. Zhu | |
| City College of New York, US | |
| - | A Microsystem and Model for Continuous Immunomagnetic Cell Sorting |
| E.P. Furlani | |
| University at Buffalo (SUNY), US | |
| - | Simulation on biological cell transport in the microfluidic devices |
| M.C. Kim, Z.H. Wang, R.H.W. Lam and T. Thorsen | |
| Massachusetts Institute of Technology, US | |
| - | Three-Dimensional Transient Motion of Spherical and Deformable Droplet in L-Shaped Rectangular Microchannel |
| C.W. Kang, J.S. Hua and J. Lou | |
| Institute of High Performance Computing, SG | |
| - | A Microfluidic Device for Opto-Electrochemical Sensing |
| T.-J.M. Luo, Y. Choi and U. Huh | |
| North Carolina State University, US | |
| - | Using epoxy resin to fabricate a master for microfluidic devices in poly(dimethylsiloxane) |
| Y-J Pan and R-J Yang | |
| National Cheng Kung University, TW | |
| - | 200um-class Polymeric Microneedle Fabricated by a Micro Injection Molding Technique |
| J-J Kang, S-H Lee, T-S Jung and Y-M Heo | |
| Korea Institute of Industrial Technology, KR | |
| - | Control of Micro-Fluidic Flow using 3D Features |
| L.E. Bullock and A.E. Robinson | |
| University of Massachusetts Dartmouth, US | |
| - | Design & Fabrication of Ceramic Microarrays Using Powder Injection Molding |
| S.V. Atre, C. Wu, S.J. Park and K. Simmons | |
| Oregon Nanoscience & Microtechnologies Institute, US | |
| - | New sample injection methods for chip electrophoresis |
| A. Gaspar, M. Piyasena and F.A. Gomez | |
| California State University Los Angeles, US | |
| - | Combining Additive and Substractive techniques in the design and fabrication of Microfluidic devices |
| L. Levine | |
| ALine, Inc., US | |
| - | Magnetically Controlled Valve for Flow Manipulation in Polymeric Microfluidic Devices |
| A. Gaspar, M.E. Piyasena and F.A. Gomez | |
| California State University, Los Angeles, US | |
| - | Design, Fabrication & Testing of a Ceramic Microreactor for Nanoparticle Synthesis |
| K. Jain, C. Wu, S. Atre, S. Kimura, G. Jovanovic, V. Sprenkle, N. Canfield, V. Narayanan and S. Roy | |
| Oregon Nanoscience & Microtechnologies Institute, US | |
| - | Micro and nano flow usage in future nuclear reactors |
| L. Popa-Simil | |
| LAVM Inc., US | |
| - | On-site Screening of Avian Influenza Virus (AIV) by Polystyrene Microfluidic Chip Immunoassay |
| Y. Zhao, M. Zou, Q. Xue and P. Zhou | |
| The Chinese Academy of Inspection and Quarantine, CN | |
| - | Pattern Characteristic by Electrostatic Drop-On-Demand Ink-jet Printing Using Capillary Inkjet Head System |
| J. Choi, S.U. Son, Y. Kim, S. Lee, Y. Kim, H.S. Ko and D. Byun | |
| Sungkyunkwan University, KR | |
| - | Levitation of a Charged Microdroplet |
| A. Schildknecht and E.P. Hofer | |
| University of Ulm, DE | |
| - | Fabrication and Application in Microfluidics of Novel Transparent Preceramic Polymer Derived Glass Microcannels and Substrates |
| D-P Kim, J-H Park and J. Perumal | |
| Chungnam National University, KR | |
| - | A platform for assembly of electro-hydrodynamic microfluidics |
| A. Kumar, B. Khusid, C. James and A. Acrivos | |
| New Jersey Institute of Technology, US | |
| - | Filtration and emulsification with nanoengineered membranes |
| C.J.M. van Rijn and W. Nijdam | |
| University of Wageningen, NL | |
| - | Microfluidic Valve-Controllable Magnetic Bead Receptacle: A Novel Platform for DNA Sequencing |
| H. Esfandyarpour and R.W. Davis | |
| Stanford Genome Technology Center, US | |
| - | Chaotic mixing using periodic and aperiodic sequences of mixing protocols in a micromixer |
| T.G. Kang, M.K. Singh, T.H. Kwon and P.D. Anderson | |
| Eindhoven University of Technology, NL | |
| - | Fixed-Valve Micropump Simulation and Optimization |
| F.K. Forster and T. Walter | |
| University of Washington, US | |
| - | Particle Electrophoresis in Closed-both-end Capillary and Likely Charged Particle Aggregation Induced by AC Electric Field |
| Z.Y. Qiu and Y. Shen | |
| City College of New York, US | |
| ISBN: | 1-4200-6184-4 |
| Pages: | 732 |
| Hardcopy: | $139.95 |
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