Literature DB >> 17117379

Sacrificial layer microfluidic device fabrication methods.

Bridget A Peeni1, Milton L Lee, Aaron R Hawkins, Adam T Woolley.   

Abstract

Over the past 15 years, research in the field of microfluidics has experienced rapid growth due to significant potential advantages such as low cost, short analysis times, and elimination of sources of contamination. Although etched and thermally bonded glass substrates have seen widespread use and offer solid performance, device fabrication still remains cumbersome. Recent advances in sacrificial layer microfabrication methods for microfluidics have overcome many disadvantages of conventional fabrication approaches. Phase-changing sacrificial layers have been implemented in making inexpensive and high-performance polymer microchips for electrophoretic analysis, protein focusing, and sample preconcentration. In addition, novel channel fabrication methods based on standard thin-film processes, which are readily integratable with microfabrication techniques used for electrical components, are being applied increasingly for the creation of microfluidic devices. These new sacrificial layer fabrication approaches will be instrumental in making low-cost and high-quality polymer microchips, and in interfacing electrical and fluidic systems on glass or semiconductor substrates.

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Year:  2006        PMID: 17117379      PMCID: PMC1751289          DOI: 10.1002/elps.200600399

Source DB:  PubMed          Journal:  Electrophoresis        ISSN: 0173-0835            Impact factor:   3.535


  18 in total

1.  New approaches for fabrication of microfluidic capillary electrophoresis devices with on-chip conductivity detection.

Authors:  R M Guijt; E Baltussen; G van der Steen; R B Schasfoort; S Schlautmann; H A Billiet; J Frank; G W van Dedem; A van den Berg
Journal:  Electrophoresis       Date:  2001-01       Impact factor: 3.535

2.  Plastic advances microfluidic devices.

Authors:  Travis D Boone; Z Hugh Fan; Herbert H Hooper; Antonio J Ricco; Hongdong Tan; Stephen J Williams
Journal:  Anal Chem       Date:  2002-02-01       Impact factor: 6.986

Review 3.  Micro total analysis systems. 1. Introduction, theory, and technology.

Authors:  Darwin R Reyes; Dimitri Iossifidis; Pierre-Alain Auroux; Andreas Manz
Journal:  Anal Chem       Date:  2002-06-15       Impact factor: 6.986

4.  Microchip capillary electrophoresis with a boron-doped diamond electrode for rapid separation and detection of purines.

Authors:  Joseph Wang; Gang Chen; Alexander Muck; Dongchan Shin; Akira Fujishima
Journal:  J Chromatogr A       Date:  2004-01-02       Impact factor: 4.759

Review 5.  Biochemical analysis with microfluidic systems.

Authors:  Ursula Bilitewski; Meike Genrich; Sabine Kadow; Gaber Mersal
Journal:  Anal Bioanal Chem       Date:  2003-09-02       Impact factor: 4.142

6.  Thin-film polymer light emitting diodes as integrated excitation sources for microscale capillary electrophoresis.

Authors:  Joshua B Edel; Nigel P Beard; Oliver Hofmann; John C deMello; Donal D C Bradley; Andrew J deMello
Journal:  Lab Chip       Date:  2004-02-04       Impact factor: 6.799

Review 7.  Why the move to microfluidics for protein analysis?

Authors:  Niels Lion; Frédéric Reymond; Hubert H Girault; Joël S Rossier
Journal:  Curr Opin Biotechnol       Date:  2004-02       Impact factor: 9.740

8.  Planar chip device for PCR and hybridization with surface acoustic wave pump.

Authors:  Zeno Guttenberg; Helena Muller; Heiko Habermüller; Andreas Geisbauer; Jürgen Pipper; Jana Felbel; Mark Kielpinski; Jürgen Scriba; Achim Wixforth
Journal:  Lab Chip       Date:  2004-12-16       Impact factor: 6.799

9.  Planar thin film device for capillary electrophoresis.

Authors:  B A Peeni; D B Conkey; J P Barber; R T Kelly; M L Lee; A T Woolley; A R Hawkins
Journal:  Lab Chip       Date:  2005-03-23       Impact factor: 6.799

10.  A microfluidic platform using molecular beacon-based temperature calibration for thermal dehybridization of surface-bound DNA.

Authors:  Arash Dodge; Gerardo Turcatti; Isabelle Lawrence; Nico F de Rooij; Elisabeth Verpoorte
Journal:  Anal Chem       Date:  2004-03-15       Impact factor: 6.986

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  7 in total

1.  Electroosmotic flow in vapor deposited silicon dioxide and nitride microchannels.

Authors:  Mark N Hamblin; John M Edwards; Milton L Lee; Adam T Woolley; Aaron R Hawkins
Journal:  Biomicrofluidics       Date:  2007-07-09       Impact factor: 2.800

2.  Optofluidic waveguides: II. Fabrication and structures.

Authors:  Aaron R Hawkins; Holger Schmidt
Journal:  Microfluid Nanofluidics       Date:  2007-07-19       Impact factor: 2.529

3.  Rapid and inexpensive fabrication of polymeric microfluidic devices via toner transfer masking.

Authors:  Christopher J Easley; Richard K P Benninger; Jesse H Shaver; W Steven Head; David W Piston
Journal:  Lab Chip       Date:  2009-01-19       Impact factor: 6.799

4.  Aerosol-jet printing facilitates the rapid prototyping of microfluidic devices with versatile geometries and precise channel functionalization.

Authors:  Nordin Ćatić; Laura Wells; Kareem Al Nahas; Michael Smith; Qingshen Jing; Ulrich F Keyser; Jehangir Cama; Sohini Kar-Narayan
Journal:  Appl Mater Today       Date:  2020-06

Review 5.  The Use of Microfabrication Techniques for the Design and Manufacture of Artificial Stem Cell Microenvironments for Tissue Regeneration.

Authors:  David H Ramos-Rodriguez; Sheila MacNeil; Frederik Claeyssens; Ilida Ortega Asencio
Journal:  Bioengineering (Basel)       Date:  2021-04-23

Review 6.  Print-and-peel fabrication for microfluidics: what's in it for biomedical applications?

Authors:  Marlon S Thomas; Brent Millare; Joseph M Clift; Duoduo Bao; Connie Hong; Valentine I Vullev
Journal:  Ann Biomed Eng       Date:  2009-11-07       Impact factor: 3.934

7.  Fabrication and testing of polymer-based capacitive micromachined ultrasound transducers for medical imaging.

Authors:  Carlos D Gerardo; Edmond Cretu; Robert Rohling
Journal:  Microsyst Nanoeng       Date:  2018-08-27       Impact factor: 7.127

  7 in total

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