Literature DB >> 15052350

Polyimide and SU-8 microfluidic devices manufactured by heat-depolymerizable sacrificial material technique.

S Metz1, S Jiguet, A Bertsch, Ph Renaud.   

Abstract

The following paper describes a sacrificial layer method for the manufacturing of microfluidic devices in polyimide and SU-8. The technique uses heat-depolymerizable polycarbonates embedded in polyimide or SU-8 for the generation of microchannels and sealed cavities. The volatile decomposition products originating from thermolysis of the sacrificial material escape out of the embedding material by diffusion through the cover layer. The fabrication process was studied experimentally and theoretically with a focus on the decomposition of the sacrificial materials and their diffusion through the polyimide or SU-8 cover layer. It is demonstrated that the sacrificial material removal process is independent of the actual channel geometry and advances linearly with time unlike conventional sacrificial layer techniques. The fabrication method provides a versatile and fast technique for the manufacturing of microfluidic devices for applications in the field of microTAS and Lab-on-a-Chip.

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Year:  2004        PMID: 15052350     DOI: 10.1039/b310866j

Source DB:  PubMed          Journal:  Lab Chip        ISSN: 1473-0189            Impact factor:   6.799


  8 in total

1.  Complex three-dimensional high aspect ratio microfluidic network manufactured in combined PerMX dry-resist and SU-8 technology.

Authors:  Robert Ch Meier; Vlad Badilita; Jens Brunne; Ulrike Wallrabe; Jan G Korvink
Journal:  Biomicrofluidics       Date:  2011-08-05       Impact factor: 2.800

2.  A practical guide for the fabrication of microfluidic devices using glass and silicon.

Authors:  Ciprian Iliescu; Hayden Taylor; Marioara Avram; Jianmin Miao; Sami Franssila
Journal:  Biomicrofluidics       Date:  2012-03-05       Impact factor: 2.800

3.  Optimized piranha etching process for SU8-based MEMS and MOEMS construction.

Authors:  Matthew Holmes; Jared Keeley; Katherine Hurd; Holger Schmidt; Aaron Hawkins
Journal:  J Micromech Microeng       Date:  2010-11-01       Impact factor: 1.881

4.  Enhanced Detection of Single Viruses On-Chip via Hydrodynamic Focusing.

Authors:  Jennifer A Black; Erik Hamilton; Raúl A Reyes Hueros; Joshua W Parks; Aaron R Hawkins; Holger Schmidt
Journal:  IEEE J Sel Top Quantum Electron       Date:  2018-07-09       Impact factor: 4.544

Review 5.  Microfluidic-Based Single-Cell Study: Current Status and Future Perspective.

Authors:  Haiwa Wu; Jing Zhu; Yao Huang; Daming Wu; Jingyao Sun
Journal:  Molecules       Date:  2018-09-13       Impact factor: 4.411

6.  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 7.  Flexible Microfluidics: Fundamentals, Recent Developments, and Applications.

Authors:  Hedieh Fallahi; Jun Zhang; Hoang-Phuong Phan; Nam-Trung Nguyen
Journal:  Micromachines (Basel)       Date:  2019-11-29       Impact factor: 2.891

8.  Study of the Fabrication Technology of Hybrid Microfluidic Biochips for Label-Free Detection of Proteins.

Authors:  Nikita Sitkov; Tatiana Zimina; Alexey Kolobov; Evgeny Sevostyanov; Valentina Trushlyakova; Viktor Luchinin; Alexander Krasichkov; Oleg Markelov; Michael Galagudza; Dmitry Kaplun
Journal:  Micromachines (Basel)       Date:  2021-12-24       Impact factor: 2.891

  8 in total

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