The development of polymeric devices as dielectrophoretic separators and concentrators

被引:41
作者
Simmons, BA
McGraw, GJ
Davalos, RV
Fiechtner, GJ
Fintschenko, Y
Cummings, EB
机构
关键词
biomedical; dielectrophoresis; fluidics; microscale; polymer;
D O I
10.1557/mrs2006.26
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Efficient and reliable particle separators and concentrators are needed to support a wide range of analytical functions including pathogen detection, sample preparation, high-throughput particle sorting, and biomedical diagnostics. The advent of lab-on-a-chip devices based on the phenomenon of dielectrophoresis offers advantages that can meet several of the challenges associated with cell sorting and detection. The majority of the devices presented in the scientific literature have used glass-based devices for these applications, but there has been recent activity that indicates that polymer-based devices can operate as effectively as their glass progenitors. Processing and operational advantages motivate the transition from glass and silicon to polymer microdevices: mechanical robustness, economy of scale, ease of thermotorming and mass manufacturing, and the availability of numerous innate chemical polymer compositions for tailoring performance. We present here a summary of the developments toward, and results obtained from, these polymeric dielectrophoretic devices in the selective trapping, concentration, and gated release of a range of biological organisms and particles.
引用
收藏
页码:120 / 124
页数:5
相关论文
共 50 条
[1]   Real-time virus trapping and fluorescent imaging in microfluidic devices [J].
Akin, D ;
Li, HB ;
Bashir, R .
NANO LETTERS, 2004, 4 (02) :257-259
[2]   Levitation and movement of human tumor cells using a printed circuit board device based on software-controlled dielectrophoresis [J].
Altomare, L ;
Borgatti, M ;
Medoro, G ;
Manaresi, N ;
Tartagni, M ;
Guerrieri, R ;
Gambari, R .
BIOTECHNOLOGY AND BIOENGINEERING, 2003, 82 (04) :474-479
[3]   Dielectrophoretic manipulation of particles and cells using insulating ridges in faceted prism microchannels [J].
Barrett, LM ;
Skulan, AJ ;
Singh, AK ;
Cummings, EB ;
Fiechtner, GJ .
ANALYTICAL CHEMISTRY, 2005, 77 (21) :6798-6804
[4]  
Becker H, 2000, ELECTROPHORESIS, V21, P12, DOI 10.1002/(SICI)1522-2683(20000101)21:1<12::AID-ELPS12>3.3.CO
[5]  
2-Z
[6]   Polymer microfluidic devices [J].
Becker, H ;
Locascio, LE .
TALANTA, 2002, 56 (02) :267-287
[7]   A combined dielectrophoresis, traveling wave dielectrophoresis and electrorotation microchip for the manipulation and characterization of human malignant cells [J].
Cen, EG ;
Dalton, C ;
Li, YL ;
Adamia, S ;
Pilarski, LM ;
Kaler, KVIS .
JOURNAL OF MICROBIOLOGICAL METHODS, 2004, 58 (03) :387-401
[8]   Electrodeless dielectrophoresis of single- and double-stranded DNA [J].
Chou, CF ;
Tegenfeldt, JO ;
Bakajin, O ;
Chan, SS ;
Cox, EC ;
Darnton, N ;
Duke, T ;
Austin, RH .
BIOPHYSICAL JOURNAL, 2002, 83 (04) :2170-2179
[9]   Trapping of proteins under physiological conditions in a nanopipette [J].
Clarke, RW ;
White, SS ;
Zhou, DJ ;
Ying, LM ;
Klenerman, D .
ANGEWANDTE CHEMIE-INTERNATIONAL EDITION, 2005, 44 (24) :3747-3750
[10]   A STUDY OF LIVING AND DEAD YEAST CELLS USING DIELECTROPHORESIS [J].
CRANE, JS ;
POHL, HA .
JOURNAL OF THE ELECTROCHEMICAL SOCIETY, 1968, 115 (06) :584-&