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Literature DB >> 20052144

Multi-mode mitigation in an optofluidic chip for particle manipulation and sensing.

Philip Measor¹, Sergei Kühn, Evan J Lunt, Brian S Phillips, Aaron R Hawkins, Holger Schmidt.

Abstract

A new waveguide design for an optofluidic chip is presented. It mitigates multi-mode behavior in solid and liquid-core waveguides by increasing fundamental mode coupling to 82% and 95%, respectively. Additionally, we demonstrate a six-fold improvement in lateral confinement of optically guided dielectric microparticles and double the detection efficiency of fluorescent particles.

Entities: Chemical Disease Gene

Mesh：

Substances：
Biopolymers

Year: 2009 PMID： 20052144 PMCID： PMC2860178 DOI： 10.1364/OE.17.024342

Source DB: PubMed Journal: Opt Express ISSN： 1094-4087 Impact factor: 3.894

10 in total

1. Radiation losses of step-tapered channel waveguides.

Authors: D Marcuse
Journal: Appl Opt Date: 1980-11-01 Impact factor: 1.980

Review 2. Developing optofluidic technology through the fusion of microfluidics and optics.

Authors: Demetri Psaltis; Stephen R Quake; Changhuei Yang
Journal: Nature Date: 2006-07-27 Impact factor: 49.962

3. Planar optofluidic chip for single particle detection, manipulation, and analysis.

Authors: Dongliang Yin; Evan J Lunt; Mikhail I Rudenko; David W Deamer; Aaron R Hawkins; Holger Schmidt
Journal: Lab Chip Date: 2007-06-27 Impact factor: 6.799

4. Hollow-core waveguide characterization by optically induced particle transport.

Authors: Philip Measor; Sergei Kühn; Evan J Lunt; Brian S Phillips; Aaron R Hawkins; Holger Schmidt
Journal: Opt Lett Date: 2008-04-01 Impact factor: 3.776

5. Two-dimensional control of mode size in optical channel waveguides by lateral channel tapering.

Authors: R N Thurston; E Kapon; A Shahar
Journal: Opt Lett Date: 1991-03-01 Impact factor: 3.776

6. Optofluidic waveguides: I. Concepts and implementations.

Authors: Holger Schmidt; Aaron R Hawkins
Journal: Microfluid Nanofluidics Date: 2008-01-01 Impact factor: 2.529

7. Optofluidic waveguides: II. Fabrication and structures.

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

8. Loss-based optical trap for on-chip particle analysis.

Authors: S Kühn; P Measor; E J Lunt; B S Phillips; D W Deamer; A R Hawkins; H Schmidt
Journal: Lab Chip Date: 2009-05-11 Impact factor: 6.799

9. Ultrasensitive Qbeta phage analysis using fluorescence correlation spectroscopy on an optofluidic chip.

Authors: M I Rudenko; S Kühn; E J Lunt; D W Deamer; A R Hawkins; H Schmidt
Journal: Biosens Bioelectron Date: 2009-04-16 Impact factor: 10.618

10. Improving solid to hollow core transmission for integrated ARROW waveguides.

Authors: Evan J Lunt; Philip Measor; Brian S Phillips; Sergei Kühn; Holger Schmidt; Aaron R Hawkins
Journal: Opt Express Date: 2008-12-08 Impact factor: 3.894

10 in total

5 in total

Multi-mode mitigation in an optofluidic chip for particle manipulation and sensing.

1. Radiation losses of step-tapered channel waveguides.

Review 2. Developing optofluidic technology through the fusion of microfluidics and optics.

3. Planar optofluidic chip for single particle detection, manipulation, and analysis.

4. Hollow-core waveguide characterization by optically induced particle transport.

5. Two-dimensional control of mode size in optical channel waveguides by lateral channel tapering.

6. Optofluidic waveguides: I. Concepts and implementations.

7. Optofluidic waveguides: II. Fabrication and structures.

8. Loss-based optical trap for on-chip particle analysis.

9. Ultrasensitive Qbeta phage analysis using fluorescence correlation spectroscopy on an optofluidic chip.

10. Improving solid to hollow core transmission for integrated ARROW waveguides.

1. Optofluidics incorporating actively controlled micro- and nano-particles.

2. Tailorable integrated optofluidic filters for biomolecular detection.

3. Enhancement of ARROW Photonic Device Performance via Thermal Annealing of PECVD-based SiO₂ Waveguides.

4. Dynamic manipulation of particles via transformative optofluidic waveguides.

5. Hybrid Dielectric-loaded Nanoridge Plasmonic Waveguide for Low-Loss Light Transmission at the Subwavelength Scale.