Capillary-assisted flat-field formation: a platform for advancing nanoparticle tracking analysis in an integrated on-chip optofluidic environment
F Gui, R Foerster, T Wieduwilt, M Zeisberger, J Kim… - …, 2024 - degruyter.com
Here, we present the concept of flat-field capillary-assisted nanoparticle tracking analysis for
the characterization of fast diffusing nano-objects. By combining diffusion confinement and …
the characterization of fast diffusing nano-objects. By combining diffusion confinement and …
Optofluidic microstructured fibers: a nanoparticle tracking analysis platform for understanding nanoscale objects such as SARS-CoV-2
MA Schmidt - Optical Fiber Communication Conference, 2024 - opg.optica.org
Optofluidic microstructured fibers: a nanoparticle tracking analysis platform for understanding
nanoscale objects such as SARS-C Page 1 Optofluidic microstructured fibers: a nanoparticle …
nanoscale objects such as SARS-C Page 1 Optofluidic microstructured fibers: a nanoparticle …
[PDF][PDF] Hollow-core optical fibers for nanoparticle tracking and analysis
M Nissen - db-thueringen.de
Gaining deeper understanding of processes at the nanoscale is a key to progress in
numerous research fields, like medical diagnostics, disease treatment, environmental or …
numerous research fields, like medical diagnostics, disease treatment, environmental or …
[PDF][PDF] Nanoparticle Tracking Analysis Based on Microstructured Waveguides
F Gui - db-thueringen.de
Nanoparticle tracking analysis is an optical and video-based technique for dynamic
monitoring and determining the size distribution of diffraction-limited objects in fluids. Due to …
monitoring and determining the size distribution of diffraction-limited objects in fluids. Due to …
Supplementary Material: Capillary-Assisted Flat-Field Formation: a Platform for Advancing Nanoparticle Tracking Analysis in an Integrated On-Chip Optofluidic …
F Gui, R Foerster, T Wieduwilt, M Zeisberger, J Kim… - degruyter.com
] 2 exp [− 2r2/ω2 (z)](1) where ω (z)= ω0√ 1+(z/zR) 2 is the beam radius as the function of
axial position, and zR= πω2 0n/λ is the Rayleigh range. ω0 is the radius of the beam waist …
axial position, and zR= πω2 0n/λ is the Rayleigh range. ω0 is the radius of the beam waist …