People | Locations | Statistics |
---|---|---|
Naji, M. |
| |
Motta, Antonella |
| |
Aletan, Dirar |
| |
Mohamed, Tarek |
| |
Ertürk, Emre |
| |
Taccardi, Nicola |
| |
Kononenko, Denys |
| |
Petrov, R. H. | Madrid |
|
Alshaaer, Mazen | Brussels |
|
Bih, L. |
| |
Casati, R. |
| |
Muller, Hermance |
| |
Kočí, Jan | Prague |
|
Šuljagić, Marija |
| |
Kalteremidou, Kalliopi-Artemi | Brussels |
|
Azam, Siraj |
| |
Ospanova, Alyiya |
| |
Blanpain, Bart |
| |
Ali, M. A. |
| |
Popa, V. |
| |
Rančić, M. |
| |
Ollier, Nadège |
| |
Azevedo, Nuno Monteiro |
| |
Landes, Michael |
| |
Rignanese, Gian-Marco |
|
Markos, Christos
Technical University of Denmark
in Cooperation with on an Cooperation-Score of 37%
Topics
Publications (46/46 displayed)
- 2023Drug delivery and optical neuromodulation using a structured polymer optical fiber with ultra-high NA
- 2023Optoelectronic and mechanical properties of microstructured polymer optical fiber neural probescitations
- 2023In vivo brain temperature mapping using polymer optical fiber Bragg grating sensorscitations
- 2022Adaptive polymer fiber neural device for drug delivery and enlarged illumination angle for neuromodulationcitations
- 20222 um Raman laser based on CO 2 -filled hollow-core silica fiber
- 2022Microstructured soft fiber-based neural device for drug delivery and optical neuromodulationcitations
- 20222 um Raman laser based on CO2-filled hollow-core silica fiber
- 2021Influence of Thermo-Mechanical Mismatch when Nanoimprinting Anti-Reflective Structures onto Small-core Mid-IR Chalcogenide Fibers
- 2021Thermo-mechanical dynamics of nanoimprinting anti-reflective structures onto small-core mid-IR chalcogenide fiberscitations
- 2021Thermo-mechanical Dynamics of Nanoimprinting Anti-Reflective Structures onto Small-core Mid- IR Chalcogenide Fibers
- 2021High-temperature polymer multimaterial fiberscitations
- 2020All-polymer multimaterial optical fiber fabrication for high temperature applicationscitations
- 2019Single-mode, low loss hollow-core antiresonant fiber designscitations
- 2019Microstructured Polymer Optical Fiber Gratings and Sensorscitations
- 2018Direct nanoimprinting of moth-eye structures in chalcogenide glass for broadband antireflection in the mid-infraredcitations
- 2018Multimaterial photonic crystal fiberscitations
- 2017Reconfigurable opto-thermal graded-index waveguiding in bulk chalcogenide glassescitations
- 2017Multiple soliton compression stages in mid-IR gas-filled hollow-core fibers
- 2017Zeonex microstructured polymer optical fiber: fabrication friendly fibers for high temperature and humidity insensitive Bragg grating sensingcitations
- 2017Simultaneous measurement of temperature and humidity with microstructured polymer optical fiber Bragg gratingscitations
- 2017Low Loss Polycarbonate Polymer Optical Fiber for High Temperature FBG Humidity Sensingcitations
- 2017Toward single-mode UV to near-IR guidance using hollow-core antiresonant silica fibercitations
- 2017Toward single-mode UV to near-IR guidance using hollow-core antiresonant silica fibercitations
- 2017Zeonex-PMMA microstructured polymer optical FBGs for simultaneous humidity and temperature sensingcitations
- 2016Characterising refractive index dispersion in chalcogenide glassescitations
- 2016Single mode step-index polymer optical fiber for humidity insensitive high temperature fiber Bragg grating sensorscitations
- 2016Zeonex Microstructured Polymer Optical Fibre Bragg Grating Sensorcitations
- 2016Fabrication and characterization of polycarbonate microstructured polymer optical fibers for high-temperature-resistant fiber Bragg grating strain sensorscitations
- 2016Thermo-tunable hybrid photonic crystal fiber based on solution-processed chalcogenide glass nanolayerscitations
- 2016Temperature insensitive hysteresis free highly sensitive polymer optical fiber Bragg grating humidity sensorcitations
- 2016Creation of a microstructured polymer optical fiber with UV Bragg grating inscription for the detection of extensions at temperatures up to 125°Ccitations
- 2016Polymer Optical Fibre Bragg Grating Humidity Sensor at 100ºC
- 2015Humidity insensitive step-index polymer optical fibre Bragg grating sensorscitations
- 2015Production and Characterization of Polycarbonate Microstructured Polymer Optical Fiber Bragg Grating Sensor
- 2015Antiresonant guiding in a poly(methyl-methacrylate) hollow-core optical fibercitations
- 2015Thermally tunable bandgaps in a hybrid As2S3/silica photonic crystal fibercitations
- 2014PMMA mPOF Bragg gratings written in less than 10 mincitations
- 2014Photo-induced changes in a hybrid amorphous chalcogenide/silica photonic crystal fibercitations
- 2014THz waveguides, devices and hybrid polymer-chalcogenide photonic crystal fibers
- 2014Hybrid polymer photonic crystal fiber with integrated chalcogenide glass nanofilmscitations
- 2014Bragg grating writing in PMMA microstructured polymer optical fibers in less than 7 minutescitations
- 2014THz Waveguides, Devices and Hybrid Polymer-chalcogenidePhotonic Crystal Fibers
- 2013High-Tg TOPAS microstructured polymer optical fiber for fiber Bragg grating strain sensing at 110 degreescitations
- 2013High-T g TOPAS microstructured polymer optical fiber for fiber Bragg grating strain sensing at 110 degreescitations
- 2011Narrow Bandwidth 850-nm Fiber Bragg Gratings in Few-Mode Polymer Optical Fiberscitations
- 2011Label-free biosensing with high sensitivity in dual-core microstructured polymer optical fiberscitations
Places of action
Organizations | Location | People |
---|
article
Label-free biosensing with high sensitivity in dual-core microstructured polymer optical fibers
Abstract
We present experimentally feasible designs of a dual-core microstructured polymer optical fiber (mPOF), which can act as a highly sensitive, label-free, and selective biosensor. An immobilized antigen sensing layer on the walls of the holes in the mPOF provides the ability to selectively capture antibody biomolecules. The change of the layer thickness of biomolecules can then be detected as a change in the coupling length between the two cores. We compare mPOF structures with 1, 2, and 3 air-holes between the solid cores and show that the sensitivity increases with increasing distance between the cores. Numerical calculations indicate a record sensitivity up to 20 nm/nm (defined as the shift in the resonance wavelength per nm biolayer) at visible wavelengths, where the mPOF has low loss.