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3D Modelling of Mass and Heat Transport in Multi-Phase Microfluidic Systems |
| Tartalom: | https://real.mtak.hu/228070/ |
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| Archívum: | REAL |
| Gyűjtemény: |
Status = Published
Subject = Q Science / természettudomány: QC Physics / fizika Type = Book Section |
| Cím: |
3D Modelling of Mass and Heat Transport in Multi-Phase Microfluidic Systems
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| Létrehozó: |
Szomor, Zsombor
Pardy, Tamás
Fürjes, Péter
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| Kiadó: |
IEEE
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| Dátum: |
2025
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| Téma: |
QC Physics / fizika
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| Tartalmi leírás: |
Microfluidic technology enables miniaturization
reaction chambers, reducing reagent consumption, improving
efficiency, and shortening reaction times. Accurate control of
local temperatures within microfluidic systems is crucial for
maintaining reliable conditions for biochemical processes.
Precise thermal regulation improves the efficiency and
reproducibility of temperature-sensitive reactions, such as
nucleic acid amplification or protein synthesis. This study
models and characterizes coupled hydrodynamic and thermal
processes in microfluidic systems using finite element modeling
(FEM) in COMSOL Multiphysics. The developing temperature
distribution along the channel was analyzed considering
different fluids and volume flows and the thermal behaviour was
characterized and compared in case of classic single-phase,
continuous flow and two-phase, droplet flow to reveal the effects
of spatial material inhomogeneities. Mixing of injected reagents
was also studied and a special serpentine type channel
architecture was proposed to enhance the mixing efficiency of
the microfluidic system utilizing the evolving Dean vortices. The
goal was to achieve effective homogenization of the reagents
within the droplets before reaching the heated reaction zones.
Till our previous studies primarily focused on the thermohydraulic analysis of two-phase systems, this work incorporates
a three-phase model (water, fluorescent BSA solution, oil) to
simulate more properly the on-chip biochemical reactions. The
optimized temperature control and homogeneous
microenvironment ensure effective chemical reactions in
droplets for diagnostics and biotechnology.
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| Nyelv: |
angol
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| Típus: |
Book Section
PeerReviewed
info:eu-repo/semantics/bookPart
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| Formátum: |
text
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| Azonosító: |
Szomor, Zsombor and Pardy, Tamás and Fürjes, Péter (2025) 3D Modelling of Mass and Heat Transport in Multi-Phase Microfluidic Systems. In: 2025 31st International Workshop on Thermal Investigations of ICs and Systems (THERMINIC). IEEE, Naples, No. 11216952. ISBN 9798331594862; 9798331594879
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| Kapcsolat: |
MTMT:36414608 10.1109/THERMINIC65879.2025.11216952
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