Namlı, İlayda (2022) A novel methodology for cancer diagnosis and treatment using new generation microfluidic devices: hydrodynamic cavitation on a chip. [Thesis]
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Abstract
Hydrodynamic cavitation (HC) is a phase change phenomenon, where energy release in a fluid occurs upon the collapse of bubbles, which form due to the low local pressures. Although macro-scale hydrodynamic cavitation has a very destructive effect due to the high released energy from the cavitation bubble explosion, damaging effects of cavitation could be minimized and utilized for biomedical applications through micro-scale hydrodynamic cavitation inside a miniaturized microfluidic device. Since microfluidic devices enable the performance of controlled experiments by enabling spatial control over the cavitation process and by precisely monitoring its evolution. Early cancer diagnosis and effective therapeutic technologies appears to be inevitable needs for the human health. In this regard, this thesis presents comprehensive investigation and analysis related to role of the HC on circulating tumor cell (CTC) detection and cancer treatment through in vitro studies by utilizing cell culture and human blood samples. Performed in vitro experiments demonstrate that micro-scale HC, which is an emerging tool in biological applications, is a promising approach to investigate different cellular responses and to increase the chemotherapeutic efficacy of the anticancer drug and to rapidly detect CTCs.
Item Type: | Thesis |
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Uncontrolled Keywords: | Circulating Tumor Cells. -- Hydrodynamic Cavitation. -- Circulating Tumor Cell Detection. -- Cavitation on a Chip. -- Cancer Treatment. -- Dolaşan Tümör Hücreleri. -- Hidrodinamik Kavitasyon. -- Dolaşan Tümor Hücrelerinin Tespiti. -- Çip Üzerinde Kavitasyon. -- Kanser Tedavisi. |
Subjects: | T Technology > TA Engineering (General). Civil engineering (General) > TA401-492 Materials of engineering and construction. Mechanics of materials |
Divisions: | Faculty of Engineering and Natural Sciences > Academic programs > Materials Science & Eng. Faculty of Engineering and Natural Sciences |
Depositing User: | Dila Günay |
Date Deposited: | 24 Apr 2023 14:41 |
Last Modified: | 24 Apr 2023 14:41 |
URI: | https://research.sabanciuniv.edu/id/eprint/47145 |