S
Savas Tasoglu
Researcher at Koç University
Publications - 132
Citations - 5349
Savas Tasoglu is an academic researcher from Koç University. The author has contributed to research in topics: Medicine & Computer science. The author has an hindex of 36, co-authored 100 publications receiving 4001 citations. Previous affiliations of Savas Tasoglu include University of Connecticut & Boğaziçi University.
Papers
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Journal ArticleDOI
Paper-based assays for urine analysis.
TL;DR: This review of the recent progress in the application of paper-based microfluidics to urine analysis as a solution to providing continuous health monitoring for proactive care and an overview of select biomarker research tailored towards urine diagnostics.
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High-throughput rapid-prototyping of low-cost paper-based microfluidics
TL;DR: This work demonstrates an inexpensive, rapid method for high-throughput fabrication of paper-based microfluidics by patterning hydrophobic barriers using a desktop pen plotter integrated with a custom-made, low-cost paper feeder.
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Advancing cancer research using bioprinting for tumor-on-a-chip platforms
Stephanie Knowlton,Ashwini Joshi,Bekir Yenilmez,Ibrahim T. Ozbolat,Chee Kai Chua,Ali Khademhosseini,Savas Tasoglu +6 more
TL;DR: Bioprinting can be used to fabricate tissue constructs within microfluidic platforms, forming tumor-on-a-chip devices which are ideal for high-throughput testing in a biomimetic microenvironment.
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Smart Interface Materials Integrated with Microfluidics for On-Demand Local Capture and Release of Cells
Umut A. Gurkan,Savas Tasoglu,Derya Akkaynak,Oguzhan Avci,Sebnem Unluisler,Serli Canikyan,Noah MacCallum,Utkan Demirci +7 more
TL;DR: Local capture and on-demand local release of cells are demonstrated with spatial and temporal control in a microfluidic system.
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Label-Free Sickle Cell Disease Diagnosis using a Low-Cost, Handheld Platform
TL;DR: Here, the applicability of this approach is demonstrated to provide a quantitative diagnosis of sickle cell disease and in low‐resource settings such as sub‐Saharan Africa (where the disease is common but no ubiquitous testing and monitoring procedures are in place), this technology can enable simple, rapid, and accessible sicklecell disease diagnostics and monitoring.