| Issue Date | Title | Author(s) | Relation | scopus | WOS | Fulltext/Archive link |
| 1 | 2024 | Rapid time-lapse 3D oxygen tension measurements within hydrogels using widefield frequency-domain fluorescence lifetime imaging microscopy (FD-FLIM) and image segmentation | Dao-Ming Chang; Heng-Hua Hsu; Ping-Liang Ko; Wei-Jen Chang; Tung-Han Hsieh ; Hsiao-Mei Wu; Yi-Chung Tung | Analyst 149(6), 1727-1737 | | | |
| 2 | 2023 | Efficient single-cell oxygen consumption rate characterization based on frequency domain fluorescence lifetime imaging microscopy measurement and microfluidic platform | S. Kannan; P.-L. Ko; H.-M. Wu; Y.-C. Tung | BIOMICROFLUIDICS 17, 054105 | | | |
| 3 | 2023 | Studying sprouting angiogenesis under combination of oxygen gradients and co-culture of fibroblasts using microfluidic cell culture model | H.-H. Hsu; P.-L. Ko; C.-C. Peng; Y.-J. Cheng ; H.-M. Wu; Y.-C. Tung | MATERIALS TODAY BIO 21, 100703 | | | |
| 4 | 2023 | A 3D culture system for evaluating the combined effects of cisplatin and anti-fibrotic drugs on the growth and invasion of lung cancer cells co-cultured with fibroblasts | H.-J. Pan; C.-W. Lee; L.-Y. Wu; H.-H. Hsu; Y.-C. Tung ; W.-Y. Liao; C.-H. Lee | APL Bioengineering 7(1), 016117 | | | |
| 5 | 2023 | Extracellular Matrix-Derived Biophysical Cues Mediate Interstitial Flow-Induced Sprouting Angiogenesis | C.-W. Chang; H.-C. Shih; M. Cortes-Medina; P. E. Beshay; A. Avendano; A. J. Seibel; W.-H. Liao; Y.-C. Tung ; J. W. Song | ACS applied materials & interfaces 15(12), 15047-15058 | | | |
| 6 | 2022 | Study Hypoxic Response under Cyclic Oxygen Gradients Generated in Microfluidic Devices Using Real-Time Fluorescence Imaging | D.-M. Chang; Y.-C. Tung | BIOSENSORS 12(11), 1031 | | | |
| 7 | 2022 | Cav3.2 T‐type calcium channel regulates mouse platelet activation and arterial thrombosis | Tamang, H.K.; Yang, R.B. ; Song, Z.H.; Hsu, S.C.; Peng, C.C; Tung, Y.C ; Tzeng, B.H.; Chen, C.C. | Journal of thrombosis and haemostasis : JTH 20(8), 1887-1899 | | | |
| 8 | 2022 | Revealing Anisotropic Elasticity of Endothelium under Fluid Shear Stress | P.-L. Ko; C.-K. Wang; H.-H. Hsu; T.-A. Lee; Y.-C. Tung | Acta Biomaterialia 145, 316-328 | | | |
| 9 | 2022 | Comparison of Hydrogen Peroxide Secretion from Living Cells Cultured in Different Formats Using Hydrogel-Based LSPR Substrates | Y.-J. Siao; C.-C. Peng; Y.-C. Tung ; Y.-F. Chen | FRONTIERS IN BIOENGINEERING AND BIOTECHNOLOGY 10, 869184 | | | |
| 10 | 2022 | Identifying distinct oxygen diffusivity through type I pneumocyte-like cell layers using microfluidic device | Tung, Yi-Chung ; Wang, Chien-Kai; Huang, Yung-Kang; Huang, Cheng-Kai; Peng, Chien-Chung; Patra, Bishnubrata; Chen, Hung-Kuan; Tsao, Po-Nien; Ling, Thai-Yen | Talanta 236, 122882 | | | |
| 11 | 2021 | Control and Monitor of Oxygen Microenvironments for in vitro Cell Culture | Y.-C. Tung | | | | |
| 12 | 2021 | Study Angiogenesis into Three-Dimensional (3D) Matrix of Endothelial Cells under Oxygen Gradients Using Microfluidic Devices | H.-H. Hsu; P.-L. Ko; Y.-C. Tung | | | | |
| 13 | 2021 | Study Sprouting of Endothelial Cells into Three-Dimensional (3D) Matrices under Oxygen Gradients Using Microfluidic Devices | H.-H. Hsu; P.-L. Ko; Y.-C. Tung | | | | |
| 14 | 2021 | Intracellular Oxygen Response Monitoring within Microfluidic Devices Using Widefield Frequency Domain Fluorescence Lifetime Imaging Microscopy (FD-FLIM) | H.-M. Wu; W.-J. Chang; T.-A. Lee; W.-H. Liao; Y.-C. Tung | | | | |
| 15 | 2021 | Plasmonic gel films for time-lapse LSPR detection of hydrogen peroxide secreted from living cells | Chen, Yun-Chu; Chen, Jing-Jie; Hsiao, Yang-Jyun; Xie, Cheng-Zhe; Peng, Chien-Chung; Tung, Yi-Chung ; Chen, Yih-Fan | Sensors and Actuators B: Chemical 336, 129725 | | | |
| 16 | 2021 | Transwell Insert-Embedded Microfluidic Devices for Time-Lapse Monitoring of Alveolar Epithelium Barrier Function under Various Stimulations | Chang, SH; Ko, PL; Liao, WH; Peng, CC; Tung, YC | Micromachines 12(4), 406 | | | |
| 17 | 2021 | Study 3D Endothelial Cell Network Formation under Various Oxygen Microenvironment and Hydrogel Composition Combinations Using Upside-Down Microfluidic Devices | H.-H. Hsu; P.-L. Ko; H.-M. Wu; H.-C. Line; C.-K. Wang; Y.-C. Tung | SMALL 17(15), 2006091 | | | |
| 18 | 2020 | Evaluation of Nanoparticle Penetration in the Tumor Spheroid Using Two-Photon Microscopy | Feby Wijaya Pratiwi; Chien-Chung Peng; Si-Han Wu; Chiung Wen Kuo; Chung-Yuan Mou; Yi-Chung Tung ; Peilin Chen | Biomedicines 9(1), 10 | | | |
| 19 | 2020 | Toward a Systemic in vitro Model: Microfluidic Cell Culture,” 2020 Annual Meeting of Taiwan Nanomedicine Society | P.-L. Ko; H.-H. Hsu; H.-M. Wu; Y.-C. Tung | | | | |
| 20 | 2020 | Comparison of VEGF-A Secretion from Tumor Cells under Cellular Stresses in Conventional Monolayer Culture and Microfluidic Three-Dimensional Spheroid Models | S. Sarkar; C.-C. Peng; Y.-C. Tung | PLOS ONE 15(11), e0240833 | | | |
| 21 | 2020 | Increased vasculogenesis of endothelial cells in hyaluronic acid augmented fibrin-based natural hydrogels - from in vitro to in vivo models | H.-C. Lin; C.-K. Wang; Y.-C. Tung ; F.-Y. Chiu; Y.-P. Su | EUROPEAN CELLS & MATERIALS 40, 133-145 | | | |
| 22 | 2020 | Disposable Electrofluidic Pressure Sensor-Embedded Microfluidic Viscometer for Biomedical Applications | T.-A. Lee; W.-H. Liao; P.-L. Ko; Y.-C. Tung | | | | |
| 23 | 2020 | Cost-Effective Air Quality Monitoring System Based on an Open- Source Electronics Platform for Three-Dimensional Atmospheric Environmental Data Collection | Y.-C. Tung ; D.-M. Chang; C.-Y. Kuo | | | | |
| 24 | 2020 | Editorial for the Special Issue on Organs-on-Chips | Y. Torisawa; Y.-C. Tung | MICROMACHINES 11(4), 369 | | | |
| 25 | 2020 | Development of in vitro Microfluidic Circulatory System | P.-L. Ko; T.-A. Lee; H.-H. Hsu; W.-H. Liao; Y.-C. Tung | | | | |
| 26 | 2020 | Epidermal growth factor-like repeats of SCUBE1 derived from platelets are critical for thrombus formation. | Liao, WJ; Wu, MY; Peng, CC; Tung, YC ; Yang, RB | Cardiovascular research 116(1), 193-201 | | | |
| 27 | 2019 | Generation and Characterization of Cyclic Oxygen Gradients in Microfluidic Device for Cell Culture | D.-M. Chang; Y.-C. Tung | | | | |
| 28 | 2019 | Development of a Microfluidic Device Capable of Generating Oxygen Gradients for Three-Dimensional Cell Culture in Hydrogel | H.-H. Hsu; P.-L. Ko; H.-M. Wu; T.-A. Lee; H.-C. Lin; Y.-C. Tung | | | | |
| 29 | 2019 | Study Endothelial Cell Networking in Hydrogel under Oxygen Gradients Using Microfluidic Device | H.-H. Hsu; P.-L. Ko; T.-A. Lee; H.-C. Lin; Y.-C. Tung | | | | |
| 30 | 2019 | MCT-1/miR-34a/IL-6/IL-6R Signaling Axis Promotes EMT Progression, Cancer Stemness and M2 Macrophage Polarization in Triple-Negative Breast Cancer | Y.-S. Weng; H.-Y. Tseng; Y.-A. Chen; P.-C. Shen; A. T. Al Haq; L.-M. Chen; Y.-C. Tung ; H.-L. Hsu | MOLECULAR CANCER 18, 42 | | | |
| 31 | 2019 | Widefield frequency domain fluorescence lifetime imaging microscopy (FD-FLIM) for accurate measurement of oxygen gradients within microfluidic devices | H.-M. Wu; T.-A. Lee; P.-L. Ko; W.-H. Liao; T.-H. Hsieh ; Y.-C. Tung | Analyst 144(11), 3494-3504 | | | |
| 32 | 2019 | A sheathless inertial focusing technique for optofluidic devices | N. Panwar; P. Song; C. Yang; S. C. Tjin; Y.-C. Tung ; K.-T. Yong | Microfluidics and Nanofluidics 23, 107 | | | |
| 33 | 2019 | Microfluidic Collective Cell Migration Assay for Study of Endothelial Cell Proliferation and Migration under Combinations of Oxygen Gradients, Tensions, and Drug Treatments | H.-C. Shih; T.-A. Lee; H.-M. Wu; P.-L. Ko; W.-H. Liao; Y.-C. Tung | Scientific Reports 9, 8234 | | | |
| 34 | 2019 | Study Effects of Drug Treatment and Physiological Physical Stimulation on Surfactant Protein Expression of Lung Epithelial Cells Using a Biomimetic Microfluidic Cell Culture Device | T.-R. Lin; S.-L. Yeh; C.-C. Peng; W.-H. Liao; Y.-C. Tung | Micromachines 10(6), 400 | | | |
| 35 | 2019 | Editorial: Medical and Industrial Applications of Microfluidic-Based Cell/Tissue Culture and Organs-on-a-Chip | Q Ramadan; M. Albert; M. Dufva; Y.-C. Tung | Frontiers in Bioengineering and Biotechnology 7 | | | |
| 36 | 2019 | A Low-Power CMOS Microfluidic Pump Based on Travelling-Wave Electroosmosis for Diluted Serum Pumping | P.-W. Yen; S.-C. Lin; Y.-C. Huang; Y.-J. Huang; Y.-C. Tung ; S.-S. Lu; C.-T. Lin | Scientific Reports 9, 14794 | | | |
