Detailed Information on Publication Record
2023
Luminal Surface Plasma Treatment of Closed Cylindrical Microchannels: A Tool toward the Creation of On-Chip Vascular Endothelium
ČERNÍK, Marek, Kamila POLAKOVA, Lukas KUBALA, Andrea VÍTEČKOVÁ WÜNSCHOVÁ, Anna MAC GILLAVRY DANYLEVSKA et. al.Basic information
Original name
Luminal Surface Plasma Treatment of Closed Cylindrical Microchannels: A Tool toward the Creation of On-Chip Vascular Endothelium
Authors
ČERNÍK, Marek (203 Czech Republic, belonging to the institution), Kamila POLAKOVA (203 Czech Republic), Lukas KUBALA (203 Czech Republic), Andrea VÍTEČKOVÁ WÜNSCHOVÁ (203 Czech Republic, belonging to the institution), Anna MAC GILLAVRY DANYLEVSKA (804 Ukraine, belonging to the institution), Michaela PEŠKOVÁ (203 Czech Republic, belonging to the institution) and Jan VÍTEČEK (guarantor)
Edition
ACS Biomaterials Science and Engineering, American Chemical Society, 2023, 2373-9878
Other information
Language
English
Type of outcome
Článek v odborném periodiku
Field of Study
30401 Health-related biotechnology
Country of publisher
United States of America
Confidentiality degree
není předmětem státního či obchodního tajemství
References:
Impact factor
Impact factor: 5.800 in 2022
RIV identification code
RIV/00216224:14310/23:00132874
Organization unit
Faculty of Science
UT WoS
000982471500001
Keywords in English
3D printing; endothelial cell; in vitro model; plasma oxidation; PDMS; surface modification
Tags
International impact, Reviewed
Změněno: 31/1/2024 14:17, Mgr. Tereza Miškechová
Abstract
V originále
On-chip vascular microfluidic models provide a great tool to study aspects of cardiovascular diseases in vitro. To produce such models, polydimethylsiloxane (PDMS) has been the most widely used material. For biological applications, its hydrophobic surface has to be modified. The major approach has been plasma-based surface oxidation, which has been very challenging in the case of channels enclosed within a microfluidic chip. The preparation of the chip combined a 3D-printed mold with soft lithography and commonly available materials. We have introduced the high-frequency low-pressure air-plasma surface modification of seamless channels enclosed within a PDMS microfluidic chip. The plasma treatment modified the luminal surface more uniformly than in previous works. Such a setup enabled a higher degree of design freedom and a possibility of rapid prototyping. Further, plasma treatment in combination with collagen IV coating created a biomimetic surface for efficient adhesion of vascular endothelial cells as well as promoted long-term cell culture stability under flow. The cells within the channels were highly viable and showed physiological behavior, confirming the benefit of the presented surface modification.
Links
NU22-08-00124, research and development project |
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