Fabrication of microfluidic devices via 3D printer
tarafından
 
Keçili, Seren, author.

Başlık
Fabrication of microfluidic devices via 3D printer

Yazar
Keçili, Seren, author.

Yazar Ek Girişi
Keçili, Seren, author.

Fiziksel Tanımlama
ix, 57 leaves: color illustraltions, charts;+ 1 computer laser optical disc.

Özet
The purpose of this thesis is to provide easy and rapid prototyping of microfluidic devices using 3D printing technology that overcomes disadvantages of traditional fabrication techniques and also enhanced optical transparency of 3D-printed microfluidic devices fabricated using new bonding strategies. For performance analysis of 3D printer, microfluidic channels and molds having different shape and dimensions were designed and fabricated. After the fabrication process, designed and fabricated channel dimensions were compared. Structures having at least having 50 μm feature were printed successfully. For enhancing transparency of fabricated 3D structures, two different fabrication techniques were developed. In these techniques, 3D structures were bonded on glass substrates with poly (dimethylsiloxane) (PDMS) and Formlabs Clear Resin interlayers. After 3D-printed structures were put on interlayers coated glass slides, they were either remained on coated slides or transferred on new slides. Bonding between 3D structures and glass slides were provided with UV exposure for resin and with elevated temperature for PDMS interlayers. Bonding strength of fabricated channels was investigated for different thicknesses of PDMS and resin interlayers. The bright-field and fluorescence imaging properties of these channels were also analyzed. Proposed fabrication technique showed 2-fold improved bonding strength and comparable bright-field and fluorescence imaging capability with respect to traditional plasma activated PDMS-glass bonding. Furthermore, protein modified glass substrates can be integrated in 3D-printed channels using the presented fabrication technique without disturbing protein functionality. Finally, in order to design a 3D-printed micropump having membranes that can be activated with compressed air, membrane deformation was characterized with different dimension.

Konu Başlığı
Microfluidic devices.
 
Three-dimensional printing.

Yazar Ek Girişi
Tekin, Hüseyin Cumhur,

Tüzel Kişi Ek Girişi
İzmir Institute of Technology. Biotechnology.

Tek Biçim Eser Adı
Thesis (Master)--İzmir Institute of Technology: Biotechnology.
 
İzmir Institute of Technology: Biotechnology--Thesis (Master).

Elektronik Erişim
Access to Electronic Versiyon.


LibraryMateryal TürüDemirbaş NumarasıYer NumarasıDurumu/İade Tarihi
IYTE LibraryTezT002037TJ853.4.M53 K25 2019Tez Koleksiyonu