Polycarbonate Silicon Devices
Polycarbonate Silicon Devices - Related Videos
08:18
Construction Methods for Hybrid Polycarbonate-Silicon Microfluidic Devices
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2026
This protocol describes three straightforward sealing methods for fabricating a hybrid microfluidic device that integrates polycarbonate and silicon components. By implementing solvent bonding, thermal compression, and mechanical compression strategies, we enable reliable, low-temperature sealing techniques that avoid specialized equipment for hybrid microfluidic devices.
11:23
Polydimethylsiloxane-polycarbonate Microfluidic Devices for Cell Migration Studies Under Perpendicular Chemical and Oxygen Gradients
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Cited by 13 •
2017
The control of chemical and oxygen gradients is essential for cell cultures. This paper reports a polydimethylsiloxane-polycarbonate (PDMS-PC) microfluidic device capable of reliably generating combinations of chemical and oxygen gradients for cell migration studies, which can be practically utilized in biological labs without sophisticated instrumentation.
06:10
A 3D-Printed Silicone-Coated Device to Model Catheter-Associated Urinary Tract Infection
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2025
Source:Ocean E. Clarke1, Romy A. Dop1, Tom Hasell1, Joanne L. Fothergill1, Daniel R. Neill21University of Liverpool, 2 University of DundeeThis video demonstrates the use of a 3D-printed, silicone-coated device that mimics the inner surface of urinary catheters to simulate catheter-associated urinary tract infection.
11:34
Epitaxial Nanostructured α-Quartz Films on Silicon: From the Material to New Devices
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Cited by 2 •
2020
This work presents a detailed protocol for the microfabrication of nanostructured α-quartz cantilever on a Silicon-On-Insulator(SOI) technology substrate starting from the epitaxial growth of quartz film with the dip coating method and then nanostructuration of the thin film via nanoimprint lithography.
08:29
Thermal Measurement Techniques in Analytical Microfluidic Devices
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Cited by 6 •
2015
Here, we present three protocols for thermal measurements in microfluidic devices.
FAQs
Performance comes from assigning different tasks to each material. Silicon supports patterned microstructures and can incorporate electronic or photonic elements, whereas polycarbonate can provide lightweight, moldable, insulating, and optically accessible chambers or channels. This division allows one platform to combine structured microscale control with practical fluid handling and visual access for biological experiments.
Alignment places the polymer chambers or channels in the intended relationship to silicon microstructures and integrated elements. Bonding then joins the separately processed components into a functioning platform. Accurate assembly is therefore central to connecting fluid paths with sensing or microscale structures, helping the hybrid device operate as an integrated system rather than as disconnected material layers.
The hybrid design combines capabilities that neither component supplies in the same way. Silicon contributes patterned structures and possible electronic or photonic functionality, while polycarbonate supports lightweight, moldable, insulating, and optically accessible regions. Using both materials can therefore support compact lab-on-a-chip architectures that integrate fluid handling with analysis or sensing functions.
A general workflow begins by preparing the silicon features and forming the polycarbonate chambers or channels. The components are then aligned so their structures and fluid paths correspond, followed by bonding to create a unified device. This combination of semiconductor manufacturing, polymer processing, and assembly supports microscale platforms without requiring every function to be made from one material.
Their compact architecture supports cell studies, biosensing, diagnostics, and controlled delivery. The devices can also provide microscale fluid handling for lab-on-a-chip experiments, where small sample volumes and integrated functions are valuable. Because the platform can combine channels with electronic or photonic elements, it is suited to biological analysis that requires controlled microscale environments.
They link semiconductor-style fabrication with polymer processing to create integrated tools for biological analysis. In bioengineering, this connection can reduce sample-volume requirements while supporting controlled fluid handling, sensing, and high-throughput experimentation. Their material combination also enables optical access alongside structured silicon features, which broadens their usefulness for compact cell and diagnostic systems.