AI Article Synopsis

  • Stereolithography 3D printing is commonly used for creating microfluidic chips, but it usually only allows for a single-material construction.
  • By implementing a "print-pause-print" strategy, various materials can be incorporated during the printing process.
  • This innovative method enables the integration of diverse microfluidic functionalities, such as valves, filters, and imaging windows, enhancing the capabilities of the chips.

Article Abstract

Stereolithography 3D printing, although an increasingly used fabrication method for microfluidic chips, has the main disadvantage of producing monolithic chips in a single material. We propose to incorporate during printing various objects using a "print-pause-print" strategy. Here, we demonstrate that this novel approach can be used to incorporate glass slides, hydrosoluble films, paper pads, steel balls, elastic or nanoporous membranes and silicon-based microdevices, in order to add microfluidic functionalities as diverse as valves, fluidic diodes, shallow chambers, imaging windows for bacteria tracking, storage of reagents, blue energy harvesting or filters for cell capture and culture.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC11235415PMC
http://dx.doi.org/10.1039/d4lc00147hDOI Listing

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Article Synopsis
  • Stereolithography 3D printing is commonly used for creating microfluidic chips, but it usually only allows for a single-material construction.
  • By implementing a "print-pause-print" strategy, various materials can be incorporated during the printing process.
  • This innovative method enables the integration of diverse microfluidic functionalities, such as valves, filters, and imaging windows, enhancing the capabilities of the chips.
View Article and Find Full Text PDF

Methods to make microfluidic chips using 3D printers have attracted much attention because these simple procedures allow rapid fabrication of ready-to-use products from digital 3D designs with minimal human intervention. Printing high-resolution chips that are simultaneously transparent, biocompatible and contain regions of dissimilar materials is an ongoing challenge. Transparency allows for the optical inspection of specimens containing cells and labeled biomolecules inside the chip.

View Article and Find Full Text PDF

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