2023
DOI: 10.1088/1361-6528/acb35b
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Nanoimprint lithography-based replication techniques for fabrication of metal and polymer biomimetic nanostructures for biosensor surface functionalization

Abstract: Nanostructuring is a promising and successful approach to tailor functional layers and to improve the characteristics of biosensors such as signal transmission and tighter cell-surface coupling. One of the major objectives in biosensing and tissue engineering is the development of interfaces that mimic the natural environment of biosystems composed of extracellular matrix biomolecules. Nevertheless, effective techniques to reconstruct the random distribution of these biomolecules are still not well established… Show more

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Cited by 4 publications
(2 citation statements)
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“…[34,90] Furthermore, increasing the roughness and porosity of the interface enhances cell adhesion and contact area, thus also intensifying the cell-electrode coupling. [91,92] Detailed structuring of the roughness and porosity offers yet another possibility for creating functional electron and ion conductive scaffolds via alternative fabrication strategies, known from phase separation processes. [80] Such scaffolds could either be built by self-assembly of porous unit-cells organizing into a superstructure or by directly 3D printing an intricate porous conductive object.…”
Section: Cell-electrode Couplingmentioning
confidence: 99%
“…[34,90] Furthermore, increasing the roughness and porosity of the interface enhances cell adhesion and contact area, thus also intensifying the cell-electrode coupling. [91,92] Detailed structuring of the roughness and porosity offers yet another possibility for creating functional electron and ion conductive scaffolds via alternative fabrication strategies, known from phase separation processes. [80] Such scaffolds could either be built by self-assembly of porous unit-cells organizing into a superstructure or by directly 3D printing an intricate porous conductive object.…”
Section: Cell-electrode Couplingmentioning
confidence: 99%
“…This method is a novel technology given that only a few previous studies have used it to create nanostructured antibacterial materials. For preventing the incomplete filling of nanostructures and defects due to the entrainment of gases in cavities during the microinjection molding of biomimetic antibacterial nanostructures [26,27], a gas-permeable hybrid mold fabricated by nanoimprint lithography [28,29] was used and evaluated.…”
Section: Introductionmentioning
confidence: 99%