Nanoparticle Fabrication
Nanoparticle Fabrication - Related Videos
08:59
Fabrication of a Functionalized Magnetic Bacterial Nanocellulose with Iron Oxide Nanoparticles
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Cited by 42 •
2016
Here, we present a protocol to make a bacterial nanocellulose (BNC) magnetic for applications in damaged blood vessel reconstruction. The BNC was synthesized by G. xylinus strain. On the other hand, magnetization of the BNC was realized through in situ precipitation of Fe2+ and Fe3+ ferrous ions inside the BNC mesh.
13:39
Optical Trapping of Nanoparticles
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Cited by 7 •
2013
The following setup approach details low power optical trapping of dielectric nanoparticles using a double-nanohole in metal film.
14:37
High-throughput Synthesis of Carbohydrates and Functionalization of Polyanhydride Nanoparticles
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Cited by 7 •
2012
In this article, a high throughput method is presented for the synthesis of oligosaccharides and their attachment to the surface of polyanhydride nanoparticles for further use in targeting specific receptors on antigen presenting cells.
09:23
Harmonic Nanoparticles for Regenerative Research
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Cited by 1 •
2014
Protocol details are provided for in vitro labeling human embryonic stem cells with second harmonic generating nanoparticles. Methodologies for hESC investigation by multi-photon microscopy and their differentiation into cardiac clusters are also presented.
10:58
Combinatorial Synthesis of and High-throughput Protein Release from Polymer Film and Nanoparticle Libraries
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Cited by 7 •
2012
This method describes the combinatorial synthesis of biodegradable polyanhydride film and nanoparticle libraries and the high-throughput detection of protein release from these libraries.
FAQs
The choice of fabrication route determines how particle formation begins. Top-down processing reduces bulk material, whereas bottom-up processing assembles nanoparticles from atoms, molecules, or dissolved precursors. This distinction provides different ways to influence particle formation and resulting size, shape, composition, and surface properties. In bioengineering, selecting the route helps align fabrication with the desired biological function.
Concentration, temperature, pH, and mixing influence nucleation and growth, the processes that initiate particle formation and enlarge developing particles. Adjusting these variables changes how rapidly precursors assemble and how particles develop. Controlling the conditions is therefore essential for producing nanoparticles with more predictable dimensions and properties for later bioengineering use.
Surface functionalization modifies nanoparticles with polymers, ligands, or biomolecules after or during fabrication. These surface components can improve stability, support targeting, and increase compatibility with biological systems. The approach connects physical particle design with biological performance, allowing researchers to adapt nanoparticles for applications in drug delivery, imaging, biosensing, or tissue engineering.
Size, shape, composition, and surface properties are the main design variables that require control. Their combined influence determines how a fabricated nanoparticle performs in a chosen setting, so changing one variable can alter the overall behavior of the material. Careful control enables researchers to match particle characteristics with specific bioengineering objectives rather than using a single universal design.
A general workflow begins by selecting a top-down or bottom-up strategy, followed by controlling concentration, temperature, pH, and mixing during particle formation. Researchers then consider whether polymers, ligands, or biomolecules should be incorporated to modify the surface. This sequence links production conditions with particle properties and prepares the material for a biological application.
Researchers apply fabricated nanoparticles when nanoscale materials can support drug delivery, imaging, biosensing, or tissue engineering. The appropriate design depends on the required combination of size, shape, composition, and surface properties. Surface modification can further improve stability, targeting, or biological compatibility, making the particles adaptable to different biomedical research goals.
Bioengineering uses fabrication to combine controlled particle properties with biologically relevant surface modifications. Polymers, ligands, and biomolecules can be used to improve stability, promote targeting, or enhance compatibility with biological systems. This integration is important because successful biomedical use depends not only on producing nanoparticles, but also on tailoring their interfaces for the intended biological context.