Folic Acid Copper Sulfide Nanoparticles
Folic Acid Copper Sulfide Nanoparticles - Related Videos
02:53
Functionalized Nanoparticle Targeting of Ovarian Cancer: A Technique to Facilitate Folic Acid-conjugated Nanoparticle Contrast Agent Uptake by Ovarian Cancer Cells
0 Views •
2023
In this video, we demonstrate a technique to facilitate the internalization of folic acid-capped copper sulfide nanoparticles (CuS NPs). Folic acid-functionalized CuS NPs have the ability to target folate-receptors which are overexpressed in many ovarian cancer cells.
09:43
Preparation of Silica Nanoparticles Through Microwave-assisted Acid-catalysis
0 Views •
Cited by 11 •
2013
Silica nanoparticles were prepared using acid-catalysis of a siloxane precursor and microwave-assisted synthetic techniques resulting in the controlled growth of nanomaterials ranging from 30-250 nm in diameter. The growth dynamics can be controlled by varying the initial silicic acid concentration, time of the reaction, and temperature of reaction.
09:15
Synthesis of Ligand-free CdS Nanoparticles within a Sulfur Copolymer Matrix
0 Views •
2016
Herein we present a method to synthesize ligand-free cadmium sulfide (CdS) nanoparticles based on a unique sulfur copolymer. The sulfur copolymer operates as a high temperature solvent and a sulfur source during the nanoparticle synthesis and stabilizes the nanoparticles after the reaction.
08:22
Studying Copper Nanoparticle-Induced Programmed Cell Death in Bacteria
0 Views •
Cited by 1 •
2025
Copper nanoparticles act as antimicrobial agents by generating reactive oxygen species. Here, procedures are presented demonstrating that copper nanoparticles are effective against three clinically relevant pathogens and that certain programmed cell death pathways are involved in this bactericidal process.
09:02
Using Polystyrene-block-poly(acrylic acid)-coated Metal Nanoparticles as Monomers for Their Homo- and Co-polymerization
0 Views •
Cited by 1 •
2015
We report protocols for “polymerizing” various types of polymer-encapsulated metal nanoparticles into long chains of “homo-“ and “co-polymers”.
FAQs
The copper sulfide core absorbs near-infrared light and converts that absorbed energy into heat. This photothermal response gives the nanoparticles an externally triggered function that can be investigated for therapeutic or technological purposes. In bioengineering studies, researchers can examine how this heat-generating behavior supports photothermal therapy and complements other functions provided by the nanoparticle surface.
Surface-bound folic acid may promote interactions with cells that express folate receptors. This molecular recognition can support investigations of targeted delivery or cellular uptake, rather than relying only on the nanoparticle core's optical behavior. Its relevance depends on how effectively the functionalized surface connects the material with receptor-expressing cells in the intended bioengineering application.
The two components contribute different capabilities to one platform. Copper sulfide supplies near-infrared optical responsiveness and heat generation, whereas folic acid provides a surface feature associated with interaction with folate-receptor-expressing cells. Combining them enables research on multifunctional nanomaterials that link externally controlled physical activity with molecular recognition for biomedical technologies.
The design separates two complementary roles rather than assigning both to the same component. The copper sulfide core retains the ability to absorb near-infrared light and generate heat, while surface-bound folic acid may influence cellular interaction and uptake. This arrangement supports studies of targeted delivery in which recognition and photothermal behavior are considered together.
Their reported application areas include photothermal therapy, imaging, biosensing, and controlled drug delivery. These uses draw on different aspects of the platform: near-infrared responsiveness is relevant to heat-based functions, while folic acid functionalization may support cell interaction. Together, these capabilities make the nanoparticles suitable for investigating multifunctional approaches in cancer research and other biomedical technologies.
Studies can examine whether near-infrared exposure produces a useful photothermal effect, whether folic acid promotes interaction with folate-receptor-expressing cells, and whether the combined design supports delivery, imaging, or sensing goals. Evaluating these functions together helps determine how molecular recognition and optical responsiveness contribute to a proposed cancer-related bioengineering application.