A study on silver nanoparticles embedded DBSA doped nanostructured poly(aniline-co-2-bromoaniline)

Mahudeswaran, A.; Vivekanandan, J.; Vijayanand, P. S.

doi:10.1016/j.matpr.2021.05.453

Cited by 1 publication

(5 citation statements)

References 18 publications

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“…131 AgNPs toxicity is corelated with the living cells and their various outer surface properties. 25 Numerous metal nanoparticles have been encapsulated in polymer fibers, among which nanoscale AgNPs have gained much interest due to their broad array of significant properties, including high electrical conductivity, 11 remarkable catalytic activity, 68 and amazing antimicrobial activity. 132 So far, countless shapes of silver nanostructure have been synthesized by this method.…”

Section: Organic Coated Hybrid Agnpsmentioning

confidence: 99%

“…62 Nevertheless, during these procedures, the reaction conditions were both highly complex and often difficult to control. 63 One of the groups of scientists formed Ag nanowires 11 by catching benefits of the collective adsorption on the facets, that is, (100) of poly-vinylpyrrolidone (PVP). 15 The final products are mainly nanospheres, if PVP is added in low amounts or absent.…”

Section: Hybrid Silver Nanoparticles and Structuresmentioning

confidence: 99%

“…One of the groups of scientists formed Ag nanowires 11 by catching benefits of the collective adsorption on the facets, that is, (100) of poly‐vinyl‐pyrrolidone (PVP) 15 . The final products are mainly nanospheres, if PVP is added in low amounts or absent.…”

Section: Hybrid Silver Nanoparticles and Structuresmentioning

confidence: 99%

“…Hybrid nanoparticles are an important part of nanotechnology because they are formulated by combining two or more multifunctional dispersed nano objects 11 possessing the same scale at the nano level 12 . This class of nanoparticles can be created by merging two or more than two organic components, two or additional inorganic components, 13 or at the minimum one of both types of components 14 .…”

Section: Introductionmentioning

confidence: 99%

“…12 This class of nanoparticles can be created by merging two or more than two organic components, two or additional inorganic components, 13 or at the minimum one of both types of components. 14 Conventionally, such nanoparticles are attained by establishing a satellite-like structure which is the coagulation of spherical types of particles 15 having different composition and size, where the larger component behaves like a central platform 16 and firmly grasps the smaller particles to create unitary nano object 11,17 and they exhibit synergistic properties of both particles. 18 Hybrid silver nanoparticles are composites of two or more than two materials created by a synergistic combination of both materials at the nanometer scale.…”

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confidence: 99%

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Hybrid silver nanoparticles: Modes of synthesis and various biomedical applications

Singh,

Maddiboyina

et al. 2024

Electron

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In the present day, there is a growing trend of employing new strategies to synthesize hybrid nanoparticles, which involve combining various functionalities into a single nanocomposite system. These modern methods differ significantly from the traditional classical approaches and have emerged at the forefront of materials science. The fabrication of hybrid nanomaterials presents an unparalleled opportunity for applications in a wide range of areas, including therapy to diagnosis. The focus of this review article is to shed light on the different modalities of hybrid nanoparticles, providing a concise description of hybrid silver nanoparticles, exploring various modes of synthesis and classification of hybrid silver nanoparticles, and highlighting their advantages. Additionally, we discussed core‐shell silver nanoparticles and various types of core and shell combinations based on the material category, such as dielectric, metal, or semiconductor. The two primary classes of hybrid silver nanoparticles were also reviewed. Furthermore, various hybrid nanoparticles and their methods of synthesis were discussed but we emphasize silica as a suitable candidate for hybridization alongside metal nanoparticles. This choice is due to its hydrophilic surface qualities and high surface charge, which provide the desired repulsive forces to minimize aggregation between the metal nanoparticles in the liquid solution. Silica shell encapsulation also provides chemical inertness, robustness and the adaptability to the desired hybrid nanoparticle. Therefore, among all the materials used to coat metal nanoparticles; silica is highly approved.

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