Plasmonic Silver Nanoparticles for Energy and Optoelectronic Applications

Facile green synthesis and applications of silver nanoparticles: a state-of-the-art review

“…In the past, AgNPs have attracted considerable attention from analysts. Due to the uncommon attributes of AgNPs, they are used in different elds such as biomedical (fast diagnosis, imaging, tissue regeneration and drug delivery, and development of new medical products), 7 textile industry, 8 food packaging, 9 cosmetic industry, 10 catalysis, 11 sensors, 12 biology, coatings, 13 plasmonics (SERS), 14 optoelectronics, 15 antimicrobial activities, 16 DNA sequencing, 17 SERS, 18 climate change and contamination control, 19 clean water technology, 20 energy generation, and information storage. Also, due to their remarkable protection against a wide scope of microorganisms and medicinal properties, AgNPs are utilized as anti-infection agents, tranquilizers conveyance agents, water treatment, farming, etc.…”

Exploring the Control in Antibacterial Activity of Silver Triangular Nanoplates by Surface Coating Modulation

“…Silver nanoparticles (AgNPs) have attracted much attention as a result of their particular optoelectronic (Kelly et al, 2003; Wei, 2011), catalytic (Jiang et al, 2005; Köhler et al, 2008), or antibacterial properties (Morones et al, 2005; Rai et al, 2009).…”

Electrodeposition of sizeable and compositionally tunable rhodium-iron nanoparticles and their activity toward hydrogen evolution reaction

“…Nanoparticles (NPs) exhibit a wealth of physical and chemical properties associated with their crystal structure, chemical and electrochemical reactivity or electrical and magnetic properties at the nanoscale [1]. For this reason, NPs have become the cornerstone for the development of next generation of sensing, energy conversion, electronic, optoelectronic, and magnetic devices [2][3][4]. Among the synthesis methods to produce substrate-supported NPs, electrochemical deposition is one of the least expensive, highly productive and readily available methods [5][6][7] Electrodeposition enables not only directly growing the NPs onto the substrate, but also to tune on-demand the NPs composition, the crystallographic structure, the size, and the shape by playing with the electrodeposition parameters [8][9][10].…”