A-Review on Nanorods-An Overview from Synthesis to Emerging, Device Applications and Toxicity (A-Review)

Abstract

Nanorod technology has gone a long way in the field of science and to a great extent, it has been a dictator of the past, present, and future of technology work. This article shows a detailed explanation of the course of nanorod production and the application from start to finish. Various kinds of nanorods have been found to exist and they have been maximally put to good use in different fields of life. These nanorods, however, did not just come into existence, some of them were formed from some nanorod compounds while some other ones came into being as a result of the combination of two or more compounds. These particles in their raw form can be generally useful, but its specific functions cannot be gotten without proper optimization. Various researchers have, dedicated their time to proper optimization of the numerous nanorods that are available in order to find an optimum result science. This course scans through the birth, processing as well as the highly valued application of nanorods.

Hollow Carbon Nanorods Modified Screen Printed Electrodes for Sensitive Lactate Biosensing

“…These ligands exhibit varying affinities for binding, which results in different growth rates on the different facets of the nanorod. [2] Consequently, the nanorod undergoes elongation, ultimately forming a lengthy structure that resembles a nanorod. Due to their irregular structure, nanorods display special qualities, including adjustable optical characteristics and a remarkable surface area-to-volume ratio.…”

“…Several chemical methods are available for synthesizing nanorods, where specific combinations of ligands are employed as agents for controlling their shape. These ligands exhibit varying affinities for binding, which results in different growth rates on the different facets of the nanorod [2] . Consequently, the nanorod undergoes elongation, ultimately forming a lengthy structure that resembles a nanorod.…”

A universal concept for area‐selective assembly of metal oxide core‐shell nanoparticles, nanorods, and organic molecules via amide coupling reactions

“…In particular, the metal oxide NPs and NRs are widely applied on the field of environmental protection, catalysis, pharm industry, cancer, and biomedical therapy. [3][4][5][6] Besides, such nanoparticles (NPs) are efficiently employed on domain of cosmetics, nutrition, renewable energy, manufacture of integrated circuits, optoelectronics, surface coatings, textiles, plastics. [3,4] Additionally, the metal oxide NRs are efficiently employed on the plasmons, sensors, electronics, solar cells, and battery domains.…”

“…[3,4] Additionally, the metal oxide NRs are efficiently employed on the plasmons, sensors, electronics, solar cells, and battery domains. [6,7] Thus, the enormous potential of inorganic building blocks of NPs and NRs available both as dielectrics and semiconductors can be precisely assembled area-selectively to differentiate electronic properties and composition in order to fabricate the prototype nanohybrid. [8] Specifically, this assembling of NMs can be implemented by -COOH and -NH 2 head groups available as functional self-assembled monolayer (SAM) molecules which can result into secondary amide binding (SAB).…”