The performance of a very sensitive glucose sensor developed with copper nanostructure-supported nitrogen-doped carbon quantum dots.

Fluorescent glucose sensors often utilize nanotechnology to detect glucose in a sensitive and targeted manner. Nanoscale materials increase the sensitivity and efficiency of sensors by better understanding and managing the properties and interactions of the structure to be sensed. Nitrogen-doped carbon quantum dots (N-CQD), which work with the concept of fluorescence quenching or switching on because of specific processes in the presence of glucose, are one type of nanoscale material added to these sensors.

Photocatalytic investigation of textile dyes and E. coli bacteria from wastewater using FeO@MnO heterojunction and investigation for hydrogen generation on NaBH hydrolysis.

Various impurities found nowadays in water can be detrimental to human health. This work focused on utilizing FeO@MnO nanocomposite for cleaning organic contaminants from water, including rhodamine B (RhB) and Escherichia coli (E. coli).

An ultra-sensitive rifampicin electrochemical sensor based on FeO nanoparticles anchored Multiwalled Carbon nanotube modified glassy carbon electrode.

This study aimed to guide future sensor studies against other pharmaceutical drugs by synthesizing FeONPs@MWCNT metallic nanoparticles (NPs). Side damage caused by excessive accumulation of tuberculosis drugs in the body can cause clots in the organs, and cause serious damage such as heart attack and respiratory failure, and threaten human life. Therefore, the development of sensors sensitive to various antibiotics in this study is important for human health.