Hydrazine (HZ) is massively used in several industrial applications. Adsorption of HZ through human skin creates carcinogenicity by disturbing the human organ system and thus, the quantification of HZ levels in environmental water samples is highly needed. The present work describes the short-term development of copper oxide nanospheres (CuO NS) by one-step wet chemical approach and their implementation on glassy carbon electrode (GCE) for the sensitive and selective quantification of the environmentally hazardous HZ. The CuO NS formation was identified by X-ray diffraction (XRD), field-emission scanning electron microscopy (FE-SEM), transmission electron microscopy (TEM) and UV-visible spectroscopy. SEM images exhibited the uniform CuO NS ...
In this paper, we have synthesized the cupric oxide functionalized carbon nanotube-reduced graphene ...
Copper, the essential element required for the human body is well-known for its profound antibacteri...
This work was supported by ERDF project No. 1.1.1.2/16/I/ 001, research application number 1.1.1.2/V...
Abstract An effective and rapid method for the detection of hydrazine hydrate is urgently needed as ...
© 2017 The Authors. A cubic shaped copper(II)hexacyanoferrate was prepared by wet chemical method by...
The present study describes the facile and fast growth of Ag–Cu dendritic nanostructures (D-AgCuNSs)...
In this overview, we explore the electroanalytical sensing of the important chemical reagent hydrazi...
In this research, we have developed a reliable green method for the synthesis of copper oxide nanopa...
The design and development of efficient and electrocatalytic sensitive nickel oxide nanomaterials ha...
In the last decades, with the fast improvement of electronics, the field of sensors is highly expand...
A facile one-step, eco-friendly, and cost-effective approach for the formation of copper oxide (CuO)...
Hydrazine (N2H4) is a hazardous chemical widely used as rocket propellant and industrial intermediat...
Reduced graphene oxide-cobalt oxide nanocube@gold (rGO-Co3O4@Au) nanocomposite was prepared using a ...
The present work presents the development of a sensitive and selective amperometric sensor for the d...
A new technique for sensing nanomolar concentrations of hydrazine in water samples is reported. A sc...
In this paper, we have synthesized the cupric oxide functionalized carbon nanotube-reduced graphene ...
Copper, the essential element required for the human body is well-known for its profound antibacteri...
This work was supported by ERDF project No. 1.1.1.2/16/I/ 001, research application number 1.1.1.2/V...
Abstract An effective and rapid method for the detection of hydrazine hydrate is urgently needed as ...
© 2017 The Authors. A cubic shaped copper(II)hexacyanoferrate was prepared by wet chemical method by...
The present study describes the facile and fast growth of Ag–Cu dendritic nanostructures (D-AgCuNSs)...
In this overview, we explore the electroanalytical sensing of the important chemical reagent hydrazi...
In this research, we have developed a reliable green method for the synthesis of copper oxide nanopa...
The design and development of efficient and electrocatalytic sensitive nickel oxide nanomaterials ha...
In the last decades, with the fast improvement of electronics, the field of sensors is highly expand...
A facile one-step, eco-friendly, and cost-effective approach for the formation of copper oxide (CuO)...
Hydrazine (N2H4) is a hazardous chemical widely used as rocket propellant and industrial intermediat...
Reduced graphene oxide-cobalt oxide nanocube@gold (rGO-Co3O4@Au) nanocomposite was prepared using a ...
The present work presents the development of a sensitive and selective amperometric sensor for the d...
A new technique for sensing nanomolar concentrations of hydrazine in water samples is reported. A sc...
In this paper, we have synthesized the cupric oxide functionalized carbon nanotube-reduced graphene ...
Copper, the essential element required for the human body is well-known for its profound antibacteri...
This work was supported by ERDF project No. 1.1.1.2/16/I/ 001, research application number 1.1.1.2/V...