Iron molybdenum oxide-modified screen-printed electrode: Application for electrocatalytic oxidation of cabergoline

Recent developments in conducting polymers: applications for electrochemistry

“…Therefore, this technology provides an attractive utilization of portable resources of energy and has been considerably investigated. [119][120][121] These energy-conversion systems need strongly efficacious electrocatalysts for triggering the ORR, which happens at the cathode of the fuel cell. One of the main challenges in this regard would be the design of inexpensive, effective, and stable electrocatalysts for the ORR.…”

Simultaneous Electrochemical Determination of Paracetamol and Allura Red in Pharmaceutical Doses and Food Using a Mo(VI) Oxide‐Carbon Paste Microcomposite

“…The use of molybdenum (VI) oxide has been previously implemented in the development of modified electrodes. Several studies have combined molybdenum (VI) oxide with TiO 2 to detect guanine [24]; others have mixed molybdenum (VI) oxide with carbon nanotubes to detect uric acid and folic acid and epinephrine [26,27]; and further studies have mixed molybdenum (VI) oxide with cabergoline and Fe 2 + [28] or ascorbic acid and Prussian blue [29] on carbon paste electrodes. Other researchers investigated dopamine on a screen-printed carbon electrode [30] and a mixture of chlorophenol and palladium nanoparticles on a glassy carbon electrode [31].…”

Surface Engineering of Three-Dimensional-like Hybrid AB2O4 (AB = Zn, Co, and Mn) Wrapped on Sulfur-Doped Reduced Graphene Oxide: Investigation of the Role of an Electrocatalyst for Clioquinol Detection

“…The primary source of water contamination is from drug manufacturers, organic materials, and industry and pharmaceutical residues. Notably, the WHO reported that about 30% of the individuals living need far and wide-ranging clean water sources, and more than 2 000 000 humans die each year by drinking contaminated water. − Clioquinol (CQ), associated with the family of hydroxyquinolines, manifests multiple mechanisms of action, stimulating its wide use in medical and pharmaceutical fields. The pharmacological functions of CQ are diversified into topical antiseptics, antiparasitics, and therapeutics for malignancy and intestinal infections. , Because of its ionophore properties and its ability to form lipophilic chelates with divalent metal cations, CQ emerges effectively as a potential therapy for Alzheimer’s, Huntington’s, and Parkinson’s diseases.…”