WaPoDe
Water pollutants detection by ZnO-modified electrochemical sensors:From computational modeling via electrochemical testing to real system application
Akronim / šifra: WaPoDe / 7377
NIO nosilac projekta: Institut tehničkih nauka SANU
NIO učesnici projekta: Univerzitet u Beogradu - Institut za nuklearne nauke „Vinča“
Projekat finansira: Fond za nauku Republike Srbije
Program: PRIZMA
Period realizacije: 2023 - 2026.
WaPoDe employs surface-to-bulk (S-to-B) defects ratio to improve selectivity, sensitivity and response time of ZnO-based nanoparticles as ECS for Diclofenac, Tetracycline, Doxorubicin, Fluoxetine and Chlorpyrifos. We use XRD, SEM, TEM, BET, Raman, FTIR, XPS, UV-Vis DRS and PL spectroscopy to study properties of synthetized ZnO-based nanoparticles. A variety of electrochemical techniques are applied to test the electrochemical activity of modified electrodes. One of the goals is to correlate S-to-B defects ratio in the nanoparticles with their electrochemical activity. Theoretical modeling us used to comprehend the mechanism of pollutants molecule interaction with materials surfaces allowing further improvement of response time.
WaPoDe will have impact on:
- transformation of local economy by promoting new technologies through communication, dissemination and implementation of our results,
- building human capacity for the high-tech companies by training young researchers, and
- increasing environmental awareness in society.
Најновије
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Influence of the graphene oxide content in the ZnO/GO composite on the selectivity and sensitivity of the electrode for detecting diclofenac in water
(Belgrade : Institute of Technical Sciences of SASA, 2025) -
Modification of the stoichiometric and the reduced SnO2 (110) surface by transition metal doping: density functional study
(FEMS EUROMAT 2025 : 18th European Congress and Exhibition on Advanced Materials and Processes : Book of abstracts, 2025) -
Modification of ZnO surfaces with oxygen vacancies: density functional study
(Belgrade : Materials Research Society of Serbia, 2024) -
Ab-Initio study of water molecule adsorption on monoclinic Scheelite-Type BiVO4 surfaces
(Computational Materials Science, 2025) -
Ab-Initio study of water molecule adsorption on monoclinic Scheelite-Type BiVO4 surfaces
(Computational Materials Science, 2025)
