Pjanović, Rada

Link to this page

Authority KeyName Variants
7835f61e-a782-4434-9a7a-fb0a9cb584f7
  • Pjanović, Rada (1)
Projects

Author's Bibliography

Removal of fluoride ions from water solutions by hydroxyapatite loaded aluminium gelled alginate particles

Milivojević, Milan; Jocić, Marija; Bugarčić, Mladen; Antanasković, Anja; Pjanović, Rada; Lopičić, Zorica

(Belgrade : The Military Technical Institute, 2020)

TY  - CONF
AU  - Milivojević, Milan
AU  - Jocić, Marija
AU  - Bugarčić, Mladen
AU  - Antanasković, Anja
AU  - Pjanović, Rada
AU  - Lopičić, Zorica
PY  - 2020
UR  - https://ritnms.itnms.ac.rs/handle/123456789/893
AB  - Fluoride ions (F-)might be found in drinking or wastewaters in too high concentrations either due to the
anthropogenic activity or some natural sources. Due to their negative effects on human health, allowed concentrations
for F- content in drinking water have been decreased. Therefore, in the last decade, investigations into researches in
new materials/techniques for fluoride removal from water streams have been intensified. This paper examines the
potential of hydroxyapatite loaded aluminum gelled alginate particles as an efficient and cheap sorbent for F- removal.
The adsorbent characterization before and after F- adsorption was performed using FT-IR technique. Adsorption
experiments were conducted in a stirring batch mode, varying concentration of adsorbate. Obtained results indicate
good adsorption capacity and removal efficiency, while FTIR spectra analysis point to the increased stability of
investigated adsorbent compared to Al-alginate without HAP.
PB  - Belgrade : The Military Technical Institute
C3  - 9th International scientific conference on defensive technologies
T1  - Removal of fluoride ions from water solutions by hydroxyapatite loaded aluminium gelled alginate particles
EP  - 517
SP  - 513
ER  - 
@conference{
author = "Milivojević, Milan and Jocić, Marija and Bugarčić, Mladen and Antanasković, Anja and Pjanović, Rada and Lopičić, Zorica",
year = "2020",
abstract = "Fluoride ions (F-)might be found in drinking or wastewaters in too high concentrations either due to the
anthropogenic activity or some natural sources. Due to their negative effects on human health, allowed concentrations
for F- content in drinking water have been decreased. Therefore, in the last decade, investigations into researches in
new materials/techniques for fluoride removal from water streams have been intensified. This paper examines the
potential of hydroxyapatite loaded aluminum gelled alginate particles as an efficient and cheap sorbent for F- removal.
The adsorbent characterization before and after F- adsorption was performed using FT-IR technique. Adsorption
experiments were conducted in a stirring batch mode, varying concentration of adsorbate. Obtained results indicate
good adsorption capacity and removal efficiency, while FTIR spectra analysis point to the increased stability of
investigated adsorbent compared to Al-alginate without HAP.",
publisher = "Belgrade : The Military Technical Institute",
journal = "9th International scientific conference on defensive technologies",
title = "Removal of fluoride ions from water solutions by hydroxyapatite loaded aluminium gelled alginate particles",
pages = "517-513"
}
Milivojević, M., Jocić, M., Bugarčić, M., Antanasković, A., Pjanović, R.,& Lopičić, Z.. (2020). Removal of fluoride ions from water solutions by hydroxyapatite loaded aluminium gelled alginate particles. in 9th International scientific conference on defensive technologies
Belgrade : The Military Technical Institute., 513-517.
Milivojević M, Jocić M, Bugarčić M, Antanasković A, Pjanović R, Lopičić Z. Removal of fluoride ions from water solutions by hydroxyapatite loaded aluminium gelled alginate particles. in 9th International scientific conference on defensive technologies. 2020;:513-517..
Milivojević, Milan, Jocić, Marija, Bugarčić, Mladen, Antanasković, Anja, Pjanović, Rada, Lopičić, Zorica, "Removal of fluoride ions from water solutions by hydroxyapatite loaded aluminium gelled alginate particles" in 9th International scientific conference on defensive technologies (2020):513-517.