Nalazite se na CroRIS probnoj okolini. Ovdje evidentirani podaci neće biti pohranjeni u Informacijskom sustavu znanosti RH. Ako je ovo greška, CroRIS produkcijskoj okolini moguće je pristupi putem poveznice www.croris.hr
izvor podataka: crosbi !

Assessment of Seasonal Changes on the Carbon Cycle in the Critical Zone of a Surface Water (SW)– Groundwater (GW) System (CROSBI ID 315866)

Prilog u časopisu | izvorni znanstveni rad | međunarodna recenzija

Karlović, Igor ; Marković, Tamara ; Kanduč, Tjaša ; Vreča, Polona Assessment of Seasonal Changes on the Carbon Cycle in the Critical Zone of a Surface Water (SW)– Groundwater (GW) System // Water, 14 (2022), 1-17. doi: 10.3390/w14213372

Podaci o odgovornosti

Karlović, Igor ; Marković, Tamara ; Kanduč, Tjaša ; Vreča, Polona

engleski

Assessment of Seasonal Changes on the Carbon Cycle in the Critical Zone of a Surface Water (SW)– Groundwater (GW) System

Groundwater is a valuable source of water for human consumption, and its quality is a current issue worldwide. Understanding carbon and water cycling presents the basis of biogeo‐ chemical reactions occurring in the aquifer ; therefore, understanding their interaction is imperative for sustainable water management. In the paper, this interaction was investigated within the com‐ plex surface water (SW)–groundwater (GW) system in the Varaždin region (Croatia) by using a multi‐parameter approach: δ13CDIC values, carbon species (DIC, DOC), δ18O and δ2H values, geo‐ chemical indicators (T, pH, DO, EC), and δ13C measurements in solids. Both δ18O/δ2H and δ13CDIC were recognized as good indicators to differentiate shallow and deep GW. Transit time of water (TT) was evaluated as an important parameter in controlling carbon cycling within the SW–GW system. Shallow GW is characterized by shorter TT, seasonal changes in carbon species and δ13CDIC, and lower possibility of carbon capture in the system. Deep GW has longer TT without pronounced seasonal changes in carbon species and δ13CDIC. The conceptual model of the carbon cycle revealed major sources and sinks of CO2 in the study area. Our results suggest that GW acts as both source and sink for CO2, depending on the prevailing geochemical process. Surface waters are primarily a source of CO2, excluding the gravel pit, which acts primarily as a sink for CO2. Our study shows that the current SW–GW dynamics regulate carbon balance without having negative impacts on groundwater quality but also demonstrates that implementing carbon cycle in water management studies is of vital importance for sustainable use of groundwater.

water cycle ; carbon cycle ; isotopic composition ; dissolved inorganic carbon (DIC) flux ; transit time (TT) ; Varaždin alluvial aquifer

Igor Karlović i Tamara Marković su glavni autori ovog rada.

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

nije evidentirano

Podaci o izdanju

14

2022.

1-17

objavljeno

2073-4441

10.3390/w14213372

Povezanost rada

Geologija, Rudarstvo, nafta i geološko inženjerstvo

Poveznice
Indeksiranost