CO2, a major industrial (waste)water treatment process byproduct, significantly contributes to climate change, desertification and overall water depletion. Therefore, there is a significant interest in decreasing CO2 amounts, generated by various technological processes, through a wide range of methods from geological sequestration to biological sequestration. The CO2 (waste)water treatment byproduct sequestration into agricultural CO2-enhanced irrigation water offers several benefits by enhancing crop yield and repurposing emissions. This sustainable approach supports climate neutrality via biological sequestration, promotes circular economy principles, and strengthens the link between agriculture and climate change. In this study, the effect of CO2-enriched water irrigation was analyzed in a complex network of plants germination, soil bacterial populations' dynamics and soil composition. Results showed that germination rates of plants irrigated with CO2-enriched water were species specific. Sage plants increased their germination and growth when irrigated with CO2-enriched water compared with plants irrigated with plain water. Moreover, CO2 addition favored the development of soil anaerobic bacteria in detriment of aerobic bacteria and subsequently changing organic and nitrogenous compounds soil composition compared to plain water irrigation. For the first time, the germination process influenced by CO2 was correlated with on overall possible CO2 effects on bacterial population growth dynamics and soil quality metabolites availability.
The Effects of CO2-Enriched Water Irrigation on Agricultural Crop Growth / Feodorov, Laura; Patrascu, Anca Maria; Banciu, Alina-Roxana; Radulescu, Dragos; Stoica, Catalina; Sen, Indraneel; Dimitrova, Yasmina; Fasano, Matteo; Nita-Lazar, Mihai. - In: AGRICULTURE. - ISSN 2077-0472. - ELETTRONICO. - 15:11(2025), pp. 1-10. [10.3390/agriculture15111222]
The Effects of CO2-Enriched Water Irrigation on Agricultural Crop Growth
Sen, Indraneel;Fasano, Matteo;
2025
Abstract
CO2, a major industrial (waste)water treatment process byproduct, significantly contributes to climate change, desertification and overall water depletion. Therefore, there is a significant interest in decreasing CO2 amounts, generated by various technological processes, through a wide range of methods from geological sequestration to biological sequestration. The CO2 (waste)water treatment byproduct sequestration into agricultural CO2-enhanced irrigation water offers several benefits by enhancing crop yield and repurposing emissions. This sustainable approach supports climate neutrality via biological sequestration, promotes circular economy principles, and strengthens the link between agriculture and climate change. In this study, the effect of CO2-enriched water irrigation was analyzed in a complex network of plants germination, soil bacterial populations' dynamics and soil composition. Results showed that germination rates of plants irrigated with CO2-enriched water were species specific. Sage plants increased their germination and growth when irrigated with CO2-enriched water compared with plants irrigated with plain water. Moreover, CO2 addition favored the development of soil anaerobic bacteria in detriment of aerobic bacteria and subsequently changing organic and nitrogenous compounds soil composition compared to plain water irrigation. For the first time, the germination process influenced by CO2 was correlated with on overall possible CO2 effects on bacterial population growth dynamics and soil quality metabolites availability.File | Dimensione | Formato | |
---|---|---|---|
agriculture-15-01222-v2.pdf
accesso aperto
Descrizione: manuscript
Tipologia:
2a Post-print versione editoriale / Version of Record
Licenza:
Creative commons
Dimensione
659.11 kB
Formato
Adobe PDF
|
659.11 kB | Adobe PDF | Visualizza/Apri |
Pubblicazioni consigliate
I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.
https://hdl.handle.net/11583/3001201