TY - JOUR
T1 - Synergistic approach to industrial wastewater treatment
T2 - Combining plasmolysis and microalgae cultivation
AU - Younas, Muhammad
AU - Rehman, Fahad
AU - Zuhair, Sulaiman Al
AU - Ahmed, Faisal
AU - Muzafar, Muzamal
AU - Awad, Ali
AU - Asif, Maryam
AU - Javed, Fahed
N1 - Publisher Copyright:
© 2025 Elsevier B.V.
PY - 2025/3
Y1 - 2025/3
N2 - Microalgae cultivation offers a promising alternative to conventional wastewater treatment. However, microalgae cultivation is hindered in real wastewater treatment due to the high concentration of contaminates, complex organic compounds, and non-sterilization, which reduces microalgae growth. Therefore, the current hypothesis is to integrate plasmolysis and microalgae treatment for real textile wastewater (TWW) treatment, which can provide a sustainable approach to removing pollutants without adding harmful chemicals. The air plasma produced different oxidizing species, such as ozone, superoxide, atomic oxygen, and hydroxyl radical, capable of decomposing complex organic pollutants, dyes, and toxic compounds commonly found in TWW. This pre-treatment detoxifies the wastewater, making it safer for microalgae and reducing its color content and turbidity while enhancing light penetration. Hence, this study treats real TWW by integrating plasmolysis with microalgae technology. The results show that textile wastewater using plasmolysis reduces the 89.11 % color content in 20 min using air Corona-DBD plasma at 5 kV, 26 kHz, and 10 mA. Afterward, plasma-treated wastewater (OTWW) is introduced into the bioreactor for microalgae cultivation, and the results show a significant increase in microalgae growth in OTWW compared with TWW.
AB - Microalgae cultivation offers a promising alternative to conventional wastewater treatment. However, microalgae cultivation is hindered in real wastewater treatment due to the high concentration of contaminates, complex organic compounds, and non-sterilization, which reduces microalgae growth. Therefore, the current hypothesis is to integrate plasmolysis and microalgae treatment for real textile wastewater (TWW) treatment, which can provide a sustainable approach to removing pollutants without adding harmful chemicals. The air plasma produced different oxidizing species, such as ozone, superoxide, atomic oxygen, and hydroxyl radical, capable of decomposing complex organic pollutants, dyes, and toxic compounds commonly found in TWW. This pre-treatment detoxifies the wastewater, making it safer for microalgae and reducing its color content and turbidity while enhancing light penetration. Hence, this study treats real TWW by integrating plasmolysis with microalgae technology. The results show that textile wastewater using plasmolysis reduces the 89.11 % color content in 20 min using air Corona-DBD plasma at 5 kV, 26 kHz, and 10 mA. Afterward, plasma-treated wastewater (OTWW) is introduced into the bioreactor for microalgae cultivation, and the results show a significant increase in microalgae growth in OTWW compared with TWW.
KW - Decolorization
KW - Lipids extraction
KW - Microalgae
KW - Microplasma
KW - Nutrient removal
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U2 - 10.1016/j.cep.2025.110198
DO - 10.1016/j.cep.2025.110198
M3 - Article
AN - SCOPUS:85216567335
SN - 0255-2701
VL - 209
JO - Chemical Engineering and Processing - Process Intensification
JF - Chemical Engineering and Processing - Process Intensification
M1 - 110198
ER -