Microbial fuel cell for oilfield produced water treatment and reuse: Modelling and process optimization

다국어 초록 (Multilingual Abstract)

Oilfield produced water is one of the vast amounts of wastewater that pollute the environment and cause serious problems. In this study, the produced water was treated in a microbial fuel cell (MFC), and response surface methodology and central composite design (RSM/CCD) were used as powerful tools to optimize the process. The results of two separate parameters of sulfonated poly ether ether ketone (SPEEK) as well as nanocomposite composition (CNT/Pt) on the chemical oxygen demand (COD) removal and power generation were discussed. The nanocomposite was analyzed using XRD, SEM, and TEM. Moreover, the degree of sulfonation (DS) was measured by NMR. A quadratic model was utilized to forecast the removal of COD and power generation under distinct circumstances. To obtain the maximum COD removal along with maximum power generation, favorable conditions were achieved by statistical and mathematical techniques. The findings proved that MFC could remove 92% of COD and generate 545mW/m2 of power density at optimum conditions of DS=80; and CNT/Pt of 14 wt% CNT- 86 wt% Pt.

참고문헌 (Reference)

1 J. Hao, 179 : 276-, 2019

2 L. -M. Zhang, 108 : 561-, 2016

3 M. Gummalla, 5 : 926-, 2015

4 M. Sedighi, 35 : 236-, 2020

5 C. Baldizzone, 53 : 14250-, 2014

6 A. H. Khan, 90 : 627-, 2017

7 T. Chen, 16 : 272-, 2013

8 B. Erable, 5 : 975-, 2012

9 M. Safari, 138 : 33-, 2017

10 A. Agi, 51 : 214-, 2019

11 H. Chang, 455 : 34-, 2019

12 S. Munirasu, 100 : 183-, 2016

13 M. A. Al-Ghouti, 28 : 222-, 2019

14 G. Ji, 18 : 459-, 2002

15 S. Jiménez, 192 : 186-, 2018

16 A. Fakhru’l-Razi, 170 : 530-, 2009

17 M. Wang, 7 : 102878-, 2019

18 H. Fakharian, 72 : 157-, 2017

19 P. Jain, 166 : 96-, 2017

20 B. Jia, 104 : 82-, 2019

21 J. Zheng, 104 : 7-, 2016

22 C. Wang, 32 : 100972-, 2019

23 G. Mohanakrishna, 665 : 820-, 2019

24 H. Li, 298 : 122421-, 2019

25 E. T. Igunnu, 9 : 157-, 2014

26 M. Ghasemi, 325 : 1-, 2013

27 M. Sedighi, 57 : 4243-, 2018

28 J. X. Leong, 28 : 575-, 2013

29 M. Ghasemi, 36 : 13746-, 2011

30 H. Yano, 29 : 323-, 2016

31 M. Ghasemi, 41 : 4862-, 2016

32 M. Ghasemi, 102 : 1050-, 2013

33 S. Hisham, 1 : 646-, 2019

34 H. Ilbeygi, 45 : 2265-, 2014

35 M. Sedighi, 32 : 7412-, 2018

36 M. Mohammadi, 10 : 195-, 2019

37 M. Mohammadi, 238 : 326-, 2017

38 M. Ghasemi, 1 : 1-, 2020

39 M. Ghasemi, 41 : 4872-, 2016

40 Y. Mohan, 34 : 7542-, 2009

41 B. Hou, 102 : 4433-, 2011

42 N. Garino, 8 : 4633-, 2016

43 A. Mehdinia, 130 : 512-, 2014

44 A. Kongkanand, 7 : 1127-, 2016

45 H. S. Ahn, 23 : 227-, 2013

46 J. An, 45 : 5441-, 2011

47 장호남, "Removal of volatile fatty acids (VFA) by microbial fuel cell with aluminum electrode and microbial community identification with 16S rRNA sequence" 한국화학공학회 25 (25): 535-541, 2008

48 K. Subramanian, "Nanofluids and their engineering applications" CRC Press 2019

49 Mostafa Rahimnejad, "Improvement of sediment microbial fuel cell performance by application of sun light and biocathode" 한국화학공학회 33 (33): 154-158, 2016

50 김병우, "Generation behavior of elctricity in a microbial fuel cell" 한국화학공학회 27 (27): 546-550, 2010

51 Mostafa Ghasemi, "Evaluation of solvent dearomatization effect in heavy feedstock thermal cracking to light olefin: An optimization study" 한국화학공학회 30 (30): 1700-1709, 2013

52 D. C. Montgomery, "Design and analysis of experiments" Wiley 2017

53 Fatemeh Momtazan, "Application of copper sulfide nanoparticles loaded activated carbon for simultaneous adsorption of ternary dyes: Response surface methodology" 한국화학공학회 35 (35): 1108-1118, 2018