Enhancement of biogranules development using magnetized powder activated carbon
Biogranulation has emerged as a viable alternative biological wastewater treatment approach because of its strong biodegradability potential, toxicity tolerance, and biomass retention features. However, this process requires a long duration for biogranules formation to occur. In this study, magnetic...
Main Authors: | , , , , , |
---|---|
Format: | Article |
Published: |
Springer Science and Business Media B.V.
2023
|
Subjects: |
_version_ | 1811132142044839936 |
---|---|
author | Omar, Ahmad Hanis Muda, Khalida Omoregie, Armstrong Ighodalo Abdul Majid, Zaiton Aftar Ali, Nur Shahidah Mohd. Pauzi, Farhan |
author_facet | Omar, Ahmad Hanis Muda, Khalida Omoregie, Armstrong Ighodalo Abdul Majid, Zaiton Aftar Ali, Nur Shahidah Mohd. Pauzi, Farhan |
author_sort | Omar, Ahmad Hanis |
collection | ePrints |
description | Biogranulation has emerged as a viable alternative biological wastewater treatment approach because of its strong biodegradability potential, toxicity tolerance, and biomass retention features. However, this process requires a long duration for biogranules formation to occur. In this study, magnetic powder activated carbon (MPAC) was used as support material in a sequencing batch reactor to enhance biogranules development for wastewater treatment. Two parallel SBRs (designated R1 and R2) were used, with R1 serving as a control without the presence of MPAC while R2 was operated with MPAC. The biodegradability capacity and biomass properties of MPAC biogranules were compared with a control system. The measured diameter of biogranules for R1 and R2 after 8 weeks of maturation were 2.2 mm and 3.4 mm, respectively. The integrity coefficient of the biogranules in R2 was higher (8.3%) than that of R1 (13.4%), indicating that the addition of MPAC improved the structure of the biogranules in R2. The components of extracellular polymeric substances were also higher in R2 than in R1. Scanning electronic microscopy was able to examine the morphological structures of the biogranules which showed there were irregular formations compacted together. However, there were more cavities situated in R1 biogranules (without MPAC) when compared to R2 biogranules (with MPAC). Dye removal reached 65% and 83% in R1 and R2 in the post-development stage. This study demonstrates that the addition of MPAC could shorten and improve biogranules formation. MPAC acted as the support media for microbial growth during the biogranulation developmental process. |
first_indexed | 2024-09-23T23:57:34Z |
format | Article |
id | utm.eprints-105478 |
institution | Universiti Teknologi Malaysia - ePrints |
last_indexed | 2024-09-23T23:57:34Z |
publishDate | 2023 |
publisher | Springer Science and Business Media B.V. |
record_format | dspace |
spelling | utm.eprints-1054782024-04-30T07:53:14Z http://eprints.utm.my/105478/ Enhancement of biogranules development using magnetized powder activated carbon Omar, Ahmad Hanis Muda, Khalida Omoregie, Armstrong Ighodalo Abdul Majid, Zaiton Aftar Ali, Nur Shahidah Mohd. Pauzi, Farhan TA Engineering (General). Civil engineering (General) Biogranulation has emerged as a viable alternative biological wastewater treatment approach because of its strong biodegradability potential, toxicity tolerance, and biomass retention features. However, this process requires a long duration for biogranules formation to occur. In this study, magnetic powder activated carbon (MPAC) was used as support material in a sequencing batch reactor to enhance biogranules development for wastewater treatment. Two parallel SBRs (designated R1 and R2) were used, with R1 serving as a control without the presence of MPAC while R2 was operated with MPAC. The biodegradability capacity and biomass properties of MPAC biogranules were compared with a control system. The measured diameter of biogranules for R1 and R2 after 8 weeks of maturation were 2.2 mm and 3.4 mm, respectively. The integrity coefficient of the biogranules in R2 was higher (8.3%) than that of R1 (13.4%), indicating that the addition of MPAC improved the structure of the biogranules in R2. The components of extracellular polymeric substances were also higher in R2 than in R1. Scanning electronic microscopy was able to examine the morphological structures of the biogranules which showed there were irregular formations compacted together. However, there were more cavities situated in R1 biogranules (without MPAC) when compared to R2 biogranules (with MPAC). Dye removal reached 65% and 83% in R1 and R2 in the post-development stage. This study demonstrates that the addition of MPAC could shorten and improve biogranules formation. MPAC acted as the support media for microbial growth during the biogranulation developmental process. Springer Science and Business Media B.V. 2023 Article PeerReviewed Omar, Ahmad Hanis and Muda, Khalida and Omoregie, Armstrong Ighodalo and Abdul Majid, Zaiton and Aftar Ali, Nur Shahidah and Mohd. Pauzi, Farhan (2023) Enhancement of biogranules development using magnetized powder activated carbon. Biodegradation, 34 (3). pp. 235-252. ISSN 0923-9820 http://dx.doi.org/10.1007/s10532-023-10016-7 DOI : 10.1007/s10532-023-10016-7 |
spellingShingle | TA Engineering (General). Civil engineering (General) Omar, Ahmad Hanis Muda, Khalida Omoregie, Armstrong Ighodalo Abdul Majid, Zaiton Aftar Ali, Nur Shahidah Mohd. Pauzi, Farhan Enhancement of biogranules development using magnetized powder activated carbon |
title | Enhancement of biogranules development using magnetized powder activated carbon |
title_full | Enhancement of biogranules development using magnetized powder activated carbon |
title_fullStr | Enhancement of biogranules development using magnetized powder activated carbon |
title_full_unstemmed | Enhancement of biogranules development using magnetized powder activated carbon |
title_short | Enhancement of biogranules development using magnetized powder activated carbon |
title_sort | enhancement of biogranules development using magnetized powder activated carbon |
topic | TA Engineering (General). Civil engineering (General) |
work_keys_str_mv | AT omarahmadhanis enhancementofbiogranulesdevelopmentusingmagnetizedpowderactivatedcarbon AT mudakhalida enhancementofbiogranulesdevelopmentusingmagnetizedpowderactivatedcarbon AT omoregiearmstrongighodalo enhancementofbiogranulesdevelopmentusingmagnetizedpowderactivatedcarbon AT abdulmajidzaiton enhancementofbiogranulesdevelopmentusingmagnetizedpowderactivatedcarbon AT aftaralinurshahidah enhancementofbiogranulesdevelopmentusingmagnetizedpowderactivatedcarbon AT mohdpauzifarhan enhancementofbiogranulesdevelopmentusingmagnetizedpowderactivatedcarbon |