2016Journal of Earth Environment and Health SciencesRequires access

Application of Palm Kernel Shell Activated Carbon for the Removal of Pollutant and Color in Palm Oil Mill Effluent Treatment

Nor Faizah Jalani, AstimarAbdul Aziz, NoorshamsianaAbdul Wahab, WanHasamudin Wan Hassan, NahrulHayawin Zainal

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Abstract

Introduction: Application of palm kernel shell activated carbon (PKSAC) in reducing the pollutant in palm oil mill effluent (POME) was studied as the alternative treatment system. Aim: The objective of this study was to determine the optimum PKSAC dosage and treatment time for its capability to treat the effluent. Methods: The study was carried out in batch and continuous systems. For batch system, activated carbon dosage ranging from 1% to 15% (w/v) was added into 200 mL of POME and agitated at 160 rpm for 24-120 h treatment time. As for continuous system, POME samples were fed into 2000 mL fixed-bed glass column and run continuously for 8 h/cycle. Results: For the batch study, results showed that the PKSAC works with maximum removal of pollutant at very high dosage up to 15% (w/v) in 72 h treatment time. Meanwhile, for fixed-bed treatment, POME was fed to the column with flow rate of 15 mL/min. The initial chemical oxygen demand (COD) and color of samples were in the range of 450-910 mg/L and 3500-6500 Pt/Co, respectively, and after the treatment, the maximum COD and color removal were 75% and 76%, respectively. The PKSAC became saturated after 8 treatment cycle. Conclusion: It can be concluded that the palm-based activated carbon was able to remove the organic pollutant and color of POME in both batch and continuous adsorption treatments. Being the raw material available in the palm oil mill, the PKS can be converted into activated carbon and used as sustainable practice to treat POME.

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What this paper is about

Introduction: Application of palm kernel shell activated carbon (PKSAC) in reducing the pollutant in palm oil mill effluent (POME) was studied as the alternative treatment system. Aim: The objective of this study was to determine the optimum PKSAC dosage and treatment time for its capability to treat the effluent. Methods: The study was carried out in batch and continuous systems. For batch system, activated carbon dosage ranging from 1% to 15% (w/v) was added into 200 mL of POME and agitated at 160 rpm for 24-120 h treatment time. As for continuous system, POME samples were fed into 2000 mL fixed-bed glass column and run continuously for 8 h/cycle. Results: For the batch study, results showed that the PKSAC works with maximum removal of pollutant at very high dosage up to 15% (w/v) in 72 h treatment time. Meanwhile, for fixed-bed treatment, POME was fed to the column with flow rate of 15 mL/min. The initial chemical oxygen demand (COD) and color of samples were in the range of 450-910 mg/L and 3500-6500 Pt/Co, respectively, and after the treatment, the maximum COD and color removal were 75% and 76%, respectively. The PKSAC became saturated after 8 treatment cycle. Conclusion: It can be concluded that the palm-based activated carbon was able to remove the organic pollutant and color of POME in both batch and continuous adsorption treatments. Being the raw material available in the palm oil mill, the PKS can be converted into activated carbon and used as sustainable practice to treat POME.

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Available abstract

Introduction: Application of palm kernel shell activated carbon (PKSAC) in reducing the pollutant in palm oil mill effluent (POME) was studied as the alternative treatment system. Aim: The objective of this study was to determine the optimum PKSAC dosage and treatment time for its capability to treat the effluent. Methods: The study was carried out in batch and continuous systems. For batch system, activated carbon dosage ranging from 1% to 15% (w/v) was added into 200 mL of POME and agitated at 160 rpm for 24-120 h treatment time. As for continuous system, POME samples were fed into 2000 mL fixed-bed glass column and run continuously for 8 h/cycle. Results: For the batch study, results showed that the PKSAC works with maximum removal of pollutant at very high dosage up to 15% (w/v) in 72 h treatment time. Meanwhile, for fixed-bed treatment, POME was fed to the column with flow rate of 15 mL/min. The initial chemical oxygen demand (COD) and color of samples were in the range of 450-910 mg/L and 3500-6500 Pt/Co, respectively, and after the treatment, the maximum COD and color removal were 75% and 76%, respectively. The PKSAC became saturated after 8 treatment cycle. Conclusion: It can be concluded that the palm-based activated carbon was able to remove the organic pollutant and color of POME in both batch and continuous adsorption treatments. Being the raw material available in the palm oil mill, the PKS can be converted into activated carbon and used as sustainable practice to treat POME.

Key concepts: Pome, Palm kernel, Activated carbon, Effluent, Pulp and paper industry, Pollutant, Chemical oxygen demand, Chemistry

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Application of Palm Kernel Shell Activated Carbon for the Removal of Pollutant and Color in Palm Oil Mill Effluent Treatment — Research Paper | ScholarLens