Factors Affecting Aluminum Dissolve from Acidified Water Purification Sludge
Recovering resources from water purification sludge
(WPS) have been gradually stipulated in environmental protection
laws and regulations in many nations. Hence, reusing the WPS is
becoming an important topic, and recovering alum from WPS is one of
the many practical alternatives. Most previous research efforts have
been conducted on studying the amphoteric characteristic of aluminum
hydroxide for investigating the optimum pH range to dissolve the
Al(III) species from WPS, but it has been lack of reaction kinetics or
mechanisms related discussion. Therefore, in this investigation, water
purification sludge (WPS) solution was broken by ultrasound to make
particle size of reactants smaller, specific surface area larger.
According to the reaction kinetics, these phenomena let the dissolved
aluminum salt quantity increased and the reaction rate go faster.
[1] D.A. Cornwell, R.M. Lemunyon, Feasibility studies on liquid ion
exchange for alum recovery from water treatment plant sludges. J.
AWWA, 72(1) (1980), pp. 64-68.
[2] Q. Imran, M. A. Hanif, M. S. Riaz, S. Noureen, T. M. Ansari, H. N.
Bhatti, coagulation/flocculation of tannery wastewater using immobilized
chemical coagulants. Journal of Applied Research and Technology. 10(2)
(2012), pp. 79-86.
[3] A.M. Evuti, M. Lawal, Recovery of coagulants from water works sludge:
A review. Advances in Applied Science Research, 2(2011) , pp. 410-417.
[4] A.K. Sengupta P. Prakash, Alum recovery from water treatment works
sludges, Water 21, 6(1) (2004), pp. 15-16.
[5] B. Jimenez, M. Martinez, M. Vaca, Alum recovery and wastewater sludge
stabilization with sulfuric acid, Water Sci Technol. 56(8) (2007), pp.
133-141.
[6] L. Yang, J. Wei, Y. Zhang, J. Wang, D. Wang, Reuse of acid
coagulant-recovered drinking water works sludge residual to remove
phosphorus from wastewater, Applied Surface Science, (305) (2014), pp.
337–346.
[7] A.O. Babatunde, Y. Q. Zhaoa, Constructive approaches toward water
treatment works sludge management: an international review of
beneficial reuses. Journal of Critical Reviews in Environmental Science
and Technology, 37(2) (2007), pp. 129-164.
[8] T. Yu, D.G. Shen, C.N. Yang, Q.N. Shao, P.S. Song, L.N. He, W.X. Pan,
S.P. Bi, Technical development of Aluminum salt recovery from alum
sludge. Journal of The Administration and Technique of Environmental
Monitoring, 21(2) (2009), pp. 45-52.
[9] Z. Liu, S.M. Zhu, Y.H. Li, A new regeneration approach to cation resins
with aluminum salts: application of desalination by its mixed bed.
Frontiers of Environmental Science& Engineering in China, 6(1) (2012),
pp. 45-50.
[10] M.S.E Abdo., K.T. Ewida, Y.M. Youssef, Recovery of alum from wasted
sludge produced from water treatment plants. J. Environ. Sci. Heal. A,
28(6) (1993), pp. 1205-1216.
[11] B. Jimenez, M. Martinez, M. Vaca, Alum recovery and wastewater sludge
stabilization with sulfuric acid, Water Sci Technol. 56(8) (2007), pp.
133-141.
[12] M.H. Huang, L.D. Chen, S. Zhou, Characteristics and aluminum reuse of
textile sludge incineration residues after acidification, Journal of
Environmental Sciences 23(12) (2011), pp. 1999-2004.
[13] W.P. Cheng, C.H. Fu, R.F. Yu, Dynamics of aluminum leaching from
water purification sludge. J. Hazard. Mater., 217-218 (2012), pp.
149-156.
[14] L. Yang, Y.X. Han, D.T. Wang, High Efficiency Aluminum Coagulant
Recovery from Drinking Water Treatment Plant Sludge by Using
Ultrasound Assisted Acidification, Advanced Materials Research, 777
(2013), pp. 60-64.
[15] T. Panswad, P. Chamnan, Aluminum recovery from industrial aluminum
sludge. Water Supply, 10(4) (1992), pp.159-166.
[16] W.L. Peng, Effect of acidification/alkalization on water treatment plant
sludge reduction and dewaterability. Master’s thesis, Tankang
University, Taiwan R.O.C, 2009.
[17] S.H. Huang, J.L. Chen, K.Y. Chiang, H.C. Wu, Effects of acidification on
dewaterability and aluminum concentration of alum sludge. Journal of
Separation Science and Technology, 45(8) (2010), pp.1165-1169.
[18] Y.J. Chen, H.Y. Teng, P.S. Wei, Y.C. Dung, Monitoring and analysis of
acoustic cavitation behaviors in liquid. Journal of Advanced Engineering,
2(3) (2007), pp. 157-161.
[19] T.J. Mason, Ultrasound in Environmental Engineering II (Ed. Neis, U.), 2002,
35, 1.
[20] J. Bien, M. Kowalczyk, T. Kamizela, M. Mrwiec, The influence of
ultrasonic disintegration aided with chemicals on the efficiency of sewage
sludge centrifugation. Environmental Protection Engineering, 36(1)
(2010), pp. 35-43.
[21] M.K. Ridley, D.J. Wesolowski, D.A. Palmer, B. Pascale, R.M. Kettler,
Effect of sulfate on the release rate of Al3+ from gibbsite in
low-temperature acidic waters. Journal of Environ. Sci. Technol., 31
(1997), pp. 1922-1925.
[1] D.A. Cornwell, R.M. Lemunyon, Feasibility studies on liquid ion
exchange for alum recovery from water treatment plant sludges. J.
AWWA, 72(1) (1980), pp. 64-68.
[2] Q. Imran, M. A. Hanif, M. S. Riaz, S. Noureen, T. M. Ansari, H. N.
Bhatti, coagulation/flocculation of tannery wastewater using immobilized
chemical coagulants. Journal of Applied Research and Technology. 10(2)
(2012), pp. 79-86.
[3] A.M. Evuti, M. Lawal, Recovery of coagulants from water works sludge:
A review. Advances in Applied Science Research, 2(2011) , pp. 410-417.
[4] A.K. Sengupta P. Prakash, Alum recovery from water treatment works
sludges, Water 21, 6(1) (2004), pp. 15-16.
[5] B. Jimenez, M. Martinez, M. Vaca, Alum recovery and wastewater sludge
stabilization with sulfuric acid, Water Sci Technol. 56(8) (2007), pp.
133-141.
[6] L. Yang, J. Wei, Y. Zhang, J. Wang, D. Wang, Reuse of acid
coagulant-recovered drinking water works sludge residual to remove
phosphorus from wastewater, Applied Surface Science, (305) (2014), pp.
337–346.
[7] A.O. Babatunde, Y. Q. Zhaoa, Constructive approaches toward water
treatment works sludge management: an international review of
beneficial reuses. Journal of Critical Reviews in Environmental Science
and Technology, 37(2) (2007), pp. 129-164.
[8] T. Yu, D.G. Shen, C.N. Yang, Q.N. Shao, P.S. Song, L.N. He, W.X. Pan,
S.P. Bi, Technical development of Aluminum salt recovery from alum
sludge. Journal of The Administration and Technique of Environmental
Monitoring, 21(2) (2009), pp. 45-52.
[9] Z. Liu, S.M. Zhu, Y.H. Li, A new regeneration approach to cation resins
with aluminum salts: application of desalination by its mixed bed.
Frontiers of Environmental Science& Engineering in China, 6(1) (2012),
pp. 45-50.
[10] M.S.E Abdo., K.T. Ewida, Y.M. Youssef, Recovery of alum from wasted
sludge produced from water treatment plants. J. Environ. Sci. Heal. A,
28(6) (1993), pp. 1205-1216.
[11] B. Jimenez, M. Martinez, M. Vaca, Alum recovery and wastewater sludge
stabilization with sulfuric acid, Water Sci Technol. 56(8) (2007), pp.
133-141.
[12] M.H. Huang, L.D. Chen, S. Zhou, Characteristics and aluminum reuse of
textile sludge incineration residues after acidification, Journal of
Environmental Sciences 23(12) (2011), pp. 1999-2004.
[13] W.P. Cheng, C.H. Fu, R.F. Yu, Dynamics of aluminum leaching from
water purification sludge. J. Hazard. Mater., 217-218 (2012), pp.
149-156.
[14] L. Yang, Y.X. Han, D.T. Wang, High Efficiency Aluminum Coagulant
Recovery from Drinking Water Treatment Plant Sludge by Using
Ultrasound Assisted Acidification, Advanced Materials Research, 777
(2013), pp. 60-64.
[15] T. Panswad, P. Chamnan, Aluminum recovery from industrial aluminum
sludge. Water Supply, 10(4) (1992), pp.159-166.
[16] W.L. Peng, Effect of acidification/alkalization on water treatment plant
sludge reduction and dewaterability. Master’s thesis, Tankang
University, Taiwan R.O.C, 2009.
[17] S.H. Huang, J.L. Chen, K.Y. Chiang, H.C. Wu, Effects of acidification on
dewaterability and aluminum concentration of alum sludge. Journal of
Separation Science and Technology, 45(8) (2010), pp.1165-1169.
[18] Y.J. Chen, H.Y. Teng, P.S. Wei, Y.C. Dung, Monitoring and analysis of
acoustic cavitation behaviors in liquid. Journal of Advanced Engineering,
2(3) (2007), pp. 157-161.
[19] T.J. Mason, Ultrasound in Environmental Engineering II (Ed. Neis, U.), 2002,
35, 1.
[20] J. Bien, M. Kowalczyk, T. Kamizela, M. Mrwiec, The influence of
ultrasonic disintegration aided with chemicals on the efficiency of sewage
sludge centrifugation. Environmental Protection Engineering, 36(1)
(2010), pp. 35-43.
[21] M.K. Ridley, D.J. Wesolowski, D.A. Palmer, B. Pascale, R.M. Kettler,
Effect of sulfate on the release rate of Al3+ from gibbsite in
low-temperature acidic waters. Journal of Environ. Sci. Technol., 31
(1997), pp. 1922-1925.
@article{"International Journal of Chemical, Materials and Biomolecular Sciences:71445", author = "Wen Po Cheng and Chi Hua Fu and Ping Hung Chen and Ruey Fang Yu", title = "Factors Affecting Aluminum Dissolve from Acidified Water Purification Sludge", abstract = "Recovering resources from water purification sludge
(WPS) have been gradually stipulated in environmental protection
laws and regulations in many nations. Hence, reusing the WPS is
becoming an important topic, and recovering alum from WPS is one of
the many practical alternatives. Most previous research efforts have
been conducted on studying the amphoteric characteristic of aluminum
hydroxide for investigating the optimum pH range to dissolve the
Al(III) species from WPS, but it has been lack of reaction kinetics or
mechanisms related discussion. Therefore, in this investigation, water
purification sludge (WPS) solution was broken by ultrasound to make
particle size of reactants smaller, specific surface area larger.
According to the reaction kinetics, these phenomena let the dissolved
aluminum salt quantity increased and the reaction rate go faster.", keywords = "Aluminum, Acidification, Sludge, Recovery.", volume = "8", number = "8", pages = "878-4", }
