Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis

Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the comparison between the experimental results and mathematical results was carried out, and the numerical analysis on the effects of operation...

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Published inTransactions of Nonferrous Metals Society of China Vol. 16; no. 4; pp. 951 - 955
Main Author 唐建军 周康根 张启修
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 01.08.2006
School of Construction and Environmental Engineering, Shenzhen Polytechnic, Shenzhen 518055, China%School of Metallurgical Science and Engineering, Central South University, Changsha 410083, China
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ISSN1003-6326
DOI10.1016/S1003-6326(06)60358-0

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Abstract Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the comparison between the experimental results and mathematical results was carried out, and the numerical analysis on the effects of operational parameters was studied. The results indicate that the derived mathematical model shows good quantitative relation between sulphuric acid recovery ratio and operational parameters, and the mathematical results agree with the experimental results well. The numerical analysis results indicate that it is appropriate to keep the ratio of water and feed flow rates, processing capacity per membrane area and recovery ratio of sulphuric acid to be 1, 20 L/(m^2.d) and 0.7-0.8, respectively.
AbstractList Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the comparison between the experimental results and mathematical results was carried out, and the numerical analysis on the effects of operational parameters was studied. The results indicate that the derived mathematical model shows good quantitative relation between sulphuric acid recovery ratio and operational parameters, and the mathematical results agree with the experimental results well. The numerical analysis results indicate that it is appropriate to keep the ratio of water and feed flow rates, processing capacity per membrane area and recovery ratio of sulphuric acid to be 1, 20 L/(m 2·d) and 0.7-0.8, respectively.
Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the comparison between the experimental results and mathematical results was carried out, and the numerical analysis on the effects of operational parameters was studied. The results indicate that the derived mathematical model shows good quantitative relation between sulphuric acid recovery ratio and operational parameters, and the mathematical results agree with the experimental results well. The numerical analysis results indicate that it is appropriate to keep the ratio of water and feed flow rates, processing capacity per membrane area and recovery ratio of sulphuric acid to be 1, 20 L/(m^2.d) and 0.7-0.8, respectively.
Sulfuric acid recovery from rare earth sulphate solutions by diSusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the comparison between the experimental results and mathematical results was carried out, and the numerical analysis on the effects of operational parameters was studied. The results indicate that the derived mathematical model shows good quantitative relation between sulphuric acid recovery ratio and operational parameters, and the mathematical results agree with the experimental results well. The numerical analysis results indicate mat it is appropriate to keep the ratio of water and feed flow rates, processing capacity per membrane area and recovery ratio of sulphuric acid to be 1, 20 L/(m2*d) and 0.7-0.8, respectively.
TG1; Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the comparison between the experimental results and mathematical results was carried out, and the numerical analysis on the effects of operational parameters was studied. The results indicate that the derived mathematical model shows good quantitative relation between sulphuric acid recovery ratio and operational parameters, and the mathematical results agree with the experimental results well. The numerical analysis results indicate that it is appropriate to keep the ratio of water and feed flow rates, processing capacity per membrane area and recovery ratio of sulphuric acid to be 1, 20 L/(m2·d) and 0.7-0.8,respectively.
Author 唐建军 周康根 张启修
AuthorAffiliation School of Construction and Environmental Engineering, Shenzhen Polytechnic, Shenzhen 518055, China School of Metallurgical Science and Engineering, Central South University, Changsha 410083, China
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Cites_doi 10.1016/S0304-3894(98)00099-5
10.1007/s11771-999-0008-4
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rare earth
recovery
diffusion dialysis
sulfuric acid
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mathematical model
rare earth
recovery
diffusion dialysis
sulfuric acid
diffusion dialysis; sulfuric acid; recovery; rare earth; mathematical model
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Snippet Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the...
Sulfuric acid recovery from rare earth sulphate solutions by diSusion dialysis was studied. The mass transfer model of diffusion dialysis was established, the...
TG1; Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis was studied. The mass transfer model of diffusion dialysis was...
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SubjectTerms diffusion dialysis
mathematical model
rare earth
recovery
sulfuric acid
数学模型
硫磺酸
腹膜透析
Title Sulfuric acid recovery from rare earth sulphate solutions by diffusion dialysis
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