Modeling of ammonium lactate recovery and impurity removal from simulated fermentation broth by nanofiltration

► A mechanistic nanofiltration (NF) model has been developed. ► It is for the simulation of NF process for lactate recovery from fermentation broth. ► It can predict the transient and steady-state behaviors of the process within ±1%. ► The proposed model provides a useful tool in process design and...

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Veröffentlicht in:Journal of membrane science 2012-04, Vol.396, p.110-118
Hauptverfasser: Kim, Jae Hyung, Na, Jeong-Geol, Shim, Hyun Joo, Chang, Yong Keun
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container_title Journal of membrane science
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creator Kim, Jae Hyung
Na, Jeong-Geol
Shim, Hyun Joo
Chang, Yong Keun
description ► A mechanistic nanofiltration (NF) model has been developed. ► It is for the simulation of NF process for lactate recovery from fermentation broth. ► It can predict the transient and steady-state behaviors of the process within ±1%. ► The proposed model provides a useful tool in process design and optimization. A multistage version of nanofiltration (NF) model has been developed, which can predict the transient and steady-state behaviors of the process for lactate recovery from fermentation broth. The model parameters were estimated based on experimental data at various lactate concentrations and operating pressures with simulated fermentation broth containing impurities as well as lactate by using Spiegler–Kedem model and Teorell–Meyer–Sievers model. Continuous NF operations were carried out for various bleed ratios to investigate the effects of bleed on the lactate recovery and level of impurity represented by sulfate in this study. Time profiles of lactate and sulfate concentrations in the system and permeate predicted by the proposed model were in a good agreement with the experimental data. Also, the accuracy of the steady-state prediction by the model was experimentally proved. It was demonstrated that impurity concentration decreased as the bleed ratio was increased, while the lactate recovery decreased proportional to the bleed ratio as expected. The proposed model can be used for predicting the process behaviors during a start up period and at the steady state, providing a useful tool in process design and optimization.
doi_str_mv 10.1016/j.memsci.2012.01.003
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A multistage version of nanofiltration (NF) model has been developed, which can predict the transient and steady-state behaviors of the process for lactate recovery from fermentation broth. The model parameters were estimated based on experimental data at various lactate concentrations and operating pressures with simulated fermentation broth containing impurities as well as lactate by using Spiegler–Kedem model and Teorell–Meyer–Sievers model. Continuous NF operations were carried out for various bleed ratios to investigate the effects of bleed on the lactate recovery and level of impurity represented by sulfate in this study. Time profiles of lactate and sulfate concentrations in the system and permeate predicted by the proposed model were in a good agreement with the experimental data. Also, the accuracy of the steady-state prediction by the model was experimentally proved. It was demonstrated that impurity concentration decreased as the bleed ratio was increased, while the lactate recovery decreased proportional to the bleed ratio as expected. 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A multistage version of nanofiltration (NF) model has been developed, which can predict the transient and steady-state behaviors of the process for lactate recovery from fermentation broth. The model parameters were estimated based on experimental data at various lactate concentrations and operating pressures with simulated fermentation broth containing impurities as well as lactate by using Spiegler–Kedem model and Teorell–Meyer–Sievers model. Continuous NF operations were carried out for various bleed ratios to investigate the effects of bleed on the lactate recovery and level of impurity represented by sulfate in this study. Time profiles of lactate and sulfate concentrations in the system and permeate predicted by the proposed model were in a good agreement with the experimental data. Also, the accuracy of the steady-state prediction by the model was experimentally proved. 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A multistage version of nanofiltration (NF) model has been developed, which can predict the transient and steady-state behaviors of the process for lactate recovery from fermentation broth. The model parameters were estimated based on experimental data at various lactate concentrations and operating pressures with simulated fermentation broth containing impurities as well as lactate by using Spiegler–Kedem model and Teorell–Meyer–Sievers model. Continuous NF operations were carried out for various bleed ratios to investigate the effects of bleed on the lactate recovery and level of impurity represented by sulfate in this study. Time profiles of lactate and sulfate concentrations in the system and permeate predicted by the proposed model were in a good agreement with the experimental data. Also, the accuracy of the steady-state prediction by the model was experimentally proved. 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source ScienceDirect Journals (5 years ago - present)
subjects ammonium lactate
artificial membranes
Bleeding
Chemistry
Colloidal state and disperse state
Continuous nanofiltration
culture media
Exact sciences and technology
General and physical chemistry
Lactate recovery
Membranes
Modeling
nanofiltration
prediction
process design
sulfates
title Modeling of ammonium lactate recovery and impurity removal from simulated fermentation broth by nanofiltration
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