Immobilization of a multi‐enzyme system for L‐amino acids production

BACKGROUND: Four enzymes were immobilized for the production of optically pure natural and non‐natural L‐amino acids via the ‘Double‐Racemase Hydantoinase Process’. Immobilization constitutes an empirical process, and for each enzyme we tested 11 carriers with different functional groups; epoxide, E...

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Veröffentlicht in:Journal of chemical technology and biotechnology (1986) 2016-07, Vol.91 (7), p.1972-1981
Hauptverfasser: Rodríguez-Alonso, María J, Rodríguez-Vico, Felipe, Las Heras-Vázquez, Francisco J, Clemente-Jiménez, Josefa M
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container_end_page 1981
container_issue 7
container_start_page 1972
container_title Journal of chemical technology and biotechnology (1986)
container_volume 91
creator Rodríguez-Alonso, María J
Rodríguez-Vico, Felipe
Las Heras-Vázquez, Francisco J
Clemente-Jiménez, Josefa M
description BACKGROUND: Four enzymes were immobilized for the production of optically pure natural and non‐natural L‐amino acids via the ‘Double‐Racemase Hydantoinase Process’. Immobilization constitutes an empirical process, and for each enzyme we tested 11 carriers with different functional groups; epoxide, EC‐EP, EC‐HFA, IB‐150 and IB‐350, carboxylic acid IB‐C435, quaternary ammonium IB‐A161, IB‐A171 and IB‐A369, aromatic group IB‐S861, and hydroxyl group IB‐S60S and IB‐S60P. RESULTS: Each protein showed preference for binding on one or several supports: D,L‐hydantoinase/IB‐350, hydantoin racemase/EC‐EP, L‐carbamoylase/EC‐EP and carbamoyl racemase/IB‐A161. The process was optimized for each enzyme by modifying temperature, pH and ionic strength. For the enzymatic cascade, it was demonstrated that it was essential to use supports having homogeneous characteristics. The product of the first reaction is the substrate of the next one, and so on. Free mass diffusion from one enzyme to the other is crucial to avoid retention on the support and to maintain the protein–substrate interaction constant. CONCLUSION: It was proved that support size, weight and hydrophobicity must be homogeneous to avoid the formation of separate layers of the matrix selected. For this reason, the support IB‐350 was used for the four enzymes, even though it may not be the most efficient one for some of them. © 2015 Society of Chemical Industry
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Immobilization constitutes an empirical process, and for each enzyme we tested 11 carriers with different functional groups; epoxide, EC‐EP, EC‐HFA, IB‐150 and IB‐350, carboxylic acid IB‐C435, quaternary ammonium IB‐A161, IB‐A171 and IB‐A369, aromatic group IB‐S861, and hydroxyl group IB‐S60S and IB‐S60P. RESULTS: Each protein showed preference for binding on one or several supports: D,L‐hydantoinase/IB‐350, hydantoin racemase/EC‐EP, L‐carbamoylase/EC‐EP and carbamoyl racemase/IB‐A161. The process was optimized for each enzyme by modifying temperature, pH and ionic strength. For the enzymatic cascade, it was demonstrated that it was essential to use supports having homogeneous characteristics. The product of the first reaction is the substrate of the next one, and so on. Free mass diffusion from one enzyme to the other is crucial to avoid retention on the support and to maintain the protein–substrate interaction constant. CONCLUSION: It was proved that support size, weight and hydrophobicity must be homogeneous to avoid the formation of separate layers of the matrix selected. 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Chem. Technol. Biotechnol</addtitle><description>BACKGROUND: Four enzymes were immobilized for the production of optically pure natural and non‐natural L‐amino acids via the ‘Double‐Racemase Hydantoinase Process’. Immobilization constitutes an empirical process, and for each enzyme we tested 11 carriers with different functional groups; epoxide, EC‐EP, EC‐HFA, IB‐150 and IB‐350, carboxylic acid IB‐C435, quaternary ammonium IB‐A161, IB‐A171 and IB‐A369, aromatic group IB‐S861, and hydroxyl group IB‐S60S and IB‐S60P. RESULTS: Each protein showed preference for binding on one or several supports: D,L‐hydantoinase/IB‐350, hydantoin racemase/EC‐EP, L‐carbamoylase/EC‐EP and carbamoyl racemase/IB‐A161. The process was optimized for each enzyme by modifying temperature, pH and ionic strength. For the enzymatic cascade, it was demonstrated that it was essential to use supports having homogeneous characteristics. The product of the first reaction is the substrate of the next one, and so on. Free mass diffusion from one enzyme to the other is crucial to avoid retention on the support and to maintain the protein–substrate interaction constant. CONCLUSION: It was proved that support size, weight and hydrophobicity must be homogeneous to avoid the formation of separate layers of the matrix selected. 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source Wiley Online Library Journals Frontfile Complete
subjects Binding
Cascades
Chemical technology
Constants
enzymatic cascade
Enzymes
Hydrophobicity
Hydroxyl groups
Immobilization
L-amino acids
title Immobilization of a multi‐enzyme system for L‐amino acids production
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