A novel and integrative process: From enzymatic fractionation of wheat bran with a hemicellulasic cocktail to the recovery of ferulic acid by weak anion exchange resin

[Display omitted] •Thermobacilus xylanilyticus cocktails are efficient to hydrolyze destarched wheat bran.•The hydrolysates are rich in xylose, arabinose and ferulic acid.•Weak anionic resin is efficient to separate ferulic acid from carbohydrates.•High concentration (15g/L) of ferulate is recovered...

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Veröffentlicht in:Industrial crops and products 2017-10, Vol.105, p.148-155
Hauptverfasser: Dupoiron, Stephanie, Lameloise, Marie-Laure, Pommet, Marion, Bennaceur, Ons, Lewandowski, Richard, Allais, Florent, Teixeira, Andreia R.S., Rémond, Caroline, Rakotoarivonina, Harivony
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container_end_page 155
container_issue
container_start_page 148
container_title Industrial crops and products
container_volume 105
creator Dupoiron, Stephanie
Lameloise, Marie-Laure
Pommet, Marion
Bennaceur, Ons
Lewandowski, Richard
Allais, Florent
Teixeira, Andreia R.S.
Rémond, Caroline
Rakotoarivonina, Harivony
description [Display omitted] •Thermobacilus xylanilyticus cocktails are efficient to hydrolyze destarched wheat bran.•The hydrolysates are rich in xylose, arabinose and ferulic acid.•Weak anionic resin is efficient to separate ferulic acid from carbohydrates.•High concentration (15g/L) of ferulate is recovered from regeneration fractions.•Competition with mineral anions limits resin capacity for ferulic acid fixation. An integrated and eco-friendly process including enzymatic hydrolysis with a hemicellulasic cocktail and a chromatographic purification step was developed to obtain ferulic acid from wheat bran. Thermobacillus xylanilyticus, a thermophilic and hemicellulolytic bacterium, was able to produce enzymatic cocktails containing xylanase, xylosidase, arabinosidase and esterase activities. The cocktails produced were used to deconstruct destarched wheat bran, allowing the release of 6%, 20% and 37% (w/w) of monomeric arabinose, xylose and ferulic acid, respectively. A weak anionic resin under free-base form was proved successful to separate the carbohydrate fraction from the ferulate one after acidification. Ferulate was recovered at high concentration (15g/L) during regeneration of the resin. This non-optimized purification step allowed recovering 67% of ferulic acid fixed on the resin. Global recovery of ferulic acid contained in wheat bran after both enzymatic fractionation and purification stages reached 21.8%.
doi_str_mv 10.1016/j.indcrop.2017.05.004
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subjects Biorefinery
Ferulic acid
Life Sciences
Thermobacillus xylanilyticus
Weak anionic resin
Xylans
title A novel and integrative process: From enzymatic fractionation of wheat bran with a hemicellulasic cocktail to the recovery of ferulic acid by weak anion exchange resin
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