Effects of successive microwave and enzymatic treatments on the release of p-hydroxycinnamic acids from two types of grass biomass

Biomass recalcitrance is one of the main bottlenecks in lignocellulosic biorefinery deployment. Physico-chemical pretreatments and enzymatic hydrolysis are two procedures that can be combined to overcome this recalcitrance. In this study microwave pretreatment has been selected for its relevant cond...

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Veröffentlicht in:Biochemical engineering journal 2022-05, Vol.182, p.108434, Article 108434
Hauptverfasser: Bichot, Aurélie, Raouche, Sana, Faulds, Craig B., Méchin, Valérie, Bernet, Nicolas, Delgenès, Jean-Philippe, García-Bernet, Diana
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container_start_page 108434
container_title Biochemical engineering journal
container_volume 182
creator Bichot, Aurélie
Raouche, Sana
Faulds, Craig B.
Méchin, Valérie
Bernet, Nicolas
Delgenès, Jean-Philippe
García-Bernet, Diana
description Biomass recalcitrance is one of the main bottlenecks in lignocellulosic biorefinery deployment. Physico-chemical pretreatments and enzymatic hydrolysis are two procedures that can be combined to overcome this recalcitrance. In this study microwave pretreatment has been selected for its relevant conditions that allow for biomass recalcitrance to be reduced, along with the maintenance of a low consumption of energy and reactants. A xylanolytic enzymatic cocktail, Rovabio® Advance, was investigated for its ability to hydrolyze maize stalks and Miscanthus leaves after pressurized, chemical-free microwave pretreatment. This combination was implemented to increase the breakage of ester bonds and thus facilitate the release of p-hydroxycinnamic acids. This study demonstrates how, in comparison with Miscanthus, both pretreatments are more effective in releasing p-hydroxycinnamic acids from maize stalks, due to their lower parietal content. The successive free-chemical process seems to be particularly promising on maize stalks, since it led to a ferulic acid release yield of 18.2%, compared to 5.5% for microwave pretreatment only or 7.6% when performing enzymatic hydrolysis without a microwave pretreatment step. •Microwave and enzymatic hydrolysis were tested as pretreatments on two grass biomass.•Pretreatments were more effective on maize stalks because of their low parietal content.•18% ferulic acid (FA) was released from maize stalks after combined treatments.•7.6% FA was extracted using only enzymes, demonstrating microwave interest.•Combined pretreatments increased ester bonds breakage and release of phenolic acids.
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subjects Environmental Engineering
Environmental Sciences
Enzymatic hydrolysis
Grass biomass
Microwave pretreatment
p-hydroxycinnamic acids
title Effects of successive microwave and enzymatic treatments on the release of p-hydroxycinnamic acids from two types of grass biomass
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