Depolymerization of lignin by extracellular activity of Pycnoporus cinnabarinus, to obtain cellulose

IF 1.6 4区 工程技术 Q3 Chemical Engineering International Journal of Chemical Reactor Engineering Pub Date : 2022-10-28 DOI:10.1515/ijcre-2022-0037
Raymundo Guzmán Gil, Oscar Manuel González Brambila, Hugo Velasco Bedrán, J. C. García Martínez, José Antonio Colín Luna, M. M. González Brambila
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Abstract

Abstract Cellulose can be used to produce biofuels and many other products like pharmaceutical goods, food supplements, cosmetics, bio-plastics, etc. Lignocellulosic materials, like O. ficus indica residuals, are a heterogeneous biopolymer formed mainly by lignin, hemicellulose and cellulose. Lignin provides protection to the plants against chemical and microbial degradation, but it can be degraded by white rot fungi species, like Pycnoporus cinnabarinus. Since cellulose molecules are arranged in regular bundles enveloped by hemicellulose and lignin molecules, it is necessary to brake lignin and hemicellulose molecules to recover cellulose for its use in bioprocess. In this work, a biotechnological process for cellulose recovery from cactus waste through depolymerization of lignin by P. cinnabarinus, is presented. The delignification is carried out by aerobic culture in batch stirred bioreactors, with a liquid culture medium enriched with nutrients and minerals with O. ficus indica residuals as the unique carbon source, during eight-day span under continuous feeding of oxygen. A factorial design of experiments (DOE) for eight sets of factor values was selected for this study. The factors were: particle size, pH level, and process temperature. For each experiment, biomass, total reducing carbohydrates (TRC) and dissolved oxygen (DO) concentrations were measured every 24 h. At the end of each experiment, the percentage of delignification, and cellulose recovery was measured by Infrared (IR) spectroscopy. Up to 67% of delignification and 22% of cellulose recovery were obtained by the process. These results were analyzed by a factorial DOE in order to maximize each response individually and to optimize both responses together. The delignification of Opuntia ficus indica thorns has not been previously reported to our knowledge.
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朱砂比重瓶胞外活性对木质素的解聚,获得纤维素
摘要纤维素可用于生产生物燃料和许多其他产品,如药品、食品补充剂、化妆品、生物塑料等。木质纤维素材料,如印度榕树残留物,是一种主要由木质素、半纤维素和纤维素形成的非均相生物聚合物。木质素为植物提供保护,使其免受化学和微生物降解,但它可以被白腐真菌物种降解,如朱砂碧。由于纤维素分子排列在由半纤维素和木质素分子包裹的规则束中,因此有必要制动木质素和半纤维素分子以回收纤维素用于生物过程。本文介绍了一种利用朱砂对木质素进行解聚,从仙人掌废弃物中回收纤维素的生物技术工艺。脱木素是在间歇搅拌的生物反应器中通过好氧培养进行的,液体培养基富含营养和矿物质,以印度榕树残留物为独特的碳源,在连续供氧的情况下持续八天。本研究选择了八组因子值的析因实验设计(DOE)。影响因素包括:颗粒大小、pH值和工艺温度。对于每个实验,每24小时测量一次生物量、总还原碳水化合物(TRC)和溶解氧(DO)浓度。在每个实验结束时,通过红外(IR)光谱测量脱木素的百分比和纤维素回收率。该工艺可获得高达67%的脱木素和22%的纤维素回收率。这些结果通过因子DOE进行分析,以便单独最大化每个响应,并同时优化两个响应。据我们所知,仙人掌刺的脱木素作用以前没有报道过。
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来源期刊
CiteScore
2.80
自引率
12.50%
发文量
107
审稿时长
3 months
期刊介绍: The International Journal of Chemical Reactor Engineering covers the broad fields of theoretical and applied reactor engineering. The IJCRE covers topics drawn from the substantial areas of overlap between catalysis, reaction and reactor engineering. The journal is presently edited by Hugo de Lasa and Charles Xu, counting with an impressive list of Editorial Board leading specialists in chemical reactor engineering. Authors include notable international professors and R&D industry leaders.
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