Eggshell waste bioprocessing for sustainable acid phosphatase production and minimizing environmental hazards

IF 5.7 3区 生物学 Q1 BIOCHEMICAL RESEARCH METHODS
Soad Abubakr Abdelgalil, Mohamed Mohamed Yousri Kaddah, Gaber Attia Abo-Zaid
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引用次数: 0

Abstract

The Environmental Protection Agency has listed eggshell waste as the 15th most significant food industry pollution hazard. Using eggshell waste as a renewable energy source has been a hot topic recently. Therefore, finding a sustainable solution for the recycling and valorization of eggshell waste by investigating its potential to produce acid phosphatase (ACP) and organic acids by the newly-discovered B. sonorensis was the target of the current investigation. Drawing on both molecular and morphological characterizations, the most potent ACP-producing B. sonorensis strain ACP2, was identified as a local bacterial strain obtained from the effluent of the paper and pulp industries. The use of consecutive statistical experimental approaches of Plackett–Burman Design (PBD) and Orthogonal Central Composite Design (OCCD), followed by pH-uncontrolled cultivation conditions in a 7 L bench-top bioreactor, revealed an innovative medium formulation that substantially improved ACP production, reaching 216 U L−1 with an ACP yield coefficient Yp/x of 18.2 and a specific growth rate (µ) of 0.1 h−1. The metals Ag+, Sn+, and Cr+ were the most efficiently released from eggshells during the solubilization process by B. sonorensis. The uncontrolled pH culture condition is the most suitable and favoured setting for improving ACP and organic acids production. Quantitative and qualitative analyses of the produced organic acids were carried out using liquid chromatography-tandem mass spectrometry (LC–MS/MS). Lactic acid, citric acid, and hydroxybenzoic acid isomer were the most common organic acids produced throughout the cultivation process. The findings of TGA, DSC, SEM, EDS, FTIR, and XRD analysis emphasize the significant influence of organic acids and ACP activity on the solubilization of eggshell particles. This study emphasized robust microbial engineering approaches for the large-scale production of a newly discovered acid phosphatase, accompanied by organic acids production from B. sonorensis. The biovalorization of the eggshell waste and the production of cost-effective ACP and organic acids were integrated into the current study, and this was done through the implementation of a unique and innovative medium formulation design for eggshell waste management, as well as scaling up ACP production on a bench-top scale.
蛋壳废弃物生物处理,实现酸性磷酸酶的可持续生产并最大限度地减少环境危害
环境保护局已将蛋壳废弃物列为食品工业第 15 大污染危害。将蛋壳废弃物用作可再生能源已成为近期的热门话题。因此,通过研究新发现的B. sonorensis产生酸性磷酸酶(ACP)和有机酸的潜力,为蛋壳废弃物的回收利用和增值找到一种可持续的解决方案,是本次研究的目标。根据分子和形态特征,从造纸和纸浆工业废水中获得的本地细菌菌株 ACP2 被确定为最能产生 ACP 的 B. sonorensis 菌株。通过连续使用普拉克特-伯曼设计(PBD)和正交中心复合设计(OCCD)统计实验方法,并在 7 升台式生物反应器中采用不受 pH 值控制的培养条件,发现了一种创新的培养基配方,该配方可大幅提高 ACP 产量,达到 216 U L-1,ACP 产量系数 Yp/x 为 18.2,特定生长速率 (µ) 为 0.1 h-1。在超声波杆菌的增溶过程中,金属 Ag+、Sn+ 和 Cr+ 从蛋壳中释放的效率最高。不受控制的 pH 值培养条件是提高 ACP 和有机酸产量的最合适和最有利的环境。使用液相色谱-串联质谱法(LC-MS/MS)对所产生的有机酸进行了定量和定性分析。乳酸、柠檬酸和羟基苯甲酸异构体是整个培养过程中最常见的有机酸。TGA、DSC、SEM、EDS、FTIR 和 XRD 分析结果表明,有机酸和 ACP 活性对蛋壳颗粒的增溶具有重要影响。本研究强调了利用微生物工程学方法大规模生产新发现的酸性磷酸酶,同时利用 B. sonorensis 生产有机酸。蛋壳废弃物的生物硼化和具有成本效益的 ACP 和有机酸的生产被纳入了当前的研究中,这是通过为蛋壳废弃物管理实施独特和创新的培养基配方设计以及在台式规模上扩大 ACP 的生产来实现的。
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来源期刊
Journal of Biological Engineering
Journal of Biological Engineering BIOCHEMICAL RESEARCH METHODS-BIOTECHNOLOGY & APPLIED MICROBIOLOGY
CiteScore
7.10
自引率
1.80%
发文量
32
审稿时长
17 weeks
期刊介绍: Biological engineering is an emerging discipline that encompasses engineering theory and practice connected to and derived from the science of biology, just as mechanical engineering and electrical engineering are rooted in physics and chemical engineering in chemistry. Topical areas include, but are not limited to: Synthetic biology and cellular design Biomolecular, cellular and tissue engineering Bioproduction and metabolic engineering Biosensors Ecological and environmental engineering Biological engineering education and the biodesign process As the official journal of the Institute of Biological Engineering, Journal of Biological Engineering provides a home for the continuum from biological information science, molecules and cells, product formation, wastes and remediation, and educational advances in curriculum content and pedagogy at the undergraduate and graduate-levels. Manuscripts should explore commonalities with other fields of application by providing some discussion of the broader context of the work and how it connects to other areas within the field.
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