生物电化学和导电材料增强厌氧污泥消化:最新进展。

Chemosphere Pub Date : 2025-03-01 Epub Date: 2025-01-17 DOI:10.1016/j.chemosphere.2025.144101
Arianna Callegari, Matteo Tucci, Federico Aulenta, Carolina Cruz Viggi, Andrea G Capodaglio
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引用次数: 0

摘要

过量生物污泥的处理和处置对污水处理运营的能源平衡和经济效益以及接收环境都有重大影响。厌氧消化可能是全球最普遍的厂内污泥处理方法,因为它可以稳定生物固体有机物并将其转化为沼气,从而部分回收其中蕴含的化学能。有关提高沼气产量和质量的适用技术的大量研究包括:旨在释放和溶解细胞内能量化合物的促进生物固体分解的预处理策略、旨在提高工艺性能的无机/生物添加剂以及污泥热预处理。至于工艺中的添加剂,人们研究了铁、微量和大量营养素、垃圾焚烧产生的灰烬以及纳米颗粒的添加,以改善酶反应。最近,导电材料的使用被认为有可能加速和稳定有机基质向甲烷的转化。还有人认为,通过将厌氧消化与生物电化学系统结合起来,有可能增加沼气产量及其相对生物甲烷含量。本综述探讨了围绕厌氧消化与新技术(尤其是生物电化学系统)相结合以提高沼气产量和甲烷富集的研究空白。虽然现有的研究侧重于预处理和过程中的修正,但对这种整合的可行性、机制和效益的探索仍然不足。通过批判性地评估当前的技术水平,本综述确定了生物电化学集成在提高能量回收和工艺稳定性方面的潜力,同时强调了推动这些技术走向实际应用的关键挑战和研究需求。
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Anaerobic sludge digestion enhancement with bioelectrochemical and electrically conductive materials augmentation: A state of the art review.

Excess biological sludge processing and disposal have a significant impact on the energy balance and economics of wastewater treatment operations, and on receiving environments. Anaerobic digestion is probably the most widespread in-plant sludge processing method globally, since it stabilizes and converts biosolids organic matter into biogas, allowing partial recovery of their embedded chemical energy. A considerable number of studies concerning applicable techniques to improve biogas production, both in quantity and quality, include pre-treatment strategies to promote biosolids disintegration aimed at the release and solubilization of intracellular energy compounds, inorganic/biological amendments aimed at improving process performance, and sludge thermal pre-treatment. As for in-process amendments, iron, micro and macro-nutrients, ashes from waste incineration and nanoparticles addition have been studied for the improvement of enzymatic reactions. Recently, use of electrically conductive materials has been credited with the possibility to accelerate and stabilize the conversion of organic substrates to methane. The possibility of increasing both biogas generation and its relative biomethane content by interfacing anaerobic digestion with bioelectrochemical systems was also postulated. This review addresses the research gap surrounding the integration of anaerobic digestion with novel technologies, particularly bioelectrochemical systems, to enhance biogas production and methane enrichment. While existing studies focus on pre-treatment and in-process amendments, the feasibility, mechanisms, and benefits of such integration remain underexplored. By critically evaluating the current state of the art, this review identifies the potential of bioelectrochemical integration to improve energy recovery and process stability, while highlighting key challenges and research needs for advancing these technologies toward practical implementation.

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