Design of Ultra-sonication Pre-Treatment System for Microalgae CELL Wall Degradation

Seungyoun Yang, V. Mariappan, D. Won, Myungsuk Ann, Sung Hwa Lee
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引用次数: 2

Abstract

Cell walls of microalgae consist of a polysaccharide and glycoprotein matrix providing the cells with a formidable defense against its environment. Anaerobic digestion (AD) of microalgae is primarily inhibited by the chemical composition of their cell walls containing biopolymers able to resist bacterial degradation. Adoption of pre-treatments such as thermal, thermal hydrolysis, ultrasound and enzymatic hydrolysis have the potential to remove these inhibitory compounds and enhance biogas yields by degrading the cell wall, and releasing the intracellular algogenic organic matter (AOM). This paper preproposal stage investigated the effect of different pre-treatments on microalgae cell wall, and their impact on the quantity of soluble biomass released in the media and thus on the digestion process yields. This Paper present optimum approach to degradation of the cell wall by ultra-sonication with practical design specification parameter for ultrasound based pretreatment system. As a result of this paper presents, a microalgae system in a wastewater treatment flowsheet for residual nutrient uptake can be justified by processing the waste biomass for energy recovery. As a conclusion on this result, Low energy harvesting technologies and pre-treatment of the algal biomass are required to improve the overall energy balance of this integrated system.
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微藻细胞壁降解的超声预处理系统设计
微藻的细胞壁由多糖和糖蛋白基质组成,为细胞提供强大的环境防御。微藻的厌氧消化(AD)主要被其细胞壁的化学成分所抑制,其中含有能够抵抗细菌降解的生物聚合物。采用热、热水解、超声和酶解等预处理有可能去除这些抑制性化合物,并通过降解细胞壁和释放细胞内产藻有机物(AOM)来提高沼气产量。本文研究了不同预处理对微藻细胞壁的影响,以及对培养基中可溶性生物量释放量的影响,从而对消化过程产量的影响。本文提出了超声降解细胞壁的最佳方法,并给出了超声预处理系统的实用设计规范参数。本文提出的结果是,在废水处理流程中,微藻系统可以通过处理废弃生物质进行能量回收来吸收剩余养分。综上所述,为了改善这一综合系统的整体能量平衡,需要采用低能量收集技术和藻类生物量的预处理。
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