设计,建设和概念验证的实验室规模的两相反应器的价值威士忌酒厂副产品

IF 4.3 Q2 ENGINEERING, CHEMICAL
Anga Hackula, Richard O’Shea, Jerry D. Murphy and David M. Wall*, 
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引用次数: 0

摘要

威士忌蒸馏过程产生的副产品包括具有高化学需氧量(COD)的有机液体和具有高固体含量的残留物。为了减少食品和饮料行业的碳足迹,现在必须制定低碳战略,重新利用这些副产品并使其增值。两相厌氧消化器的运行以产生挥发性脂肪酸(VFA)和沼气可以使酿酒厂向低碳生物经济转型。这种系统的一个例子是连接到膨胀颗粒污泥床(LBR-EGSB)的浸出床反应器,该反应器在本文中进行了设计、调试和概念验证。多项设计改进使LBR-EGSB超越了以前的反应堆设计。EGSB中的外部气体-液体-固体分离器用于捕获流出物产生的任何残余气体,并可减少甲烷滑移和生物质冲刷量。虹吸致动渗沥液杯的实施是一种低成本的替代方案,与先前反应器设计中的电动电磁阀相比,其不太容易发生致动故障。此外,用酒厂的液体副产品代替淡水作为渗滤液,促进了循环再利用和再利用的理念。该系统被证明在产生VFAs(10.3 g VFAs L–1Leacate)、EGSB COD去除率(96%)和产生富含甲烷的沼气(75%体积)方面是有效的,这高于传统厌氧消化系统所达到的值。LBR-EGSB最终可以为威士忌酒厂提供比传统厌氧消化系统更多的副产品增值和脱碳机会。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Design, Construction, and Concept Validation of a Laboratory-Scale Two-phase Reactor to Valorize Whiskey Distillery By-products

Design, Construction, and Concept Validation of a Laboratory-Scale Two-phase Reactor to Valorize Whiskey Distillery By-products

The by-products generated from the whiskey distillation process consist of organic liquids with a high chemical oxygen demand (COD) and residues with a high solid content. Low-carbon strategies that repurpose and valorize such by-products are now imperative to reduce the carbon footprint of the food and beverage industries. The operation of a two-phase anaerobic digester to produce volatile fatty acids (VFAs) and biogas may enable distilleries to transition toward a low-carbon bioeconomy. An example of such a system is a leach bed reactor connected to an expanded granular sludge bed (LBR-EGSB) which was designed, commissioned, and conceptually validated in this paper. Several design improvements progress the LBR-EGSB beyond previous reactor designs. An external gas–liquid–solid separator in the EGSB was used to capture any residual gases produced by the effluent and may reduce the amount of methane slippage and biomass washout. The implementation of a siphon-actuated leachate cup is a low-cost alternative that is less prone to actuation malfunction as compared to electrically actuated solenoid valves in previous reactor designs. Furthermore, replacing fresh water with distillery’s liquid by-products as leachate promotes a circular repurpose and reuse philosophy. The system proved to be effective in generating VFAs (10.3 g VFAs L–1Leachate), in EGSB COD removal (96%), and in producing methane-rich biogas (75%vol), which is higher than the values achieved by traditional anaerobic digestion systems. The LBR-EGSB could ultimately provide more by-product valorization and decarbonization opportunities than traditional anaerobic digestion systems for a whiskey distillery.

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来源期刊
ACS Engineering Au
ACS Engineering Au 化学工程技术-
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期刊介绍: )ACS Engineering Au is an open access journal that reports significant advances in chemical engineering applied chemistry and energy covering fundamentals processes and products. The journal's broad scope includes experimental theoretical mathematical computational chemical and physical research from academic and industrial settings. Short letters comprehensive articles reviews and perspectives are welcome on topics that include:Fundamental research in such areas as thermodynamics transport phenomena (flow mixing mass & heat transfer) chemical reaction kinetics and engineering catalysis separations interfacial phenomena and materialsProcess design development and intensification (e.g. process technologies for chemicals and materials synthesis and design methods process intensification multiphase reactors scale-up systems analysis process control data correlation schemes modeling machine learning Artificial Intelligence)Product research and development involving chemical and engineering aspects (e.g. catalysts plastics elastomers fibers adhesives coatings paper membranes lubricants ceramics aerosols fluidic devices intensified process equipment)Energy and fuels (e.g. pre-treatment processing and utilization of renewable energy resources; processing and utilization of fuels; properties and structure or molecular composition of both raw fuels and refined products; fuel cells hydrogen batteries; photochemical fuel and energy production; decarbonization; electrification; microwave; cavitation)Measurement techniques computational models and data on thermo-physical thermodynamic and transport properties of materials and phase equilibrium behaviorNew methods models and tools (e.g. real-time data analytics multi-scale models physics informed machine learning models machine learning enhanced physics-based models soft sensors high-performance computing)
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