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数据集:高灰分微藻生物膜的成分分析与水热液化

Dataset: Compositional analysis and hydrothermal liquefaction of a high-ash microalgae biofilm.

作者信息

Watkins Jacob D, Abdellaoui Hamza, Barton Elise, Lords Clayton, Sims Ronald C

机构信息

Utah State University Department of Biological Engineering, 4105 Old Main Hill, RM 402E, Logan, UT, 84322-4105, United States.

出版信息

Data Brief. 2025 Mar 19;60:111490. doi: 10.1016/j.dib.2025.111490. eCollection 2025 Jun.

Abstract

This dataset contains biochemical composition data and hydrothermal liquefaction (HTL) yield results for a high-ash microalgae biofilm which was cultivated in effluent from a mesophilic anaerobic digester using polyethylene rotating algae biofilm reactors (RABRs). These data were originally collected for use in a techno-economic analysis of biocrude, biodiesel, and bioplastic production from algae that was cultivated using RABRs for municipal wastewater reclamation. Biochemical data for the microalgae biomass includes bulk protein, measured both using the Bradford protein assay and by multiplying total N; carbohydrate content, measured using a 3-methyl-2-benzothiazolinone hydrazone / dithiothreitol (MBTH/DTT) assay; total lipid content, measured using a sulpho-phospho-vanillin method; hexane-extractable lipid content, measured by mass difference after extraction with methanol and hexane; ash content, measured by mass difference after incineration at 550°C; moisture content of the harvested biofilm slurry, measured by mass difference after drying at 60°C, mineral composition, measured using an inductively-coupled plasma spectrophotometer; higher heating value, measured using a bomb calorimeter; and CHNS-O elemental composition, measured using an elemental analyser. Data reported for the HTL product phases include mass yields for each phase (solid, aqueous, biocrude, gas); higher heating value of the biocrude phase, measured using a bomb calorimeter; elemental composition of the biocrude phase, measured using an elemental analyzer; and chemical properties of the aqueous phase, including pH, chemical oxygen demand (HACH method 8000), total nitrogen (HACH method 10,208), total ammonia (HACH method 10,301), total phosphorus (HACH method 10,209/10,210), and total organic carbon (HACH method 10,267). Currently, the effects of ash composition and HTL heating rate on biocrude yields and on N and P partitioning into biocrude, aqueous, and solid phases are not clearly defined. Models used to predict biocrude yields after HTL of microalgae are commonly trained using data collected from numerous studies. This dataset contains the feedstock composition data and ramp rate data necessary to help define the effects of ash content on biocrude yields after HTL and can be reused to help train yield-prediction models for the HTL of microalgae and other feedstocks.

摘要

该数据集包含了一种高灰分微藻生物膜的生化组成数据和热化学液化(HTL)产率结果。这种微藻生物膜是使用聚乙烯旋转藻类生物膜反应器(RABRs)在中温厌氧消化器的流出物中培养的。这些数据最初是为了对利用RABRs培养用于城市污水回收的藻类生产生物原油、生物柴油和生物塑料进行技术经济分析而收集的。微藻生物质的生化数据包括:通过考马斯亮蓝蛋白测定法以及通过将总氮含量相乘来测量的总蛋白;使用3-甲基-2-苯并噻唑啉酮腙/二硫苏糖醇(MBTH/DTT)测定法测量的碳水化合物含量;使用磺基磷香草醛法测量的总脂质含量;用甲醇和己烷萃取后通过质量差测量的己烷可萃取脂质含量;在550°C焚烧后通过质量差测量的灰分含量;在60°C干燥后通过质量差测量的收获生物膜浆液的水分含量;使用电感耦合等离子体分光光度计测量的矿物质组成;使用弹式量热计测量的高热值;以及使用元素分析仪测量的CHNS-O元素组成。报告的HTL产物相的数据包括各相(固体、水相、生物原油、气体)的质量产率;使用弹式量热计测量的生物原油相的高热值;使用元素分析仪测量的生物原油相的元素组成;以及水相的化学性质,包括pH值、化学需氧量(哈希方法8000)、总氮(哈希方法10208)、总氨(哈希方法10301)、总磷(哈希方法10209/10210)和总有机碳(哈希方法10267)。目前,灰分组成和HTL加热速率对生物原油产率以及氮和磷在生物原油、水相和固相中的分配的影响尚不清楚。用于预测微藻HTL后生物原油产率的模型通常使用从众多研究中收集的数据进行训练。该数据集包含有助于确定灰分含量对微藻HTL后生物原油产率影响所需的原料组成数据和升温速率数据,并且可以重新用于帮助训练微藻和其他原料HTL的产率预测模型。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/8514/11999370/6eec5c814b99/gr1.jpg

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