无机碳限制淡水藻类在高Ph下的生长:重访碱度

IF 1.2 4区 农林科学 Q3 AGRICULTURAL ENGINEERING Journal of the ASABE Pub Date : 2023-01-01 DOI:10.13031/ja.15411
Mary Katherine Watson, Elizabeth Flanagan, Caye M. Drapcho
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引用次数: 0

摘要

BG11介质的非碳酸盐组分影响TIC计算,在高pH下平均为4.00 mg/L。BG11介质的非碳酸盐碱度(NCA)随pH值的变化而变化:NCA (meq/L) = 0.0393×e 0.2075×pH + (2.086×10 -9)e 1.860×pH。以co2、hco3 -和co32 -为无机碳源时,Monod动力学常数比以往的报道有所提高。动力学常数仍然是唯一已知的考虑多种无机碳源的报告。藻类化学计量反应的发展,说明变化的细胞含量和碳源。摘要由于大气中二氧化碳的增加,高pH值下的藻类生长系统支持增强扩散和碳捕获。考虑到藻类生长、pH值和碱度之间的相互作用,我们重新检查了Watson和Drapcho(2016)的数据,以确定BG11培养基中非碳酸盐成分对Monod动力学参数、生物量产量和细胞化学计量学的影响。根据计算方法,BG11培养基的非碳酸盐碱度(NCA)随pH值的变化规律为:在10.3 ~ 11.5的pH范围内,NCA (meq/L) = 0.0393×e0.2075×pH + (2.086×10-9)e1.860×pH (R2 = 0.999)。CO2、HCO3和CO3的更新最大比生长率分别为0.060、0.057和0.051 hr-1。建立了考虑可变营养比和多种无机碳种的藻类生长广义化学计量方程。改进的动力学和化学计量参数将作为动态数学模型的基础,以支持高pH藻类碳捕获系统的设计。关键词:藻类,碱度,碳减排,碳捕获,动力学,化学计量学,总无机碳
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Inorganic Carbon-Limited Freshwater Algal Growth at High Ph: Revisited with Focus on Alkalinity
Highlights Non-carbonate components of BG11 media impact TIC calculation on average 4.00 mg/L at high pH. BG11 media non-carbonate alkalinity (NCA) varies with pH: NCA (meq/L) = 0.0393×e 0.2075×pH + (2.086×10 -9 )e 1.860×pH . Monod kinetic constants with CO 2 , HCO 3 - , and CO 3 2- as inorganic carbon sources are improved from a previous report. Kinetic constants continue to be the only known reports considering multiple inorganic carbon sources. Algal stoichiometric reactions are developed that account for variation in cell content and carbon source. Abstract. Due to increasing atmospheric CO2, algal growth systems at high pH are of interest to support enhanced diffusion and carbon capture. Given the interactions between algal growth, pH, and alkalinity, data from Watson and Drapcho (2016) were re-examined to determine the impact of the non-carbonate constituents in BG11 media on estimates of Monod kinetic parameters, biomass yield, and cell stoichiometry. Based on a computational method, non-carbonate alkalinity (NCA) in BG11 media varies with pH according to: NCA (meq/L) = 0.0393×e0.2075×pH + (2.086×10-9)e1.860×pH (R2 = 0.999) over the pH range of 10.3 – 11.5. Updated maximum specific growth rates were determined to be 0.060, 0.057, and 0.051 hr-1 for CO2, HCO3, and CO3, respectively. Generalizable stoichiometric algal growth equations that consider variable nutrient ratios and multiple inorganic carbon species were developed. Improved kinetic and stoichiometric parameters will serve as the foundation for a dynamic mathematical model to support the design of high pH algal carbon capture systems. Keywords: Algae, Alkalinity, Carbon Abatement, Carbon Capture, Kinetics, Stoichiometry, Total Inorganic Carbon.
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