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紫外线-C照射对索氏小球藻生长、光合色素和脂质谱的影响

Effect of UV-C Irradiation on Growth, Photosynthetic Pigments, and Lipid Profile of Chlorella sorokiniana.

作者信息

Dotaniya Pinky, Sharma Rajnandinee, Singh G P, Gupta Shikha

机构信息

Department of Botany, University of Rajasthan, Jaipur, India.

出版信息

Appl Biochem Biotechnol. 2025 Feb;197(2):1131-1151. doi: 10.1007/s12010-024-05061-8. Epub 2024 Oct 2.

DOI:10.1007/s12010-024-05061-8
PMID:39356420
Abstract

Chlorella sorokiniana holds significant industrial relevance owing to its lipid profile. Consequently, the objective of this investigation was to enhance growth, lipid content, and photosynthetic pigment production through the application of UV-C irradiation. The growth parameters of microalgae demonstrated an increase in response to concentration. After 35 days of incubation, cells exposed to UV-C for 8 min produced the most biomass at 2.2 g/l. Additionally, the chlorophyll content demonstrated a comparable pattern, with the highest concentrations of chlorophyll a (4.99 mg/l), chlorophyll b (6.22 mg/l), and total chlorophyll (11.21 mg/l) observed in cells incubated for 35 days and exposed to UV-C for 8 min. The lipid profile, nevertheless, demonstrated minor fluctuations. Specifically, the relative abundance of frequently occurring lipid compounds was found to be greater in cells treated with UV-C compared to the control group, and the most significant increase was obtained in 15-day culture exposed to UV-C for 8 min. However, after 35 days of incubation, this abundance decreased in cells exposed to UV-C for more than 4 min. Additionally, the observation of specific lipid compounds presented solely in cells obtained from algal cultures treated with UV-C was made. Consequently, drawing from the results obtained in the current investigation, it is possible to deduce that UV-C can be utilised to augment the overall development and yield of significant metabolites in microalgae. Furthermore, these microalgae can be converted into single-cell bioreactors to facilitate the production of lipids utilised in a variety of applications, a process that could be refined to cater to industrial demands.

摘要

由于其脂质成分,索氏小球藻具有重要的工业价值。因此,本研究的目的是通过应用UV-C辐射来促进其生长、脂质含量和光合色素的产生。微藻的生长参数随浓度增加而增加。培养35天后,接受8分钟UV-C照射的细胞产生的生物量最多,为2.2克/升。此外,叶绿素含量呈现出类似的模式,在培养35天并接受8分钟UV-C照射的细胞中,观察到叶绿素a(4.99毫克/升)、叶绿素b(6.22毫克/升)和总叶绿素(11.21毫克/升)的浓度最高。然而,脂质成分显示出轻微波动。具体而言,与对照组相比,经UV-C处理的细胞中常见脂质化合物的相对丰度更高,在接受8分钟UV-C照射的15天培养物中增加最为显著。然而,培养35天后,接受超过4分钟UV-C照射的细胞中这种丰度下降。此外,还观察到仅在经UV-C处理的藻类培养物获得的细胞中存在的特定脂质化合物。因此,根据本研究获得的结果,可以推断UV-C可用于提高微藻中重要代谢物的整体发育和产量。此外,这些微藻可以转化为单细胞生物反应器,以促进用于各种应用的脂质的生产,这一过程可以进一步优化以满足工业需求。

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