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用响应面法对大飞扬草(Euphorbia neriifolia(L.))总脂质进行微观特征描述、TLC 指纹图谱分析和含量优化。

Microscopic characterization, TLC fingerprinting and optimization of total lipid content from Euphorbia neriifolia (L.) using response surface methodology.

机构信息

Department of Bioscience and Biotechnology, Banasthali Vidyapith, P.O. Banasthali Vidyapith, Tonk, Rajasthan, India.

Laboratory of Phytopathology and Microbial Biotechnology, Department of Botany, Mohanlal Sukhadia University, Udaipur, Rajasthan, India.

出版信息

Microsc Res Tech. 2024 Mar;87(3):565-590. doi: 10.1002/jemt.24456. Epub 2023 Nov 16.

DOI:10.1002/jemt.24456
PMID:37971145
Abstract

Euphorbia neriifolia (EN) is a medicinal plant used to treat a variety of ailments in traditional systems. Despite numerous studies on pharmacological activities, no information was available on the microscopic study of this plant. This is the first study that has been attempted to fill this need by performing the light and field emission scanning electron microscopy (FESEM) of leaf, stem, and latex. The powder microscopy of several organs (leaves, stem, and bark) and exudate (latex) of EN was carried out using safranine, fast green, phloroglucinol, and other standard solutions at different magnifications. The chemical fingerprinting of petroleum ether extract was accomplished by using thin layer chromatography. The optimization of total lipid content from the EN leaf under ultrasound-assisted extraction (UAE) and soxhlet extraction (SE) procedure was determined using response surface methodology (RSM). The studied factors that affect the lipid content were: solvent ratio, extraction temperature, and extraction time. Several notable characteristics observed in the leaf of EN are amphistomatic leaves with anticlinical cell walls, anomocytic stomata, spongy mesophyll cells, elongated palisade cells, angular collenchyma, and U-shaped vascular bundle. The plano-convex midrib is covered by polygonal to oval-shaped cuticles and contains anomocytic stomata. The circular petiole has no trichomes and contains laticifers, crystals, and idioblasts. The circular stem was observed with trichomes, hypodermis, collenchyma, parenchymatous cells, central pith, pentagonal stellar region, cambium, and 2-4 times more xylem that of phloem. All of the powdered plant parts and exudate under study contained trichomes, xylem vessels, wood fibers, cork cells, starch grains, calcium oxalate crystals, idioblasts, lignified cork, tannin content, stone cells, and oil globules. The blackish-green colored petroleum ether extract with semi-solid consistency showed the greatest percent (%) yield of 4% in the latex of EN. The thin layer chromatography (TLC) examination of petroleum ether extract of EN leaf produced a maximum 6 spots with R values of 0.16, 0.58, 0.62, 0.73, and 0.96 in the mobile phase of petroleum ether-acetone (8:2). In terms of optimization, the dark green colored UAE extract with semi-sticky consistency showed highest % yield of 4.5% whereas the yellowish green colored SE extract of sticky consistency showed the highest % yield of 4.9%. The findings showed that there were not many differences in the total lipid content between UAE (0.16%) and SE (0.11%). However, the best optimum condition for lipid content extraction analysis was obtained as follows: solvent ratio (PE:HE) 50:50, extraction temperature 50°C, extraction time 45 min for UAE, and solvent ratio (PE:HE) 60:40, extraction temperature 45°C, and extraction time of 24 h for SE. Hence, this study signifies the various noteworthy microscopic features along with the presence of different phytocompounds through TLC and best optimized condition for the extraction of lipids from different parts of EN. As no previous study has been reported, the outcomes obtained from the current study prove to be beneficial in the identification of species, quality control, and detection of any adulteration from the laboratory and commercial samples of EN. RESEARCH HIGHLIGHTS: The percent yield was found to be maximum in latex extract (4%). The leaf pet ether extract was separated into 6 bands with different R values. The extracted compounds from Euphorbia neriifolia leaves were categorized into non-polar heat tolerant. The highest total lipid yield (0.1119) was obtained at solvent ratios 60:40 of PE:HE (petroleum ether: petroleum hexane).

摘要

乳木果(EN)是一种药用植物,在传统体系中用于治疗多种疾病。尽管对其药理学活性进行了大量研究,但关于该植物的微观研究尚无信息。这是首次尝试通过对叶片、茎和乳胶进行光镜和场发射扫描电子显微镜(FESEM)研究来填补这一空白。使用番红、固绿、间苯三酚和其他标准溶液对几种器官(叶片、茎和树皮)和渗出物(乳胶)进行粉末显微镜检查,并在不同放大倍数下进行检查。使用薄层层析法完成石油醚提取物的化学指纹图谱。通过超声辅助提取(UAE)和索氏提取(SE)程序确定从 EN 叶片中提取总脂质的最佳条件,使用响应面法(RSM)。影响脂质含量的研究因素为:溶剂比、提取温度和提取时间。EN 叶片的几个显著特征包括:具有斜生细胞壁的两面叶、无规则型气孔、海绵状叶肉细胞、伸长的栅栏细胞、角状厚角组织和 U 形维管束。平坦的中脉被多边形到椭圆形的角质层覆盖,含有无规则型气孔。圆形叶柄无毛,含有乳汁管、晶体和异形细胞。圆形茎无毛,含有厚角组织、薄壁组织、中央髓、五角星形区域、形成层和 2-4 倍于韧皮部的木质部。研究的所有植物粉末部分和渗出物都含有毛、木质部导管、木纤维、软木细胞、淀粉粒、草酸钙晶体、异形细胞、木质化软木、单宁含量、石细胞和油滴。EN 乳胶的黑绿色石油醚提取物具有半固态稠度,其产率最高,达到 4%。EN 叶片石油醚提取物的薄层层析(TLC)检查产生了 6 个最大斑点,其 R 值在石油醚-丙酮(8:2)流动相中分别为 0.16、0.58、0.62、0.73 和 0.96。就优化而言,深绿色 UAE 提取物具有半粘性稠度,产率最高,达到 4.5%,而黄色粘性 SE 提取物产率最高,达到 4.9%。研究结果表明,UAE(0.16%)和 SE(0.11%)之间的总脂质含量没有太大差异。然而,脂质含量提取分析的最佳优化条件如下:溶剂比(PE:HE)50:50、提取温度 50°C、提取时间 45 分钟用于 UAE,以及溶剂比(PE:HE)60:40、提取温度 45°C 和 24 小时用于 SE。因此,本研究通过 TLC 显示了不同的微观特征,并通过 TLC 显示了不同的植物化合物,并对 EN 不同部位的脂质提取进行了最佳优化条件分析。由于以前没有报道过这项研究,因此当前研究的结果可用于鉴定物种、质量控制以及从实验室和商业 EN 样本中检测任何掺假。研究亮点:乳木果乳胶提取物的产率最高(4%)。叶石油醚提取物被分离成 6 个具有不同 R 值的条带。从乳木果叶片中提取的化合物被归类为非极性耐热。在溶剂比为 60:40 的 PE:HE(石油醚:石油己烷)时,总脂质产率(0.1119)最高。

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