Table 3 List of common compounds and their functions in methanolic M. oleifera leaves extract and S5 isolate identified by LC–MS.
Sr. No | Name | RT | Area | Biological activity | References | |
|---|---|---|---|---|---|---|
S5 isolate | M. oleifera Leaves | |||||
1 | (R)-Butaprost, free acid | 10.730 | 2,138,498 | ND | Pharmacologically define the EP receptor expression profile | Mudge et al. (2010)42 |
2 | .beta.-Homoproline | 2.537 | 5,744,421 | ND | Proline transporters modulate key events during plant growth | Kishor et al.26 |
3 | 1,2-Di-(9Z,12Z,15Z-octadecatrienoyl)-sn-glycero-3-phosphocholine | 12.903 | 5,575,782 | ND | Phosphocholine to provide polyunsaturated fatty acids for triacylglycerols synthesis in seeds | Bates and Browse27 |
4 | 11-.beta.-Hydroxyandrosterone | 9.53 | ND | 2,843,670 | Phytosterols and Plant Growth | Clouse et al. (1998)45 |
5 | 15-Ketoiloprost | 7.372 | 4,296,897 | ND | Biosynthesis and metabolism, various aspects of pharmacological activities, disease states, therapeutic potential | Dall’Osto et al. (2006)46 |
6 | 1-Aminocyclohexanecarboxylic acid | 2.408 | ND | 2,172,042 | A crucial role in plant biology as the direct precursor of ethylene, a gaseous plant hormone | Vanderstraeten and Straeten (2017)47 |
7 | 1-Heptadecanoyl-sn-glycero-3-phosphocholine | 11.44 | ND | 4,527,823 | Lipid signaling pathways and membrane remodeling | Goracci et al.23 |
8 | 1-Hexadecanoyl-2-sn-glycero-3-phosphate | 10.736 | 2,058,367 | ND | Lipid signaling pathways and membrane remodeling | Goracci et al.23 |
9 | 2-(14,15-Epoxyeicosatrienoyl)glycerol | 10.737 | 2,138,498 | ND | A potent mitogen, increasing DNA synthesis and cell proliferation rates at low concentrations1 | Riaz et al.22 |
10 | 2-Methylbenzoic acid | 3.377 | ND | 1,913,939 | Antibacterial | Dorokhov et al. (2018)48 |
11 | 2-O-Methyl PAF C-18 | 13.509 | 3,271,550 | 3,528,040 | Intracellular growth inhibition activity against Mycobacterium smegmatis | Riaz et al.22 |
12 | 4',6'-Dimethoxy-2'-hydroxy-3-nitrochalcone | 2.241 | ND | 1,999,252 | Antimicrobial | Brusa et al. (2015) |
13 | Acetic acid, phenyl ester | 3.377 | ND | 1,913,939 | Plant defense mechanisms | Dudareva et al. (2006)49 |
14 | Ala-Trp-Arg | 10.736 | 6,914,548 | 1,952,711 | Various signaling pathways and physiological processes in plants | Corpas et al.28 |
15 | Anacardic Acid | 11.266 | 1,674,294 | 1,463,243 | Antibacterial | Kubo et al. (1993)50 |
16 | Asp-Thr-Lys | 18.45 | 1,646,313 | ND | Synthesis of the essential amino acids | Bates and Browse27 |
17 | Avenanthramide-C methyl ester | 2.241 | ND | 1,999,252 | Anti-inflammatory and anti-itch activity | Dudareva et al. (2006)49 |
18 | Canrenoic acid | 7.372 | 4,296,897 | ND | Steroid-like compounds, might influence plant growth | Clouse et al. (1998)45 |
19 | cis-7,10,13,16,19-Docosapentaenoic acid | 11.258 | ND | 2,615,805 | Antioxidant | Goracci et al.23 |
20 | Cyclohexylamine | 5.22 | 1,628,340 | ND | Play essential roles in plant growth, development, and stress responses | Dall’Osto et al. (2006)46 |
21 | D-erythro-Sphinganine | 9.781 | 10,447,597 | ND | Regulation of programmed cell death in plants | Compean and Ynalvez18 |
22 | D-erythro-Sphingosine C-15 | 12.607 | ND | 1,350,773 | Cellular recognition, growth, and development | Clouse et al. (1998)45 |
24 | D-Pipecolinic acid | 2.537 | 5,744,421 | ND | Regulates plant systemic acquired resistance and basal immunity to bacterial pathogen infection | Minen et al.29 |
25 | Eicosapentaenoic acid ethyl ester | 11.258 | ND | 2,615,805 | Reduces the triglyceride (TG) levels | Bays et al. (2011)51 |
26 | Enalaprilat | 16.949 | 2,150,797 | ND | Antimicrobial | Compean and Ynalvez18 |
27 | Glu-Ser-Lys | 18.45 | 1,646,313 | ND | Roles of various peptide hormones in plants | Adeyemi et al.35 |
28 | L-Pipecolic acid | 2.537 | 5,744,421 | ND | Regulates plant systemic acquired resistance and basal immunity to bacterial pathogen infection | Minen et al.29 |
29 | Lutein | 19.412 | ND | 1,839,748 | Most abundant xanthophyll in the photosynthetic | Dall’Osto et al. (2006)46 |
33 | Met-His-Lys | 10.728 | ND | 3,393,556 | Antioxidant | Kim et al. (2021)52 |
31 | O-Arachidonoylglycidol | 9.439 | ND | 1,349,319 | Lipid-derived molecules influence various aspects of plant growth and development, including cell division and differentiation | Wasternack and Hause (2013)41 |
32 | Oleyl alcohol | 8.803 | ND | 1,479,008 | Protect the outer surface of plants and animals from water loss | Mudge et al. (2010)42 |
33 | Prostaglandin E2 isopropyl ester | 10.736 | 2,138,498 | ND | Roles in plant responses to abiotic and biotic stresses | Wasternack and Hause (2013)41 |
34 | Prostaglandin E2 p-acetamidophenyl ester | 13.812 | 2,062,450 | 1,620,310 | Importance of lipid signaling in plant stress responses | Corpas et al.28 |
35 | Ser-Glu-Lys | 18.45 | 1,646,313 | ND | Regulates plant growth and responses to the environment | Clouse et al. (1998)45 |
36 | Tetradecylamine | 9.227 | ND | 1,221,361 | Antimicrobial | Kim et al. (2021)52 |
37 | Tetramethylnordihydroguaiaretic acid | 7.372 | 4,296,897 | ND | Antioxidant | Kim et al. (2021)52 |
38 | Thr-Asp-Lys | 18.45 | 1,646,313 | ND | Roles in plant growth, reproduction, development or defence | Minen et al.29 |
39 | Tris(hydroxymethyl)aminomethane | 1.407 | ND | 1,425,316 | Importance of ph stability in plant genetic engineering and biotechnological applications, which is facilitated by buffering agents like Tris | Dall’Osto et al. (2006)46 |
40 | Vigabatrin | 2.537 | 5,744,421 | ND | Antimicrobial | Compean and Ynalvez18 |
41 | Trp-Ala-Arg | 10.736 | 6,914,548 | 1,952,711 | Roles of bioactive peptides in plants, highlighting their significance in growth regulation and stress responses | Adeyemi et al.35 |