Figures & data
Figure 2. Chromosome numbers of Cosmos caudatus: a) 22; b) 30; c) 32; d) 36; and e) 40. (adapted from Salamah et al., [Citation16]
![Figure 2. Chromosome numbers of Cosmos caudatus: a) 22; b) 30; c) 32; d) 36; and e) 40. (adapted from Salamah et al., [Citation16]](/cms/asset/b95dd7b6-c901-4f98-b710-376b767fd38e/ljfp_a_2158862_f0002_b.gif)
Figure 3. The summary of the reported active compounds from Cosmos caudatus based on the profiling and isolation techniques.
![Figure 3. The summary of the reported active compounds from Cosmos caudatus based on the profiling and isolation techniques.](/cms/asset/833861f5-7ebe-4043-a6e9-302f9f2eb891/ljfp_a_2158862_f0003_b.gif)
Figure 4. The chemical structure of active compounds in the Cosmos caudatus plant. (1) Quercetin; (2) Kaemferol; (3) Qyercitrin; (4) Rutin; (5) Chlorogenic acid; (6) Stigmasterol; (7) Costunoloide; (8) Lutein; (9) α-Copaine; (10) Bergamotene; (11) ɣ-Muurolene.
![Figure 4. The chemical structure of active compounds in the Cosmos caudatus plant. (1) Quercetin; (2) Kaemferol; (3) Qyercitrin; (4) Rutin; (5) Chlorogenic acid; (6) Stigmasterol; (7) Costunoloide; (8) Lutein; (9) α-Copaine; (10) Bergamotene; (11) ɣ-Muurolene.](/cms/asset/eb5236e0-bcbc-4a81-b6fe-0d1fef527e9e/ljfp_a_2158862_f0004_b.gif)
Table 1. Potency of Cosmos caudatus on its pharmacological activities.
Figure 6. Proposed toxicological evaluations of herbal extracts and isolated bioactive compounds (Adapted from Sharwan et al., [Citation62]).
![Figure 6. Proposed toxicological evaluations of herbal extracts and isolated bioactive compounds (Adapted from Sharwan et al., [Citation62]).](/cms/asset/8db23234-1b90-4dd7-8889-58b06a83621c/ljfp_a_2158862_f0006_b.gif)