Fig. 1. Chemical structures of compounds isolated from D. carota.Published as part of Sirignano, Carmina, Hammami, Saoussen, Mokni, Ridha El, Blagborough, Andrew M., Luciano, Paolo, Rigano, Daniela & Scafati, Orazio Taglialatela, 2021, Polyoxygenated germacranes from Daucus carota and their antimalarial transmission blocking activity, pp. 1-7 in Phytochemistry (112632) 183 on page 2, DOI: 10.1016/j.phytochem.2020.112632, http://zenodo.org/record/829165
Malaria, as a major global health problem, continues to affect a large number of people each year, e...
Fig. 1. Structures of compounds 1–10.Published as part of Zhao, Yan-rong, Zou, Guo-an & Aisa, Haji A...
Fig. 1. Structures of compounds 1–13.Published as part of Gezer, Emre, Goklem, Üner, Küçüksolak, Mel...
Fig. 4. Structures of compound 2 and daucovirgolide G (9).Published as part of Sirignano, Carmina, H...
Sirignano, Carmina, Hammami, Saoussen, Mokni, Ridha El, Blagborough, Andrew M., Luciano, Paolo, Riga...
Fig. 3. In vitro P. berghei ookinete development assays with metabolites from D. carota assessed at ...
Fig. 2. Left: COSY (red) and HMBC (arrows) correlations of 4; right: ROESY correlations of 4. (For i...
Repeated chromatographic purifications of aerial parts of the Tunisian plant Daucus virgatus led to ...
Fig. 1. Structures of compounds 1–18.Published as part of Yang, Shuen-Shin, Chen, Yih-Fung, Ko, Horn...
Fig. 1. Structures of the compounds 1–7.Published as part of Bai, Ming, Chen, Jing-Jie, Xu, Wei, Don...
Fig. 1. Structures of isolated compounds (1–24) from U. dulcis.Published as part of Pailee, Phanruet...
Phytochemical investigation of the aerial parts of the Tunisian plant Daucus virgatus led to the iso...
Fig. 1. Structures of compounds 1–4.Published as part of Huang, Jiwu, Li, Chuangjun, Ma, Jie, Xu, Ka...
Fig. 1. The chemical constituents from the leaves (1–8) and twigs for Mitrephora tomentosa (9–12).Pu...
Fig. 5. Summary of the structure activity relationships of eudesmane sesquiterpenoids for antimalari...
Malaria, as a major global health problem, continues to affect a large number of people each year, e...
Fig. 1. Structures of compounds 1–10.Published as part of Zhao, Yan-rong, Zou, Guo-an & Aisa, Haji A...
Fig. 1. Structures of compounds 1–13.Published as part of Gezer, Emre, Goklem, Üner, Küçüksolak, Mel...
Fig. 4. Structures of compound 2 and daucovirgolide G (9).Published as part of Sirignano, Carmina, H...
Sirignano, Carmina, Hammami, Saoussen, Mokni, Ridha El, Blagborough, Andrew M., Luciano, Paolo, Riga...
Fig. 3. In vitro P. berghei ookinete development assays with metabolites from D. carota assessed at ...
Fig. 2. Left: COSY (red) and HMBC (arrows) correlations of 4; right: ROESY correlations of 4. (For i...
Repeated chromatographic purifications of aerial parts of the Tunisian plant Daucus virgatus led to ...
Fig. 1. Structures of compounds 1–18.Published as part of Yang, Shuen-Shin, Chen, Yih-Fung, Ko, Horn...
Fig. 1. Structures of the compounds 1–7.Published as part of Bai, Ming, Chen, Jing-Jie, Xu, Wei, Don...
Fig. 1. Structures of isolated compounds (1–24) from U. dulcis.Published as part of Pailee, Phanruet...
Phytochemical investigation of the aerial parts of the Tunisian plant Daucus virgatus led to the iso...
Fig. 1. Structures of compounds 1–4.Published as part of Huang, Jiwu, Li, Chuangjun, Ma, Jie, Xu, Ka...
Fig. 1. The chemical constituents from the leaves (1–8) and twigs for Mitrephora tomentosa (9–12).Pu...
Fig. 5. Summary of the structure activity relationships of eudesmane sesquiterpenoids for antimalari...
Malaria, as a major global health problem, continues to affect a large number of people each year, e...
Fig. 1. Structures of compounds 1–10.Published as part of Zhao, Yan-rong, Zou, Guo-an & Aisa, Haji A...
Fig. 1. Structures of compounds 1–13.Published as part of Gezer, Emre, Goklem, Üner, Küçüksolak, Mel...