Chakraborty, Kajal, Dhara, Shubhajit (2021): Conoidecyclics A-C from marine macroalga Turbinaria conoides: Newly described natural macrolides with prospective bioactive properties. Phytochemistry (112909) 191: 1-14, DOI: 10.1016/j.phytochem.2021.112909, URL: http://dx.doi.org/10.1016/j.phytochem.2021.11290
Marine species are a rich source of bioactive molecules and among them, it is known that marine alga...
Cyanobacteria are rich sources of structurally-diverse molecules with promising pharmacological acti...
Fig. 1. Structural representation of (A) trihydroxy-decahydro-37-methyl-macrobrevin (compound 1), (B...
Fig. 1. Structural representations of conoidecyclics A-C purified from the solvent extract of T. con...
Fig. 2. (A1-C1) 1H–1H COSY (bold-face bonds), selected HMBCs (double-barbed arrows), (A2-C2) NOE (co...
Intertidal marine brown alga Turbinaria conoides (J.Agardh) Kützing (family Sargassaceae) is conside...
Fig. 4. (A1-A2) Representative hydrogen binding interactions between conoidecyclic B and the amino a...
Fig. 5. (A1-A2) Representative hydrogen binding interactions between conoidecyclic C and the amino a...
Fig. 6. Kinetic studies of the pharmacologic response with regard to inhibition mode of ACE-I (A–C),...
Fig. 3. (A1-A2) Representative hydrogen binding interactions between conoidecyclic A and the amino a...
Chemical study of marine organisms has revealed them as a rich source of natural products with uniqu...
Marine organisms have attracted scientific community as a rich source of natural products with unusu...
Marine organisms produce a large array of natural products with relevance in drug discovery. These c...
Fungal phytopathogens are a growing problem all over the world; their propagation causes significant...
Financiado para publicación en acceso aberto: Universidade de Vigo/CISUGThe sea is a vast ecosystem ...
Marine species are a rich source of bioactive molecules and among them, it is known that marine alga...
Cyanobacteria are rich sources of structurally-diverse molecules with promising pharmacological acti...
Fig. 1. Structural representation of (A) trihydroxy-decahydro-37-methyl-macrobrevin (compound 1), (B...
Fig. 1. Structural representations of conoidecyclics A-C purified from the solvent extract of T. con...
Fig. 2. (A1-C1) 1H–1H COSY (bold-face bonds), selected HMBCs (double-barbed arrows), (A2-C2) NOE (co...
Intertidal marine brown alga Turbinaria conoides (J.Agardh) Kützing (family Sargassaceae) is conside...
Fig. 4. (A1-A2) Representative hydrogen binding interactions between conoidecyclic B and the amino a...
Fig. 5. (A1-A2) Representative hydrogen binding interactions between conoidecyclic C and the amino a...
Fig. 6. Kinetic studies of the pharmacologic response with regard to inhibition mode of ACE-I (A–C),...
Fig. 3. (A1-A2) Representative hydrogen binding interactions between conoidecyclic A and the amino a...
Chemical study of marine organisms has revealed them as a rich source of natural products with uniqu...
Marine organisms have attracted scientific community as a rich source of natural products with unusu...
Marine organisms produce a large array of natural products with relevance in drug discovery. These c...
Fungal phytopathogens are a growing problem all over the world; their propagation causes significant...
Financiado para publicación en acceso aberto: Universidade de Vigo/CISUGThe sea is a vast ecosystem ...
Marine species are a rich source of bioactive molecules and among them, it is known that marine alga...
Cyanobacteria are rich sources of structurally-diverse molecules with promising pharmacological acti...
Fig. 1. Structural representation of (A) trihydroxy-decahydro-37-methyl-macrobrevin (compound 1), (B...