multitarget anticancer agents (MultiTarget Pharmaceuticals)
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Multitarget Anticancer Agents, supplied by MultiTarget Pharmaceuticals, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/multitarget/anticancer+copper+ii++multitarget+pro+drug/pm40515697-626-20-20
Average 90 stars, based on 1 article reviews
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Activity Assay:Article Title: Thalidomide: History of Research and Perspectives for Its Medical Use (Review) Article Snippet: Thalidomide was used in the 1950s as a sedative.. As a result of its marked teratogenicity, it was removed from the market in the 1960s, but returned to the clinic some 40 years later as an antitumor agent.. Thalidomide and its derivatives (IMiD and CELMoD) are currently in active use in the treatment of a number of hematological tumors. other:Article Title: Investigation of metallodrug/protein interaction by X-ray crystallography and complementary biophysical techniques Article Snippet: Protein metalation, the process by which a metal compound (or a metal ion) reacts with a protein to produce a metal/protein adduct, is at the basis of many biological events; the knowledge of this process at the atomic level is important in the design and development of new metallodrug-based therapeutic approaches.. Recently, single crystal X-ray diffraction experiments have been frequently used to characterize the structures of the adducts formed upon the reaction of Pt, Au, Ru, Rh, Ir, Cu, Mn and V-based drugs with proteins.. Although X-ray crystallography is certainly useful to determine the structure of these adducts, the combination with other biophysical techniques provides insights into the system behavior in solution, the reactivity of metal compounds with proteins, fate and stability of the metal/protein adduct and is often helpful for the rationalization of ambiguous or unexpected crystallographic data. |
![Screening potential candidates of TET-family inhibitors in infected hiPSC-CMs via computational molecular docking simulation. (A) The flowchart of the drug screening platform for molecular docking analysis of TET2 in complex with its DNA substrate and representative inhibitors. (B) Schematic representation of the molecular docking of representative TET2 <t>inhibitors—Bobcat339,</t> TFMB-2HG, and TETi76—into the catalytic pocket of TET2. The figure illustrates the catalytic core of TET2 binding to methylated DNA, followed by computational screening and docking of small-molecule inhibitors into the active site. (C) TET2 in complex with DNA substrate (Protein Data Bank [PDB] ID: 7NE3). Left: Overall structure showing TET2 (ribbon representation) bound to DNA (sticks in orange and magenta). Middle: Close-up view of the catalytic pocket highlighting the interaction surface. Right: 2-dimensional (2D) interaction diagram illustrating contacts between TET2 and the DNA substrate. (D) TET2 in complex with TETi76. Left: Chemical structure of TETi76. Middle: Docked pose of TETi76 in the TET2 catalytic site. Right: 2D interaction diagram showing hydrogen bonding and hydrophobic contacts. (E) TET2 in complex with Bobcat339. Left: Chemical structure of Bobcat339. Middle: Docked binding mode of Bobcat339 in the catalytic site. Right: 2D interaction map illustrating hydrogen bonds, hydrophobic interactions, and halogen bonding. (F) TET2 in complex with TFMB-2HG. Left: Chemical structure of TFMB-2HG. Middle: Docked pose within the TET2 active site. Right: 2D interaction map showing hydrogen bonding and minimal hydrophobic interactions.](https://pub-med-central-images-cdn.bioz.com/pub_med_central_ids_ending_with_0876/pmc12280876/pmc12280876__bmr.0229.fig.005.jpg)
