2021Key engineering materialsRequires access

Molecular Docking Studies of Indolyl-Benzodioxyl-Chalcone, Pyrrolyl-Benzodioxyl- Chalcone, and Thiophenyl-Benzodioxyl-Chalcone as an Antimalarial Agent

Kamilia Mustikasari, Joshua Eka Harap, Tanto Budi Susilo, Noer Komari

Open publisher page 1 citations

Abstract

The drug resistance condition of P. falciparum pose a major challenge in the fight against malaria. This prompts a comprehensive research in an effort to discover new drug candidates. Therefore, chalcone was modified into 24 new compounds, including indolyl-benzodioxyl-chalcone, pyrrolyl-benzodioxyl-chalcone, and thiophenyl-benzodioxyl-chalcone in the course of this study. Moreover, these compounds are commercial malaria mediciations screened for their inhibitory activity using molecular docking simulations. Subsequent results of combined indolyl-benzodioxyl-chalcone and PfDHFR-TS showed the intrinsic indolyl components produced stronger interactions referenced to pyrrolyl-benzodioxyl-chalcone, thiophenyl-benzodioxyl-chalcone, and chloroguanide. Under these circumstances, intense PfDHFR-TS-indolyl-benzodioxyl-chalcone complex was produced with lower binding affinity values (-7.32 to -8.43 kcal/mole) referenced to PfDHFR-TS-pyrrolyl-benzodioxyl-chalcone (-6.38 to -6.68 kcal/mole), PfDHFR-TS-Thiophenyl-benzodioxyl-chalcone (-6.47 to -6.52 kcal/mole), and PfDHFR-TS-chloroguanide (-6.75 kcal/mole). Furthermore, the hydrogen bond interactions developed by indolyl-benzodioxyl-chalcone (7-10) are observably similar to standard chloroguanide compounds and WR99210. These compounds also possess a binding affinity similar to WR99210 (native ligand) and are expected to be potentially anti-malarial candidates.

About this research paper

What this paper is about

The drug resistance condition of P. falciparum pose a major challenge in the fight against malaria. This prompts a comprehensive research in an effort to discover new drug candidates. Therefore, chalcone was modified into 24 new compounds, including indolyl-benzodioxyl-chalcone, pyrrolyl-benzodioxyl-chalcone, and thiophenyl-benzodioxyl-chalcone in the course of this study. Moreover, these compounds are commercial malaria mediciations screened for their inhibitory activity using molecular docking simulations. Subsequent results of combined indolyl-benzodioxyl-chalcone and PfDHFR-TS showed the intrinsic indolyl components produced stronger interactions referenced to pyrrolyl-benzodioxyl-chalcone, thiophenyl-benzodioxyl-chalcone, and chloroguanide. Under these circumstances, intense PfDHFR-TS-indolyl-benzodioxyl-chalcone complex was produced with lower binding affinity values (-7.32 to -8.43 kcal/mole) referenced to PfDHFR-TS-pyrrolyl-benzodioxyl-chalcone (-6.38 to -6.68 kcal/mole), PfDHFR-TS-Thiophenyl-benzodioxyl-chalcone (-6.47 to -6.52 kcal/mole), and PfDHFR-TS-chloroguanide (-6.75 kcal/mole). Furthermore, the hydrogen bond interactions developed by indolyl-benzodioxyl-chalcone (7-10) are observably similar to standard chloroguanide compounds and WR99210. These compounds also possess a binding affinity similar to WR99210 (native ligand) and are expected to be potentially anti-malarial candidates.

Why it matters

OpenAlex reports 1 citations for this work. Citation counts describe recorded attention and do not establish research quality.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

The drug resistance condition of P. falciparum pose a major challenge in the fight against malaria. This prompts a comprehensive research in an effort to discover new drug candidates. Therefore, chalcone was modified into 24 new compounds, including indolyl-benzodioxyl-chalcone, pyrrolyl-benzodioxyl-chalcone, and thiophenyl-benzodioxyl-chalcone in the course of this study. Moreover, these compounds are commercial malaria mediciations screened for their inhibitory activity using molecular docking simulations. Subsequent results of combined indolyl-benzodioxyl-chalcone and PfDHFR-TS showed the intrinsic indolyl components produced stronger interactions referenced to pyrrolyl-benzodioxyl-chalcone, thiophenyl-benzodioxyl-chalcone, and chloroguanide. Under these circumstances, intense PfDHFR-TS-indolyl-benzodioxyl-chalcone complex was produced with lower binding affinity values (-7.32 to -8.43 kcal/mole) referenced to PfDHFR-TS-pyrrolyl-benzodioxyl-chalcone (-6.38 to -6.68 kcal/mole), PfDHFR-TS-Thiophenyl-benzodioxyl-chalcone (-6.47 to -6.52 kcal/mole), and PfDHFR-TS-chloroguanide (-6.75 kcal/mole). Furthermore, the hydrogen bond interactions developed by indolyl-benzodioxyl-chalcone (7-10) are observably similar to standard chloroguanide compounds and WR99210. These compounds also possess a binding affinity similar to WR99210 (native ligand) and are expected to be potentially anti-malarial candidates.

Key concepts: Chalcone, Stereochemistry, Chemistry, Combinatorial chemistry

Related papers

Back to paper searchBrowse research topicsOriginal source
Molecular Docking Studies of Indolyl-Benzodioxyl-Chalcone, Pyrrolyl-Benzodioxyl- Chalcone, and Thiophenyl-Benzodioxyl-Chalcone as an Antimalarial Agent — Research Paper | ScholarLens