Microwave-assisted Green Synthesis and Integrated Bioinformatics Study Reveal Curcumin Analogs Dibenzylidene-cyclohexanones as Novel Potential Anti-Tuberculosis Agents

Introduction Tuberculosis (TB) remains a major global health challenge, further complicated by drug resistance and comorbidities. This study investigates curcumin analogues, dibenzylidene-cyclohexanones, as potential multitarget anti-TB agents. Methods Nine benzylidene cyclohexanone derivatives were synthesized using microwave-assisted techniques (yields: 23–81%). Their potential activities were evaluated through molecular docking against key Mycobacterium tuberculosis (Mtb) enzymes and supported by network pharmacology analysis focused on TB-related pathologies. Results The benzylidene cyclohexanone analogs A-135 (81%), A-144 (58%), and A-154 (30%), synthesized efficiently via microwave-assisted green chemistry, exhibited superior multitarget binding affinities against key Mtb enzymes—A-135 (MtFabH, pantothenate synthetase), A-144 (MurE, DprE1, PTPs), and A-154 (Ddn, GlmU, Pks13)—with halogen substituents enhancing interactions through halogen bonds and lipophilicity; network pharmacology further revealed 294 overlapping TB-related targets and identified NF-κB1, STAT3, STAT1, and PTGS2 as key hubs mediating their multitarget therapeutic potential modulating TB clinical manifestation in human body. Discussion They exhibited superior multitarget binding affinities against key Mtb enzymes, A-135 (MtFabH, pantothenate synthetase), A-144 (MurE, DprE1, PTPs), and A-154 (Ddn, GlmU, Pks13)—with halogen substituents enhancing interactions through halogen bonds and lipophilicity; network pharmacology further revealed 294 overlapping TB-related targets and identified NF-κB1, STAT3, STAT1, and PTGS2 as key hubs mediating their multitarget therapeutic potential, modulating TB clinical manifestation in the human body. Conclusion A-135, A-144, and A-154 demonstrate promising multitarget anti-TB activity and potential as adjuvant therapies to complement existing treatments, especially for managing drug resistance and related comorbidities.

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Journal
The Open Medicinal Chemistry Journal
Published
2025-11-25
DOI
https://doi.org/10.2174/0118741045419456251113060848
Primary Topic
Curcumin's Biomedical Applications
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article
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0.00

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article

Microwave-assisted Green Synthesis and Integrated Bioinformatics Study Reveal Curcumin Analogs Dibenzylidene-cyclohexanones as Novel Potential Anti-Tuberculosis Agents

Muthia Rahayu Iresha, Hendra Gunosewoyo, Muhammad Tahir Akhtar, Prajona Marbun et al.
The Open Medicinal Chemistry Journal
Curcumin's Biomedical Applications
article

Microwave-assisted Green Synthesis and Integrated Bioinformatics Study Reveal Curcumin Analogs Dibenzylidene-cyclohexanones as Novel Potential Anti-Tuberculosis Agents

Muthia Rahayu Iresha, Hendra Gunosewoyo, Muhammad Tahir Akhtar, Prajona Marbun, Ritmaleni Ritmaleni, Rosalina Diani Prima Anargya, Ibnu Rahmadiansyah
article en

Abstract

Introduction Tuberculosis (TB) remains a major global health challenge, further complicated by drug resistance and comorbidities. This study investigates curcumin analogues, dibenzylidene-cyclohexanones, as potential multitarget anti-TB agents. Methods Nine benzylidene cyclohexanone derivatives were synthesized using microwave-assisted techniques (yields: 23–81%). Their potential activities were evaluated through molecular docking against key Mycobacterium tuberculosis (Mtb) enzymes and supported by network pharmacology analysis focused on TB-related pathologies. Results The benzylidene cyclohexanone analogs A-135 (81%), A-144 (58%), and A-154 (30%), synthesized efficiently via microwave-assisted green chemistry, exhibited superior multitarget binding affinities against key Mtb enzymes—A-135 (MtFabH, pantothenate synthetase), A-144 (MurE, DprE1, PTPs), and A-154 (Ddn, GlmU, Pks13)—with halogen substituents enhancing interactions through halogen bonds and lipophilicity; network pharmacology further revealed 294 overlapping TB-related targets and identified NF-κB1, STAT3, STAT1, and PTGS2 as key hubs mediating their multitarget therapeutic potential modulating TB clinical manifestation in human body. Discussion They exhibited superior multitarget binding affinities against key Mtb enzymes, A-135 (MtFabH, pantothenate synthetase), A-144 (MurE, DprE1, PTPs), and A-154 (Ddn, GlmU, Pks13)—with halogen substituents enhancing interactions through halogen bonds and lipophilicity; network pharmacology further revealed 294 overlapping TB-related targets and identified NF-κB1, STAT3, STAT1, and PTGS2 as key hubs mediating their multitarget therapeutic potential, modulating TB clinical manifestation in the human body. Conclusion A-135, A-144, and A-154 demonstrate promising multitarget anti-TB activity and potential as adjuvant therapies to complement existing treatments, especially for managing drug resistance and related comorbidities.

The Open Medicinal Chemistry JournalVol. 19(1)
Universitas Gadjah Mada (ID)
Universitas Gadjah Mada
Openalex Percentile: Top 67%
Curcumin's Biomedical Applications
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