Abstract A024: Characterization of rutin binding to HRAS and MAPK3 and its clinical prognostic relevance in lung cancer: Using in silico and clinical prognostic experimental design

Abstract Lung cancer, especially non-small cell lung carcinoma, remains a leading cause of cancer mortality worldwide. This study integrates multi-layer computational approaches including phytochemical target mapping, expression and survival analytics, structure-based docking, and molecular dynamic simulations to uncover and prioritize bioactive phytochemicals from Caesalpinia bonduc with therapeutic potential. Following drug-likeness and oral-bioavailability filtering, 18 candidate compounds were mapped to 414 lung cancer-associated targets. Protein–protein interaction network and enrichment analysis revealed central hubs within PI3K/MAPK signaling and oncogenic survival pathways (e.g., PIK3CA, MAPK1/3, HRAS), which also exhibited differential expression and prognostic relevance in lung adenocarcinoma datasets. Molecular docking identified rutin as a top candidate, showing the strongest predicted binding to HRAS (− 10.9 kcal/mol) and MAPK3 (− 10.4 kcal/mol), supported by molecular dynamic simulations indicating stable pocket engagement. These findings position rutin as a multi-target modulator capable of attenuating proliferative and survival signaling through upstream and effector nodes. Despite computational limitations, including predictive target inference, docking approximations, and limited dynamic sampling, the convergent in-silico evidence forms a solid foundation for experimental validation. Proposed follow-up includes in-vitro assays assessing viability, pathway biomarkers, and genetic perturbation strategies, coupled with biophysical binding measurements and pharmacokinetic profiling. In summary, this integrated study provides mechanistically grounded, atomistic support for rutin’s prioritized advancement toward preclinical validation against key components of the PI3K/MAPK axis and HRAS in lung cancer. Citation Format: Dr. Hossam Kamli. Characterization of rutin binding to HRAS and MAPK3 and its clinical prognostic relevance in lung cancer: Using in silico and clinical prognostic experimental design [abstract]. In: Proceedings of the AACR Special Conference in Cancer Research: RAS Oncogenesis and Therapeutics; 2026 Mar 5-8; Los Angeles, CA. Philadelphia (PA): AACR; Cancer Res 2026;86(5_Suppl_1):Abstract nr A024.

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Journal
Cancer Research
Published
2026-03-05
DOI
https://doi.org/10.1158/1538-7445.rasoncother26-a024
Primary Topic
Biological Stains and Phytochemicals
Type
article
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article

Abstract A024: Characterization of rutin binding to HRAS and MAPK3 and its clinical prognostic relevance in lung cancer: Using in silico and clinical prognostic experimental design

Hossam Kamli
Cancer Research
Biological Stains and Phytochemicals
article

Abstract A024: Characterization of rutin binding to HRAS and MAPK3 and its clinical prognostic relevance in lung cancer: Using in silico and clinical prognostic experimental design

Hossam Kamli
article en

Abstract

Abstract Lung cancer, especially non-small cell lung carcinoma, remains a leading cause of cancer mortality worldwide. This study integrates multi-layer computational approaches including phytochemical target mapping, expression and survival analytics, structure-based docking, and molecular dynamic simulations to uncover and prioritize bioactive phytochemicals from Caesalpinia bonduc with therapeutic potential. Following drug-likeness and oral-bioavailability filtering, 18 candidate compounds were mapped to 414 lung cancer-associated targets. Protein–protein interaction network and enrichment analysis revealed central hubs within PI3K/MAPK signaling and oncogenic survival pathways (e.g., PIK3CA, MAPK1/3, HRAS), which also exhibited differential expression and prognostic relevance in lung adenocarcinoma datasets. Molecular docking identified rutin as a top candidate, showing the strongest predicted binding to HRAS (− 10.9 kcal/mol) and MAPK3 (− 10.4 kcal/mol), supported by molecular dynamic simulations indicating stable pocket engagement. These findings position rutin as a multi-target modulator capable of attenuating proliferative and survival signaling through upstream and effector nodes. Despite computational limitations, including predictive target inference, docking approximations, and limited dynamic sampling, the convergent in-silico evidence forms a solid foundation for experimental validation. Proposed follow-up includes in-vitro assays assessing viability, pathway biomarkers, and genetic perturbation strategies, coupled with biophysical binding measurements and pharmacokinetic profiling. In summary, this integrated study provides mechanistically grounded, atomistic support for rutin’s prioritized advancement toward preclinical validation against key components of the PI3K/MAPK axis and HRAS in lung cancer. Citation Format: Dr. Hossam Kamli. Characterization of rutin binding to HRAS and MAPK3 and its clinical prognostic relevance in lung cancer: Using in silico and clinical prognostic experimental design [abstract]. In: Proceedings of the AACR Special Conference in Cancer Research: RAS Oncogenesis and Therapeutics; 2026 Mar 5-8; Los Angeles, CA. Philadelphia (PA): AACR; Cancer Res 2026;86(5_Suppl_1):Abstract nr A024.

Cancer ResearchVol. 86(5_Supplement_1)
King Khalid University (SA)
Good health and well-being
Openalex Percentile: Top 33%
Biological Stains and Phytochemicals
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