Insights into the structure-activity relationship of pyrimidine-sulfonamide analogues for targeting BRAF V600E protein

IF 3.3 3区 生物学 Q2 BIOCHEMISTRY & MOLECULAR BIOLOGY
Tarapong Srisongkram, Dheerapat Tookkane
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引用次数: 0

Abstract

B-rapidly accelerated fibrosarcoma (BRAF) V600E plays a crucial role in the progression of cutaneous melanoma. Core structures of BRAF V600E inhibitors are based on pyrimidine-sulfonamide scaffolds. Exploring the QSAR of these structures can improve our understanding of BRAF V600E inhibitor drug design. This study utilized machine learning-based QSAR to elucidate chemical substructures of pyrimidine-sulfonamide analogues that correlated to the BRAF V600E inhibitory activity. The findings indicate that the support vector regression (SVR) combined with 15 fingerprints achieved the highest statistical performances in terms of goodness-of-fit, robustness, and predictability. Nine key fingerprints from pyrimidine-sulfonamide analogues were identified to exert the BRAF V600E inhibitory activity. These key fingerprints were validated using network-based activity cliff landscape and molecular docking. Together, the developed algorithm can serve as a screening tool for designing BRAF V600E inhibitors. To further utilize this model, we deployed our developed algorithm at https://qsarlabs.com/#braf.

Abstract Image

嘧啶磺酰胺类似物靶向 BRAF V600E 蛋白的结构-活性关系透视
B 型快速加速纤维肉瘤(BRAF)V600E 在皮肤黑色素瘤的发展过程中起着至关重要的作用。BRAF V600E 抑制剂的核心结构基于嘧啶-磺酰胺支架。探索这些结构的 QSAR 可以提高我们对 BRAF V600E 抑制剂药物设计的理解。本研究利用基于机器学习的 QSAR 来阐明与 BRAF V600E 抑制活性相关的嘧啶-磺酰胺类似物的化学亚结构。研究结果表明,支持向量回归(SVR)与 15 个指纹相结合,在拟合优度、稳健性和可预测性方面取得了最高的统计性能。从嘧啶-磺酰胺类似物中确定了九个关键指纹,以发挥抑制 BRAF V600E 的活性。利用基于网络的活性悬崖图谱和分子对接验证了这些关键指纹。总之,所开发的算法可作为设计 BRAF V600E 抑制剂的筛选工具。为了进一步利用这一模型,我们在 https://qsarlabs.com/#braf 上部署了我们开发的算法。
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来源期刊
Biophysical chemistry
Biophysical chemistry 生物-生化与分子生物学
CiteScore
6.10
自引率
10.50%
发文量
121
审稿时长
20 days
期刊介绍: Biophysical Chemistry publishes original work and reviews in the areas of chemistry and physics directly impacting biological phenomena. Quantitative analysis of the properties of biological macromolecules, biologically active molecules, macromolecular assemblies and cell components in terms of kinetics, thermodynamics, spatio-temporal organization, NMR and X-ray structural biology, as well as single-molecule detection represent a major focus of the journal. Theoretical and computational treatments of biomacromolecular systems, macromolecular interactions, regulatory control and systems biology are also of interest to the journal.
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