工程纳米材料中蛋白质电晕形成的预测

Nicholas Ferry, Kishwar Ahmed, S. Tasnim
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引用次数: 0

摘要

最近纳米技术的进步催化了几种不同类型的工程纳米材料(enm)。纳米材料分类解释为识别小于100纳米的任何颗粒。蛋白质电晕(PC)是有机流体中ENM上形成的蛋白质聚集。机器学习技术可用于预测ENM内PC的形成和相互作用。在本文中,我们建立了一个随机森林模型来预测enm上PC的形成。此外,我们利用深度神经网络(DNN)技术准确有效地预测PC的形成。我们还提出了训练好的DNN模型的架构优化,以创建实际的即时推断。通过仿真研究,验证了所提模型的有效性。实验表明,DNN模型在enm上的PC分类准确率达到83.81%,分类性能显著提高。
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Protein Corona Formation Prediction on Engineered Nanomaterials
Recent nanotechnology advances have catalyzed sev-eral different types of engineered nanomaterials (ENMs). The nanomaterial classification interprets to identifying any particle that is smaller than hundred nanometer. Protein corona (PC) is an agglomeration of proteins that form on an ENM in organic fluids. Machine learning techniques can be useful to predict the PC formation and interaction within an ENM. In this paper, we develop a random forest model for PC formation prediction on ENMs. Further, we leverage the deep neural network (DNN) technique to accurately and efficiently predict PC formation. We also present an architecture optimization of the trained DNN model to create practically instantaneous inferences. We preform simulation study to show effectiveness of our proposed model. Experiments show that the DNN model can achieve 83.81% accuracy in PC classification on ENMs, while can significantly improve the classification performance.
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