Runxuan Zhang, N. Sundararajan, G. Huang, P. Saratchandran
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引用次数: 3
摘要
本文提出了一种快速高效的RBF网络序列学习方法,该方法可以直接对基于微阵列数据的多类别癌症诊断问题进行分类。快速生长与剪枝- rbf (Fast growth And Pruning-RBF, FGAP-RBF)算法可以直接对未来数据进行增量学习。不需要对之前的所有数据进行训练。这一特点降低了学习复杂度,提高了学习效率,有利于基于基因表达的癌症诊断系统的实际实现。我们在基于微阵列数据(即GCM数据集)的基准多类别癌症诊断问题上评估了FGAP-RBF算法。结果表明,与文献结果相比,FGAP-RBF算法在降低训练时间和实现复杂度的同时具有更高的分类准确率。
An Efficient Sequential RBF Network for Gene Expression-Based Multi-category classification
This paper presents a fast and efficient sequential learning method for RBF networks that can perform classification directly for multi-category cancer diagnosis problems based on microarray data. The recently developed algorithm, referred to as Fast Growing And Pruning-RBF (FGAP-RBF) can perform incremental learning on the future data directly. No training of all the previous data is needed. This character can reduce the learning complexity and improve the learning efficiency and is greatly favored in the real implementation of a gene expression-based cancer diagnosis system. We have evaluated FGAP-RBF algorithm on a benchmark multi-category cancer diagnosis problem based on microarray data, namely GCM dataset. The results indicate that compared with the results available in literature FGAP-RBF algorithm produces a higher classification accuracy with reduced training time and implementation complexity.