Decoding the hidden patterns in gene expression data makes it easier to understand functional genomics. The intricacy of biological networks and a huge number of genes present increases the complexity of interpreting mass data. It consists of millions of variables resulting in imprecision, ambiguity and noise. Very important step to address these challenges is to apply clustering techniques. Clustering is essential in data mining to find out interesting patterns underlying mass data. The clustering of gene expression data has been useful in knowing the natural structure inherent in gene expression data, understanding gene functions, cellular processes and subtypes of cells, mining useful information from noisy data and understanding gene regulation. The other benefit of clustering gene expression data is the identification of homology, which is very important in prognosis. In our study, the aim is to use clustering technique to find more statistically significant models in the survival analysis of cutaneous
Decoding the hidden patterns in gene expression data makes it easier to understand functional genomics. The intricacy of biological networks and a huge number of genes present increases the complexity of interpreting mass data. It consists of millions of variables resulting in imprecision, ambiguity and noise. Very important step to address these challenges is to apply clustering techniques. Clustering is essential in data mining to find out interesting patterns underlying mass data. The clustering of gene expression data has been useful in knowing the natural structure inherent in gene expression data, understanding gene functions, cellular processes and subtypes of cells, mining useful information from noisy data and understanding gene regulation. The other benefit of clustering gene expression data is the identification of homology, which is very important in prognosis. In our study, the aim is to use clustering technique to find more statistically significant models in the survival analysis of cutaneous