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Mouse small cell lung cancer model

ABSTRACT: A mouse model for human small cell lung carcinoma (SCLC) has been developed based on evidence in human tumors that the tumor suppressor functions of RB and p53 are defective in more than 90% of SCLC cases. We also developed another mouse model also combines loss of p130 (Rbl2), an RB-related gene, with deletion of RB and p53. These two mouse tumors were shown to closely resemble human SCLC.

ORGANISM(S): Mus musculus

PROVIDER: GSE18534 | GEO | 2010/06/01

SECONDARY ACCESSION(S): PRJNA121393

REPOSITORIES: GEO

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Mouse small cell lung cancer model

Project description:A mouse model for human small cell lung carcinoma (SCLC) has been developed based on evidence in human tumors that the tumor suppressor functions of RB and p53 are defective in more than 90% of SCLC cases. We also developed another mouse model also combines loss of p130 (Rbl2), an RB-related gene, with deletion of RB and p53. These two mouse tumors were shown to closely resemble human SCLC. The goal of this array experiment is to assess genome-wide gene expression of those mouse tumors and determine the similarity of the mouse models to human SCLC. Gene expression from Mouse Rb/p53 ( n=10 ) and Rb/p53/p130 primary tumors ( n=3 ) as well as tumor-free adult mouse lungs ( n=2 ) was measured using the Affymetrix GeneChip Mouse Genome 430-2.0 arrays.

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Project description:The epidermal-specific ablation of Rb gene leads to increased proliferation, aberrant differentiation, and the disengagement of these processes in vivo and in vitro. These differences in phenotype are more severe with the loss of p107, demonstrating the functional compensation between pRb and p107. As p107 and p130 also exert overlapping functions in epidermis, we have generated Rb(F19/F19)K14cre;Rbl2-/- (pRb-;p130-) mice to analyze possible functional redundancies between pRb and p130. The epidermal phenotype was very similar between pRb- and pRb-;p130- mice, suggesting that pRb and p130 activities are not redundant in epidermis. Importantly, we can correlate the proliferation differences with specific changes in gene expression between pRb-, pRb-;p107- and pRb-;p130- primary keratinocytes using microarray analysis, and explain the phenotypes in the context of altered E2F expression and functionality. Our findings support a model in which the distinct retinoblastoma family members, in conjunction with E2F members, play a central role in regulating epidermal homeostasis through specific or overlapping activities. Experiment Overall Design: Total RNA from pooled cells from each genotype were analyzed, per duplicate (pRb-/-;p107-/-, or pRb-/-;p130-/-) or triplicate (wild type, or pRb-/-), in mouse microarrays. Comparison was performed between the 4 different genotypes.

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