Literature DB >> 12466138

Acceleration of mouse mammary tumor virus-induced murine mammary tumorigenesis by a p53 172H transgene: influence of FVB background on tumor latency and identification of novel sites of proviral insertion.

Gouri Chatterjee1, Andrea Rosner, Yi Han, Edward T Zelazny, Baolin Li, Robert D Cardiff, Archibald S Perkins.   

Abstract

We previously showed that a mammary-specific dominant-negative p53 transgene (WAP-p53(172H)) could accelerate ErbB2-induced mammary tumorigenesis in mice, but was not tumorigenic on its own. To identify other genes that cooperate with WAP-p53(172H) in tumorigenesis, we performed mouse mammary tumor virus (MMTV) proviral mutagenesis. We derived F1, N2, and N4/N5 mice from p53(172H) transgenic FVB mice backcrossed onto MMTV+ C3H/He mice. Results show the latency of MMTV tumorigenesis is correlated with FVB contribution. F1 tumors had the shortest latency (217 days), had a higher rate of metastasis, and were less differentiated than the N2 and N4/N5 tumors. The latency was 269 days in N2 mice, and lengthened to 346 days in N4/N5 mice. p53(172H) significantly accelerated MMTV tumorigenesis only in N2 mice, indicating cooperativity between p53(172H) and MMTV in this cohort. To identify genes that may be causally involved in MMTV-induced mammary tumorigenesis, we identified 60 sites of proviral insertion in the N2 tumors. Among the insertions in p53(172H) transgenic tumors were 10 genes not previously found as sites of MMTV insertion including genes involved in signaling (Pdgfra, Pde1b, Cnk1), cell adhesion (Cd44), angiogenesis (Galgt1), and transcriptional regulation (Olig1, Olig2, and Uncx4.1). These may represent cellular functions that are likely not deregulated by mutation in p53.

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Year:  2002        PMID: 12466138      PMCID: PMC1850916          DOI: 10.1016/S0002-9440(10)64500-2

Source DB:  PubMed          Journal:  Am J Pathol        ISSN: 0002-9440            Impact factor:   4.307


  52 in total

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Authors:  B Elenbaas; L Spirio; F Koerner; M D Fleming; D B Zimonjic; J L Donaher; N C Popescu; W C Hahn; R A Weinberg
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Authors:  S W Lowe; T Jacks; D E Housman; H E Ruley
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3.  Classification of mouse mammary tumors in Dunn's miscellaneous group including recently reported types.

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Authors:  Q R Lu; D Yuk; J A Alberta; Z Zhu; I Pawlitzky; J Chan; A P McMahon; C D Stiles; D H Rowitch
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6.  Nucleotide sequence and expression in vitro of cDNA derived from mRNA of int-1, a provirally activated mouse mammary oncogene.

Authors:  Y K Fung; G M Shackleford; A M Brown; G S Sanders; H E Varmus
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  10 in total

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7.  Novel common integration sites targeted by mouse mammary tumor virus insertion in mammary tumors have oncogenic activity.

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  10 in total

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