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. 1988 Sep;62(9):3378–3387. doi: 10.1128/jvi.62.9.3378-3387.1988

Linker scan analysis of the early regulatory region of human papovavirus BK.

K L Deyerle 1, S Subramani 1
PMCID: PMC253461  PMID: 2841491

Abstract

BK virus (BKV) is a human papovavirus which latently infects a majority of the world population. Reactivation of this virus is associated with acute hemorrhagic cystitis, and BKV DNA has been found in human tumor tissue. BKV is one of many highly homologous papovaviruses, including simian virus 40 and JC virus, which display distinct host and cell-type specificities, transformation potentials, and pathologies. These differences are thought to be determined, in part, by the noncoding regulatory region of each virus, which contains the origin of replication and regulatory elements for both early and late gene expression. We have used linker scan mutants to map functional elements of a truncated BKV early promoter and enhancer and have studied the stereospecific requirements of these elements. We have also identified protein-binding regions through DNase protection studies. Our results show that a minimum of four elements are necessary for efficient early transcription, at least three of which correspond to DNase-protected domains. These protein-binding elements map to the TATA box and two nuclear factor 1 consensus sequences, one located within the enhancer repeat unit and the other located to the late side of the enhancer. The sequence of the fourth element is similar to the transcription factor Sp1 consensus sequence. Additional DNase-protected sites are centered over AP-1 and Sp1 consensus sequences. Finally, we find that the functional elements of the BKV early promoter and enhancer lack strict stereospecific requirements for efficient transcription.

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Selected References

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