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  1. No Access

    Article

    Repression of the transcriptional activity of ERRα with sequence-specific DNA-binding polyamides

    The orphan nuclear receptors estrogen-related receptors (ERRs) bind to the estrogen-related receptor response element (ERRE) to regulate transcriptional programs in cellular metabolism and cancer cell growth. ...

    Chien-yu Chen, Yang Li, Tiezheng Jia, Lina He in Medicinal Chemistry Research (2020)

  2. No Access

    Article

    Structural basis for the initiation of eukaryotic transcription-coupled DNA repair

    Cryo-electron microscopy analysis of yeast Rad26 bound to RNA polymerase II provides insight into the initiation of the transcription-coupled DNA repair mechanism in eukaryotes.

    Jun Xu, Indrajit Lahiri, Wei Wang, Adam Wier, Michael A. Cianfrocco, Jenny Chong in Nature (2017)

  3. Article

    Open Access

    Single-dose pharmacokinetic and toxicity analysis of pyrrole–imidazole polyamides in mice

    Pyrrole–imidazole (Py-Im) polyamides are programmable, sequence-specific DNA minor groove–binding ligands. Previous work in cell culture has shown that various polyamides can be used to modulate the transcript...

    Timothy W. Synold, Bixin **, Jun Wu, Yun Yen in Cancer Chemotherapy and Pharmacology (2012)

  4. No Access

    Chapter

    Regulation of Gene Expression by Synthetic DNA-Binding Ligands

    During the past 20 years, polyamides have evolved from the natural product distamycin to a new class of programmable heterocyclic oligomers that bind a broad repertoire of DNA sequences with high affinity and ...

    Peter B. Dervan, Adam T. Poulin-Kerstien in DNA Binders and Related Subjects (2005)

  5. No Access

    Article

    Structural basis for G•C recognition in the DNA minor groove

    Small molecules that target specific DNA sequences offer a potentially general approach for the regulation of gene expression. Pyrrole–imidazole polyamides represent the only class of synthetic small molecules...

    Clara L. Kielkopf, Eldon E. Baird, Peter B. Dervan in Nature Structural Biology (1998)

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    Article

    Recognition of the four Watson–Crick base pairs in the DNA minor groove by synthetic ligands

    The design of synthetic ligands that read the information stored in the DNA double helix has been a long-standing goal at the interface of chemistry and biology1,2,3,4,5. Cell-permeable small molecules that targe...

    Sarah White, Jason W. Szewczyk, James M. Turner, Eldon E. Baird, Peter B. Dervan in Nature (1998)

  7. No Access

    Article

    Regulation of gene expression by small molecules

    Small molecules that target specific DNA sequences have the potential to control gene expression. Ligands designed for therapeutic application must bind any predetermined DNA sequence with high affinity and pe...

    Joel M. Gottesfeld, Laura Neely, John W. Trauger, Eldon E. Baird, Peter B. Dervan in Nature (1997)

  8. No Access

    Article

    Recognition of DNA by designed ligands at subnanomolar concentrations

    SMALL molecules that specifically bind with high affinity to any predetermined DNA sequence in the human genome would be useful tools in molecular biology and potentially in human medicine. Simple rules have b...

    John W. Trauger, Eldon E. Baird, Peter B. Dervan in Nature (1996)

  9. No Access

    Article

    Extending the recognition site of designed minor groove binding molecules

    A linked, imazole/pyrrole minor-groove ligand has been shown to bind sequence specif icially to a 13 base-pair target sequence in a mixed 1:1/2:1 mode.

    Bernhard H. Geierstanger, Milan Mrksich, Peter B. Dervan in Nature Structural Biology (1996)

  10. No Access

    Article

    Reagents for the site-specific cleavage of megabase DNA

    The physical map** of chromosomes will be facilitated by methods of breaking large DNA into manageable fragments, or cutting uniquely at genetic markers of interest. Key issues in the design of sequence-spec...

    Peter B. Dervan in Nature (1992)

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    Article

    Single-site enzymatic cleavage of yeast genomic DNA mediated by triple helix formation

    PHYSICAL map** of chromosomes would be facilitated by methods of breaking large DNA into manageable fragments, or cutting uniquely at genetic markers of interest. Key issues in the design of sequence-specific D...

    Scott A. Strobel, Peter B. Dervan in Nature (1991)

  12. No Access

    Chapter

    Oligonucleotide Recognition of Double-helical DNA by Triple-helix Formation

    The sequence-specific recognition of double-helical DNA is an essential biological process responsible for the regulation of cellular functions including transcription, replication and cell division. The abili...

    Peter B. Dervan in Oligodeoxynucleotides (1989)