Author
Listed:
- Pascal Hunold
(University of Cologne
University of Cologne)
- Giulia Pizzolato
(University of Cologne
University of Cologne)
- Nadia Heramvand
(University of Cologne
University of Cologne)
- Laura Kaiser
(University of Cologne)
- Giulia Barbiera
(Genevia Technologies Oy)
- Olivia Ray
(University of Cologne
University of Cologne)
- Roman Thomas
(University of Cologne
Institute of Pathology)
- Julie George
(University of Cologne
University Hospital of Cologne)
- Martin Peifer
(University of Cologne
University of Cologne)
- Robert Hänsel-Hertsch
(University of Cologne
University of Cologne
University of Cologne and University Hospital Cologne
University Hospital Cologne)
Abstract
Systematic discovery of transcription factor (TF) landscapes in low-input samples and at single cell level is a major challenge in the fields of molecular biology, genetics, and epigenetics. Here, we present cleavage under Dynamic targets and Tagmentation (DynaTag), enabling robust mapping of TF-DNA interactions using a physiological salt solution during sample preparation. DynaTag uncovers occupancy alterations for 15 TFs in stem cell and cancer tissue models. We highlight changes in TF-DNA binding for NANOG, MYC, and OCT4, during stem-cell differentiation, at both bulk and single-cell resolutions. DynaTag surpasses CUT&RUN and ChIP-seq in signal-to-background ratio and resolution. Furthermore, using tumours of a small cell lung cancer model derived from a single female donor, DynaTag reveals increased chromatin occupancy of FOXA1, MYC, and the mutant p53 R248Q at enriched gene pathways (e.g. epithelial-mesenchymal transition), following chemotherapy treatment. Collectively, we believe that DynaTag represents a significant technological advancement, facilitating precise characterization of TF landscapes across diverse biological systems and complex models.
Suggested Citation
Pascal Hunold & Giulia Pizzolato & Nadia Heramvand & Laura Kaiser & Giulia Barbiera & Olivia Ray & Roman Thomas & Julie George & Martin Peifer & Robert Hänsel-Hertsch, 2025.
"DynaTag for efficient mapping of transcription factors in low-input samples and at single-cell resolution,"
Nature Communications, Nature, vol. 16(1), pages 1-15, December.
Handle:
RePEc:nat:natcom:v:16:y:2025:i:1:d:10.1038_s41467-025-61797-9
DOI: 10.1038/s41467-025-61797-9
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