Thrilled to share my primary PhD work: a Transcription Factor Atlas for understanding gene regulation and cell engineering @CellCellPress. We created a comprehensive TF ORF library and applied it to profile resulting expression changes. A thread 1/X https://t.co/PPcJ0HZEsW
Excited to share our recent work about ZFP462, a TF associated with neurodevelopmental disorder, that is required for safeguarding neural lineage specification of by targeting the H3K9-specifc histone methyltransferase complex G9A/GLP to silence enhancers. https://t.co/uxzzwAmQUe
Previously, it has been a challenge to distinguish between motifs for TFs that drive chromatin accessibility and those that follow it. In our latest work from @kaelanbrennan and @MelanieWeilert, we tackled this problem in the early Drosophila embryo. (1/6)
https://t.co/7lq6NtguFu
Can we perform unbiased discovery of endogenous proteins that traffick from one organelle to another in living cells?
Learn about our new proximity labeling method, TransitID, here:
Full video of ASCB lecture at https://t.co/kEEipZNKDs
Excited to share my second first-authored paper published online @NAR_Open . In prostate cancer, we found EZH2-TAD was critical for binding with AR/AR-V7 and both could be targeted by MS177 (EZH2 PROTAC). Thanks to all collaborators to make this happen.
https://t.co/QJ6OsPLsex
A novel antibody-guided and tagmentation-based method profiles chromatin-associated RNAs by detecting interactions in situ. #NBThighlight https://t.co/mijmML2akj
My review went live today. I argue that transcription factors find their binding sites using both protein-protein interactions and DNA binding interactions. It's halfway between a review and a perspective. https://t.co/sZSeBPlKzw
CUT&RUN-qPCR- Greater Sensitivity and Spatial Resolution than ChIP-qPCR. Check out our method paper @STARProtocols from @ScullyRalph lab
https://t.co/Z5GnYkK95S
Very happy to share our latest manuscript @CellCellPress with you: https://t.co/SpzebU9RIM
TL;DR: Glioblastomas are incurable brain tumors colonizing the entire brain. We overlay molecular and functional data to uncover a hijacking of neuronal mechanisms driving invasion.
TET1 regulates gene expression and repression of endogenous retroviruses independent of DNA demethylation | Nucleic Acids Research | Oxford Academic https://t.co/0y010ci8rl
"Glioblastoma hijacks neuronal mechanisms for brain invasion"
Read more in @CellCellPress: https://t.co/clMUJqZvKk
@HeidelbergU@VarunVenkatara2, Frank Winkler, Thomas Kuner
Here's a very detailed Micro-C protocol written by Elena (now @MIT) and @CCattoglio during our Micro-C workshop with @Anders_S_Hansen and @ViraatGoel! This protocol will make Micro-C work like a champ even if you've never done it before! Enjoy it :) https://t.co/0CJjKaiorg