Přehled o publikaci
2024
In-cell NMR suggests that DNA i-motif levels are strongly depleted in living human cells
VÍŠKOVÁ, Pavlína; Eva IŠTVÁNKOVÁ; Jan RYNEŠ; Šimon DŽATKO; Tomáš LOJA et. al.Basic information
Original name
In-cell NMR suggests that DNA i-motif levels are strongly depleted in living human cells
Authors
VÍŠKOVÁ, Pavlína; Eva IŠTVÁNKOVÁ; Jan RYNEŠ; Šimon DŽATKO; Tomáš LOJA; Martina LENARČIČ ŽIVKOVIC; Riccardo RIGO; Roberto EL-KHOURY; Israel SERRANO-CHACON; Masad J DAMHA; Carlos GONZALEZ; Jean-Louis MERGNY; Silvie TRANTÍRKOVÁ and Lukáš TRANTÍREK
Edition
Nature Communications, London, Nature Publishing Group, 2024, 2041-1723
Other information
Language
English
Type of outcome
Article in a journal
Country of publisher
Germany
Confidentiality degree
is not subject to a state or trade secret
References:
Organization
Středoevropský technologický institut – Repository – Repository
UT WoS
001180394600033
EID Scopus
2-s2.0-85186873110
Keywords in English
CYTOSINE-RICH STRAND; G-QUADRUPLEX; HNRNP LL; MOLECULAR SWITCH; GENE-EXPRESSION; LOOP LENGTH; STABILITY; SEQUENCES; DOMAINS; PROTEIN
Links
EF18_046/0015974, research and development project. EF20_079/0017045, research and development project. GX19-26041X, research and development project. LM2023050, research and development project. LM2023053, research and development project. LX22NPO5102, research and development project. 871037, interní kód Repo. CIISB III, large research infrastructures. Czech-BioImaging III, large research infrastructures. EATRIS-CZ IV, large research infrastructures.
Changed: 15/3/2025 00:51, RNDr. Daniel Jakubík
Abstract
V originále
gt; 7 appear as a mix of folded and unfolded states depending on the cell cycle phase. Comparing these results with previous data obtained using an iM-specific antibody (iMab) reveals that cell cycle-dependent iM formation has a dual origin, and iM formation concerns only a tiny fraction (possibly 1%) of genomic sites with iM formation propensity. We propose a comprehensive model aligning observations from iMab and in-cell NMR and enabling the identification of iMFPS capable of adopting iM structures under physiological conditions in living human cells. Our results suggest that many iMFPS may have biological roles linked to their unfolded states.