Imaging transcription factors dynamics with advanced fluorescence microscopy methods

Pluripotent stem cells (PSCs) are capable of self-renewing and producing all cell types derived from the three germ layers in response to developmental cues, constituting an important promise for regenerative medicine. Pluripotency depends on specific transcription factors (TFs) that induce genes re...

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Autores principales: Verneri, P., Romero, J.J., De Rossi, M.C., Alvarez, Y., Oses, C., Guberman, A., Levi, V.
Formato: JOUR
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_09254773_v154_n_p60_Verneri
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spelling todo:paper_09254773_v154_n_p60_Verneri2023-10-03T15:46:19Z Imaging transcription factors dynamics with advanced fluorescence microscopy methods Verneri, P. Romero, J.J. De Rossi, M.C. Alvarez, Y. Oses, C. Guberman, A. Levi, V. transcription factor cell differentiation cell fate cell nucleus cell population cell proliferation cell self-renewal chromatin immunoprecipitation embryo development fluorescence microscopy fluorescence recovery after photobleaching gene expression gene targeting molecular dynamics nonhuman pluripotent stem cell priority journal Review Pluripotent stem cells (PSCs) are capable of self-renewing and producing all cell types derived from the three germ layers in response to developmental cues, constituting an important promise for regenerative medicine. Pluripotency depends on specific transcription factors (TFs) that induce genes required to preserve the undifferentiated state and repress other genes related to differentiation. The transcription machinery and regulatory components such as TFs are recruited dynamically on their target genes making it essential exploring their dynamics in living cells to understand the transcriptional output. Non-invasive and very sensitive fluorescence microscopy methods are making it possible visualizing the dynamics of TFs in living specimens, complementing the information extracted from studies in fixed specimens and bulk assays. In this work, we briefly describe the basis of these microscopy methods and review how they contributed to our knowledge of the function of TFs relevant to embryo development and cell differentiation in a variety of systems ranging from single cells to whole organisms. © 2018 Elsevier B.V. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_09254773_v154_n_p60_Verneri
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic transcription factor
cell differentiation
cell fate
cell nucleus
cell population
cell proliferation
cell self-renewal
chromatin immunoprecipitation
embryo development
fluorescence microscopy
fluorescence recovery after photobleaching
gene expression
gene targeting
molecular dynamics
nonhuman
pluripotent stem cell
priority journal
Review
spellingShingle transcription factor
cell differentiation
cell fate
cell nucleus
cell population
cell proliferation
cell self-renewal
chromatin immunoprecipitation
embryo development
fluorescence microscopy
fluorescence recovery after photobleaching
gene expression
gene targeting
molecular dynamics
nonhuman
pluripotent stem cell
priority journal
Review
Verneri, P.
Romero, J.J.
De Rossi, M.C.
Alvarez, Y.
Oses, C.
Guberman, A.
Levi, V.
Imaging transcription factors dynamics with advanced fluorescence microscopy methods
topic_facet transcription factor
cell differentiation
cell fate
cell nucleus
cell population
cell proliferation
cell self-renewal
chromatin immunoprecipitation
embryo development
fluorescence microscopy
fluorescence recovery after photobleaching
gene expression
gene targeting
molecular dynamics
nonhuman
pluripotent stem cell
priority journal
Review
description Pluripotent stem cells (PSCs) are capable of self-renewing and producing all cell types derived from the three germ layers in response to developmental cues, constituting an important promise for regenerative medicine. Pluripotency depends on specific transcription factors (TFs) that induce genes required to preserve the undifferentiated state and repress other genes related to differentiation. The transcription machinery and regulatory components such as TFs are recruited dynamically on their target genes making it essential exploring their dynamics in living cells to understand the transcriptional output. Non-invasive and very sensitive fluorescence microscopy methods are making it possible visualizing the dynamics of TFs in living specimens, complementing the information extracted from studies in fixed specimens and bulk assays. In this work, we briefly describe the basis of these microscopy methods and review how they contributed to our knowledge of the function of TFs relevant to embryo development and cell differentiation in a variety of systems ranging from single cells to whole organisms. © 2018 Elsevier B.V.
format JOUR
author Verneri, P.
Romero, J.J.
De Rossi, M.C.
Alvarez, Y.
Oses, C.
Guberman, A.
Levi, V.
author_facet Verneri, P.
Romero, J.J.
De Rossi, M.C.
Alvarez, Y.
Oses, C.
Guberman, A.
Levi, V.
author_sort Verneri, P.
title Imaging transcription factors dynamics with advanced fluorescence microscopy methods
title_short Imaging transcription factors dynamics with advanced fluorescence microscopy methods
title_full Imaging transcription factors dynamics with advanced fluorescence microscopy methods
title_fullStr Imaging transcription factors dynamics with advanced fluorescence microscopy methods
title_full_unstemmed Imaging transcription factors dynamics with advanced fluorescence microscopy methods
title_sort imaging transcription factors dynamics with advanced fluorescence microscopy methods
url http://hdl.handle.net/20.500.12110/paper_09254773_v154_n_p60_Verneri
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AT osesc imagingtranscriptionfactorsdynamicswithadvancedfluorescencemicroscopymethods
AT gubermana imagingtranscriptionfactorsdynamicswithadvancedfluorescencemicroscopymethods
AT leviv imagingtranscriptionfactorsdynamicswithadvancedfluorescencemicroscopymethods
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