Dataset for the manuscript <Heterochromatin organization and liquid-liquid phase separation: it is not about “if” but about “when”>

dc.contributor.author Romero, Hector
dc.contributor.author Arroyo Lopez, Maria
dc.contributor.author Zhadan, Andreas
dc.contributor.author Muzzopappa, Fernando
dc.contributor.author Zhang, Hui
dc.contributor.author Qin, Weihua
dc.contributor.author Mahmoud, Marah
dc.contributor.author Leonhardt, Heinrich
dc.contributor.author Erdel, Fabian
dc.contributor.author Cardoso, M. Cristina
dc.date.accessioned 2026-06-03T07:31:34Z
dc.date.created 2024-02-01
dc.date.issued 2026-06-03
dc.description Heterochromatin is a membraneless compartment within the cell nucleus. In recent years, a controversy arose on whether heterochromatin organization is driven by liquid-liquid phase separation or not. While many heterochromatin proteins were shown to undergo liquid-liquid phase separation in vitro, other studies reported that this does not happen in cells. Here, we tested the ability of heterochromatin proteins to generate heterochromatin barrier compartments in cells. We found that, while several proteins (H1.0, H1.4, HP1alpha, HP1beta, Mbd1, Mbd2 and MeCP2) form barrier compartments in mouse and/or human cells, this does not happen in all compartments in the same cell. The ability to form compartments is dependent on the ability of the proteins to accumulate in heterochromatin and the competition between heterochromatin compartments to generate barriers. The barrier compartments showed higher enrichment of the protein and bigger size than the non-barrier compartments in the same cell. In this dataset, all images, including half-heterochromatin FRAP (MOCHA-FRAP), confocal images used for Pearson correlation coefficient calculations, and High-Throughput microscopy data are included, together with the code for FIJI and Matlab that was follow in their analysis and the regions of interest and the raw intensity values obtained for each analysis.
dc.identifier.uri https://tudatalib.ulb.tu-darmstadt.de/handle/tudatalib/5164
dc.identifier.uri https://doi.org/10.48328/tudatalib-2252
dc.language.iso en
dc.relation.isreferencedby https://doi.org/10.64898/2026.06.03.729812
dc.rights.licenseCC-BY-4.0 (https://creativecommons.org/licenses/by/4.0)
dc.subject chromatin modeling
dc.subject DNA methylation
dc.subject fluorescence photobleaching (MOCHA-FRAP)
dc.subject heterochromatin
dc.subject histone methylation
dc.subject liquid-liquid phase separation
dc.subject mammalian cells
dc.subject.classification 2.11-03
dc.subject.ddc 570
dc.title Dataset for the manuscript <Heterochromatin organization and liquid-liquid phase separation: it is not about “if” but about “when”>
dc.type Dataset
dc.type Image
dc.type Software
dcterms.accessRights openAccess
person.identifier.orcid 0000-0002-2521-0034
person.identifier.orcid 0000-0002-5837-8060
person.identifier.orcid 0000-0001-8333-5612
person.identifier.orcid 0000-0001-6420-828X
person.identifier.orcid 0000-0001-9912-8634
person.identifier.orcid 0000-0002-4401-4442
person.identifier.orcid 0009-0008-9316-2944
person.identifier.orcid 0000-0002-5086-6449
person.identifier.orcid 0000-0003-2888-7777
person.identifier.orcid 0000-0001-8427-8859
tuda.agreements true
tuda.unit TUDa

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NameDescriptionSizeFormat
Plasmids.zipSequencing results from the plasmids used in the study65.15 KBZIP-Archivdateien Download
Figure 1.pngFigure 1 as shown in the manuscript974.92 KBPortable Network Graphics Download
Figure2.pngFigure 2 as shown in the manuscript657.04 KBPortable Network Graphics Download
Figure3.pngFigure 3 as depicted in the manuscript429.33 KBPortable Network Graphics Download
Figure 4.pngFigure 4 as depicted in the manuscript587.1 KBPortable Network Graphics Download
Figure5.pngFigure 5 as depicted in the manuscript813.46 KBPortable Network Graphics Download
rawdata1.pdfContains the MOCHA-FRAP graphs including the non-bleach curve and 95% confidence interval, from the figures S2 and S3.5.54 MBAdobe Portable Document Format Download
Figure1.xlsxAnalysis data for Figure 1171.11 KBMicrosoft Excel XML Download
Figure1.zipRaw images and analysis folder for Figure 110.58 GBZIP-Archivdateien Download
Figure2.xlsxAnalysis data for figure 288.21 KBMicrosoft Excel XML Download
Figure2.zipRaw images and analysis folder for Figure 213.6 GBZIP-Archivdateien Download
Figure3.xlsxAnalysis data for Figure 332.96 KBMicrosoft Excel XML Download
Figure3.zipRaw images and analysis folder for Figure 3797.22 MBZIP-Archivdateien Download
Figure4.xlsxAnalysis data for Figure 444.6 MBMicrosoft Excel XML Download
Figure4_HT_C2C12.zipHigh-througput images used in Figure 4 with the cell line C2C1214.91 GBZIP-Archivdateien Download
Figure4_HT_L929.zipHigh-througput images used in Figure 4 with the cell line L92912.76 GBZIP-Archivdateien Download
Figure4_HT_NIH.zipHigh-througput images used in Figure 4 with the cell line NIH-3T313.08 GBZIP-Archivdateien Download
Figure4_HT_MTF.zipHigh-througput images used in Figure 4 with the cell line MTF14.18 GBZIP-Archivdateien Download
Figure4_HT_NSC.zipHigh-througput images used in Figure 4 with the cell line NSC6.36 GBZIP-Archivdateien Download
Figure4_HT_RPE1.zipHigh-througput images used in Figure 4 with the cell line hTERT-RPE17.95 GBZIP-Archivdateien Download

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