
Laura BreimannHarvard Medical School | HMS · Department of Genetics
Laura Breimann
Doctor of Philosophy
About
20
Publications
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59
Citations
Citations since 2017
Introduction
Laura Breimann currently works at the Berlin Institute for Medical Systems Biology, Max-Delbrück-Centrum für Molekulare Medizin.
Additional affiliations
January 2015 - October 2015
Education
October 2012 - October 2015
October 2009 - October 2012
Publications
Publications (20)
Fluorescent in-situ hybridization (FISH)-based methods extract spatially resolved genetic and epigenetic information from biological samples by detecting fluorescent spots in microscopy images, an often challenging task. We present Radial Symmetry-FISH (RS-FISH), an accurate, fast, and user-friendly software for spot detection in two- and three-dim...
Condensin is a multi-subunit SMC complex that binds to and compacts chromosomes. Here we addressed the regulation of condensin binding dynamics using C. elegans condensin DC, which represses X chromosomes in hermaphrodites for dosage compensation. We established fluorescence recovery after photobleaching (FRAP) using the SMC4 homolog DPY-27 and sho...
For cells to perform their biological functions, they need to adopt specific shapes and form functionally distinct subcellular compartments. This is achieved in part via an asymmetric distribution of mRNAs within cells. Currently, the main model of mRNA localization involves specific sequences called "zipcodes" that direct mRNAs to their proper loc...
Cells adopt highly polarized shapes and form distinct subcellular compartments in many cases due to the localization of many mRNAs to specific areas, where they are translated into proteins with local functions. This mRNA localization is mediated by specific cis-regulatory elements in mRNAs, commonly called ‘zipcodes’. Although there are hundreds o...
Protocol to detect the size (length + width) of worms using a stereoscope and a camera. The protocol was used in the publication:
Condensine sind essentiell für die Faltung von Chromatin und wurden auch mit der Transkriptionsregulation in Verbindung gebracht. Der zugrunde liegende Mechanismus für die Transkriptionsregulation ist jedoch unklar. Condensin DC in C. elegans ist ein gutes Modell zur Erforschung der Transkriptionsregulation durch Condensine, da es spezifisch für di...
Fluorescent in-situ hybridization (FISH)-based methods are powerful tools to study molecular processes with subcellular resolution, relying on accurate identification and localization of diffraction-limited spots in microscopy images. We developed the Radial Symmetry-FISH (RS-FISH) software that accurately, robustly, and quickly detects single-mole...
Condensin is a multi-subunit SMC complex that binds to and compacts chromosomes. Unlike cohesin, in vivo regulators of condensin binding dynamics remain unclear. Here we addressed this question using C. elegans condensin DC, which specifically binds to and represses transcription of both X chromosomes in hermaphrodites for dosage compensation. Muta...
Studying transcription using single-molecule RNA-FISH (smFISH) is a powerful method to gain insights into gene regulation on a single cell basis, which relies on accurate identification of sub-resolution fluorescent spots in microscopy images. Here we present Radial Symmetry-FISH (RS-FISH), which can robustly and quickly detect even close smFISH sp...
Protocol for Fluorescence Recovery after Photobleaching (FRAP) in C. elegans. The protocol includes the preparation of agarose pads, efficient mounting of worms, FRAP imaging, and an analysis pipeline.
Ever since Caenorhabditis elegans was introduced as a model system it has been tightly linked to microscopy, which has led to significant advances in understanding biology over the last decades. Developing new technologies therefore is an essential part in the endeavor to gain further mechanistic insights into developmental biology. This review wil...
Unfortunately, the original version of this article contained a typographical error in one of the author names. The name of the author Alexey Pindyurin was incorrectly spelt as Alexey Pinduyrin. The correct spelling is included here and has been updated in the original article.
Background
Tracking dynamic protein–chromatin interactions in vivo is key to unravel transcriptional and epigenetic transitions in development and disease. However, limited availability and heterogeneous tissue composition of in vivo source material impose challenges on many experimental approaches. ResultsHere we adapt cell-type-specific DamID-seq...