Literature DB >> 22453355

Expression analysis of mammalian linker-histone subtypes.

Magdalena Medrzycki1, Yunzhe Zhang, Kaixiang Cao, Yuhong Fan.   

Abstract

Linker histone H1 binds to the nucleosome core particle and linker DNA, facilitating folding of chromatin into higher order structure. H1 is essential for mammalian development and regulates specific gene expression in vivo. Among the highly conserved histone proteins, the family of H1 linker histones is the most heterogeneous group. There are 11 H1 subtypes in mammals that are differentially regulated during development and in different cell types. These H1 subtypes include 5 somatic H1s (H1a-e), the replacement H1(0), 4 germ cell specific H1 subtypes, and H1x. The presence of multiple H1 subtypes that differ in DNA binding affinity and chromatin compaction ability provides an additional level of modulation of chromatin function. Thus, quantitative expression analysis of individual H1 subtypes, both of mRNA and proteins, is necessary for better understanding of the regulation of higher order chromatin structure and function. Here we describe a set of assays designed for analyzing the expression levels of individual H1 subtypes. mRNA expression of various H1 variant genes is measured by a set of highly sensitive and quantitative reverse transcription-PCR (qRT-PCR) assays, which are faster, more accurate and require much less samples compared with the alternative approach of Northern blot analysis. Unlike most other cellular mRNA messages, mRNAs for most histone genes, including the majority of H1 genes, lack a long polyA tail, but contain a stem-loop structure at the 3' untranslated region (UTR). Therefore, cDNAs are prepared from total RNA by reverse transcription using random primers instead of oligo-dT primers. Realtime PCR assays with primers specific to each H1 subtypes are performed to obtain highly quantitative measurement of mRNA levels of individual H1 subtypes. Expression of housekeeping genes are analyzed as controls for normalization. The relative abundance of proteins of each H1 subtype and core histones is obtained through reverse phase high-performance liquid chromatography (RP-HPLC) analysis of total histones extracted from mammalian cells. The HPLC method and elution conditions described here give optimum separations of mouse H1 subtypes. By quantifying the HPLC profile, we calculate the relative proportion of individual H1 subtypes within H1 family, as well as determine the H1 to nucleosome ratio in the cells.

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Year:  2012        PMID: 22453355      PMCID: PMC3415166          DOI: 10.3791/3577

Source DB:  PubMed          Journal:  J Vis Exp        ISSN: 1940-087X            Impact factor:   1.355


  14 in total

1.  Mammalian linker-histone subtypes differentially affect gene expression in vivo.

Authors:  Raouf Alami; Yuhong Fan; Stephanie Pack; Timothy M Sonbuchner; Arnaud Besse; Qingcong Lin; John M Greally; Arthur I Skoultchi; Eric E Bouhassira
Journal:  Proc Natl Acad Sci U S A       Date:  2003-04-28       Impact factor: 11.205

2.  H1 family histones in the nucleus. Control of binding and localization by the C-terminal domain.

Authors:  John P H Th'ng; Rohyun Sung; Ming Ye; Michael J Hendzel
Journal:  J Biol Chem       Date:  2005-05-23       Impact factor: 5.157

Review 3.  Role of linker histone in chromatin structure and function: H1 stoichiometry and nucleosome repeat length.

Authors:  Christopher L Woodcock; Arthur I Skoultchi; Yuhong Fan
Journal:  Chromosome Res       Date:  2006       Impact factor: 5.239

4.  Linker histone H1 regulates specific gene expression but not global transcription in vivo.

Authors:  X Shen; M A Gorovsky
Journal:  Cell       Date:  1996-08-09       Impact factor: 41.582

5.  Real time quantitative PCR.

Authors:  C A Heid; J Stevens; K J Livak; P M Williams
Journal:  Genome Res       Date:  1996-10       Impact factor: 9.043

6.  The mouse histone H1 genes: gene organization and differential regulation.

Authors:  Z F Wang; A M Sirotkin; G M Buchold; A I Skoultchi; W F Marzluff
Journal:  J Mol Biol       Date:  1997-08-08       Impact factor: 5.469

7.  Individual somatic H1 subtypes are dispensable for mouse development even in mice lacking the H1(0) replacement subtype.

Authors:  Y Fan; A Sirotkin; R G Russell; J Ayala; A I Skoultchi
Journal:  Mol Cell Biol       Date:  2001-12       Impact factor: 4.272

8.  DNA- and chromatin-condensing properties of rat testes H1a and H1t compared to those of rat liver H1bdec; H1t is a poor condenser of chromatin.

Authors:  J R Khadake; M R Rao
Journal:  Biochemistry       Date:  1995-12-05       Impact factor: 3.162

9.  Histone H1 subtypes differentially modulate chromatin condensation without preventing ATP-dependent remodeling by SWI/SNF or NURF.

Authors:  Jaime Clausell; Nicole Happel; Tracy K Hale; Detlef Doenecke; Miguel Beato
Journal:  PLoS One       Date:  2009-10-01       Impact factor: 3.240

10.  Differential affinity of mammalian histone H1 somatic subtypes for DNA and chromatin.

Authors:  Mary Orrego; Imma Ponte; Alicia Roque; Natascha Buschati; Xavier Mora; Pedro Suau
Journal:  BMC Biol       Date:  2007-05-11       Impact factor: 7.431

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  12 in total

Review 1.  Role of H1 linker histones in mammalian development and stem cell differentiation.

Authors:  Chenyi Pan; Yuhong Fan
Journal:  Biochim Biophys Acta       Date:  2015-12-13

2.  MS_HistoneDB, a manually curated resource for proteomic analysis of human and mouse histones.

Authors:  Sara El Kennani; Annie Adrait; Alexey K Shaytan; Saadi Khochbin; Christophe Bruley; Anna R Panchenko; David Landsman; Delphine Pflieger; Jérôme Govin
Journal:  Epigenetics Chromatin       Date:  2017-01-10       Impact factor: 4.954

3.  Developmentally regulated linker histone H1c promotes heterochromatin condensation and mediates structural integrity of rod photoreceptors in mouse retina.

Authors:  Evgenya Y Popova; Sergei A Grigoryev; Yuhong Fan; Arthur I Skoultchi; Samuel S Zhang; Colin J Barnstable
Journal:  J Biol Chem       Date:  2013-05-03       Impact factor: 5.157

4.  Histone h1.3 suppresses h19 noncoding RNA expression and cell growth of ovarian cancer cells.

Authors:  Magdalena Medrzycki; Yunzhe Zhang; Weijia Zhang; Kaixiang Cao; Chenyi Pan; Nathalie Lailler; John F McDonald; Eric E Bouhassira; Yuhong Fan
Journal:  Cancer Res       Date:  2014-09-09       Impact factor: 12.701

5.  Reduction of Hox gene expression by histone H1 depletion.

Authors:  Yunzhe Zhang; Zheng Liu; Magdalena Medrzycki; Kaixiang Cao; Yuhong Fan
Journal:  PLoS One       Date:  2012-06-11       Impact factor: 3.240

6.  Dynamic changes in H1 subtype composition during epigenetic reprogramming.

Authors:  Annalisa Izzo; Céline Ziegler-Birling; Peter W S Hill; Lydia Brondani; Petra Hajkova; Maria-Elena Torres-Padilla; Robert Schneider
Journal:  J Cell Biol       Date:  2017-08-09       Impact factor: 10.539

7.  Identification and dynamic changes of RNAs isolated from RALY-containing ribonucleoprotein complexes.

Authors:  Annalisa Rossi; Albertomaria Moro; Toma Tebaldi; Nicola Cornella; Lisa Gasperini; Lorenzo Lunelli; Alessandro Quattrone; Gabriella Viero; Paolo Macchi
Journal:  Nucleic Acids Res       Date:  2017-06-20       Impact factor: 16.971

8.  High-resolution mapping of h1 linker histone variants in embryonic stem cells.

Authors:  Kaixiang Cao; Nathalie Lailler; Yunzhe Zhang; Ashwath Kumar; Karan Uppal; Zheng Liu; Eva K Lee; Hongwei Wu; Magdalena Medrzycki; Chenyi Pan; Po-Yi Ho; Guy P Cooper; Xiao Dong; Christoph Bock; Eric E Bouhassira; Yuhong Fan
Journal:  PLoS Genet       Date:  2013-04-25       Impact factor: 5.917

9.  Histone h1 depletion impairs embryonic stem cell differentiation.

Authors:  Yunzhe Zhang; Marissa Cooke; Shiraj Panjwani; Kaixiang Cao; Beth Krauth; Po-Yi Ho; Magdalena Medrzycki; Dawit T Berhe; Chenyi Pan; Todd C McDevitt; Yuhong Fan
Journal:  PLoS Genet       Date:  2012-05-10       Impact factor: 5.917

10.  Integrated genomic analysis identifies recurrent mutations and evolution patterns driving the initiation and progression of follicular lymphoma.

Authors:  Jessica Okosun; Csaba Bödör; Jun Wang; Shamzah Araf; Cheng-Yuan Yang; Chenyi Pan; Sören Boller; Davide Cittaro; Monika Bozek; Sameena Iqbal; Janet Matthews; David Wrench; Jacek Marzec; Kiran Tawana; Nikolay Popov; Ciaran O'Riain; Derville O'Shea; Emanuela Carlotti; Andrew Davies; Charles H Lawrie; Andras Matolcsy; Maria Calaminici; Andrew Norton; Richard J Byers; Charles Mein; Elia Stupka; T Andrew Lister; Georg Lenz; Silvia Montoto; John G Gribben; Yuhong Fan; Rudolf Grosschedl; Claude Chelala; Jude Fitzgibbon
Journal:  Nat Genet       Date:  2013-12-22       Impact factor: 38.330

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