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Histone Modification02:32

Histone Modification

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The histone proteins have a flexible N-terminal tail extending out from the nucleosome. These histone tails are often subjected to post-translational modifications such as acetylation, methylation, phosphorylation, and ubiquitination. Particular combinations of these modifications form “histone codes” that influence the chromatin folding and tissue-specific gene expression.
Acetylation
The enzyme histone acetyltransferase adds acetyl group to the histones. Another enzyme, histone...
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Histone variants are the histone proteins with structural and sequence variations. These variants may be regarded as “mutant” forms that replace their canonical histone counterparts in the nucleosomes. Specific post-translational modifications on the histone variants enable further chromatin complexity and regulate tissue-specific gene expression. The most common histone variants are from histone H2A, H2B, and linker histone H1 families. However, several variants of histone H3...
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Structural Protein Function01:56

Structural Protein Function

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Structural proteins are a category of proteins responsible for functions ranging from cell shape and movement to providing support to major structures such as bones, cartilage, hair, and muscles. This group includes proteins such as collagen, actin, myosin, and keratin.
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Fruits form from a mature flower ovary. As seeds develop from the ovules contained within, the ovary wall undergoes a series of complex changes to form fruit. In some fruits, such as soybeans, the ovary wall dries; in other fruits, such as grapes, it remains fleshy. In some cases, organs other than the ovary contribute to fruit formation; such fruits are called accessory fruits.
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Related Experiment Video

Updated: Feb 5, 2026

Reconstitution of Nucleosomes with Differentially Isotope-labeled Sister Histones
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Structure and function of archaeal histones.

Bram Henneman1, Clara van Emmerik1, Hugo van Ingen1

  • 1Leiden Institute of Chemistry, Leiden University, Leiden, the Netherlands.

Plos Genetics
|September 14, 2018
PubMed
Summary
This summary is machine-generated.

Archaeal histones form unique "endless" hypernucleosomes, differing from eukaryotic histones. Some archaeal histones may regulate transcription through modifications, similar to eukaryotes.

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Area of Science:

  • Molecular Biology
  • Genomics
  • Biochemistry

Background:

  • Eukaryotic genomes are organized by histones into nucleosomes, with post-translational modifications regulating chromatin function.
  • Most archaea also encode histones, crucial for genome compaction and organization.
  • Archaeal histones are proposed to form variable-sized nucleosomes or

Purpose of the Study:

  • To review the determinants of archaeal histone hypernucleosome formation.
  • To compare archaeal histone assembly with eukaryotic octamers.
  • To explore potential roles of atypical archaeal histones in transcription regulation.

Main Methods:

  • Review of existing literature and data.
  • Analysis of amino acid sequences for hypernucleosome formation determinants.
  • Comparison of archaeal and eukaryotic histone structures and modifications.

Main Results:

  • Archaeal histones assemble into "endless" hypernucleosomes, distinct from eukaryotic octamers.
  • Specific amino acid residues influence hypernucleosome formation.
  • Atypical archaeal histones with eukaryotic-like tails may undergo post-translational modifications.

Conclusions:

  • Archaeal histone structure and assembly differ significantly from eukaryotes.
  • Certain archaeal histones may be involved in transcription regulation via post-translational modifications.
  • Further research is needed to elucidate the functional implications of these findings.