Genome-wide measurement of local nucleosome array regularity and spacing by nanopore sequencing
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Abstract
The nature of chromatin as regular succession of nucleosomes has gained iconic status. However, since most nucleosomes in metazoans are poorly positioned it is unknown to which extent the bulk genomic nucleosome repeat length (NRL) reflects the regularity and spacing of nucleosome arrays at individual loci. We describe a new approach to map nucleosome array regularity and spacing through sequencing oligonucleosome-derived DNA by Illumina sequencing as well as emergent nanopore-technology. This revealed modulation of array regularity and NRL depending on functional chromatin states independently of nucleosome phasing and even in unmappable regions. We also found that nucleosome arrays downstream of silent promoters are considerably more regular than those downstream of highly expressed ones, despite more extensive nucleosome phasing of the latter. Our approach is generally applicable and provides an important parameter of chromatin organisation that so far had been missing.
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