Repetitive DNA sequences playing critical roles in driving evolution, inducing variation, and
regulating gene expression. In this review, we summarized the definition, arrangement, and …

Transposable elements (TEs) are mobile DNA sequences that propagate within genomes.
Through diverse invasion strategies, TEs have come to occupy a substantial fraction of …

Until recently, achieving a reference‐quality genome sequence for bread wheat was long
thought beyond the limits of genome sequencing and assembly technology, primarily due to …

Mobile elements and repetitive genomic regions are sources of lineage-specific genomic
innovation and uniquely fingerprint individual genomes. Comprehensive analyses of such …

Soybean is one of the most important vegetable oil and protein feed crops. To capture the
entire genomic diversity, it is needed to construct a complete high-quality pan-genome from …

Sequence assembly of large and repeat-rich plant genomes has been challenging,
requiring substantial computational resources and often several complementary sequence …

Background Sequencing technology and assembly algorithms have matured to the point
that high-quality de novo assembly is possible for large, repetitive genomes. Current …

The accelerating pace of genome sequencing throughout the tree of life is driving the need
for improved unsupervised annotation of genome components such as transposable …

Dear Editor, Transposable elements (TEs) constitute the largest portion of repetitive
sequences in many eukaryotic genomes, with long terminal repeat retrotransposons (LTR …

Interspersed repetitions called transposable elements (TEs), commonly referred to as mobile
elements, make up a significant portion of the genomes of higher animals. TEs contribute in …