<i>De novo</i> gene integration into regulatory networks via interaction with conserved genes in peach

<i>De novo</i> genes can evolve "from scratch" from noncoding sequences, acquiring novel functions in organisms and integrating into regulatory networks during evolution to drive innovations in important phenotypes and traits. However, identifying <i>de novo</i> genes is challenging, as it requires high-quality genomes from closely related species. According to the comparison with nine closely related <i>Prunus</i> genomes, we determined at least 178 <i>de novo</i> genes in <i>P. persica</i> "baifeng". The distinct differences were observed between <i>de novo</i> and conserved genes in gene characteristics and expression patterns. Gene ontology enrichment analysis suggested that Type I <i>de novo</i> genes originated from sequences related to plastid modification functions, while Type II genes were inferred to have derived from sequences related to reproductive functions. Finally, transcriptome sequencing across different tissues and developmental stages suggested that <i>de novo</i> genes have been evolutionarily recruited into existing regulatory networks, playing important roles in plant growth and development, which was also supported by WGCNA analysis and quantitative trait loci data. This study lays the groundwork for future research on the origins and functions of genes in <i>Prunus</i> and related taxa.

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Publication Details

Journal
Horticulture Research
Published
2024-09-05
DOI
https://doi.org/10.1093/hr/uhae252
Citations
26
Primary Topic
Plant Physiology and Cultivation Studies
Type
article
Field-Weighted Citation Impact
15.59

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article

De novo gene integration into regulatory networks via interaction with conserved genes in peach

Xiaofeng Feng, Yunpeng Cao, Yongping Cai, Yuepeng Han et al.
26 citations
Horticulture Research
Plant Physiology and Cultivation Studies
15.59
article

De novo gene integration into regulatory networks via interaction with conserved genes in peach

Xiaofeng Feng, Yunpeng Cao, Yongping Cai, Yuepeng Han, Lin Zhang, Han Wang, Xiaoxu Li, Mengfei Lin, Yun Zhao, Jiayi Hong
article en
26 citations

Abstract

<i>De novo</i> genes can evolve "from scratch" from noncoding sequences, acquiring novel functions in organisms and integrating into regulatory networks during evolution to drive innovations in important phenotypes and traits. However, identifying <i>de novo</i> genes is challenging, as it requires high-quality genomes from closely related species. According to the comparison with nine closely related <i>Prunus</i> genomes, we determined at least 178 <i>de novo</i> genes in <i>P. persica</i> "baifeng". The distinct differences were observed between <i>de novo</i> and conserved genes in gene characteristics and expression patterns. Gene ontology enrichment analysis suggested that Type I <i>de novo</i> genes originated from sequences related to plastid modification functions, while Type II genes were inferred to have derived from sequences related to reproductive functions. Finally, transcriptome sequencing across different tissues and developmental stages suggested that <i>de novo</i> genes have been evolutionarily recruited into existing regulatory networks, playing important roles in plant growth and development, which was also supported by WGCNA analysis and quantitative trait loci data. This study lays the groundwork for future research on the origins and functions of genes in <i>Prunus</i> and related taxa.

Horticulture ResearchVol. 11(12)
Anhui Agricultural University (CN), Hubei University of Chinese Medicine (CN), Anhui Academy of Agricultural Sciences (CN), Wuhan Botanical Garden (CN), Jiangxi Academy of Sciences (CN), Beijing Academy of Science and Technology (CN)
Qingdao Agricultural University, National Natural Science Foundation of China
Openalex Percentile: Top 1%
Plant Physiology and Cultivation Studies
15.59
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