Genome‐wide analysis of small RNAs from Odontoglossum ringspot virus and Cymbidium mosaic virus synergistically infecting Phalaenopsis

Summary Cymbidium mosaic virus (CymMV) and Odontoglossum ringspot virus (ORSV) are the two most prevalent viruses infecting orchids and causing economic losses worldwide. Mixed infection of CymMV and ORSV could induce intensified symptoms as early at 10 days post‐inoculation in inoculated Phalaenops...

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Veröffentlicht in:Molecular plant pathology 2020-02, Vol.21 (2), p.188-205
Hauptverfasser: Pai, Hsuan, Jean, Wen‐Han, Lee, Yun‐Shien, Chang, Yao‐Chien Alex, Lin, Na‐Sheng
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creator Pai, Hsuan
Jean, Wen‐Han
Lee, Yun‐Shien
Chang, Yao‐Chien Alex
Lin, Na‐Sheng
description Summary Cymbidium mosaic virus (CymMV) and Odontoglossum ringspot virus (ORSV) are the two most prevalent viruses infecting orchids and causing economic losses worldwide. Mixed infection of CymMV and ORSV could induce intensified symptoms as early at 10 days post‐inoculation in inoculated Phalaenopsis amabilis, where CymMV pathogenesis was unilaterally enhanced by ORSV. To reveal the antiviral RNA silencing activity in orchids, we characterized the viral small‐interfering RNAs (vsiRNAs) from CymMV and ORSV singly or synergistically infecting P. amabilis. We also temporally classified the inoculated leaf‐tip tissues and noninoculated adjacent tissues as late and early stages of infection, respectively. Regardless of early or late stage with single or double infection, CymMV and ORSV vsiRNAs were predominant in 21‐ and 22‐nt sizes, with excess positive polarity and under‐represented 5ʹ‐guanine. While CymMV vsiRNAs mainly derived from RNA‐dependent RNA polymerase‐coding regions, ORSV vsiRNAs encompassed the coat protein gene and 3ʹ‐untranslated region, with a specific hotspot residing in the 3ʹ‐terminal pseudoknot. With double infection, CymMV vsiRNAs increased more than 5‐fold in number with increasing virus titres. Most vsiRNA features remained unchanged with double inoculation, but additional ORSV vsiRNA hotspot peaks were prominent. The potential vsiRNA‐mediated regulation of the novel targets in double‐infected tissues thereby provides a different view of CymMV and ORSV synergism. Hence, temporally profiled vsiRNAs from taxonomically distinct CymMV and ORSV illustrate active antiviral RNA silencing in their natural host, Phalaenopsis, during both early and late stages of infection. Our findings provide insights into offence–defence interactions among CymMV, ORSV and orchids.
doi_str_mv 10.1111/mpp.12888
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Mixed infection of CymMV and ORSV could induce intensified symptoms as early at 10 days post‐inoculation in inoculated Phalaenopsis amabilis, where CymMV pathogenesis was unilaterally enhanced by ORSV. To reveal the antiviral RNA silencing activity in orchids, we characterized the viral small‐interfering RNAs (vsiRNAs) from CymMV and ORSV singly or synergistically infecting P. amabilis. We also temporally classified the inoculated leaf‐tip tissues and noninoculated adjacent tissues as late and early stages of infection, respectively. Regardless of early or late stage with single or double infection, CymMV and ORSV vsiRNAs were predominant in 21‐ and 22‐nt sizes, with excess positive polarity and under‐represented 5ʹ‐guanine. While CymMV vsiRNAs mainly derived from RNA‐dependent RNA polymerase‐coding regions, ORSV vsiRNAs encompassed the coat protein gene and 3ʹ‐untranslated region, with a specific hotspot residing in the 3ʹ‐terminal pseudoknot. With double infection, CymMV vsiRNAs increased more than 5‐fold in number with increasing virus titres. Most vsiRNA features remained unchanged with double inoculation, but additional ORSV vsiRNA hotspot peaks were prominent. The potential vsiRNA‐mediated regulation of the novel targets in double‐infected tissues thereby provides a different view of CymMV and ORSV synergism. Hence, temporally profiled vsiRNAs from taxonomically distinct CymMV and ORSV illustrate active antiviral RNA silencing in their natural host, Phalaenopsis, during both early and late stages of infection. 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Mixed infection of CymMV and ORSV could induce intensified symptoms as early at 10 days post‐inoculation in inoculated Phalaenopsis amabilis, where CymMV pathogenesis was unilaterally enhanced by ORSV. To reveal the antiviral RNA silencing activity in orchids, we characterized the viral small‐interfering RNAs (vsiRNAs) from CymMV and ORSV singly or synergistically infecting P. amabilis. We also temporally classified the inoculated leaf‐tip tissues and noninoculated adjacent tissues as late and early stages of infection, respectively. Regardless of early or late stage with single or double infection, CymMV and ORSV vsiRNAs were predominant in 21‐ and 22‐nt sizes, with excess positive polarity and under‐represented 5ʹ‐guanine. While CymMV vsiRNAs mainly derived from RNA‐dependent RNA polymerase‐coding regions, ORSV vsiRNAs encompassed the coat protein gene and 3ʹ‐untranslated region, with a specific hotspot residing in the 3ʹ‐terminal pseudoknot. 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Mixed infection of CymMV and ORSV could induce intensified symptoms as early at 10 days post‐inoculation in inoculated Phalaenopsis amabilis, where CymMV pathogenesis was unilaterally enhanced by ORSV. To reveal the antiviral RNA silencing activity in orchids, we characterized the viral small‐interfering RNAs (vsiRNAs) from CymMV and ORSV singly or synergistically infecting P. amabilis. We also temporally classified the inoculated leaf‐tip tissues and noninoculated adjacent tissues as late and early stages of infection, respectively. Regardless of early or late stage with single or double infection, CymMV and ORSV vsiRNAs were predominant in 21‐ and 22‐nt sizes, with excess positive polarity and under‐represented 5ʹ‐guanine. While CymMV vsiRNAs mainly derived from RNA‐dependent RNA polymerase‐coding regions, ORSV vsiRNAs encompassed the coat protein gene and 3ʹ‐untranslated region, with a specific hotspot residing in the 3ʹ‐terminal pseudoknot. With double infection, CymMV vsiRNAs increased more than 5‐fold in number with increasing virus titres. Most vsiRNA features remained unchanged with double inoculation, but additional ORSV vsiRNA hotspot peaks were prominent. The potential vsiRNA‐mediated regulation of the novel targets in double‐infected tissues thereby provides a different view of CymMV and ORSV synergism. Hence, temporally profiled vsiRNAs from taxonomically distinct CymMV and ORSV illustrate active antiviral RNA silencing in their natural host, Phalaenopsis, during both early and late stages of infection. Our findings provide insights into offence–defence interactions among CymMV, ORSV and orchids.</abstract><cop>England</cop><pub>John Wiley &amp; Sons, Inc</pub><pmid>31724809</pmid><doi>10.1111/mpp.12888</doi><tpages>18</tpages><orcidid>https://orcid.org/0000-0003-1148-6256</orcidid><oa>free_for_read</oa></addata></record>
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subjects Analysis
Antiviral agents
anti‐viral RNA silencing
Coat protein
Cymbidium
Cymbidium mosaic virus
Disease hot spots
DNA-directed RNA polymerase
Economic impact
Flowers & plants
Genome-Wide Association Study - methods
Genomes
Genomics
Guanine
Health aspects
Infection
Infections
Inoculation
Medical research
Medicine, Experimental
Mixed infection
Odontoglossum ringspot virus
Orchidaceae - virology
Original
Pathogenesis
Phalaenopsis
Polarity
Potexvirus - pathogenicity
Proteins
Ribonucleic acid
RNA
RNA polymerase
RNA, Small Interfering - metabolism
RNA-mediated interference
small RNA sequencing
Synergism
Tissues
Tobamovirus - pathogenicity
Transfer RNA
Viral infections
viral siRNA (vsiRNA)
Viruses
title Genome‐wide analysis of small RNAs from Odontoglossum ringspot virus and Cymbidium mosaic virus synergistically infecting Phalaenopsis
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