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. 2020 Feb 6;21(4):589–601. doi: 10.1111/mpp.12911

Table 1.

Summary of small RNAs movement between plants and fungi

Plant host Fungal life style Fungal pathogen Target genes Evidence Reference
Barley Biotrophic Blumeria graminis Effector gene Avra10 Reduced fungal development Nowara et al. (2010)
Barley Biotrophic B. graminis 50 Blumeria effector candidates Eight were identified contributing to infection Pliego et al. (2013)
Wheat Biotrophic Puccinia striiformis f. sp. tritici Calcineurin homologs Pscna1/Pscnb1 Slower extension of fungal hyphae and reduced production of urediospores Zhang et al. (2012)
Wheat Biotrophic P. striiformis f. sp. tritici MAPK kinase gene PsFUZ7 Hyphal development strongly restricted, necrosis of plant cells in resistance responses induced Zhu et al. (2017)
Wheat Biotrophic P. striiformis f. sp. tritici PKA catalytic subunit gene PsCPK1 Significant reduction in the length of infection hyphae and disease phenotype Qi et al. (2018)
Wheat Biotrophic Puccinia triticina MAP kinase (PtMAPK1), cyclophilin (PtCYC1), and calcineurin B (PtCNB) Disease suppression, compromising fungal growth and sporulation Panwar et al. (2013a)
Wheat Biotrophic P. triticina Three predicted pathogenicity genes encoding MAPK, cyclophilin, and calcineurin regulatory subunit Suppressed disease phenotype Panwar et al. (2013b)
Wheat Biotrophic Puccinia graminis f. sp. tritici Haustoria‐enriched genes Reduced fungi development Yin et al. (2015)
Lettuce Biotrophic oomycete Bremia lactucae Highly abundant message #34 (HAM34), cellulose synthase (CES1) Greatly reduced growth and inhibition of sporulation Govindarajulu et al. (2015)
Potato Biotrophic oomycete Phytophthora infestans Three genes important in the infection, PiGPB1, PiCESA2, and PiPEC, together with PiGAPDH taking part in basic cell maintenance Hp‐PiGBP1 targeting the G protein β‐subunit (PiGPB1) important for pathogenicity resulted in most restricted disease progress Jahan et al. (2015)
Potato Biotrophic oomycete P. infestans RXLR effector Avr3a gene Imparted partial resistance to late blight disease Sanju et al. (2015)
Arabidopsis, barley Hemibiotrophic Fusarium graminearum Fungal cytochrome P450 lanosterol C‐14α‐demethylase (CYP51) genes Inhibition of fungal growth Koch et al. (2013)
Banana Hemibiotrophic Fusarium oxysporum f. sp. cubense Velvet, Fusarium transcription factor 1 Resisted disease at 8 months post‐inoculation Ghag et al. (2014)
Arabidopsis Hemibiotrophic F. oxysporum F‐box protein required for pathogenicity 1 (FRP1), F. oxysporum Wilt 2 (FOW2), plant 12‐oxophytodienoate‐10,11‐reductase gene (OPR) Survival rates after fungal infection were higher in the transgenic lines Hu et al. (2015)
Wheat Hemibiotrophic F. graminearum Chitin synthase (Chs) 3b High levels of stable, consistent resistance to both fusarium head blight and fusarium stem blight throughout the T3 to T5 generations Cheng et al. (2015)
Wheat Hemibiotrophic F. graminearum β‐1,3‐glucan synthase gene FcGls1 Aberrant, swollen fungal hyphae Chen, Kastner et al. (2016)
Arabidopsis, barley Hemibiotrophic F. graminearum CYP51 genes Spray‐induced gene silencing also conferred resistance against F. graminearum in unsprayed distal leaf parts Koch et al. (2016), Wang and Jin (2017)
Wheat, barley Hemibiotrophic F. graminearum TRI6, a transcription factor that positively regulates deoxynivalenol synthesis Silencing of TRI6 Hunter et al. (2018)
Cotton Hemibiotrophic Verticillium dahliae Two V. dahliae genes encoding a Ca2+‐dependent cysteine protease (Clp‐1) and an isotrichodermin C‐15 hydroxylase (HiC‐15) Cotton plants increased production of microRNA 166 (mir166) and mir159 that silence Clp‐1 and hic‐15 Zhang et al. (2016)
Cotton Hemibiotrophic V. dahliae V. dahliae hygrophobins1 (VdH1) gene Induced silencing of the target mRNA and conferred resistance to V. dahliae infection Zhang et al. (2016)
Arabidopsis, tomato Hemibiotrophic V. dahliae Three previously identified virulence genes of V. dahliae (Ave1, Sge1, and NLP1) Reduced verticillium wilt disease in two of the three targets Song and Thomma (2018)
Arabidopsis, tomato Necrotrophic Botrytis cinerea B. cinerea Dicer‐like protein encoding genes: Bc‐DCL1 and Bc‐DCL2 Silenced Bc‐DCL genes and attenuated fungal pathogenicity and growth Weiberg et al. (2014), Wang et al. (2016)
Arabidopsis Necrotrophic B. cinerea small RNAs‐containing vesicles accumulate at the infection sites and are taken up by the fungal cells Transferred host sRNAs induced silencing of fungal genes critical for pathogenicity Cai et al. (2018)
Tall fescue Necrotrophic Rhizoctonia solani Genes encoding RNA polymerase, importin beta‐1 subunit, Cohesin complex subunit Psm1, and a ubiquitin E3 ligase Lesion size was reduced by as much as 90% Zhou et al. (2016)
Tobacco Necrotrophic Sclerotinia sclerotiorum Chitin synthase (Chs) Reduction in disease severity Andrade et al. (2016)
Maize Saprotrophic Aspergillus species AflC gene encodes an enzyme in the Aspergillus aflatoxin biosynthetic pathway Aflatoxin could not be detected Thakare et al. (2017)