[1] Yang Q, Yin G M, Guo Y L, Zhang D F, Chen S J, Xu M L. A major QTL for resistance to Gibberella stalk rot in maize. Theor Appl Genet, 2010, 121: 673–687
[2] Ali M L, Taylor J H, Jie L, Sun G L, William M, Kasha K J, Reid L M, Pauls K P. Molecular mapping of QTLs for resistance to Gibberella ear rot, in corn, caused by Fusarium graminearum. Genome, 2005, 48: 521–533
[3] Schweiger W, Steiner B, Ametz C, Siegwart G, Wiesenberger G, Berthiller F, Lemmens M, Jia H Y, Adam G, Muehlbauer G J. Transcriptomic characterization of two major Fusarium resistance quantitative trait loci (QTLs), Fhb1 and Qfhs. Ifa-5A, identifies novel candidate genes. Mol Plant Pathol, 2013, 14: 772–785
[4] Boddu J, Cho S, Kruger W M, Muehlbauer G J. Transcriptome analysis of the barley-Fusarium graminearum interaction. Mol Plant-Microbe Interact, 2006, 19: 407–417
[5] Goswami R S, Kistler H C. Pathogenicity and in planta mycotoxin accumulation among members of the Fusarium graminearum species complex on wheat and rice. Phytopathology, 2005, 95: 1397–1404
[6] Urban M, Daniels S, Mott E, Hammond-Kosack K. Arabidopsis is susceptible to the cereal ear blight fungal pathogens Fusarium graminearum and Fusarium culmorum. Plant J, 2002, 32: 961–973
[7] McMullen M, Jones R, Gallenberg D. Scab of wheat and barley: a re-emerging disease of devastating impact. Plant Dis, 1997, 81: 1340–1348
[8] Rocha O, Ansari K, Doohan F M. Effects of trichothecene mycotoxins on eukaryotic cells: a review. Food Addit Contam, 2005, 22: 369–378
[9] Pestka J J, Zhou H R, Moon Y, Chung Y J. Cellular and molecular mechanisms for immune modulation by deoxynivalenol and other trichothecenes: unraveling a paradox. Toxicol Lett, 2004, 153: 61–73
[10] Pestka J J. Deoxynivalenol-induced proinflammatory gene expression: Mechanisms and pathological sequelae. Toxins, 2010, 2: 1300–1317
[11] Miller J D, Ewen M A. Toxic effects of deoxynivalenol on ribosomes and tissues of the spring wheat cultivars Frontana and Casavant. Nat Toxins, 1997, 5: 234–237
[12] Desjardins A E, Proctor R H, Bai G H, McCormick S P, Shaner G, Buechley G, Hohn T M. Reduced virulence of trichothecene-nonproducing mutants of Gibberella zeae in wheat field tests. Mol Plant-Microbe Interact, 1996, 9: 775–781
[13] Langevin F, Eudes F, Comeau A. Effect of trichothecenes produced by Fusarium graminearum during Fusarium head blight development in six cereal species. Eur J Plant Pathol, 2004, 110: 735–746
[14] Harris L, Desjardins A E, Plattner R, Nicholson P, Butler G, Young J, Weston G, Proctor R, Hohn T. Possible role of trichothecene mycotoxins in virulence of Fusarium graminearum on maize. Plant Dis, 1999, 83: 954–960
[15] Desmond O J, Manners J M, Stephens A E, Maclean D J, Schenk P M, Gardiner D M, Munn A M, Kazan K. The Fusarium mycotoxin deoxynivalenol elicits hydrogen peroxide production, programmed cell death and defence responses in wheat. Mol Plant Pathol, 2008, 9: 435–445
[16] Jia H Y, Cho S, Muehlbauer G J. Transcriptome analysis of a wheat near-isogenic line pair carrying Fusarium head blight-resistant and-susceptible alleles. Mol Plant-Microbe Interact, 2009, 22: 1366–1378
[17] Poppenberger B, Berthiller F, Lucyshyn D, Sieberer T, Schuhmacher R, Krska R, Kuchler K, Glossl J, Luschnig C, Adam G. Detoxification of the Fusarium mycotoxin deoxynivalenol by a UDP-glucosyltransferase from Arabidopsis thaliana. J Biol Chem, 2003, 278: 47905–47914
[18] Muhitch M J, McCormick S P, Alexander N J, Hohn T M. Transgenic expression of the TRI101 or PDR5 gene increases resistance of tobacco to the phytotoxic effects of the trichothecene 4,15-diacetoxyscirpenol. Plant Sci, 2000, 157: 201–207
[19] Boddu J, Cho S, Muehlbauer G J. Transcriptome analysis of trichothecene-induced gene expression in barley. Mol Plant-Microbe Interact, 2007, 20: 1364–1375
[20] Gardiner S A, Boddu J, Berthiller F, Hametner C, Stupar R M, Adam G, Muehlbauer G J. Transcriptome analysis of the barley-deoxynivalenol interaction: evidence for a role of glutathione in deoxynivalenol detoxification. Mol Plant-Microbe Interact, 2010, 23: 962–976
[21] Schweiger W, Boddu J, Shin S, Poppenberger B, Berthiller F, Lemmens M, Muehlbauer G J, Adam G. Validation of a candidate deoxynivalenol-inactivating UDP-glucosyltransferase from barley by heterologous expression in yeast. Mol Plant-Microbe Interact, 2010, 23: 977–986
[22] Kruger W M, Pritsch C, Chao S, Muehlbauer G J. Functional and comparative bioinformatic analysis of expressed genes from wheat spikes infected with Fusarium graminearum. Mol Plant-Microbe Interact, 2002, 15: 445–455
[23] Zhu Q H, Stephen S, Kazan K, Jin G, Fan L, Taylor J, Dennis E S, Helliwell C A, Wang M B. Characterization of the defense transcriptome responsive to Fusarium oxysporum-infection in Arabidopsis using RNA-seq. Gene, 2013, 512: 259–266
[24] Lanubile A, Ferrarini A, Maschietto V, Delledonne M, Marocco A, Bellin D. Functional genomic analysis of constitutive and inducible defense responses to Fusarium verticillioides infection in maize genotypes with contrasting ear rot resistance. BMC Genomics, 2014, 15: 710
[25] Buerstmayr H, Steiner B, Lemmens M, Ruckenbauer P. Resistance to Fusarium head blight in winter wheat: heritability and trait associations. Crop Sci, 2000, 40: 1012–1018
[26] Trapnell C, Roberts A, Goff L, Pertea G, Kim D, Kelley D R, Pimentel H, Salzberg S L, Rinn J L, Pachter L. Differential gene and transcript expression analysis of RNA-seq experiments with TopHat and Cufflinks. Nat Protocols, 2012, 7: 562–578
[27] Anders S, Huber W. Differential expression analysis for sequence count data. Genome Biol, 2010, 11: R106
[28] Conesa A, Götz S, García-Gómez JM, Terol J, Talón M, Robles M. Blast2GO: a universal tool for annotation, visualization and analysis in functional genomics research. Bioinformatics, 2005, 21: 3674–3676
[29] Ashburner M, Ball C A, Blake J A, Botstein D, Butler H, Cherry J M, Davis A P, Dolinski K, Dwight S S, Eppig J T. Gene Ontology: tool for the unification of biology. Nat Genet, 2000, 25: 25–29
[30] Gimenez-Ibanez S, Solano R. Nuclear jasmonate and salicylate signaling and crosstalk in defense against pathogens. Front Plant Sci, 2013, 4: 7
[31] Xiao J, Jin X H, Jia X P, Wang H Y, Cao A Z, Zhao W P, Pei H Y, Xue Z K, He L Q, Chen Q G, Wang X. Transcriptome-based discovery of pathways and genes related to resistance against Fusarium head blight in wheat landrace Wangshuibai. BMC Genomics, 2013, 14: 197
[32] Li G L, Yen Y. Jasmonate and ethylene signaling pathway may mediate Fusarium head blight resistance in wheat. Crop Sci, 2008, 48: 1888–1896
[33] Ding L N, Xu H B, Yi H Y, Yang L M, Kong Z X, Zhang L X, Xue S L, Jia H Y, Ma Z Q. Resistance to hemi-biotrophic F. graminearum infection is associated with coordinated and ordered expression of diverse defense signaling pathways. PloS One, 2011, 6: e19008
[34] Steiner B, Kurz H, Lemmens M, Buerstmayr H. Differential gene expression of related wheat lines with contrasting levels of head blight resistance after Fusarium graminearum inoculation. Theor Appl Genet, 2009, 118: 753–764
[35] Ye J R, Guo Y L, Zhang D F, Zhang N, Wang C, Xu M L. Cytological and molecular characterization of quantitative trait locus qRfg1, which confers resistance to Gibberella stalk rot in maize. Mol Plant-Microbe Interact, 2013, 26: 1417–1428
[36] Hamzehzarghani H, Kushalappa A C, Dion Y, Rioux S, Comeau A, Yaylayan V, Marshall W D, Mather D E. Metabolic profiling and factor analysis to discriminate quantitative resistance in wheat cultivars against Fusarium head blight. Physiol Mol Plant Pathol, 2005, 66: 119–133
[37] Chinchilla D, Zipfel C, Robatzek S, Kemmerling B, Nürnberger T, Jones J D, Felix G, Boller T. A flagellin-induced complex of the receptor FLS2 and BAK1 initiates plant defence. Nature, 2007, 448: 497–500