Peter J Balint-Kurti

A leucine‐rich repeat receptor kinase gene confers quantitative susceptibility to maize southern leaf blight

New Phytologist.

Quantitative disease resistance: Multifaceted players in plant defense

Gou, M., Balint-Kurti, P., Xu, M., & Yang, Q. (2023, January 2). JOURNAL OF INTEGRATIVE PLANT BIOLOGY.

Two pathogen loci determine Blumeria graminis f. sp. tritici virulence to wheat resistance gene Pm1a

New Phytologist.

Close encounters in the corn field

Balint-Kurti, P., & Kim, S.-B. (2022, May 2). MOLECULAR PLANT, Vol. 15, pp. 802–804.

Genome-wide association study for morphological traits and resistance to Peryonella pinodes in the USDA pea single plant plus collection

Martins, L. B., Balint-Kurti, P., & Reberg-Horton, S. C. (2022, July 6). G3-GENES GENOMES GENETICS, Vol. 7.

Multistatic fiber-based system for measuring the Mueller matrix bidirectional reflectance distribution function

APPLIED OPTICS, 61(33), 9832–9842.

Analysis of the transcriptomic, metabolomic, and gene regulatory responses to Puccinia sorghi in maize

MOLECULAR PLANT PATHOLOGY, 22(4), 465–479.

Development and Use of a Seedling Growth Retardation Assay to Quantify and Map Loci Underlying Variation in the Maize Basal Defense Response

PhytoFrontiers™, 1(3), 149–159.

Fieldable Mueller matrix imaging spectropolarimeter using a hybrid spatial and temporal modulation scheme

POLARIZATION SCIENCE AND REMOTE SENSING X, Vol. 11833.

Maize Plants Chimeric for an Autoactive Resistance Gene Display a Cell-Autonomous Hypersensitive Response but Non-Cell Autonomous Defense Signaling

MOLECULAR PLANT-MICROBE INTERACTIONS, 34(6), 606–616.

Maize metacaspases modulate the defense response mediated by the NLR protein Rp1‐D21 likely by affecting its subcellular localization

The Plant Journal, 11.

Microbe-dependent heterosis in maize

PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA, 118(30).

Multi-Omics Analyses Reveal the Regulatory Network and the Function of ZmUGTs in Maize Defense Response

FRONTIERS IN PLANT SCIENCE, 12.

The maize E3 ligase ZmCER9 specifically targets activated NLRs for degradation

Karre, S., Kim, S.-B., Selote, D., Khangura, R., Dilkes, B., Johal, G. S., & Balint-Kurti, P. (2021, May 4). (Vol. 5). Vol. 5.

The maize ZmMIEL1 E3 ligase and ZmMYB83 transcription factor proteins interact and regulate the hypersensitive defence response

MOLECULAR PLANT PATHOLOGY, 22(6), 694–709.

Variation in Gene Expression between Two Sorghum bicolor Lines Differing in Innate Immunity Response

PLANTS-BASEL, 10(8).

A CRISPR/dCas9 toolkit for functional analysis of maize genes

PLANT METHODS, 16(1).

Analysis of leaf microbiome composition of near‐isogenic maize lines differing in broad‐spectrum disease resistance

New Phytologist, 225(5), 2152–2165.

Fine-Tuning Immunity: Players and Regulators for Plant NLRs

[Review of ]. TRENDS IN PLANT SCIENCE, 25(7), 695–713.

Genetic and Physiological Characterization of a Calcium Deficiency Phenotype in Maize

G3&Amp;#58; Genes|Genomes|Genetics, 4(6), g3.401069.2020.

Genome-wide association analysis of the strength of the MAMP-elicited defense response and resistance to target leaf spot in sorghum

SCIENTIFIC REPORTS, 10(1).

Genotypic and phenotypic characterization of a large, diverse population of maize near-isogenic lines

PLANT JOURNAL, 103(3), 1246–1255.

Herbaspirillum rubrisubalbicans as a Phytopathogenic Model to Study the Immune System of Sorghum bicolor

Molecular Plant-Microbe Interactions®, 33(2), 235–246.

Heterosis of leaf and rhizosphere microbiomes in field‐grown maize

New Phytologist, 228(3), 1055–1069.

Microbe-dependent heterosis in maize

Wagner, M. R., Tang, C., Salvato, F., Clouse, K. M., Bartlett, A., Sermons, S., … Kleiner, M. (2020, May 7). (Vol. 5). Vol. 5.

Multiple insertions of COIN , a novel maize Foldback transposable element, in the Conring gene cause a spontaneous progressive cell death phenotype

The Plant Journal, 104(3), 581–595.

Use of virus‐induced gene silencing to characterize genes involved in modulating hypersensitive cell death in maize

Molecular Plant Pathology, 21(12), 1662–1676.

What are the Top 10 Unanswered Questions in Molecular Plant-Microbe Interactions?

Molecular Plant-Microbe Interactions®, 33(12), 1354–1365.

A maize cytochrome b-c1 complex subunit protein ZmQCR7 controls variation in the hypersensitive response

PLANTA, 249(5), 1477–1485.

A maize polygalacturonase functions as a suppressor of programmed cell death in plants

BMC PLANT BIOLOGY, 19(1).

Diverse Components of Resistance to Fusarium verticillioides Infection and Fumonisin Contamination in Four Maize Recombinant Inbred Families

TOXINS, 11(2).

Dominant, Heritable Resistance to Stewart’s Wilt in Maize Is Associated with an Enhanced Vascular Defense Response to Infection with Pantoea stewartii

Molecular Plant-Microbe Interactions®, 32(12), 1581–1597.

Identification of QTL for Target Leaf Spot resistance in Sorghum bicolor and investigation of relationships between disease resistance and variation in the MAMP response

Scientific Reports, 9(1).

Quantifying MAMP-induced Production of Reactive Oxygen Species in Sorghum and Maize

BIO-PROTOCOL, 9(14).

The plant hypersensitive response: concepts, control and consequences

[Review of ]. MOLECULAR PLANT PATHOLOGY, 20(8), 1163–1178.

Using Maize Chromosome Segment Substitution Line Populations for the Identification of Loci Associated with Multiple Disease Resistance

G3-GENES GENOMES GENETICS, 9(1), 189–201.

Validation and Characterization of Maize Multiple Disease Resistance QTL

G3-GENES GENOMES GENETICS, 9(9), 2905–2912.

Identification of Quantitative Trait Loci for Goss’s Wilt of Maize

Crop Science, 58(3), 1192–1200.

Identification of a locus in maize controlling response to a host-selective toxin derived from Cochliobolus heterostrophus, causal agent of southern leaf blight

THEORETICAL AND APPLIED GENETICS, 131(12), 2601–2612.

Large Scale Field Inoculation and Scoring of Maize Southern Leaf Blight and Other Maize Foliar Fungal Diseases

BIO-PROTOCOL, 8(5).

Navigating complexity to breed disease-resistant crops

Nature Reviews Genetics, Vol. 19, pp. 21–33.

Semiautomated Confocal Imaging of Fungal Pathogenesis on Plants: Microscopic Analysis of Macroscopic Specimens

MICROSCOPY RESEARCH AND TECHNIQUE, 81(2), 141–152.

A gene encoding maize caffeoyl-CoA O-methyltransferase confers quantitative resistance to multiple pathogens

Nat Genet, 49(9), 1364–1372.

A gene encoding maize caffeoyl-CoA O-methyltransferase confers quantitative resistance to multiple pathogens

NATURE GENETICS, 49(9), 1364-+.

Fine mapping of a quantitative resistance gene for gray leaf spot of maize (Zea mays L.) derived from teosinte (Z-mays ssp parviglumis)

THEORETICAL AND APPLIED GENETICS, 130(6), 1285–1295.

Genetic dissection of the maize (Zea mays L.) MAMP response

THEORETICAL AND APPLIED GENETICS, 130(6), 1155–1168.

Identification of Teosinte Alleles for Resistance to Southern Leaf Blight in Near Isogenic Maize Lines

CROP SCIENCE, 57(4), 1973–1983.

Quantitative Disease Resistance: Dissection and Adoption in Maize

[Review of ]. MOLECULAR PLANT, 10(3), 402–413.

A Genome-Wide Association Study for Partial Resistance to Maize Common Rust

PHYTOPATHOLOGY, 106(7), 745–751.

Expanding Maize Genetic Resources with Predomestication Alleles: Maize-Teosinte Introgression Populations

PLANT GENOME, 9(1).

Identification of Alleles Conferring Resistance to Gray Leaf Spot in Maize Derived from its Wild Progenitor Species Teosinte

CROP SCIENCE, 56(1), 209–218.

Maize Homologs of CCoAOMT and HCT, Two Key Enzymes in Lignin Biosynthesis, Form Complexes with the NLR Rp1 Protein to Modulate the Defense Response

PLANT PHYSIOLOGY, 171(3), 2166–2177.

The Genetics of Leaf Flecking in Maize and Its Relationship to Plant Defense and Disease Resistance

PLANT PHYSIOLOGY, 172(3), 1787–1803.

Cytoplasmic and Nuclear Localizations Are Important for the Hypersensitive Response Conferred by Maize Autoactive Rp1-D21 Protein

MOLECULAR PLANT-MICROBE INTERACTIONS, 28(9), 1023–1031.

Maize Homologs of HCT, a Key Enzyme in Lignin Biosynthesis, Bind the NLR Rp1 Proteins to Modulate the Defense Response

Plant Physiology, 169, pp.00703.2015.

Maize homologs of hydroxycinnamoyltransferase, a key enzyme in lignin biosynthesis, bind the nucleotide binding leucine-rich repeat rp1 proteins to modulate the defense response

Plant Physiology, 169(3), 2230–2243.

Molecular and Functional Analyses of a Maize Autoactive NB-LRR Protein Identify Precise Structural Requirements for Activity

PLoS Pathog, 11(2), e1004674.

New insight into a complex plant-fungal pathogen interaction

Balint-Kurti, P. J., & Holland, J. B. (2015, February). NATURE GENETICS, Vol. 47, pp. 101–103.

QTL Mapping Using High-Throughput Sequencing

PLANT FUNCTIONAL GENOMICS: METHODS AND PROTOCOLS, 2ND EDITION, Vol. 1284, pp. 257–285.

Registration of the Ki14 x B73 Recombinant Inbred Mapping Population of Maize

JOURNAL OF PLANT REGISTRATIONS, 9(2), 262–265.

The genetic basis of flecking and its relationship to disease resistance in the IBM maize mapping population

THEORETICAL AND APPLIED GENETICS, 128(11), 2331–2339.

A Genome-Wide Association Study of the Maize Hypersensitive Defense Response Identifies Genes That Cluster in Related Pathways

PLoS Genetics, 10(8), e1004562.

Limits on the reproducibility of marker associations with southern leaf blight resistance in the maize nested association mapping population

BMC GENOMICS, 15(1).

Southern leaf blight disease severity is correlated with decreased maize leaf epiphytic bacterial species richness and the phyllosphere bacterial diversity decline is enhanced by nitrogen fertilization

Front. Plant Sci., 5(AUG).

Yield Effects of Two Southern Leaf Blight Resistance Loci in Maize Hybrids

Crop Science, 54(3), 882.

A Connected Set of Genes Associated with Programmed Cell Death Implicated in Controlling the Hypersensitive Response in Maize

GENETICS, 193(2), 609-+.

Characterization of temperature and light effects on the defense response phenotypes associated with the maize Rp1-D21 autoactive resistance gene

BMC Plant Biology, 13(1), 106.

The Genetic Basis of Disease Resistance in Maize

Jamann, T., Nelson, R., & Balint-Kurti, P. (2013, October 11). Translational Genomics for Crop Breeding, pp. 31–43.

Analysis of quantitative disease resistance to southern leaf blight and of multiple disease resistance in maize, using near-isogenic lines

THEORETICAL AND APPLIED GENETICS, 124(3), 433–445.

Multivariate Mixed Linear Model Analysis of Longitudinal Data: An Information-Rich Statistical Technique for Analyzing Plant Disease Resistance

PHYTOPATHOLOGY, 102(11), 1016–1025.

PhenoPhyte: a flexible affordable method to quantify 2D phenotypes from imagery

Plant Methods, 8(1), 45.

Virus-induced gene silencing in diverse maize lines using the Brome Mosaic virus-based silencing vector

Maydica, 57(3-4), 206–214. http://www.scopus.com/inward/record.url?eid=2-s2.0-84875615027&partnerID=MN8TOARS

A novel genetic framework for studying response to artificial selection

PLANT GENETIC RESOURCES-CHARACTERIZATION AND UTILIZATION, 9(2), 281–283.

Application of an antibiotic resets the maize leaf phyllosphere community and increases resistance to southern leaf blight

In Acta Horticulturae (Vol. 905, pp. 57–62). http://www.scopus.com/inward/record.url?eid=2-s2.0-80053399393&partnerID=MN8TOARS

Genome-wide association study of quantitative resistance to southern leaf blight in the maize nested association mapping population

NATURE GENETICS, 43(2), 163–U120.

Mapping QTL Controlling Southern Leaf Blight Resistance by Joint Analysis of Three Related Recombinant Inbred Line Populations

Crop Science, 51(4), 1571.

Multivariate analysis of maize disease resistances suggests a pleiotropic genetic basis and implicates a GST gene

PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA, 108(18), 7339–7344.

Targeted discovery of quantitative trait loci for resistance to northern leaf blight and other diseases of maize

THEORETICAL AND APPLIED GENETICS, 123(2), 307–326.

The Wheat Puroindoline Genes Confer Fungal Resistance in Transgenic Corn

JOURNAL OF PHYTOPATHOLOGY, 159(3), 188–190.

Use of mutant-assisted gene identification and characterization (MAGIC) to identify novel genetic loci that modify the maize hypersensitive response

THEORETICAL AND APPLIED GENETICS, 123(6), 985–997.

Genetic Control of Photoperiod Sensitivity in Maize Revealed by Joint Multiple Population Analysis

GENETICS, 184(3), 799–U301.

Identification of a Maize Locus That Modulates the Hypersensitive Defense Response, Using Mutant-Assisted Gene Identification and Characterization

GENETICS, 184(3), 813–825.

Joint Analysis of Near-Isogenic and Recombinant Inbred Line Populations Yields Precise Positional Estimates for Quantitative Trait Loci

The Plant Genome Journal, 3(3), 142.

Maize Leaf Epiphytic Bacteria Diversity Patterns Are Genetically Correlated with Resistance to Fungal Pathogen Infection

MOLECULAR PLANT-MICROBE INTERACTIONS, 23(4), 473–484.

Mapping resistance quantitative trait loci for three foliar diseases in a maize recombinant inbred line population - Evidence for multiple disease resistance?

Phytopathology, 100(1), 72–79.

Resistance loci affecting distinct stages of fungal pathogenesis: use of introgression lines for QTL mapping and characterization in the maize - Setosphaeria turcica pathosystem

BMC PLANT BIOLOGY, 10(1).

Use of a Maize Advanced Intercross Line for Mapping of QTL for Northern Leaf Blight Resistance and Multiple Disease Resistance

CROP SCIENCE, 50(2), 458–466.

Maize Disease Resistance

Handbook of Maize: Its Biology, pp. 229–250.

Shades of gray: the world of quantitative disease resistance

[Review of ]. TRENDS IN PLANT SCIENCE, 14(1), 21–29.

Use of selection with recurrent backcrossing and QTL mapping to identify loci contributing to southern leaf blight resistance in a highly resistant maize line

THEORETICAL AND APPLIED GENETICS, 118(5), 911–925.

IDENTIFYING MAIZE GERMPLASM WITH RESISTANCE TO AFLATOXIN ACCUMULATION

Toxin Reviews, 27(3-4), 319–345.

Identification of quantitative trait loci for resistance to southern leaf blight and days to anthesis in two maize recombinant inbred line populations

Phytopathology, 98(3), 315–320.

Mining and Harnessing Natural Variation: A Little MAGIC

[Review of ]. Crop Science, 48(6), 2066–2073.

Mining and Harnessing Natural Variation: A Little MAGIC

Crop Science, 48(6), 2066.

Use of an advanced intercross line population for precise mapping of quantitative trait loci for gray leaf spot resistance in maize

CROP SCIENCE, 48(5), 1696–1704.

Disruption of a maize 9-lipoxygenase results in increased resistance to fungal pathogens and reduced levels of contamination with mycotoxin fumonisin

MOLECULAR PLANT-MICROBE INTERACTIONS, 20(8), 922–933.

Mapping resistance to Southern rust in a tropical by temperate maize recombinant inbred topcross population

THEORETICAL AND APPLIED GENETICS, 114(4), 659–667.

Precise mapping of quantitative trait loci for resistance to southern leaf blight, caused by Cochliobolus heterostrophus race O, and flowering time using advanced intercross maize lines

GENETICS, 176(1), 645–657.

Analysis of quantitative trait loci for resistance to southern leaf blight in juvenile maize

Phytopathology, 96(3), 221–225.

Identification of quantitative trait loci for resistance to southern leaf blight and days to anthesis in a maize recombinant inbred line population

PHYTOPATHOLOGY, 96(10), 1067–1071.

QTL Mapping for Fusarium Ear Rot and Fumonisin Contamination Resistance in Two Maize Populations

Crop Science, 46(4), 1734.

QTL mapping for fusarium ear rot and fumonisin contamination resistance in two maize populations

Crop Science, 46(4), 1734–1743.

Registration of 20 GEM maize breeding germplasm lines adapted to the southern USA

CROP SCIENCE, 46(2), 996–998.

Registration of nine high-yielding tropical by temperate maize germplasm lines adapted for the southern USA

CROP SCIENCE, 46(4), 1825–1826.

The genetic architecture of disease resistance in maize: A synthesis of published studies

[Review of ]. PHYTOPATHOLOGY, 96(2), 120–129.

Towards a molecular understanding of Mycosphaerella/banana interactions

Banana Improvement : Cellular, Molecular Biology, and Induced Mutations.

Inverted repeat of a heterologous 3′-untranslated region for high-efficiency, high-throughput gene silencing

The Plant Journal, 33(4), 793–800.

Agrobacterium-mediated transformation of embryogenic cell suspensions of the banana cultivar Rasthali (AAB)

Plant Cell Reports, 20(2), 157–162.

Development of a transformation system for Mycosphaerella pathogens of banana: a tool for the study of host/pathogen interactions

FEMS Microbiology Letters, 195(1), 9–15.

Fruit-specific lectins from banana and plantain

Planta, 211(4), 546–554.

Identification and chromosomal localization of the monkey retrotransposon in Musa sp.

Molecular and General Genetics, 263(6), 908–915.

Non-autonomous regulation of a graded, PKA-mediated transcriptional activation signal for cell patterning

Development, 125(20), 3947–3954. http://www.scopus.com/inward/record.url?eid=2-s2.0-0031792681&partnerID=MN8TOARS

Characterization of the Tomato Cf-4 Gene for Resistance to Cladosporium fulvum Identifies Sequences That Determine Recognitional Specificity in Cf-4 and Cf-9

The Plant Cell, 9(12), 2209.

rZIP, a RING-leucine zipper protein that regulates cell fate determination during Dictyostelium development

Development, 124(6), 1203–1213. http://www.scopus.com/inward/record.url?eid=2-s2.0-0030986933&partnerID=MN8TOARS

Integration of the classical and RFLP linkage maps of the short arm of tomato chromosome 1

Theoret. Appl. Genetics, 90(1), 17–26.

Isolation of the tomato Cf-9 gene for resistance to Cladosporium fulvum by transposon tagging

Science, 266(5186), 789–793. http://www.scopus.com/inward/record.url?eid=2-s2.0-0028152968&partnerID=MN8TOARS

RFLP linkage analysis of the Cf-4 and Cf-9 genes for resistance to Cladosporium fulvum in tomato

Theoretical and Applied Genetics, 88(6-7), 691–700.

Two complex resistance loci revealed in tomato by classical and RFLP mapping of the Cf-2, Cf-4, Cf-5, and Cf-9 genes for resistance to Cladosporium fulvum

Molecular Plant Microbe Interactions, 6(3), 348–357.