The development and domestication of maize ear

Ruotong Yu , Dian Yu , Chaobin Li , Hongyan Shan , Hongzhi Kong , Jie Cheng , Xiaofeng Yin

Journal of Systematics and Evolution ›› 2026, Vol. 64 ›› Issue (3) : 425 -436.

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Journal of Systematics and Evolution ›› 2026, Vol. 64 ›› Issue (3) :425 -436. DOI: 10.1111/jse.70035
Review
The development and domestication of maize ear
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Abstract

Maize is amongst the most agriculturally and economically important crops to human beings. It was domesticated from a wild relative called teosinte. During domestication, maize has experienced drastic morphological transformations, such that it produces fewer ears, each of which bears many more kernels covered by soft and reduced glumes. The striking differences between maize and teosinte make the origin of maize ear a fascinating question, which has been fiercely and actively debated for more than a century. Over the past few decades, the discovery of numerous key genes and genetic pathways has greatly deepened our understanding of the mechanisms underlying maize ear development and domestication. In this review, by providing an overview of the morphogenetic processes of maize and teosinte ears, and the molecular mechanisms of maize ear development, we highlight key morphodynamical distinctions between maize and teosinte ears. By recapitulating historical accounts and summarizing recent advances regarding maize domestication, we present the current understanding and propose a model for the origin of maize ear.

Keywords

domestication / ear / inflorescence / maize / teosinte

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Ruotong Yu, Dian Yu, Chaobin Li, Hongyan Shan, Hongzhi Kong, Jie Cheng, Xiaofeng Yin. The development and domestication of maize ear. Journal of Systematics and Evolution, 2026, 64 (3) : 425-436 DOI:10.1111/jse.70035

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References

[1]

Azpeitia E, Tichtinsky G, Le Masson M, Serrano-Mislata A, Lucas J, Gregis V, Gimenez C, Prunet N, Farcot E, Kater MM, Bradley D, Madueño F, Godin C, Parcy F. 2021. Cauliflower fractal forms arise from perturbations of floral gene networks. Science 373: 192–197.

[2]

Beadle GW. 1932a. The relation of crossing over to chromosome association in Zea-Euchlaena hybrids. Genetics 17: 481–501.

[3]

Beadle GW. 1932b. Genes in maize for pollen sterility. Genetics 17: 413–431.

[4]

Beadle GW. 1939. Teosinte and the origin of maize. Journal of Heredity 30: 245–247.

[5]

Beadle GW. 1972. The mystery of maize. Field Museum of Natural History Bulletin 43: 2–11.

[6]

Beadle GW. 1980. The ancestry of corn. Scientific American 242: 112–119.

[7]

Beadle GW. 1981. Origin of corn: Pollen evidence. Science 213: 890–892.

[8]

Bomblies K, Doebley JF. 2006. Pleiotropic effects of the duplicate maize FLORICAULA/LEAFY genes zfl1 and zfl2 on traits under selection during maize domestication. Genetics 172: 519–531.

[9]

Bomblies K, Wang R-L, Ambrose BA, Schmidt RJ, Meeley RB, Doebley J. 2003. Duplicate FLORICAULA/LEAFY homologs zfl1 and zfl2 control inflorescence architecture and flower patterning in maize. Development 130: 2385–2395.

[10]

Bommert P, Lunde C, Nardmann J, Vollbrecht E, Running M, Jackson D, Hake S, Werr W. 2005. thick tassel dwarf1 encodes a putative maize ortholog of the Arabidopsis CLAVATA1 leucine-rich repeat receptor-like kinase. Development 132: 1235–1245.

[11]

Bommert P, Je BI, Goldshmidt A, Jackson D. 2013b. The maize Gα gene COMPACT PLANT2 functions in CLAVATA signalling to control shoot meristem size. Nature 502: 555–558.

[12]

Bommert P, Nagasawa NS, Jackson D. 2013a. Quantitative variation in maize kernel row number is controlled by the FASCIATED EAR2 locus. Nature Genetics 45: 334–337.

[13]

Bortiri E, Chuck G, Vollbrecht E, Rocheford T, Martienssen R, Hake S. 2006. ramosa2 encodes a LATERAL ORGAN BOUNDARY domain protein that determines the fate of stem cells in branch meristems of maize. The Plant Cell 18: 574–585.

[14]

Burnham C. 1959. Teosinte branched. Maize Genetics Cooperation Newsletter 33: 74.

[15]

Chen L, Luo J, Minliang J, Yang N, Liu X, Peng Y, Li W, Phillips A, Cameron B, Bernal JS, Rellán-Álvarez R, Sawers RJH, Liu Q, Yin Y, Ye X, Yan J, Zhang Q, Zhang X, Wu S, Gui S, Wei W, Wang Y, Luo Y, Jiang C, Deng M, Jin M, Jian L, Yu Y, Zhang M, Yang X, Hufford MB, Fernie AR, Warburton ML, Ross-Ibarra J, Yan J. 2022. Genome sequencing reveals evidence of adaptive variation in the genus Zea. Nature Genetics 54: 1736–1745.

[16]

Chen Z, Cortes L, Gallavotti A. 2024. Genetic dissection of cis-regulatory control of ZmWUSCHEL1 expression by type B RESPONSE REGULATORS. Plant Physiology 194: 2240–2248.

[17]

Chen Z, Li W, Gaines C, Buck A, Galli M, Gallavotti A. 2021. Structural variation at the maize WUSCHEL1 locus alters stem cell organization in inflorescences. Nature Communications 12: 2378.

[18]

Cheng PC, Greyson RI, Walden DB. 1983. Organ initiation and the development of unisexual flowers in the tassel and ear of Zea mays. American Journal of Botany 70: 450–462.

[19]

Chuck G, Brown P, Meeley R, Hake S. 2014. Maize SBP-box transcription factors unbranched2 and unbranched3 affect yield traits by regulating the rate of lateral primordia initiation. Proceedings of the National Academy of Sciences of the United States of America 111: 18775–18780.

[20]

Chuck G, Cigan AM, Saeteurn K, Hake S. 2007a. The heterochronic maize mutant Corngrass1 results from overexpression of a tandem microRNA. Nature Genetics 39: 544–549.

[21]

Chuck G, Meeley R, Hake S. 2008. Floral meristem initiation and meristem cell fate are regulated by the maize AP2 genes ids1 and sid1. Development 135: 3013–3019.

[22]

Chuck G, Meeley RB, Hake S. 1998. The control of maize spikelet meristem fate by the APETALA2-like gene indeterminate spikelet1. Genes & Development 12: 1145–1154.

[23]

Chuck G, Meeley R, Irish E, Sakai H, Hake S. 2007b. The maize tasselseed4 microRNA controls sex determination and meristem cell fate by targeting Tasselseed6/indeterminate spikelet1. Nature Genetics 39: 1517–1521.

[24]

Chuck G, Muszynski M, Kellogg E, Hake S, Schmidt RJ. 2002. The control of spikelet meristem identity by the branched silkless1 gene in maize. Science 298: 1238–1241.

[25]

Chuck G, Whipple C, Jackson D, Hake S. 2010. The maize SBP-box transcription factor encoded by tasselsheath4 regulates bract development and the establishment of meristem boundaries. Development 137: 1243–1250.

[26]

Claeys H, Vi SL, Xu X, Satoh-Nagasawa N, Eveland AL, Goldshmidt A, Feil R, Beggs GA, Sakai H, Brennan RG, Lunn JE, Jackson D. 2019. Control of meristem determinacy by trehalose 6-phosphate phosphatases is uncoupled from enzymatic activity. Nature Plants 5: 352–357.

[27]

Clark RM, Linton E, Messing J, Doebley JF. 2004. Pattern of diversity in the genomic region near the maize domestication gene tb1. Proceedings of the National Academy of Sciences of the United States of America 101: 700–707.

[28]

Clark RM, Wagler TN, Quijada P, Doebley J. 2006. A distant upstream enhancer at the maize domestication gene tb1 has pleiotropic effects on plant and inflorescent architecture. Nature Genetics 38: 594–597.

[29]

Collins GN. 1919. Intolerance of maize to self-fertilization. Journal of the Washington Academy of Sciences 9: 309–312.

[30]

Collins GN. 1921. Dominance and the vigor of first generation hybrids. The American Naturalist 55: 116–133.

[31]

Colombo L, Marziani G, Marsiero S, Wittich PE, Schmidt RJ, Sari Gorla M, ME. 1998. BRANCHED SILKLESS mediates the transition from spikelet to floral meristem during Zea mays ear development. The Plant Journal 16: 355–363.

[32]

Doebley J. 1992. Mapping the genes that made maize. Trends in Genetics 8: 302–307.

[33]

Doebley J. 2001. George Beadle′s other hypothesis: One-gene, one-trait. Genetics 158: 487–493.

[34]

Doebley J, Goodman M, Stuber C. 1984. Isoenzymatic variation in Zea (Gramineae). Systematic Botany 9: 203.

[35]

Doebley J, Iltis H. 1980. Taxonomy of Zea (Gramineae). I. A subgeneric classification with key to taxa. American Journal of Botany 67: 982–993.

[36]

Doebley J, Stec A. 1991. Genetic analysis of the morphological differences between maize and teosinte. Genetics 129: 285–295.

[37]

Doebley J, Stec A. 1993. Inheritance of the morphological differences between maize and teosinte: Comparison of results for two F2 populations. Genetics 134: 559–570.

[38]

Doebley J, Stec A, Gustus C. 1995. teosinte branched1 and the origin of maize: Evidence for epistasis and the evolution of dominance. Genetics 141: 333–346.

[39]

Doebley J, Stec A, Hubbard L. 1997. The evolution of apical dominance in maize. Nature 386: 485–488.

[40]

Doebley J, Stec A, Wendel J, Edwards M. 1990. Genetic and morphological analysis of a maize-teosinte F2 population: Implications for the origin of maize. Proceedings of the National Academy of Sciences of the United States of America 87: 9888–9892.

[41]

Dong L, Shi Y, Li P, Zhong S, Sun Y, Yang F. 2023. Constructing the maize inflorescence regulatory network by using efficient tsCUT&tag assay. The Crop Journal 11: 951–956.

[42]

Dong Z, Alexander M, Chuck G. 2019. Understanding grass domestication through maize mutants. Trends in Genetics 35: 118–128.

[43]

Dong Z, Hu G, Chen Q, Shemyakina EA, Chau G, Whipple CJ, Fletcher JC, Chuck G. 2024. A regulatory network controlling developmental boundaries and meristem fates contributed to maize domestication. Nature Genetics 56: 2528–2537.

[44]

Dong Z, Li W, Unger-Wallace E, Yang J, Vollbrecht E, Chuck G. 2017. Ideal crop plant architecture is mediated by tassels replace upper ears1, a BTB/POZ ankyrin repeat gene directly targeted by TEOSINTE BRANCHED1. Proceedings of the National Academy of Sciences of the United States of America 114: E8656–E8664.

[45]

Dorweiler J, Doebley J. 1997. Developmental analysis of teosinte glume architecture1: A key locus in the evolution of maize (Poaceae). American Journal of Botany 84: 1313–1322.

[46]

Dorweiler J, Stec A, Kermicle J, Doebley J. 1993. Teosinte glume architecture 1: A genetic locus controlling a key step in maize evolution. Science 262: 233–235.

[47]

Du Y, Liu L, Li M, Fang S, Shen X, Chu J, Zhang Z. 2017. UNBRANCHED3 regulates branching by modulating cytokinin biosynthesis and signaling in maize and rice. New Phytologist 214: 721–733.

[48]

Du Y, Liu L, Peng Y, Li M, Li Y, Liu D, Li X, Zhang Z. 2020. UNBRANCHED3 expression and inflorescence development is mediated by UNBRANCHED2 and the distal enhancer, KRN4, in maize. PLOS Genetics 16: e1008764.

[49]

Emerson R, Beadle G. 1932. Studies of Euchlaena and its hybrids with Zea: II. Crossing over between the chromosomes of Euchlaena and those of Zea. Zeitschrift für Induktive Abstammungs- und Vererbungslehre 62: 305–315.

[50]

Eveland A, Goldshmidt A, Pautler M, Morohashi K, Liseron-Monfils C, Lewis MW, Kumari S, Hiraga S, Yang F, Unger-Wallace E, Olson A, Hake S, Vollbrecht E, Grotewold E, Ware D, Jackson D. 2014. Regulatory modules controlling maize inflorescence architecture. Genome Research 24: 431–443.

[51]

Fletcher J. 2018. The CLV-WUS stem cell signaling pathway: A roadmap to crop yield optimization. Plants 7: 87.

[52]

Gallavotti A, Long JA, Stanfield S, Yang X, Jackson D, Vollbrecht E, Schmidt RJ. 2010. The control of axillary meristem fate in the maize ramosa pathway. Development 137: 2849–2856.

[53]

Guan J-C, Li C, Flint-Garcia S, Suzuki M, Wu S, Saunders JW, Dong L, Bouwmeester HJ, McCarty DR, Koch KE. 2023. Maize domestication phenotypes reveal strigolactone networks coordinating grain size evolution with kernel-bearing cupule architecture. The Plant Cell 35: 1013–1037.

[54]

Harshberger JW. 1896. The purposes of ethno-botany. Botanical Gazette 21: 146–154.

[55]

Harshberger JW. 1907. Maize or Indian corn. Encyclopedia of American Agricultural Education: 398–402.

[56]

Huang C, Sun H, Xu D, Chen Q, Liang Y, Wang X, Xu G, Tian J, Wang C, Li D, Wu L, Yang X, Jin W, Doebley JF, Tian F. 2018. ZmCCT9 enhances maize adaptation to higher latitudes. Proceedings of the National Academy of Sciences of the United States of America 115: E334–E341.

[57]

Hubbard L, McSteen P, Doebley J, Hake S. 2002. Expression patterns and mutant phenotype of teosinte branched1 correlate with growth suppression in maize and teosinte. Genetics 162: 1927–1935.

[58]

Iltis HH. 1971. The maize mystique—a reappraisal of the origin of corn. (photo-offset). Botany Department University of Wisconsin, Madison [republished in: 1985. Contributions of the University of Wisconsin-Madison Herbarium 5: 1–4.].

[59]

Iltis HH. 1983. From teosinte to maize: The catastrophic sexual transmutation. Science 222: 886–894.

[60]

Iltis HH. 1987. Maize evolution and agricultural origins. In: Soderstrom TR, Hilu KW, Campbell CS, Barkworth ME eds. Grass Systematics and Evolution. Washington: Smithsonian Institution Press: 195–213.

[61]

Iltis HH. 2000. Homeotic sexual translocations and the origin of maize (Zea mays, Poaceae): A new look at an old problem. Economic Botany 54: 7–42.

[62]

Iltis HH, Doebley JF. 1984. Zea—a biosystematical odyssey. In: Grant WF ed. Plant Biosystematics. Orlando: Academic Press: 587–616.

[63]

Irish EE. 1997. Experimental analysis of tassel development in the maize mutant tassel seed 6. Plant Physiology 114: 817–825.

[64]

Jackson D, Veit B, Hake S. 1994. Expression of maize KNOTTED1 related homeobox genes in the shoot apical meristem predicts patterns of morphogenesis in the vegetative shoot. Development 120: 405–413.

[65]

Je BI, Gruel J, Lee YK, Bommert P, Arevalo ED, Eveland AL, Wu Q, Goldshmidt A, Meeley R, Bartlett M, Komatsu M, Sakai H, Jönsson H, Jackson D. 2016. Signaling from maize organ primordia via FASCIATED EAR3 regulates stem cell proliferation and yield traits. Nature Genetics 48: 785–791.

[66]

Je BI, Xu F, Wu Q, Liu L, Meeley R, Gallagher JP, Corcilius L, Payne RJ, Bartlett ME, Jackson D. 2018. The CLAVATA receptor FASCIATED EAR2 responds to distinct CLE peptides by signaling through two downstream effectors. eLife 7: e35673.

[67]

Kerstetter RA, Laudencia-Chingcuanco D, Smith LG, Hake S. 1997. Loss-of-function mutations in the maize homeobox gene, knotted1, are defective in shoot meristem maintenance. Development 124: 3045–3054.

[68]

Liu L, Du Y, Shen X, Li M, Sun W, Huang J, Liu Z, Tao Y, Zheng Y, Yan J, Zhang Z. 2015. KRN4 controls quantitative variation in maize kernel row number. PLOS Genetics 11: e1005670.

[69]

Liu L, Gallagher J, Arevalo ED, Chen R, Skopelitis T, Wu Q, Bartlett M, Jackson D. 2021. Enhancing grain-yield-related traits by CRISPR-Cas9 promoter editing of maize CLE genes. Nature Plants 7: 287–294.

[70]

Lunde C, Hake S. 2009. The interaction of knotted1 and thick tassel dwarf1 in vegetative and reproductive meristems of maize. Genetics 181: 1693–1697.

[71]

Mangelsdorf PC. 1958. Ancestor of corn: A genetic reconstruction yields clues to the nature of the extinct wild ancestor. Science 128: 1313–1320.

[72]

Mangelsdorf PC. 1974. Corn, its origin, evolution and improvement Cambridge: Belknap Press of Harvard University Press.

[73]

Mangelsdorf PC, Reeves RG. 1938. The origin of maize. Proceedings of the National Academy of Sciences of the United States of America 24: 303–312.

[74]

Mangelsdorf PC, Reeves RG. 1939. The origin of indian corn and its relatives. Texas Agricultural Experiment Station Bulletin 574: 1–315.

[75]

Marand AP, Chen Z, Gallavotti A, Schmitz RJ. 2021. A cis-regulatory atlas in maize at single-cell resolution. Cell 184: 3041–3055.e21.

[76]

Marand AP, Jiang L, Gomez-Cano F, Minow MAA, Zhang X, Mendieta JP, Luo Z, Bang S, Yan H, Meyer C, Schlegel L, Johannes F, Schmitz RJ. 2025. The genetic architecture of cell type-specific cis regulation in maize. Science 388: eads6601.

[77]

Matsuoka Y, Vigouroux Y, Goodman MM, Sanchez GJ, Buckler E, Doebley J. 2002. A single domestication for maize shown by multilocus microsatellite genotyping. Proceedings of the National Academy of Sciences of the United States of America 99: 6080–6084.

[78]

McSteen P, Laudencia-Chingcuanco D, Colasanti J. 2000. A floret by any other name: Control of meristem identity in maize. Trends in Plant Science 5: 61–66.

[79]

Nardmann J, Werr W. 2006. The shoot stem cell niche in angiosperms: Expression patterns of WUS orthologues in rice and maize imply major modifications in the course of mono- and dicot evolution. Molecular Biology and Evolution 23: 2492–2504.

[80]

Pautler M, Eveland AL, LaRue T, Yang F, Weeks R, Lunde C, Je BI, Meeley R, Komatsu M, Vollbrecht E, Sakai H, Jackson D. 2015. FASCIATED EAR4 encodes a bZIP transcription factor that regulates shoot meristem size in maize. The Plant Cell 27: 104–120.

[81]

Piperno DR, Flannery KV. 2001. The earliest archaeological maize (Zea mays L.) from highland Mexico: New accelerator mass spectrometry dates and their implications. Proceedings of the National Academy of Sciences of the United States of America 98: 2101–2103.

[82]

Prusinkiewicz P, Erasmus Y, Lane B, Harder LD, Coen E. 2007. Evolution and development of inflorescence architectures. Science 316: 1452–1456.

[83]

Ricci WA, Lu Z, Ji L, Marand AP, Ethridge CL, Murphy NG, Noshay JM, Galli M, Mejía-Guerra MK, Colomé-Tatché M, Johannes F, Rowley MJ, Corces VG, Zhai J, Scanlon MJ, Buckler ES, Gallavotti A, Springer NM, Schmitz RJ, Zhang X. 2019. Widespread long-range cis-regulatory elements in the maize genome. Nature Plants 5: 1237–1249.

[84]

Rodriguez-Leal D, Xu C, Kwon C-T, Soyars C, Demesa-Arevalo E, Man J, Liu L, Lemmon ZH, Jones DS, Van Eck J, Jackson DP, Bartlett ME, Nimchuk ZL, Lippman ZB. 2019. Evolution of buffering in a genetic circuit controlling plant stem cell proliferation. Nature Genetics 51: 786–792.

[85]

Satoh-Nagasawa N, Nagasawa N, Malcomber S, Sakai H, Jackson D. 2006. A trehalose metabolic enzyme controls inflorescence architecture in maize. Nature 441: 227–230.

[86]

Sattler R. 1988. Homeosis in plants. American Journal of Botany 75: 1606–1617.

[87]

Shen X, Xiao B, Kaderbek T, Lin Z, Tan K, Wu Q, Yuan L, Lai J, Zhao H, Song W. 2023. Dynamic transcriptome landscape of developing maize ear. The Plant Journal 116: 1856–1870.

[88]

Somssich M, Je BI, Simon R, Jackson D. 2016. CLAVATA-WUSCHEL signaling in the shoot meristem. Development 143: 3238–3248.

[89]

Studer A, Zhao Q, Ross-Ibarra J, Doebley J. 2011. Identification of a functional transposon insertion in the maize domestication gene tb1. Nature Genetics 43: 1160–1163.

[90]

Studer AJ, Wang H, Doebley JF. 2017. Selection during maize domestication targeted a gene network controlling plant and inflorescence architecture. Genetics 207: 755–765.

[91]

Sundberg MD, Orr AR. 1990. Inflorescence development in two annual teosintes: Zea mays subsp. mexicana and Z. mays subsp. parviglumis. American Journal of Botany 77: 141–152.

[92]

Taguchi-Shiobara F, Yuan Z, Hake S, Jackson D. 2001. The fasciated ear2 gene encodes a leucine-rich repeat receptor-like protein that regulates shoot meristem proliferation in maize. Genes & Development 15: 2755–2766.

[93]

Tanaka W, Pautler M, Jackson D, Hirano H-Y. 2013. Grass meristems II: Inflorescence architecture, flower development and meristem fate. Plant and Cell Physiology 54: 313–324.

[94]

van Heerwaarden J, Doebley J, Briggs WH, Glaubitz JC, Goodman MM, De Jesus Sanchez Gonzalez J, Ross-Ibarra J. 2011. Genetic signals of origin, spread, and introgression in a large sample of maize landraces. Proceedings of the National Academy of Sciences of the United States of America 108: 1088–1092.

[95]

Vollbrecht E, Schmidt RJ. 2009. Development of the inflorescences. In: Bennetzen JL, Hake SC eds. Handbook of Maize: Its Biology. New York: Springer New York: 13–40.

[96]

Vollbrecht E, Springer PS, Goh L, Buckler Iv ES, Martienssen R. 2005. Architecture of floral branch systems in maize and related grasses. Nature 436: 1119–1126.

[97]

Wang H, Nussbaum-Wagler T, Li B, Zhao Q, Vigouroux Y, Faller M, Bomblies K, Lukens L, Doebley JF. 2005. The origin of the naked grains of maize. Nature 436: 714–719.

[98]

Wang H, Studer AJ, Zhao Q, Meeley R, Doebley JF. 2015. Evidence that the origin of naked kernels during maize domestication was caused by a single amino acid substitution in tga1. Genetics 200: 965–974.

[99]

Wang J, Lin ZL, Zhang X, Liu H, Zhou L, Zhong S, Li Y, Zhu C, Lin ZW. 2019. KRN1, a major quantitative trait locus for kernel row number in maize. New Phytologist 223: 1634–1646.

[100]

Wang RL, Stec A, Hey J, Lukens L, Doebley J. 1999. The limits of selection during maize domestication. Nature 398: 236–239.

[101]

Wang Y, Luo Y, Guo X, Li Y, Jiali Y, Shao W, Wei W, Wei X, Yang T, Chen J, Chen L, Ding Q, Bai M, Zhuo L, Li L, Jackson D, Zhang Z, Xu X, Yan J, Liu H, Liu L, Yang N. 2024. A spatial transcriptome map of the developing maize ear. Nature Plants 10: 815–827.

[102]

Whipple CJ, Kebrom TH, Weber AL, Yang F, Hall D, Meeley R, Schmidt R, Doebley J, Brutnell TP, Jackson DP. 2011. grassy tillers1 promotes apical dominance in maize and responds to shade signals in the grasses. Proceedings of the National Academy of Sciences of the United States of America 108: E506–E512.

[103]

White S, Doebley J. 1998. Of genes and genomes and the origin of maize. Trends in Genetics 14: 327–332.

[104]

Whitt SR, Wilson LM, Tenaillon MI, Gaut BS, Iv ESB. 2002. Genetic diversity and selection in the maize starch pathway. Proceedings of the National Academy of Sciences of the United States of America 99: 12959–12962.

[105]

Wills DM, Whipple CJ, Takuno S, Kursel LE, Shannon LM, Ross-Ibarra J, Doebley JF. 2013. From many, one: Genetic control of prolificacy during maize domestication. PLoS Genetics 9: e1003604.

[106]

Wu Q, Xu F, Jackson D. 2018. All together now, a magical mystery tour of the maize shoot meristem. Current Opinion in Plant Biology 45: 26–35.

[107]

Xu X, Crow M, Rice BR, Li F, Harris B, Liu L, Demesa-Arevalo E, Lu Z, Wang L, Fox N, Wang X, Drenkow J, Luo A, Char SN, Yang B, Sylvester AW, Gingeras TR, Schmitz RJ, Ware D, Lipka AE, Gillis J, Jackson D. 2021. Single-cell RNA sequencing of developing maize ears facilitates functional analysis and trait candidate gene discovery. Developmental Cell 56: 557–568.e6.

[108]

Yang F, Bui HT, Pautler M, Llaca V, Johnston R, Lee B, Kolbe A, Sakai H, Jackson D. 2015. A maize glutaredoxin gene, Abphyl2, regulates shoot meristem size and phyllotaxy. The Plant Cell 27: 121–131.

[109]

Yang H, Nukunya K, Ding Q, Thompson BE. 2022. Tissue-specific transcriptomics reveal functional differences in floral development. Plant Physiology 188: 1158–1173.

[110]

Yang N, Wang Y, Liu X, Jin M, Vallebueno-Estrada M, Calfee E, Chen L, Dilkes BP, Gui S, Fan X, Harper TK, Kennett DJ, Li W, Lu Y, Ding J, Chen Z, Luo J, Mambakkam S, Menon M, Snodgrass S, Veller C, Wu S, Wu S, Zhuo L, Xiao Y, Yang X, Stitzer MC, Runcie D, Yan J, Ross-Ibarra J. 2023. Two teosintes made modern maize. Science 382: eadg8940.

[111]

Yang Q, Li Z, Li W, Ku L, Wang C, Ye J, Li K, Yang N, Li Y, Zhong T, Li J, Chen Y, Yan J, Yang X, Xu M. 2013. CACTA-like transposable element in ZmCCT attenuated photoperiod sensitivity and accelerated the postdomestication spread of maize. Proceedings of the National Academy of Sciences of the United States of America 110: 16969–16974.

[112]

Yang RS, Xu F, Wang YM, Zhong WS, Dong L, Shi YN, Tang TJ, Sheng HJ, Jackson D, Yang F. 2021. Glutaredoxins regulate maize inflorescence meristem development via redox control of TGA transcriptional activity. Nature Plants 7: 1589–1601.

[113]

Zeng R, Shi Y, Guo L, Fu D, Li M, Zhang X, Li Z, Zhuang J, Yang X, Zuo J, Gong Z, Tian F, Yang S. 2025. A natural variant of COOL1 gene enhances cold tolerance for high-latitude adaptation in maize. Cell 188: 1315–1329.e13.

[114]

Zheng L, Zhang Q, Liu H, Wang X, Zhang X, Hu Z, Li S, Ji L, Ji M, Gu Y, Yang J, Shi Y, Huang Y, Zheng X. 2025. Fine mapping and discovery of MIR172e, a candidate gene required for inflorescence development and lower floret abortion in maize ear. Journal of Integrative Agriculture 24: 1372–1389.

[115]

Zobrist JD, Lee K, Wang K. 2024. Application of CRISPR/Cas9 for targeted mutagenesis in teosinte Zea mays ssp. parviglumis. Plant Biotechnology Journal 22: 796–798.

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