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"Inbred line"

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"Inbred line"

Research Articles
Differential Response of Maize Inbreeding Depression to (Optimal and Stressed) Environments
Sunday Ayodele Ige, Bashir Omolaran Bello, Jimoh Mahamood, Michael Afolabi, Aremu Charity, Stephen Abolusoro, Abosede Victoria Adeniyi
Plant Breed. Biotech. 2023;11(4):235-241.   Published online December 1, 2023
DOI: https://doi.org/10.9787/PBB.2023.11.4.235

Inbred lines generated from 10 maize population developed between 1979 and 2008 were used to investigate the inbreeding depression of tropical maize varieties developed at different breeding eras and evaluated in (optimal and stressed) condition. Across all the environments used for this study, estimates of inbred depression (I) for grain yield which ranged from 15.63% for optimum environment to 35.85 under stem borer infestation, showed differences in the severity of the effects of practicing inbreeding in each of the populations and the different environments. The highest values of inbreeding depression for grain yield were recorded under stem borer infestation. The effect of inbreeding was the most severe for var. DMR-LSR-W under borer infestation and least for DMR-LSR-Y in stress free environment. This is an indication that the responses of the maize populations to inbreeding as well as the rate of attaining homozygosity differed with environments. Across the four different environments under which the genotypes were evaluated, average inbreeding depression for grain yield were greater relative to other traits considered which should be expected since grain yield is a quantitatively inherited trait, governed by many genes each with minor effects.

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Detection of Whole-Genome Resequencing-Based QTLs Associated with Pre-Harvest Sprouting in Rice (Oryza sativa L.)
Seong-Gyu Jang, San Mar Lar, Hongjia Zhang, Ah-Rim Lee, Ja-Hong Lee, Na-Eun Kim, So-Yeon Park, Joohyun Lee, Tae-Ho Ham, Soon-Wook Kwon
Plant Breed. Biotech. 2020;8(4):396-404.   Published online December 1, 2020
DOI: https://doi.org/10.9787/PBB.2020.8.4.396

Pre-harvest sprouting (PHS) is one of the important traits that not only cause serious economic issues but also lead to reduction in grain quality and yield in rice (Oryza sativa L.). To analyze the quantitative trait loci (QTLs) for PHS tolerance, we evaluated PHS, seed dormancy (SD), and low-temperature germination (LTG) of 88 F2:3 populations and their parental lines. Genotypic analysis was performed by using 441 single nucleotide polymorphisms (SNPs) detected from re-sequencing data. Seed dormancy (SD) and low-temperature germination (LTG) were identified to exhibit a positive correlation with PHS. Under the field condition, two major QTLs for PHS, qPHS1-1FC and qPHS1-2FC were identified on chromosome 1. Under the growth chamber condition, qPHS1-1GC and qPHS1-2GC had the same regions on chromosome 1. QTLs of SD and LTG (qSD1-1, qSD1-2, qLTG1-1, and qLTG1-2) had the same regions; these results suggested that candidate QTLs demonstrate pleiotropy about PHS, SD, and LTG. The major QTLs detected in this study are hypothesized to provide an important resource for molecular breeding and gain a better understanding of the genetics of traits in rice.

Citations

Citations to this article as recorded by  
  • Integrated physiological, genetic, and environmental insights into pre-harvest sprouting in cereal for climate-resilient breeding
    Trung Quoc Nguyen, Gioi Huy Dong, Nguyen LV, Thao Duc Le, Nguyen Nguyen Chuong, Weiqiang Li, Ha Duc Chu, Cuong Ngoc Duong, Lam-Son Phan Tran
    Seed Biology.2026;[Epub]     CrossRef
  • Mapping QTLs for PHS resistance and development of a deep learning model to measure PHS rate in japonica rice
    Soojin Jun, Mi Hyun Cho, Hyoja Oh, Younguk Kim, Dong Kyung Yoon, Myeongjin Kang, Hwayoung Kim, Seon‐Hwa Bae, Song Lim Kim, Jeongho Baek, HwangWeon Jeong, Jae Il Lyu, Gang‐Seob Lee, Changsoo Kim, Hyeonso Ji
    The Plant Genome.2025;[Epub]     CrossRef
  • Whole-genome meta-analysis coupled with haplotype analysis reveal new genes and functional haplotypes conferring pre-harvest sprouting in rice
    Kelvin Dodzi Aloryi, Nnaemeka Emmanuel Okpala, Mawuli Korsi Amenyogbe, Daniel Bimpong, Benjamin Karikari, Hong Guo, Semiu Folaniyi Bello, Selorm Akaba, Akwasi Yeboah, Abdul Razak Ahmed, Patrick Maada Ngegba, Nabieu Kamara, Juliet Nkiruku Anyanwu, Danielle
    BMC Plant Biology.2025;[Epub]     CrossRef
  • QTL Analysis for Pre-Harvest Sprouting and Low-Temperature Germinability Using Recombinant Inbred Lines Derived from a Cross between ‘Chamdongjin’ and ‘Younghojinmi’
    Hyun-Su Park, Jeonghwan Seo, Heyonso Ji, Gileung Lee, Chang-Min Lee, Jae-Ryoung Park, Songhee Park, Keon-Mi Lee, Mina Jin, O-Young Jeong
    Korean Journal of Breeding Science.2024; 56(2): 79.     CrossRef
  • Discovery of Genomic Regions and Candidate Genes for Awn Length Using QTL-seq in Rice (Oryza sativa L.)
    Dongryung Lee, Hongjia Zhang, Yuting Zeng, Backki Kim, Soon-Wook Kwon
    Plant Breeding and Biotechnology.2023; 11(4): 271.     CrossRef
  • Fine-Mapping Analysis of the Genes Associated with Pre-Harvest Sprouting Tolerance in Rice (Oryza sativa L.)
    Seong-Gyu Jang, Backki Kim, Insoo Choi, Joohyun Lee, Tae-Ho Ham, Soon-Wook Kwon
    Agronomy.2023; 13(3): 818.     CrossRef
  • QTL mapping and improvement of pre-harvest sprouting resistance using japonica weedy rice
    Chang-Min Lee, Hyun-Su Park, Man-Kee Baek, O-Young Jeong, Jeonghwan Seo, Suk-Man Kim
    Frontiers in Plant Science.2023;[Epub]     CrossRef
  • Application of CRISPR/Cas9 Genome Editing System to Reduce the Pre- and Post-Harvest Yield Losses in Cereals
    Thumadath Palayullaparambil Ajeesh Krishna, Theivanayagam Maharajan, Stanislaus Antony Ceasar
    The Open Biotechnology Journal.2022;[Epub]     CrossRef
  • Seed Dormancy and Pre-Harvest Sprouting in Rice—An Updated Overview
    Soo-In Sohn, Subramani Pandian, Thamilarasan Senthil Kumar, Yedomon Ange Bovys Zoclanclounon, Pandiyan Muthuramalingam, Jayabalan Shilpha, Lakkakula Satish, Manikandan Ramesh
    International Journal of Molecular Sciences.2021; 22(21): 11804.     CrossRef
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Genetic and Phenotypic Characterization of Rice Backcrossed Inbred Sister Lines of Saltol in Temperate Saline Reclaimed Area
Jae-Hyuk Han, Na-Hyun Shin, Je-Hoon Moon, Changhwan Yi, Soo-Cheul Yoo, Joong Hyoun Chin
Plant Breed. Biotech. 2020;8(1):58-68.   Published online March 1, 2020
DOI: https://doi.org/10.9787/PBB.2020.8.1.58

Saltol is one of the most well-known quantitative loci (QTLs) for salinity tolerance in rice. It has been used to develop highly tolerant rice varieties in saline and coastal areas in Southeast Asia, South Asia, and Africa. However, the functional activity of Saltol is not well known, and the molecular marker application of readily developed linked markers in Saltol has not always been successful in the rice breeding programs for salinity tolerance improvement. Interestingly, two BC2F9 sister backcrossed inbred lines (BILs), which have been developed by marker-assisted backcrossing utilized the linked markers of Saltol to improve the salinity tolerance of MS11 (a temperate japonica growing in tropical condition). The BILs showed very different phenotypic and stress tolerance, although both contained the Saltol QTL. The genomic similarity of the two BILs was 73%, and we have identified the genomic sites of different genic constitutions between the lines utilizing background genotyping. The stress response of the two BILs showed difference in survival rate, grain yield under highly saline field condition, and SPAD, SES in hydroponic conditions. MS11-SaltolA showed salinity tolerance through Na+/K+ homeostasis with relatively high K+ ion uptake and low Na+ ion uptake in the seedling stage. Further genomic analyses with whole genome resequencing is ongoing to study on gene interactions. The developed highly tolerant MS11-SaltolA can be used as an improved donor in rice molecular breeding for high salinity tolerance.

Citations

Citations to this article as recorded by  
  • Chromosome-level genome assembly of IR64 near-isogenic line harboring Saltol reveals novel genomic regions associated with salinity tolerance in rice (Oryza sativa L.)
    Jae-Hyuk Han, Ji-Hun Hwang, Na-Hyun Shin, Sunghan Kim, Hyun-Sook Lee, Tobias Kretzschmar, Kyung Do Kim, Il-Ryong Choi, Joong Hyoun Chin
    Plant Physiology and Biochemistry.2025; 229: 110669.     CrossRef
  • Harnessing the power of genomics to develop climate-smart crop varieties: A comprehensive review
    K.T. Ravikiran, R. Thribhuvan, C. Anilkumar, Jayanth Kallugudi, N.R. Prakash, Sandeep Adavi B, N.C. Sunitha, Krishnan P. Abhijith
    Journal of Environmental Management.2025; 373: 123461.     CrossRef
  • Marker-Assisted Introgression of the Salinity Tolerance Locus Saltol in Temperate Japonica Rice
    Caterina Marè, Elisa Zampieri, Viviana Cavallaro, Julien Frouin, Cécile Grenier, Brigitte Courtois, Laurent Brottier, Gianni Tacconi, Franca Finocchiaro, Xavier Serrat, Salvador Nogués, Mireia Bundó, Blanca San Segundo, Noemi Negrini, Michele Pesenti, Gia
    Rice.2023;[Epub]     CrossRef
  • DECUSSATE network with flowering genes explains the variable effects of qDTY12.1 to rice yield under drought across genetic backgrounds
    Jacobo Sanchez, Pushpinder Pal Kaur, Isaiah C. M. Pabuayon, Naga Bhushana Rao Karampudi, Ai Kitazumi, Nitika Sandhu, Margaret Catolos, Arvind Kumar, Benildo G. de los Reyes
    The Plant Genome.2022;[Epub]     CrossRef
  • Integrative Approach for Precise Genotyping and Transcriptomics of Salt Tolerant Introgression Rice Lines
    Mireia Bundó, Héctor Martín-Cardoso, Michele Pesenti, Jorge Gómez-Ariza, Laia Castillo, Julien Frouin, Xavier Serrat, Salvador Nogués, Brigitte Courtois, Cécile Grenier, Gian Attilio Sacchi, Blanca San Segundo
    Frontiers in Plant Science.2022;[Epub]     CrossRef
  • QTL Analysis of Rice Grain Size Using Segregating Populations Derived from the Large Grain Line
    Ja-Hong Lee, Jeonghwan Seo, San Mar Lar, Seong-Gyu Jang, Hongjia Zhang, Ah-Rim Lee, Fang-Yuan Cao, Na-Eun Kim, Joohyun Lee, Soon-Wook Kwon
    Agriculture.2021; 11(6): 565.     CrossRef
  • Genetic diversity in Bambara groundnut {Vigna subterranea (L.) Verdc.}
    Nwakuche Chinenye Onwubiko
    Agricultura Tropica et Subtropica.2021; 54(1): 89.     CrossRef
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Identification of Yield and Yield-Related Quantitative Trait Loci for the Field High Temperature Condition in Backcross Populations of Rice (Oryza sativa L.)
Jeonghwan Seo, So-Myeong Lee, Jae-Hyuk Han, Na-Hyun Shin, Hee-Jong Koh, Joong Hyoun Chin
Plant Breed. Biotech. 2019;7(4):415-426.   Published online December 1, 2019
DOI: https://doi.org/10.9787/PBB.2019.7.4.415

The yield related traits are controlled by multiple quantitative trait loci (QTLs) and influenced by environmental change in rice. We analyzed QTLs for 15 yield related traits using two backcross populations, derived from crosses between IR64 as recurrent parent and Koshihikari as donor parent, through two years. A total of 67 backcross inbred lines (BILs) and 40 chromosome segment substitution lines (CSSLs) were genotyped using 183 SNP markers using a high-throughput genotyping system. Some genomic gaps between markers were identified in two populations. For fifteen traits in this study, 36 major QTLs (mQTLs) for 12 traits and 16 digenic epistatic QTLs (EpQTLs) for culm length were detected in BILs. On the other hand, 17 mQTLs were detected for nine traits in CSSLs. Among them, six mQTLs for grain yield traits were collocated on chromosome 10 in both years. For spikelet fertility, six putative QTLs were detected under high temperature conditions in 2018. The QTLs identified in this study could be used for the development of rice varieties conferring inter-subspecific combinations of yield-related traits.

Citations

Citations to this article as recorded by  
  • Haplotype-based multi-locus genome-wide association study reveals genomic regions associated with reproductive stage high temperature stress tolerance in rice
    Adhip Das, Madan Pal, Adam H. Price, Sukumar Taria, Ayushman Mallick, Megha Sharma, Sudhir Kumar, Ranjith Kumar Ellur, S. Gopala Krishnan, Lekshmy Sathee, Pradeep Kumar Jain, Monika Dalal, Annamalai Anandan, Siddharth Panda, Anita Kumari, Manu Agarwal, Vi
    Plant Molecular Biology.2026;[Epub]     CrossRef
  • Decrypting molecular mechanism of heat stress tolerance in rice to tackle climate change challenges through recent approaches
    Neeraj Kumar, Seyed Mahdi Hosseiniyan Khatibi, Deepak Sharma, Faraz Azeem, Ganesh Kumar Koutu, Jauhar Ali
    Frontiers in Plant Science.2026;[Epub]     CrossRef
  • ‘Drimi9ho’, A Lodging Tolerance with Mid-late Maturing, Improved White-backed Planthopper (Sogatella furcifera) and Cultivation Stability
    Jae-Ryoung Park, Eun-Gyeong Kim, Yoon-Hee Jang, Kyung-Min Kim
    Korean Journal of Breeding Science.2025; 57(4): 493.     CrossRef
  • Climate-driven trends in rice grain appearance: a 2023–2024 comparative study using Korea field data
    Jae-Ryoung Park, Su-Kyung Ha, Hyun-Sook Lee, Gileung Lee, Seung Young Lee, Kyeong Min Kang, Jung-Pil Suh, Mina Jin, Hyun-Su Park, Chang-Min Lee, Jeonghwan Seo, Songhee Park, Keon-Mi Lee, O-Young Jeong
    Journal of Crop Science and Biotechnology.2025; 28(5): 657.     CrossRef
  • Natural variation of HTH5 from wild rice, Oryza rufipogon Griff., is involved in conferring high‐temperature tolerance at the heading stage
    Zhibin Cao, Huiwu Tang, Yaohui Cai, Bohong Zeng, Jialiang Zhao, Xiuying Tang, Ming Lu, Huimin Wang, Xuejing Zhu, Xiaofeng Wu, Linfeng Yuan, Jianlin Wan
    Plant Biotechnology Journal.2022; 20(8): 1591.     CrossRef
  • QTL Analysis of Rice Grain Size Using Segregating Populations Derived from the Large Grain Line
    Ja-Hong Lee, Jeonghwan Seo, San Mar Lar, Seong-Gyu Jang, Hongjia Zhang, Ah-Rim Lee, Fang-Yuan Cao, Na-Eun Kim, Joohyun Lee, Soon-Wook Kwon
    Agriculture.2021; 11(6): 565.     CrossRef
  • A trait specific QTL survey identifies NL44, a NERICA cultivar as a novel source for reproductive stage heat stress tolerance in rice
    K. T. Ravikiran, S. Gopala Krishnan, K. K. Vinod, Gaurav Dhawan, Priyanka Dwivedi, Pankaj Kumar, Vijay Prakash Bansal, M. Nagarajan, Prolay K. Bhowmick, Ranjith K. Ellur, Haritha Bollinedi, Madan Pal, Amitha C. R. Mithra, A. K. Singh
    Plant Physiology Reports.2020; 25(4): 664.     CrossRef
  • Genetic and Phenotypic Characterization of Rice Backcrossed Inbred Sister Lines of Saltol in Temperate Saline Reclaimed Area
    Jae-Hyuk Han, Na-Hyun Shin, Je-Hoon Moon, Changhwan Yi, Soo-Cheul Yoo, Joong Hyoun Chin
    Plant Breeding and Biotechnology.2020; 8(1): 58.     CrossRef
  • Characterization of the Common Japonica-Originated Genomic Regions in the High-Yielding Varieties Developed from Inter-Subspecific Crosses in Temperate Rice (Oryza sativa L.)
    Jeonghwan Seo, So-Myeong Lee, Jae-Hyuk Han, Na-Hyun Shin, Yoon Kyung Lee, Backki Kim, Joong Hyoun Chin, Hee-Jong Koh
    Genes.2020; 11(5): 562.     CrossRef
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Drought Tolerance Screening of Maize Inbred Lines at an Early Growth Stage
Bishnu Adhikari†, Kyu Jin Sa†, Ju Kyong Lee
Plant Breed. Biotech. 2019;7(4):326-339.   Published online December 1, 2019
DOI: https://doi.org/10.9787/PBB.2019.7.4.326

Drought is one of the major abiotic factors that have a serious effect on the production of cereals crops including maize, which is grown widely in the world. Screening based on drought facilitates selection of inbred lines and an understanding of drought-tolerant traits. The effect of drought stress and rescue after stress on maize inbred lines was investigated in this study. Different plant growth attributes namely plant height, leaf area and weight, stem weight, root length, shoot and root fresh and dry weight, and total leaf chlorophyll content were measured. Six flint inbred lines (FLD 12, FLD 23, FLD 24, FLD 33, FLD 35, and FLD 37) were screened as drought-tolerant lines, whereas another six flint inbred lines (FLD 01, FLD 13, FLD 16, FLD 18, FLD 29, and FLD 31) were screened as drought susceptible lines. Growth attributes under different drought conditions were subjected to a correlation test and analysis of variance and showed highly significant relationships with each other. The drought effect differed with different inbred lines, indicating a wide variability of drought response at the early growth stage of maize plants. The results obtained from this study will be useful for selecting maize inbred lines in future breeding programs for enhancing drought tolerance.

Citations

Citations to this article as recorded by  
  • Variability of Root and Shoot Traits Under PEG-Induced Drought Stress at an Early Vegetative Growth Stage of Maize
    Miroslav Bukan, Snježana Kereša, Ivan Pejić, Ana Lovrić, Hrvoje Šarčević
    Agronomy.2025; 15(11): 2624.     CrossRef
  • Review on Effects of Drought Stress on Maize Growth, Yield and Its Management Strategies
    Habtamu Deribe
    Communications in Soil Science and Plant Analysis.2025; 56(1): 123.     CrossRef
  • Drought tolerance screening of maize accessions at early growth stage in the mid-hills of Nepal
    Anubhav Tripathi, Rashmi Poudel, Reema Gurung, Unisha Ghimire, Mamata Pandey, Bishnu Prasad Kandel, Bal Krishna Joshi
    Cogent Food & Agriculture.2024;[Epub]     CrossRef
  • Breeding Drought-Tolerant Maize (Zea mays) Using Molecular Breeding Tools: Recent Advancements and Future Prospective
    Adnan Rasheed, Hongdong Jie, Basharat Ali, Pengliang He, Long Zhao, Yushen Ma, Hucheng Xing, Sameer H. Qari, Muhammad Umair Hassan, Muhammad Rizwan Hamid, Yucheng Jie
    Agronomy.2023; 13(6): 1459.     CrossRef
  • Evaluation of water deficit tolerance in maize genotypes using biochemical, physio-morphological changes and yield traits as multivariate cluster analysis
    Piyanan PIPATSITEE, Rujira TISARUM, Thapanee SAMPHUMPHUANG, Sumaid KONGPUGDEE, Kanyaratt TAOTA, Apisit EIUMNOH, Suriyan CHA-UM
    Notulae Botanicae Horti Agrobotanici Cluj-Napoca.2022; 50(1): 12572.     CrossRef
  • Overexpressing OsPYL/RCAR7 Improves Drought Tolerance of Maize Seedlings by Reducing Stomatal Conductance
    Joon Ki Hong, Yeon-Hee Lee, Beom-Gi Kim, Gang Seob Lee, Hee Jeung Jang, Giha Song, Eun Jung Suh, Sang Ryeol Park
    Agriculture.2022; 12(12): 2140.     CrossRef
  • Association Study for Drought Tolerance of Flint Maize Inbred Lines Using SSR Markers
    Kyu Jin Sa, Hyeon Park, Zhenyu Fu, So Jung Jang, Ju-Kyong Lee
    Plant Breeding and Biotechnology.2022; 10(4): 257.     CrossRef
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Genetic Diversity and Association Analyses of Chinese Maize Inbred Lines Using SSR Markers
Yin Vathana, Kyu Jin Sa, Su Eun Lim, Ju Kyong Lee
Plant Breed. Biotech. 2019;7(3):186-199.   Published online September 1, 2019
DOI: https://doi.org/10.9787/PBB.2019.7.3.186

We selected 68 Chinese maize inbred lines to understand the genetic diversity, population structure, and marker-trait associations for eight agronomic traits and 50 simple sequence repeats (SSRs) markers. In this study, effective traits, such as days of anthesis (DA), days of silking (DS), ear height (EH), plant to ear height ratio (ER), plant height (PH), and leaf width (LW) were divided into PC1 and PC2 by PCA analysis for maize inbred lines. Genetic diversity analysis revealed a total of 506 alleles at 50 SSR loci. The mean number of alleles per locus was 10.12. The averages of genetic diversity (GD) and polymorphic information content (PIC) values were 0.771 and 0.743, respectively. Based on a membership probability threshold of 0.80, the population structure revealed that the total inbred lines were divided into three major groups with one admixed group. A marker-trait association using Q + K MLM showed that nine SSR markers (bnlg1017, umc2041, umc2400, bnlg105, umc1229, umc1250, umc1066, umc2092, and umc1426) were related with seven agronomic traits. Among these SSR markers, eight SSR markers were associated with only one agronomic trait (DA, DS, ER, LL, LW, PH, and ST), whereas one SSR marker (umc1229) was associated with two agronomic traits (DA and ST). These results will help in optimizing the choice of inbred lines for cross combinations, as well as in selecting markers for further maize breeding programs.

Citations

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  • Assessment of combining ability for grain yield and its attributing traits in maize (Zea mays L.)
    Jiban Shrestha, Surya Kant Ghimire, Krishna Hari Dhakal, Mahendra Prasad Tripathi
    Discover Agriculture.2026;[Epub]     CrossRef
  • Mapping of quantitative trait loci associated with fodder quality traits in forage maize (Zea mays L.)
    Palaniyappan Subramani, Ganesan Kalipatty Nalliappan, Manivannan Narayana, Senthil Natesan
    Euphytica.2025;[Epub]     CrossRef
  • Phylogenetic analysis of Perilla crop (Perilla frutescens L.) based on morphological characteristics and volatile substances
    Jungeun Cho, Hyeon Park, Tae Hyeon Heo, Kyu Jin Sa, Ju Kyong Lee
    Genetic Resources and Crop Evolution.2025; 72(3): 2959.     CrossRef
  • Molecular diversity, population structure analysis, and assessment of parent hybrid relationships in fodder maize
    Palaniyappan Subramani, Ganesan Kalipatty Nalliappan, Manivannan Narayana, Ravichandran Veerasamy, Senthil Natesan
    Crop Breeding and Applied Biotechnology.2024;[Epub]     CrossRef
  • Selection of superior and stable fodder maize hybrids using MGIDI and MTSI indices
    Palaniyappan Subramani, Ganesan Kalipatty Nalliappan, Manivannan Narayana, Ravichandran Veerasamy, Senthil Natesan
    Crop Breeding and Applied Biotechnology.2024;[Epub]     CrossRef
  • Association Mapping for Evaluation of Population Structure, Genetic Diversity, and Physiochemical Traits in Drought-Stressed Maize Germplasm Using SSR Markers
    Muhammad Zahaib Ilyas, Hyeon Park, So Jung Jang, Jungeun Cho, Kyu Jin Sa, Ju Kyong Lee
    Plants.2023; 12(24): 4092.     CrossRef
  • Uncovering microsatellite markers associated with agronomic traits of South Sudan landrace maize
    Emmanuel Andrea Mathiang, Hyeon Park, So Jung Jang, Jungeun Cho, Tae Hyeon Heo, Ju Kyong Lee
    Genes & Genomics.2023; 45(12): 1587.     CrossRef
  • Morphological Variation in Normal Maize Landrace Accessions Collected from South Sudan
    Emmanuel Andrea Mathiang, Kyu Jin Sa, Hyeon Park, So Jung Jang, Ju Kyong Lee
    Plant Breeding and Biotechnology.2023; 11(1): 15.     CrossRef
  • Genetic diversity and population structure analysis in early generations maize inbreds derived from local germplasm of Eastern Himalayan regions using microsatellite markers
    E. Lamalakshmi Devi, Umakanta Ngangkham, Sunil Kumar Chongtham, Bhuvaneswari S, Ingudam Bhupenchandra, Konsam Sarika, Harendra Verma, Akoijam Ratankumar Singh, Amit Kumar, Tensubam Basanta Singh, Amit Kumar, T. L. Bhutia, S. K. Dutta, Shaon Kumar Das, Ram
    Plant Genetic Resources: Characterization and Utilization.2023; 21(5): 418.     CrossRef
  • Identification of SSR Markers Associated with Yield-Related Traits and Heterosis Effect in Winter Oilseed Rape (Brassica Napus L.)
    Joanna Wolko, Agnieszka Łopatyńska, Łukasz Wolko, Jan Bocianowski, Katarzyna Mikołajczyk, Alina Liersch
    Agronomy.2022; 12(7): 1544.     CrossRef
  • Genetic Diversity and Population Structure of Normal Maize Germplasm Collected in South Sudan Revealed by SSR Markers
    Emmanuel Andrea Mathiang, Kyu Jin Sa, Hyeon Park, Yeon Joon Kim, Ju Kyong Lee
    Plants.2022; 11(20): 2787.     CrossRef
  • Using of Molecular Markers in Prediction of Wheat (Triticum aestivum L.) Hybrid Grain Yield Based on Artificial Intelligence Methods and Multivariate Statistics
    E. E. Shamsabadi, H. Sabouri, H. Soughi, S. J. Sajadi
    Russian Journal of Genetics.2022; 58(5): 603.     CrossRef
  • Genetic characterization and association mapping in near-isogenic lines of waxy maize using seed characteristics and SSR markers
    Hae Ri Kim, Kyu Jin Sa, Min Nam-Gung, Ki Jin Park, Si-Hwan Ryu, Chang Yeun Mo, Ju Kyong Lee
    Genes & Genomics.2021; 43(1): 79.     CrossRef
  • Genetic variation and association mapping in the F2 population of the Perilla crop (Perilla frutescens L.) using new developed Perilla SSR markers
    Ju Yeon Kim, Kyu Jin Sa, Ye Ju Ha, Ju Kyong Lee
    Euphytica.2021;[Epub]     CrossRef
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Genetic Diversity and Association Analyses of Canadian Maize Inbred Lines with Agronomic Traits and Simple Sequence Repeat Markers
Kyu Jin Sa, Tak Ki Hong, Ju Kyong Lee
Plant Breed. Biotech. 2018;6(2):159-169.   Published online June 1, 2018
DOI: https://doi.org/10.9787/PBB.2018.6.2.159

We evaluated genetic diversity and population structure in 32 Canadian maize inbred lines and performed association analysis for five agronomical traits and 50 simple sequence repeat (SSR) markers. Genetic diversity analysis revealed a total of 381 alleles at the 50 SSR loci. The average number of alleles per locus was 7.6. The average genetic diversity and polymorphic information content values were 0.709 and 0.676, respectively. The average major allele frequency was 0.414. Population structure analysis indicated that these maize inbred lines were comprised of four major groups and one admixed group based on a membership probability threshold of 0.80. A general linear model showed 20 marker-trait associations involving 12 SSR markers associated with the four agronomic traits except for leaf length. For these marker-trait associations, phi056, mmc0022, bnlg1621, bnlg1695, phi116, and bnlg1028 were associated with only one trait. The other nc005, bnlg1012, phi065, and umc1982 were associated with two traits. Two SSR markers, mmc0111 and umc1038, were associated with three traits. These results will help in optimizing the choice of parents for crossing combinations, as well as in selecting markers for marker-assisted selection for maize improvement.

Citations

Citations to this article as recorded by  
  • Harnessing teosinte for quality traits enhancement and genetic diversity in maize
    Pardeep Kumar, Mukesh Choudhary, Seema Sheoran, Bhupender Kumar, Sushil Kumar, Ankush Sharma, Bharat Bhushan, Bahadur Singh Jat, Dharam Paul, Sumit Kumar Aggarwal, Shyam Bir Singh
    Cereal Research Communications.2026; 54(1): 645.     CrossRef
  • Genetic diversity of Turkish colored maize landraces assessed by simple sequence repeat (SSR) markers
    Ezgi Alaca Yıldırım, Fatih Kahrıman, Ferhat Matur
    Genetic Resources and Crop Evolution.2025; 72(8): 9623.     CrossRef
  • DNA Profiling of Indonesian Maize Hybrids and their Parental Lines Using SSR Markers
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    Agriculture (Pol'nohospodárstvo).2025; 71(2): 53.     CrossRef
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Cold Stress Evaluation among Maize (Zea mays L.) Inbred Lines in Different Temperature Conditions
Muhammad Qudrat Ullah Farooqi, Ju Kyong Lee
Plant Breed. Biotech. 2016;4(3):352-361.   Published online August 31, 2016
DOI: https://doi.org/10.9787/PBB.2016.4.3.352

Maize (Zea mays L.) is a crop in a tropical region which resists growing under sensitive temperature. This study was conducted to evaluate the performance of Canadian maize inbred lines under controlled cold stress conditions (5°C, 10°C, and 23°C). Data were recorded by measuring germination rate, index, root length, and seed vigour index values. Five higher and three lower tolerant inbred lines were shortlisted. The data were analyzed using analysis of variance, while mean values were compared using Tukey’s Honest Significant Difference Test at α=0.05 and at α=0.01. Using Genstat software, correlation was done. A strong correlation (P<0.05) was found between germination rate and germination index under all stress conditions. Root length and vigour index were also strongly correlated with germination rate under 5°C stress condition and compared to 10°C and 23°C stress conditions. Our results suggested that five (CO439, CO438, CO450, CO435, and CO445) among 22 maize inbred lines performed better under 5°C cold stress condition and thus had the potential to develop maize hybrids to increase grain yield under environmentally stressful conditions in South Korea.

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Identification of QTL for Grain Protein Content and Grain Hardness from Winter Wheat for Genetic Improvement of Spring Wheat
Hwayoung Heo, Jamie Sherman
Plant Breed. Biotech. 2013;1(4):347-353.   Published online December 31, 2013
DOI: https://doi.org/10.9787/PBB.2013.1.4.347

To utilize the favorable gene(s) from winter wheat for genetic improvement of spring wheat, this study was carried out to identify the quantitative trait loci (QTL) associated with grain protein content (GPC) and grain hardness (GH) by analysis of recombinant inbred lines (RILS) derived from a cross between spring wheat and spring version of winter wheat. A genetic map of 334 loci was constructed which covered 1575.30cM on all 21 chromosomes. Two QTLs on 3B and 5B chromosome were detected for GPC. A QTL identified barc77 on chromosome 3B had additive effect of 0.17 and the other QTL identified by gwm499 on chromosome 5B had additive effect of 0.19. There were two major QTLs for GH identified on Chromosome 1B and chromosome 5A. The QTL on 1B was localized within a 18.7cM region flanked by wmc719 and wmc367-1 with 1.75 additive effect. The QTL on chromosome 5A flanked by SNP markers, IWA6573 and IWA2363, had additive effect of 1.44.

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