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Association Study for Drought Tolerance of Flint Maize Inbred Lines Using SSR Markers 利用SSR标记对燧石玉米自交系抗旱性的关联研究
Q3 Agricultural and Biological Sciences Pub Date : 2022-12-01 DOI: 10.9787/pbb.2022.10.4.257
K. Sa, Hyeon-Jin Park, Zhenyu Fu, Songhoe Jang, Ju-Kyong Lee
This study assessed the genetic and phenotypic variation of 12 �int maize inbred lines and performed association analysis of 11 drought-related traits using 360 simple sequence repeats (SSRs), detecting 1,604 alleles, with an average of 4.4 alleles per locus. The average values of gene diversity (GD) and polymorphism information content (PIC) were 0.648 and 0.598, respectively. In principal component analysis (PCA), shoot fresh weight (SFW), shoot dry weight (SDW), stem weight (SW), leaf weight (LW), root fresh weight (RFW), root dry weight (RDW), and leaf area (LA) traits contributed greatly to the PIC. Association analysis was performed using a general linear model with a Q-matrix (Q GLM) and a mixed linear model with Q and K-matrices (Q + K MLM). Twelve SSR markers for drought tolerance trait were detected by Q GLM, and all maize inbred lines were clearly divided into two groups in accordance with their drought tolerance. Duplicated signi�cant marker-trait associations (SMTAs) between Q GLM and Q + K MLM identi�ed eight marker-trait associations involving four SSR markers that were associated with the traits of SW, SFW, RFW, and RDW with a signi�cant level of P < 0.05. The umc1175 and umc2092 were associated with SW and SFW; umc1503 was associated with RFW, SFW, and SW; and umc2341 was associated with RDW. The detection of loci associated with drought-related traits in this study may provide better opportunities to improve maize drought tolerance by marker-assisted selection (MAS). These results will be useful for breeders in producing tolerant varieties as well as markers for using MAS in maize breeding programs.
本研究利用360个简单重复序列(SSRs)对12个玉米自交系的遗传和表型变异进行了评估,并对11个干旱相关性状进行了关联分析,共检测到1604个等位基因,平均每个位点检测到4.4个等位基因。基因多样性(GD)和多态性信息含量(PIC)的平均值分别为0.648和0.598。在主成分分析(PCA)中,地上部鲜重(SFW)、地上部干重(SDW)、茎重(SW)、叶重(LW)、根鲜重(RFW)、根干重(RDW)和叶面积(LA)等性状对PIC的影响较大。使用带有Q矩阵的一般线性模型(Q GLM)和带有Q和K矩阵的混合线性模型(Q + K MLM)进行关联分析。qglm检测到12个抗旱性状的SSR标记,根据玉米自交系的抗旱能力,将所有自交系明确分为两类。qglm和Q + K MLM之间的重复显著标记-性状关联(SMTAs)鉴定出与SW、SFW、RFW和RDW性状相关的4个SSR标记共8个,显著水平均为P < 0.05。umc1175和umc2092与SW和SFW相关;umc1503与RFW、SFW和SW相关;umc2341与RDW相关。本研究中与干旱相关性状相关的位点的检测可能为利用标记辅助选择(MAS)提高玉米抗旱性提供更好的机会。这些结果将有助于育种者培育出耐受性强的品种,以及在玉米育种计划中使用MAS的标记。
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引用次数: 1
Estimation of Heritability and Association Analysis of Agronomic Traits Contributing to Yield on Upland Rice (Oryza sativa L.) 旱稻产量农艺性状遗传力估算及关联分析
Q3 Agricultural and Biological Sciences Pub Date : 2022-12-01 DOI: 10.9787/pbb.2022.10.4.232
Dewi Nawank Sary, Laila Badriyah, Ricoh Darisman Sihombing, Thoriq Ahmad Syauqy, E. D. Mustikarini, G. I. Prayoga, R. Santi, Budi Waluyo
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引用次数: 0
Effect of Wheat RING Type E3 Ligase TaMARCH9 Gene on Flowering Time in Transgenic Arabidopsis 小麦RING型E3连接酶TaMARCH9基因对转基因拟南芥开花时间的影响
Q3 Agricultural and Biological Sciences Pub Date : 2022-12-01 DOI: 10.9787/pbb.2022.10.4.224
M. Kim, Jae Ho Kim, Y. Seo
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引用次数: 0
Identification of QTLs for Cold Tolerance at Seedling Stage Using a Population Derived from an Inter-specific Cross in Rice 水稻种间杂交群体苗期耐寒qtl的鉴定
Q3 Agricultural and Biological Sciences Pub Date : 2022-12-01 DOI: 10.9787/pbb.2022.10.4.282
Kyu-Chan Shim, Y. Yun, Ju-Won Kang, Sang-Nag Ahn
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引用次数: 0
Genetic Analysis of Coffee (Coffea arabica L.) Genotypes in Zimbabwe Using Morphological Traits 咖啡(Coffea arabica L.)的遗传分析利用形态性状对津巴布韦进行基因分型
Q3 Agricultural and Biological Sciences Pub Date : 2022-12-01 DOI: 10.9787/pbb.2022.10.4.212
P. Chidoko, C. Mahoya, Samson Tarusenga, D. Kutywayo
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引用次数: 0
Inheritance of Resistance to Race 5 of Powdery Mildew Fungus Podosphaera xanthii in Melon and Development of Race 5-Specific High Resolution Melting Markers 甜瓜对黄曲霉第5小种抗性的遗传及5小种特异性高分辨率熔解标记的建立
Q3 Agricultural and Biological Sciences Pub Date : 2022-12-01 DOI: 10.9787/pbb.2022.10.4.272
Jeong-Eui Hong, M. R. Hossain, Hee-Jeong Jung, I. Nou
Powdery mildew (PM), caused by the biotrophic fungus Podosphaera xanthii, drastically reduces the yield and quality of melon (Cucumis melo L.). Knowledge on the genetic control and high throughput molecular markers linked with resistance against this disease are essential for breeding programs. The bioassay study of the F 1 and F 2 populations derived from the parents, ‘PMR 5’ ((cid:0)) and ‘SCNU1154’ ((cid:0)) revealed a monogenic dominant nature of resistance to the devastating race, race 5. Besides, we developed three SNP based high resolution melting markers, PMm-HRM-1, PMm-HRM-2, and PMm-HRM-3 based on the previously identi�ed SNPs on chromosome 12 and validated those using 10 melon lines and 137 F 2 population. Among these, the SNP of marker PMm-HRM-1 causes a missense mutation (Lysine → Glutamic acid) in the LRR region of MELO3C002393 and were able to distinguish the resistant vs susceptible genotypes from 10 diverse melon population and the segregating F 2 population with more than 90% genotyping e�ciency. Other two markers were based on intergenic SNPs and had more than 80% genotyping e�ciency F 2 population. These markers will be helpful to melon breeders to develop melon cultivars resistant to P. xanthii race 5 via marker assisted breeding programs. and 1 s at 97°C. HRM data was performed using LightCycler 96 software at 100% discrimination for delta Tm and curve shape with a 0.2 positive/negative threshold level.
白粉病(PM)是由生物营养真菌Podosphaera xanthii引起的,严重降低甜瓜(Cucumis melo L.)的产量和质量。遗传控制和高通量分子标记的知识对育种计划至关重要。对亲本“PMR 5”((cid:0)和“SCNU1154”((cid:0))衍生的f1和f2群体的生物测定研究表明,对破坏性种族5的抗性具有单基因显性。此外,我们在12号染色体上已鉴定的SNP基础上,开发了3个基于SNP的高分辨率熔化标记PMm-HRM-1、PMm-HRM-2和PMm-HRM-3,并在10个甜瓜品系和137个f2群体中进行了验证。其中,标记PMm-HRM-1的SNP在MELO3C002393的LRR区引起赖氨酸→谷氨酸错义突变,能够区分10个甜瓜不同群体和分离f2群体的抗性和易感基因型,分型效率超过90%。另外两个标记基于基因间snp,在2群体中具有80%以上的基因分型效率。这些标记将有助于甜瓜育种者通过标记辅助育种计划,培育出抗黄腐疫病的甜瓜品种。在97℃时为1 s。人力资源管理数据使用LightCycler 96软件进行,对delta Tm和曲线形状的判别率为100%,正/负阈值水平为0.2。
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引用次数: 1
The Effect of Growth Concentration on In Vitro Shoot Multiplication of Crown Flower (Calotropis gigantea) 生长浓度对冠花试管苗增殖的影响
Q3 Agricultural and Biological Sciences Pub Date : 2022-12-01 DOI: 10.9787/pbb.2022.10.4.244
Okky Talitha, Samanhudi Samanhudi, Andriyana Setyawati, M. Rahayu, A. T. Sakya
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引用次数: 1
Donors of ultra-earliness for spring common wheat breeding 春小麦育种超早熟供体
Q3 Agricultural and Biological Sciences Pub Date : 2022-11-19 DOI: 10.30901/2658-6266-2022-3-o3
B. V. Rigin, E. Shreyder, I. Matvienko, A. S. Andreevа, E. Zuev
Knowledge of productivity and genetic control of the rate of ultra-early lines development will facilitate their use in breeding of common wheat Tritium aestivum L. for high adaptive capacity. The research focused on ultra-early lines Rico (k-65588), Rimax (k-67257) (progeny of F3 Rico × ‘Max’, k-57181), Fori 1-8 line series (progeny of F4 ‘Photon’ × Rico) and Rifor 1-13 (progeny of F7-8 Rico × ‘Forlani Roberto’), as well as on the accessions ‘Photon’ (k-55696) and ‘Forlani Roberto’ (k-42641). The varieties ‘Leningradskaya 6’ (k-64900) and ‘Leningradskaya 97’ (k-62935) were used as standards in VIR, and ‘Chelyaba 2’ (k-64379) was used in Сhelyabinsk ARI. The alleles of Vrn and Ppd genes were identified by PCR using the published allele-specific primers. Responses to vernalization (30 days at 3°C) and to a short 12-hour day were determined according to the VIR guidelines. The ultra-earliness of common wheat lines is associated with the presence of dominant alleles Vrn-A1, Vrn-B1, Vrn-D1, Ppd-B1, Ppd-D1, and possibly Eps. The shortest emergence-to-heading period at two experimental locations was noted for Rico (39.9 ± 1.49 days), which is 14.8 ± 1.22 days earlier than the development of region-adapted varieties. The Rico genotype contains Vrn-A1, Vrn-B1, Vrn-D1, Ppd-B1 and Ppd-D1. In the Rimax genotype, different alleles of the Ppd-D1 and Vrn-B1 genes were found, possibly being a result of recombination processes in Rico × ‘Max’ hybrids. Under a short photoperiod (12 hours), the Rico and Rimax genes can interact in a cumulative polymeric mode, which is not the case in long-day environments. Unlike other Rifor lines, Rifor 4 and Rifor 5, as well as ‘Forlani Roberto’, have a recessive vrn-A1a allele. However, Rifor 4 and Rifor 5 do not respond to vernalization, while ‘Forlani Roberto’ is responsive to this factor. The absence of response to vernalization in Rifor 4 and Rifor 5 possessing the recessive vrn-A1a allele is possibly provided by a complex of modifier genes along with the dominant Vrn-D1 gene, which was formed during recombination in F7-8 Rico × ‘Forlani Roberto’ hybrids. Recombinants of spring common wheat, combining ultra-earliness and relatively high ear productivity, have been identified. Grain yield per 1 m2 of new ultra-early lines in some years can reach 90% of that of the ‘Leningradskaya 97’. It is expedient to use ultra-early lines as donors of high-rate development in common wheat breeding, considering genetic peculiarities of the source lines.
对超早系发育速率的生产力和遗传控制的认识,将有助于它们在普通小麦Tritium aestivum L.高适应能力育种中的应用。研究的重点是超早系Rico (k-65588)、Rimax (k-67257) (F3 Rico × Max的后代,k-57181)、Fori 1-8系(F4 ' Photon ' × Rico的后代)和Rifor 1-13系(F7-8 Rico × ' Forlani Roberto '的后代),以及“Photon”(k-55696)和“Forlani Roberto”(k-42641)。“列宁格勒斯卡亚6号”(k-64900)和“列宁格勒斯卡亚97号”(k-62935)作为VIR的标准品种,“车里亚巴2号”(k-64379)在Сhelyabinsk ARI中使用。利用已发表的等位基因特异性引物对Vrn和Ppd基因的等位基因进行PCR鉴定。根据VIR指南确定对春化(3°C下30天)和短12小时日的反应。普通小麦品系的超早熟与显性等位基因Vrn-A1、Vrn-B1、Vrn-D1、Ppd-B1、Ppd-D1以及Eps的存在有关。两个试验点中,Rico的出苗期最短(39.9±1.49 d),比区域适应品种早14.8±1.22 d。Rico基因型包含Vrn-A1、Vrn-B1、Vrn-D1、Ppd-B1和Ppd-D1。在Rimax基因型中,发现了Ppd-D1和Vrn-B1基因的不同等位基因,这可能是Rico x ' Max '杂种重组过程的结果。在较短的光周期(12小时)下,Rico和Rimax基因可以以累积聚合模式相互作用,而在长时间的环境中则不是这样。与其他Rifor系不同,Rifor 4和Rifor 5以及“Forlani Roberto”具有隐性vrn-A1a等位基因。然而,Rifor 4和Rifor 5对春化没有反应,而“Forlani Roberto”对这一因素有反应。具有隐性vrn-A1a等位基因的Rifor 4和Rifor 5对春化反应的缺失,可能是由于F7-8 Rico × Forlani Roberto杂交组合在重组过程中形成的修饰基因和显性Vrn-D1基因的复合体。已鉴定出一种结合超早熟性和较高穗产量的春季普通小麦组合。超早新品系在某些年份的亩产可达列宁格勒97的90%。在普通小麦育种中,考虑到源系的遗传特性,使用超早系作为高发育供体是有利的。
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引用次数: 0
Expression sequences of opine synthase genes in natural GMOs based on analysis of their transcriptomes 基于转录组分析的天然转基因生物中鸦片合成酶基因表达序列
Q3 Agricultural and Biological Sciences Pub Date : 2022-10-29 DOI: 10.30901/2658-6266-2022-3-o2
F. D. Bogomaz, T. Matveeva
Agrobacterium is a natural genetic material delivery system that humans use to produce genetically modified plants (GMO). In nature, GMOs also occur with the participation of agrobacteria. In 2019, the list of known natural GMOs was expanded by an order of magnitude, and facts were found in favor of the expression of agrobacterial genes in natural GMOs. The frequency of this phenomenon for dicotyledon plants has been estimated at 7 percent. Opine synthase genes turned out to be the predominant ones of agrobacterial origin in natural GMOs. They probably perform important functions in natural GMOs. In 2021, an article was published with an updated list of natural GMOs, but the list of genes expressed in natural GMOs has not been updated since 2019.The aim of this work is to update the list of opine synthase genes expressed in natural GMOs. The research methods included bioinformatic search using queries based on the sequences of opine synthase proteins from Agrobacterium rhizogenes, A. tumefaciens and A. vitis, their homologues from Ipomoea and Nicotiana plants, in the TSA database of the National Center for Biotechnology Information (NCBI) using the TBLASTN algorithm with default settings.The study resulted in the addition of another 18 species to the list of natural GMOs with expressed opine synthase genes, 12 of which belong to genera where natural GMOs were not previously described (Albizia, Cenostigma, Averrhoa, Gynostemma, Eurycoma, Gypsophila, Myosoton, Camptotheca, Gustavia, Eschweilera, Cestrum, Jasminum, and Paulownia).An analysis of the diversity of the detected sequences showed that homologues of cucumopine and mikimopine synthase predominate among them. The end products of these genes are optical isomers. In the future, it makes sense to start studying the functions of opine synthases in plants from these genes.
农杆菌是人类用来生产转基因植物的天然遗传物质传递系统。在自然界中,转基因生物也有农杆菌的参与。2019年,已知的天然转基因生物名单扩大了一个数量级,并发现了有利于天然转基因生物中农杆菌基因表达的事实。据估计,双子叶植物出现这种现象的频率为7%。结果表明,天然转基因生物中以农杆菌来源的合成酶基因居多。它们可能在天然转基因生物中发挥重要作用。2021年,一篇文章发表了一份更新的天然转基因生物清单,但自2019年以来,天然转基因生物中表达的基因清单没有更新。本工作的目的是更新天然转基因生物中表达的合成酶基因列表。研究方法采用TBLASTN算法(默认设置),以根状农杆菌、根状农杆菌和葡萄球菌及其同源物Ipomoea和Nicotiana植物的opine synthase蛋白序列为基础,在美国国家生物技术信息中心(NCBI)的TSA数据库中进行生物信息学搜索。该研究结果在天然转基因生物列表中增加了另外18种表达opine synthase基因的物种,其中12种属于以前未描述的天然转基因生物属(Albizia, ceno柱头,Averrhoa,绞绞线,Eurycoma, Gypsophila, Myosoton, Camptotheca, Gustavia, Eschweilera, Cestrum, Jasminum和Paulownia)。序列多样性分析表明,其中黄瓜碱和米基平合成酶的同源物占主导地位。这些基因的最终产物是光学异构体。在未来,从这些基因开始研究植物中鸦片合成酶的功能是有意义的。
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引用次数: 2
Application of the CRISPR/Cas system for gene editing in ornamental crops CRISPR/Cas系统在观赏作物基因编辑中的应用
Q3 Agricultural and Biological Sciences Pub Date : 2022-10-04 DOI: 10.30901/2658-6266-2022-3-o1
R. Rakhmangulov
Ornamental plants are widespread and popular all over the world. Floriculture industry is of significant economic importance for some countries. Favorable prospects for the development of industrial floriculture were also noted for Russia. This can be facilitated by CRISPR/Cas, a breakthrough method of editing genes responsible for economically valuable traits of plants, which allows bypassing the limitations of the potential intraspecific variability of plants and solving the problem of obtaining non-transgenic modified plants. This article analyzes the current status of ornamental crop breeding using the CRISPR/Cas genetic editing method. The articles were selected from the Scopus database. A search encompassing 50 most common ornamental crops yielded the total of 26 articles on genetic editing using the CRISPR/Cas system, in particular: 8 articles featuring petunia; 1 per each crop on chrysanthemum, kalanchoe, poinsettia and tobacco; 2 per each on dendrobium, gentian, lily and torenia, and 3 per each on phalaenopsis and ipomoea. The found articles were divided into three groups. The first group includes works devoted to studies of mechanisms of genes controlling useful traits, as well as the optimization of the CRISPR/Cas method for a particular crop. The second group unites works aimed at modifying color of flowers and leaves. The third group includes works on increasing the life span of a flower and obtaining double flowers. The review offers the works on the optimization of gene editing in representatives of the orchid family Orchidaceae Juss. Also, it notes the prospects of gene editing by the CRISPR/Cas system, which can accelerate qualitative improvements in breeding and raise it effectiveness, it being especially important in present conditions.
观赏植物在世界各地广泛流行。花卉种植业对一些国家具有重要的经济意义。俄罗斯工业花卉栽培的发展前景良好。这可以通过CRISPR/Cas来实现,CRISPR/Cas是一种突破性的编辑植物经济价值性状基因的方法,它可以绕过植物潜在种内变异性的限制,解决获得非转基因修饰植物的问题。本文分析了利用CRISPR/Cas基因编辑方法选育观赏作物的现状。文章选自Scopus数据库。通过对50种最常见的观赏作物的搜索,共获得了26篇使用CRISPR/Cas系统进行基因编辑的文章,特别是:8篇关于牵牛花的文章;每一种作物对菊花、凤尾菜、一品红和烟草的影响为1;石斛属、龙胆属、百合属和托兰属各2株,蝴蝶兰属和牡丹属各3株。发现的文章被分为三组。第一组包括致力于研究控制有用性状的基因机制的工作,以及针对特定作物的CRISPR/Cas方法的优化。第二组联合了旨在改变花朵和叶子颜色的作品。第三组包括增加一朵花的寿命和获得重瓣花的工作。本文综述了兰科代表植物基因编辑优化的研究进展。此外,它还指出了CRISPR/Cas系统基因编辑的前景,它可以加速育种的定性改进并提高其有效性,这在目前的条件下尤为重要。
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引用次数: 1
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Plant breeding and biotechnology
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