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Registration of upland cotton recombinant inbred lines MS-4857 and MS-4878 with resistance to root-knot nematode and reniform nematode 登记具有抗根结线虫和肾形线虫能力的陆地棉重组近交系 MS-4857 和 MS-4878
IF 0.6 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-05-11 DOI: 10.1002/plr2.20379
Martin J. Wubben, Jack C. McCarty Jr., Russell W. Hayes, Franklin E. Callahan, Dewayne D. Deng, Johnie N. Jenkins

The root-knot nematode (RKN; Meloidogyne incognita Kofoid & White) and reniform nematode (RN; Rotylenchulus reniformis Linford & Oliveira) are serious pathogens of upland cotton (Gossypium hirsutum L.) that significantly affect yield and fiber quality annually. Here, we describe two upland cotton germplasm lines that have combined resistance to RKN and RN while maintaining good yield and fiber quality traits. Upland germplasm lines MS-4857 (Reg. no. GP-1147, PI 704481) and MS-4878 (Reg. no. GP-1148, PI 704482) are F6 recombinant inbred lines from a cross between M240 RNR (RKN resistant) and MT2468 Ren1 (moderately RN resistant). These lines are highly resistant to RKN and show ∼30% fewer RN eggs g−1 root than the MT2468 Ren1 parent due to significantly improved root system development compared with MT2468 Ren1. Yield and fiber quality traits are equivalent or superior to the parental lines. The upland-derived RN resistance in these lines provides a valuable alternative source of resistance to cotton breeding programs, especially in combination with high-level RKN resistance.

根结线虫(RKN;Meloidogyne incognita Kofoid & White)和肾形线虫(RN;Rotylenchulus reniformis Linford & Oliveira)是陆地棉(Gossypium hirsutum L.)的严重病原体,每年都会对产量和纤维质量造成严重影响。在此,我们介绍了两种既能抵抗 RKN 和 RN,又能保持良好产量和纤维质量特性的陆地棉种质系。陆地棉种质系 MS-4857(登记号:GP-1147,PI 704481)和 MS-4878(登记号:GP-1148,PI 704482)是 M240 RNR(抗 RKN)和 MT2468 Ren1(中度抗 RN)杂交的 F6 重组近交系。这些品系对 RKN 有很强的抗性,由于根系发育比 MT2468 Ren1 有明显改善,因此 RN 虫卵 g-1 根数比 MT2468 Ren1 亲本少 30%。产量和纤维质量性状与亲本品系相当或更优。这些品系中源自高地的 RN 抗性为棉花育种计划提供了宝贵的替代抗性来源,尤其是与高水平 RKN 抗性结合使用时。
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引用次数: 0
Thanks to our 2023 reviewers 感谢我们的 2023 年审查员
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-05-02 DOI: 10.1002/plr2.20386
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引用次数: 0
Recipients of 2023 JPR Editor's Citation for Excellence named 2023 年《日本新闻》编辑卓越奖获奖者名单公布
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-05-02 DOI: 10.1002/plr2.20381
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引用次数: 0
Registration of the “Woodies” multi–rust-resistant barley germplasm 登记 "Woodies "多抗锈蚀大麦种质
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-05-01 DOI: 10.1002/plr2.20373
C. Massman, J. Hernandez, S. J. Clare, M. Brooke, T. Filichkin, S. Fisk, L. Helgerson, O. N. Matny, I. A. del Blanco, M. N. Rouse, B. J. Steffenson, B. Brueggeman, P. M. Hayes

Selection for resistance to plant diseases is a continuous effort on the part of plant breeders. Sources of genetic resistance are often limited, despite considerable discovery efforts. Stem rust and stripe rust are two diseases of particular importance in barley (Hordeum vulgare L.) production. The present work aims to develop and deploy genotypes with resistance to these diseases that can be used in future breeding efforts. The Woodies, Woody-1 (DH160733; Reg. no. GP-218, PI 704479) and Woody-2 (DH160754; Reg. no. GP-219, PI 704480), are two doubled-haploid genotypes produced via F1 anther culture named in honor of the late Lynn “Woody” Gallagher. These two-row spring habit barley germplasm accessions were released by the Oregon Agricultural Experiment Station in 2023. These genotypes have demonstrated resistance to both stem and stripe rust at the seedling and adult plant stage in trials conducted between 2018 and 2023. The genetic basis of this resistance appears to be a novel quantitative trait locus conferring resistance to both diseases on chromosome 5H that is different from the known rpg4/Rpg5 complex for stem rust resistance found on the same chromosome. Seed can be requested from the Oregon State University Barley Breeding Program or from the NLGRP Germplasm repository.

植物育种人员一直在努力选育抗植物病害的品种。尽管进行了大量的发掘工作,但遗传抗性的来源往往是有限的。茎锈病和条锈病是大麦(Hordeum vulgare L.)生产中特别重要的两种病害。目前的工作旨在开发和应用对这些病害具有抗性的基因型,以用于未来的育种工作。Woody-1(DH160733;登记号:GP-218,PI 704479)和Woody-2(DH160754;登记号:GP-219,PI 704480)是为纪念已故的 Lynn "Woody" Gallagher 而命名的两个通过 F1 花药培养产生的双倍单倍体基因型。俄勒冈农业试验站于 2023 年发布了这些两行春性大麦种质登录品。在 2018 年至 2023 年期间进行的试验中,这些基因型在幼苗和成株阶段均表现出对茎锈病和条锈病的抗性。这种抗性的遗传基础似乎是染色体 5H 上一个赋予两种病害抗性的新型数量性状基因座,该基因座不同于同一染色体上已知的抗茎锈病的 rpg4/Rpg5 复合物。可向俄勒冈州立大学大麦育种项目或北大西洋大麦研究所种质资源库索取种子。
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引用次数: 0
Registration of FloRun ‘T61’ peanut FloRun "T61 "花生的注册
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-05-01 DOI: 10.1002/plr2.20371
B. L. Tillman

FloRun ‘T61’ (Reg. no. CV-159, PI 700039) is a high-oleic, runner market-type peanut (Arachis hypogaea L. subsp. hypogaea var. hypogaea) cultivar developed by the University of Florida Agricultural Experiment Station, North Florida Research and Education Center, near Marianna, FL. It resulted from a cross between ‘Georiga-06G’ and a University of Florida Agricultural Experiment Station experimental line ‘UF12302’ and was tested under the experimental designation UF11 × 41-HO1-4-1-1 and was approved for release in 2021. FloRun ‘T61’ has a semi-prostrate growth habit, with moderate vine size and a prominent center stem. The seed is smaller than seed of Georgia-06G but larger than FloRun ‘331’ (67.3 g vs. 64.6 g; P < 0.0001). It yielded similarly to FloRun ‘331’ over the 4-year period of 2017–2020 in three Florida locations (7862 kg ha−1 vs. 8068 kg ha−1), and its pod yield was slightly greater than Georgia-06G during the 5-year period of 2016–2020 (7680 kg ha−1 vs. 7273 kg ha−1; P = 0.0137). The total sound mature kernel grade of FloRun ‘T61’ was slightly greater than that of FloRun ‘331’ (78.6% vs. 77.7%, P < 0.025) but was similar to the total sound mature kernel grade of Georgia-06G. FloRun ‘T61’ has high oleic oil chemistry composed of 77.1% oleic fatty acid versus 58.7% for Georgia-06G in 2020 (P < 0.001) and 79.2% in 2021 compared with 65.7% for Georgia-06G (P < 0.001). Over 5 years, the spotted wilt ratings of FloRun ‘T61’ (2.5) were less than for FloRun ‘331’ (4.8; P < 0.01). In summary, FloRun ‘T61’ combines excellent yield, grade, disease, and oil chemistry traits and should be beneficial to farmers and manufacturers of peanut foods.

FloRun 'T61'(登记号:CV-159,PI 700039)是佛罗里达大学农业试验站在佛罗里达州玛丽安娜附近的北佛罗里达研究与教育中心开发的一种高油酸、匍匐茎市场型花生(Arachis hypogaea L. subsp.该品种由'Georiga-06G'和佛罗里达大学农业试验站的一个实验品系'UF12302'杂交而成,实验代号为 UF11 × 41-HO1-4-1-1,并于 2021 年获准发布。FloRun 'T61' 具有半匍匐生长习性,藤蔓大小适中,中心茎突出。种子比 Georgia-06G 的种子小,但比 FloRun '331' 的种子大(67.3 克 vs. 64.6 克;P < 0.0001)。在 2017-2020 年的 4 年中,佛罗里达州三个地点的产量与 FloRun '331' 相似(7862 千克/公顷 vs. 8068 千克/公顷),而在 2016-2020 年的 5 年中,其豆荚产量略高于 Georgia-06G(7680 千克/公顷 vs. 7273 千克/公顷;P = 0.0137)。FloRun'T61'的总健全成熟粒级略高于FloRun'331'(78.6% vs. 77.7%,P <0.025),但与Georgia-06G的总健全成熟粒级相近。在 2020 年,FloRun'T61'的油酸脂肪酸含量为 77.1%,而 Georgia-06G 为 58.7%(P <0.001);在 2021 年,FloRun'T61'的油酸脂肪酸含量为 79.2%,而 Georgia-06G 为 65.7%(P <0.001)。在 5 年中,FloRun'T61'的斑枯病评级(2.5)低于 FloRun '331'(4.8;P <;0.01)。总之,FloRun'T61'集优异的产量、等级、病害和油脂化学性状于一身,应能为农民和花生食品制造商带来益处。
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引用次数: 0
Registration of CDL-111 and CDL-167 oat germplasm lines with pyramided adult plant crown rust resistance 具有金字塔型成株冠锈病抗性的 CDL-111 和 CDL-167 燕麦种质系的登记
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-05-01 DOI: 10.1002/plr2.20372
Eric S. Nazareno, Roger Caspers, Melanie Caffe, Kevin Smith, Howard W. Rines, Shahryar F. Kianian

Oat (Avena sativa L.) production worldwide is constrained by crown rust (caused by Puccinia coronata f. sp. avenae), which can cause significant yield losses. The disease is often controlled by spraying fungicides or planting resistant cultivars. Developing host resistance, however, is a challenge due to the high genetic variability of the pathogen. Race-specific resistance usually succumbs to new races in just a few years. As such, the USDA-ARS Cereal Disease Laboratory developed mapping populations to identify adult plant resistance (APR) loci from Avena sativa donors. Resistant lines from the mapping populations were selected and crossed with buckthorn (Rhamnus cathartica L.) nursery selection lines BT1020-1-1 and BT1021-1-1, which possess a different gene for crown rust resistance derived from Avena strigosa. From the crosses, CDL-111 (Reg. no. GP-122, PI 702639) and CDL-167 (Reg. no. GP-123, PI 702640), both containing three APR quantitative trait loci, were selected as germplasm for resistance breeding. High-throughput markers for selection were developed and implemented in pyramiding the APR loci.

全球燕麦(Avena sativa)生产都受到冠锈病(由冠锈菌 Puccinia coronata f. sp. avenae 引起)的制约,冠锈病会造成严重的产量损失。通常通过喷洒杀菌剂或种植抗病品种来控制这种疾病。然而,由于病原体的遗传变异性很高,开发寄主抗性是一项挑战。特定种族的抗性通常在短短几年内就会被新的种族所取代。因此,USDA-ARS 谷物疾病实验室开发了制图群体,从莜麦供体中鉴定成株抗性 (APR) 基因座。从制图群体中筛选出抗性品系,并与沙棘(Rhamnus cathartica L.)苗圃选育品系 BT1020-1-1 和 BT1021-1-1 杂交。杂交后,CDL-111(登记号:GP-122,PI 702639)和 CDL-167(登记号:GP-123,PI 702640)均含有三个 APR 数量性状位点,被选为抗性育种的种质。开发了用于选择的高通量标记,并对 APR 基因座进行了分层。
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引用次数: 0
The release of ‘LCP 85-384’ and its contribution to the Louisiana sugar industry LCP 85-384 "的发布及其对路易斯安那制糖业的贡献
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-04-30 DOI: 10.1002/plr2.20370
Brayden A. Blanchard, Zachary A. Taylor, Mimi G. Rivette, Collins A. Kimbeng, Kenneth A. Gravois

Basic breeding efforts initiated at the USDA-ARS in Houma, LA, in the late 1950s allowed Louisiana sugarcane breeders, once again, to cross with the wild germplasm of cultivated sugarcane, Sacharum spontaneum. ‘LCP 85-384’ was the first success story from this effort and was quickly adopted by growers. It became clear that the cultivar would prove to be substantially impactful to the Louisiana sugar industry. Performing at unprecedented yields in ratoon crops, LCP 85-384 changed how Louisiana growers would manage their crops. The variety proved to possess traits that fared well in the subtropical production zones of the state. Substantial stalk populations seemed to play a vital role in the necessary ratoon ability and consequent cold tolerance necessary for production in Louisiana. After significant disease pressure, the variety quickly declined in production acreage, but not in impact. It continued to provide sustained progress as a parent for years, contributing to most modern commercial cultivars in Louisiana. Today, LCP 85-384 and its progeny are used in breeding and genetic research to usher in the next era of progress in the Louisiana sugar industry. Meanwhile, through cooperative efforts of breeding programs around the world, it is making its mark on the sugarcane industries of Argentina in much the same way as it did in Louisiana. In the future, it is expected that the progress made in the breeding program will continue by building upon the gains achieved from LCP 85-384 and its progeny for the sustained success of the Louisiana sugarcane industry.

20 世纪 50 年代末,美国农业部农业研究与发展研究所(USDA-ARS)在洛杉矶侯马启动了基础育种工作,使路易斯安那州的甘蔗育种人员再次与栽培甘蔗野生种质 Sacharum spontaneum 杂交。LCP 85-384 "是这一努力的第一个成功案例,并很快被种植者采用。很明显,该品种将对路易斯安那州的制糖业产生重大影响。LCP 85-384 在轮作中表现出前所未有的产量,改变了路易斯安那州种植者管理作物的方式。事实证明,该品种具有在该州亚热带生产区生长良好的特性。在路易斯安那州的生产中,大量的茎秆似乎对必要的轮作能力和随之而来的耐寒性起着至关重要的作用。在遭受重大病害压力后,该品种的生产面积迅速减少,但影响却没有减弱。多年来,该品种作为亲本持续进步,为路易斯安那州的大多数现代商业栽培品种做出了贡献。如今,LCP 85-384 及其后代被用于育种和遗传研究,为路易斯安那州制糖业的发展开创了新纪元。同时,通过世界各地育种项目的共同努力,LCP 85-384 在阿根廷的甘蔗产业中留下了深刻的印记,就像它在路易斯安那州一样。未来,在 LCP 85-384 及其后代所取得的成果基础上,育种计划有望继续取得进展,为路易斯安那州甘蔗产业的持续成功做出贡献。
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引用次数: 0
Registration of ‘S16-16814R’: A glyphosate-tolerant, high-oleic soybean cultivar S16-16814R" 注册:耐草甘膦、高油酸大豆品种
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-04-21 DOI: 10.1002/plr2.20315
Pengyin Chen, Grover Shannon, Caio Canella Vieira, Dongho Lee, Emanuel Ferrari do Nascimento, Destiny Hunt, Yi-Chen Lee, Md Liakat Ali, Melissa Crisel, Scotty Smothers, Michael Clubb, Melissa Goellner Mitchum, Clinton G. Meinhardt, Mariola Usovsky

There is a demand for soybean [Glycine max (L.) Merr.] cultivars with more functional soybean oil for food and industrial applications. Soybean breeding programs have devoted more efforts to developing high-yielding soybean cultivars with elevated oil content and improved fatty acid profiles. The University of Missouri – Fisher Delta Research, Extension, and Education Center soybean breeding program has developed and released the high-oleic soybean cultivar ‘S16-16814R’ (Reg. no. CV-561, PI 704911). It is a maturity group 4-late (relative maturity 4.9), glyphosate-tolerant (Roundup Ready 1) soybean cultivar with high oleic (84.0%) acid content and a reduced linolenic (3.5%) acid content. S16-16814R is resistant to multiple nematode species, including soybean cyst nematode races 2 (HG Type 1.2.5.7), 3 (HG Type 5.7), and 5 (HG Type 2.5.7); southern root-knot nematode; and reniform nematode. S16-16814R was evaluated from 2017 to 2020 in 61 environments across eight southern US states. It averaged 92% of the check mean for yield, indicating competitive yield performance across multiple environments.

人们需要大豆 [Glycine max (L.) Merr.] 栽培品种具有更多功能性的大豆油,用于食品和工业用途。大豆育种项目已将更多精力投入到开发含油量更高、脂肪酸含量更高的高产大豆品种上。密苏里大学--费舍尔三角洲研究、推广和教育中心的大豆育种项目已经开发并发布了高油酸大豆品种'S16-16814R'(登记号:CV-561,PI 704911)。这是一个成熟度组 4-晚熟(相对成熟度 4.9)、耐草甘膦(Roundup Ready 1)的大豆品种,油酸含量高(84.0%),亚麻酸含量低(3.5%)。S16-16814R 对多种线虫具有抗性,包括大豆孢囊线虫 2(HG 类型 1.2.5.7)、3(HG 类型 5.7)和 5(HG 类型 2.5.7);南方根结线虫;以及肾形线虫。S16-16814R 于 2017 年至 2020 年在美国南部 8 个州的 61 个环境中进行了评估。它的平均产量为对照平均值的 92%,表明在多个环境中都具有竞争力的产量表现。
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引用次数: 0
Registration of indeterminate and photoperiod-insensitive IIPG-7 and IIPG-11 pigeonpea germplasm 登记不定期和对光周期不敏感的 IIPG-7 和 IIPG-11 鸽子豆种质
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-04-21 DOI: 10.1002/plr2.20375
Diego M. Viteri, Angela M. Linares-Ramírez

Pigeonpea [Cajanus cajan (L.) Mill.] breeding lines (BL) IIPG-7 (Reg. no. GP-326, PI 704909) and IIPG-11 (Reg. no. GP-327, PI 704910) were developed at the University of Puerto Rico. Both BL were bred to have indeterminate flowering habit and photoperiod insensitivity. The agronomic performance of IIPG-7, IIPG-11, and checks was tested during different growing seasons in Isabela and Lajas, Puerto Rico. IIPG-7 and IIPG-11 were early maturing and initiated flowering at 73–84 days after planting (DAP), reaching harvest maturity at 121–127 DAP. This was in comparison to indeterminate cultivars ‘Ariel’, ‘Blanco Yauco’, ‘Kaki’, ‘Pinto Berrocales’, and ‘Super Pinto’, which initiated flowering at 91–102 DAP, reaching maturity at 138–148 DAP in short-day conditions that occurred in October in both locations. These cultivars had seed yield values of over 1000 kg ha−1, whereas IIPG-7 and IIPG-11 produced 721–1010 kg ha−1. In contrast, IIPG-7 and IIPG-11 were the only indeterminate genotypes that initiated flowering at 42–88 DAP and reached maturity at 88–172 DAP under long-day conditions (February, March, and May) in both locations. Seed yields of IIPG-7 and IIPG-11 varied from 626 to 2449 kg ha−1 in Isabela and were close to 2000 kg ha−1 in Lajas. IIPG-7 has tan seed with reddish spots; IIPG-11 has reddish seed with an average weight of 14 and 15 g per 100 seeds, respectively. The IIPG-7 and IIPG-11 BL can be used directly by growers or breeders to develop pigeonpea cultivars that can be planted year-round.

波多黎各大学培育了鸽子豆[Cajanus cajan (L.) Mill.]育种品系(BL)IIPG-7(登记号:GP-326,PI 704909)和 IIPG-11(登记号:GP-327,PI 704910)。这两个 BL 品种都具有不定期开花习性和光周期不敏感性。在波多黎各伊莎贝拉(Isabela)和拉哈斯(Lajas)的不同生长季节,对 IIPG-7、IPG-11 和对照的农艺性能进行了测试。IIPG-7 和 IIPG-11 成熟较早,播种后 73-84 天开始开花,121-127 天收获成熟。相比之下,不定期栽培品种 "Ariel"、"Blanco Yauco"、"Kaki"、"Pinto Berrocales "和 "Super Pinto "在种植后 91-102 天开始开花,在两地 10 月份的短日照条件下于种植后 138-148 天成熟。这些品种的种子产量超过 1000 千克/公顷,而 IIPG-7 和 IIPG-11 的种子产量为 721-1010 千克/公顷。相比之下,在两地的长日照条件下(2 月、3 月和 5 月),IIPG-7 和 IIPG-11 是唯一在 42-88 DAP 开始开花并在 88-172 DAP 成熟的不定型基因型。IIPG-7 和 IIPG-11 的种子产量在伊莎贝拉为 626 至 2449 千克/公顷,在拉哈斯接近 2000 千克/公顷。IIPG-7 的种子呈棕褐色,带有红色斑点;IPG-11 的种子呈红色,每 100 粒种子的平均重量分别为 14 克和 15 克。种植者或育种者可直接利用 IIPG-7 和 IIPG-11 BL 培育可全年种植的鸽子豆品种。
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引用次数: 0
Registration of ‘Georgia-23RKN’ peanut 格鲁吉亚-23RKN "花生的注册
IF 0.8 4区 农林科学 Q4 AGRONOMY Pub Date : 2024-04-16 DOI: 10.1002/plr2.20359
W. D. Branch, T. B. Brenneman

‘Georgia-23RKN’ (Reg. no. CV-158, PI 704578) is a new high-yielding, normal-oleic, Tomato spotted wilt virus (TSWV)- and root-knot nematode (RKN) [Meloidogyne arenaria (Neal) Chitwood race 1]-resistant, medium-large seeded, runner-type peanut (Arachis hypogaea L. subsp. hypogaea var. hypogaea) cultivar that was released by the Georgia Agricultural Experiment Station in 2023. It was developed at the University of Georgia, Tifton Campus. Georgia-23RKN originated from a cross made between ‘Tifguard’ × ‘Georgia Green’. Tifguard is a normal-oleic, TSWV- and RKN-resistant runner-type peanut cultivar that was developed from a cross between ‘C-99R’ and ‘COAN’. Georgia Green is a normal-oleic, TSWV-resistant runner-type cultivar that was developed from a cross between ‘Southern Runner’ and ‘Sunbelt Runner’. Pedigree selection was practiced within the early segregating generations. Performance testing began in the F4:6 generation with the advanced pure-line selection, GA 122544, the experimental designation of Georgia-23RKN. During the past 3 years (2015–2017) and averaged over 29 multiple location tests without nematode pressure in Georgia, Georgia-23RKN had significantly less TSWV and total disease incidence compared to Tifguard. Georgia-23RKN was also found to have a larger runner seed size than the smaller runner-type check cultivar, Georgia-14N. Georgia-23RKN combines high-yield and TSWV- and RKN-resistance with medium-large seed size and the normal-oleic trait preferred by large peanut butter manufacturers in the United States.

Georgia-23RKN' (登记号 CV-158,PI 704578)是一个新的高产、正常油酸、抗番茄斑点枯萎病病毒(TSWV)和根结线虫(RKN)[Meloidogyne arenaria (Neal) Chitwood race 1]、中大粒、匍匐茎型花生(Arachis hypogaea L. subsubogaea var.subsp. hypogaea var. hypogaea)栽培品种,由佐治亚农业试验站于 2023 年发布。该品种由佐治亚大学蒂夫顿校区培育而成。Georgia-23RKN 由 "Tifguard"×"Georgia Green "杂交而成。Tifguard 是由'C-99R'和'COAN'杂交培育而成的正常油酸、抗 TSWV 和 RKN 的匍匐茎型花生栽培品种。Georgia Green 是由'Southern Runner'和'Sunbelt Runner'杂交培育而成的正常油酸、抗 TSWV 的匍匐茎型栽培品种。在早期分离世代中进行了血统选择。性能测试从 F4:6 代开始,采用先进的纯系选育品种 GA 122544(实验名称为 Georgia-23RKN)。过去 3 年(2015-2017 年),在佐治亚州无线虫压力的 29 个多地点测试中,Georgia-23RKN 的 TSWV 和总病害发生率明显低于 Tifguard。与较小的匍匐茎型对照品种 Georgia-14N 相比,Georgia-23RKN 的匍匐茎种子尺寸也更大。Georgia-23RKN 将高产、抗 TSWV 和 RKN 性状、中等大粒种子和美国大型花生酱生产商喜欢的正常油酸性状结合在一起。
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引用次数: 0
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Journal of Plant Registrations
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