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Rice Science ›› 2023, Vol. 30 ›› Issue (6): 552-565.DOI: 10.1016/j.rsci.2023.06.004

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  • 收稿日期:2023-02-07 接受日期:2023-06-30 出版日期:2023-11-28 发布日期:2023-08-10

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链接本文: http://www.ricesci.org/CN/10.1016/j.rsci.2023.06.004

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图/表 7

Fig. 1. Phenotypic characteristics and breeding process of Quan 9311A. A, Plant morphologies of 93-11, Zhong 9A, and Quan 9311A. Scale bar, 10 cm. B, Breeding pedigree of Quan 9311A/B. C, Phenotypes of 93-11, Quan 9311A, and Zhong 9A. The phenotypic values are Mean ± SD with 24 biological replicates. Student’s t-test significant difference: *, P?<?0.05; **, P?<?0.01; ***, P?<?0.001; ns, Not significant.

Fig. 1. Phenotypic characteristics and breeding process of Quan 9311A. A, Plant morphologies of 93-11, Zhong 9A, and Quan 9311A. Scale bar, 10 cm. B, Breeding pedigree of Quan 9311A/B. C, Phenotypes of 93-11, Quan 9311A, and Zhong 9A. The phenotypic values are Mean ± SD with 24 biological replicates. Student’s t-test significant difference: *, P?<?0.05; **, P?<?0.01; ***, P?<?0.001; ns, Not significant.

Fig. 2. Simple sequence polymorphism (SNP) discrepancy between two parents across entire genome. A, SNP distribution between Quan 9311A and 93-11. B, SNP distribution between Quan 9311A and Zhong 9A. The X-axis refers to the corresponding physical position of each chromosome. According to the physical division of an interval of 100 kb, 3 740 intervals are distributed on 12 chromosomes (Chr.) across the entire genome. The Y-axis is the number of SNPs in each interval. To make the image clearer to view, when the number of SNPs within an interval exceeds 800, only 800 will be displayed on the Y-axis.

Fig. 2. Simple sequence polymorphism (SNP) discrepancy between two parents across entire genome. A, SNP distribution between Quan 9311A and 93-11. B, SNP distribution between Quan 9311A and Zhong 9A. The X-axis refers to the corresponding physical position of each chromosome. According to the physical division of an interval of 100 kb, 3 740 intervals are distributed on 12 chromosomes (Chr.) across the entire genome. The Y-axis is the number of SNPs in each interval. To make the image clearer to view, when the number of SNPs within an interval exceeds 800, only 800 will be displayed on the Y-axis.

Table 1. Summary of genes associated with crucial agronomic traits in Zhong 9A, 93-11, Quan 9311A, WSSM, and QYSM.
Trait Chromosome Gene Alteration allele caused function a 93-11 Zhong 9A Quan 9311A WSSM QYSM
HD 1 OsMADS51 Delaying HD √ ○ √ √ √
YC 2 Rf2 Fertility restoration √ ○ √ √ √
TQ 6 SSG6/OsACS6 Controls starch grain size √ ○ √ √ √
TQ 6 Waxy/GBSSI Changing amylose content √ ○ √ √ √
HD 6 Hd1 Promoting HD under long days √ ○ √ ○ √○
YC 6 DLT/GS6 Dwarf and low-tillering √ ○ √ ○ √○
YC 7 BG2/GE Increasing grain size √ ○ √ ○ √○
OT 7 Sdr4 Controlling seed dormancy √ ○ √ ○ √○
YC 8 GW8/OsSPL16 Increasing grain width √ ○ √ √ √
ABS 9 Sub1A Submergence tolerance √ ○ √ √ √
BS 11 STV11 Increasing resistance to rice stripe virus √ ○ √ √ √
PA 1 D2/SMG11 Decreasing plant height ○ √ √ ○ √○
YC 1 Rf3/OsMADS3 Fertility restoration ○ √ √ √ √
OT 3 BOC1 Callus browning ○ √ √ ○ √○
BS 4 Xa1 Increasing blight resistance ○ √ √ ○ √○
HD 7 Ghd7/Hd4 Promoting HD under long days ○ √ √ ○ √○
BS 11 Xa3/Xa26 Increasing blight resistance ○ √ √ ○ √○
YC 1 NOG1 Increasing grain number √ √ ○ √ √○
YC 1 LAX1 Increasing grain number √ √ √ ○ √○
BS 4 Pi21 Increasing blast resistance ○ √ ○ √ √○
BS 4 Bph3 Increasing brown planthopper resistance √ ○ ○ √ √○
YC 5 PTB1 Increasing seed-setting rate √ ○ ○ √ √○
YC 5 GW5/GSE5 Increasing grain width ○ ○ √ ○ √○
BS 6 Bph29 Increasing brown planthopper resistance √ ○ ○ √ √○
BS 6 Pi9 Increasing blast resistance ○ ○ ○ √○ √○
HD 7 Ghd7.1 Promoting HD under long days √ √ √ ○ √○
YC 8 Ghd8 Promoting HD under long days ○ ○ ○ √ √○
PA 8 TIG1 Smaller tiller angle √ √ √ ○ √○
BS 9 Pi5 Increasing blast resistance ○ ○ ○ √ √○
BS 9 Pi56 Increasing blast resistance ○ ○ ○ √ √○
YC 10 Rf4 Fertility restoration ○ ○ ○ √ √○
YC 10 Rf1b Fertility restoration ○ ○ ○ √ √○
BS 11 Pi-ta Increasing blast resistance ○ ○ ○ √ √○

Table 1. Summary of genes associated with crucial agronomic traits in Zhong 9A, 93-11, Quan 9311A, WSSM, and QYSM.

Trait Chromosome Gene Alteration allele caused function a 93-11 Zhong 9A Quan 9311A WSSM QYSM
HD 1 OsMADS51 Delaying HD √ ○ √ √ √
YC 2 Rf2 Fertility restoration √ ○ √ √ √
TQ 6 SSG6/OsACS6 Controls starch grain size √ ○ √ √ √
TQ 6 Waxy/GBSSI Changing amylose content √ ○ √ √ √
HD 6 Hd1 Promoting HD under long days √ ○ √ ○ √○
YC 6 DLT/GS6 Dwarf and low-tillering √ ○ √ ○ √○
YC 7 BG2/GE Increasing grain size √ ○ √ ○ √○
OT 7 Sdr4 Controlling seed dormancy √ ○ √ ○ √○
YC 8 GW8/OsSPL16 Increasing grain width √ ○ √ √ √
ABS 9 Sub1A Submergence tolerance √ ○ √ √ √
BS 11 STV11 Increasing resistance to rice stripe virus √ ○ √ √ √
PA 1 D2/SMG11 Decreasing plant height ○ √ √ ○ √○
YC 1 Rf3/OsMADS3 Fertility restoration ○ √ √ √ √
OT 3 BOC1 Callus browning ○ √ √ ○ √○
BS 4 Xa1 Increasing blight resistance ○ √ √ ○ √○
HD 7 Ghd7/Hd4 Promoting HD under long days ○ √ √ ○ √○
BS 11 Xa3/Xa26 Increasing blight resistance ○ √ √ ○ √○
YC 1 NOG1 Increasing grain number √ √ ○ √ √○
YC 1 LAX1 Increasing grain number √ √ √ ○ √○
BS 4 Pi21 Increasing blast resistance ○ √ ○ √ √○
BS 4 Bph3 Increasing brown planthopper resistance √ ○ ○ √ √○
YC 5 PTB1 Increasing seed-setting rate √ ○ ○ √ √○
YC 5 GW5/GSE5 Increasing grain width ○ ○ √ ○ √○
BS 6 Bph29 Increasing brown planthopper resistance √ ○ ○ √ √○
BS 6 Pi9 Increasing blast resistance ○ ○ ○ √○ √○
HD 7 Ghd7.1 Promoting HD under long days √ √ √ ○ √○
YC 8 Ghd8 Promoting HD under long days ○ ○ ○ √ √○
PA 8 TIG1 Smaller tiller angle √ √ √ ○ √○
BS 9 Pi5 Increasing blast resistance ○ ○ ○ √ √○
BS 9 Pi56 Increasing blast resistance ○ ○ ○ √ √○
YC 10 Rf4 Fertility restoration ○ ○ ○ √ √○
YC 10 Rf1b Fertility restoration ○ ○ ○ √ √○
BS 11 Pi-ta Increasing blast resistance ○ ○ ○ √ √○
Fig. 3. Superior alleles inherited by Quan 9311A from both parents 93-11 and Zhong 9A. The unique genes in 93-11 and Zhong 9A are represented by yellow and brown bars, respectively. The genes with arrows in circles are inherited by Quan 9311A. Genes without circles and arrows are not inherited by Quan 9311A. Dark blue bars indicate superior genes simultaneously contained in the three cultivars, and each bar represents a superior gene. Chr., Chromosome.

Fig. 3. Superior alleles inherited by Quan 9311A from both parents 93-11 and Zhong 9A. The unique genes in 93-11 and Zhong 9A are represented by yellow and brown bars, respectively. The genes with arrows in circles are inherited by Quan 9311A. Genes without circles and arrows are not inherited by Quan 9311A. Dark blue bars indicate superior genes simultaneously contained in the three cultivars, and each bar represents a superior gene. Chr., Chromosome.

Fig. 4. Phenotypic characteristics and genetic loci in five cultivars. A?D, Plant height (A), days to heading (B), grain number per panicle (C), and 1000-grain weight (D). WSSM, Wushansimiao; QYSM, Quanyousimiao. The X-axis refers to the phenotypic data of each agronomic trait, and the five cultivar names are indicated at the positions of the corresponding phenotypic values. The Y-axis refers to genetic loci associated with important agronomic traits (Wei et al, 2020). Each dot represents the mutant genotype for each genetic locus. Genetic loci without marked dots are wild type genotypes. Alterative alleles can cause phenotypic changes. Superior alleles contribute to desirable agronomic traits, while inferior alleles do not.

Fig. 4. Phenotypic characteristics and genetic loci in five cultivars. A?D, Plant height (A), days to heading (B), grain number per panicle (C), and 1000-grain weight (D). WSSM, Wushansimiao; QYSM, Quanyousimiao. The X-axis refers to the phenotypic data of each agronomic trait, and the five cultivar names are indicated at the positions of the corresponding phenotypic values. The Y-axis refers to genetic loci associated with important agronomic traits (Wei et al, 2020). Each dot represents the mutant genotype for each genetic locus. Genetic loci without marked dots are wild type genotypes. Alterative alleles can cause phenotypic changes. Superior alleles contribute to desirable agronomic traits, while inferior alleles do not.

Fig. 5. Superior genes for Quanyousimiao (QYSM) aggregated from Quan 9311A and Wushansimiao (WSSM). The unique genes in Quan 9311A and WSSM are represented by blue and yellow bars, respectively. Purple bar indicates superior genes simultaneously contain in the three cultivars, and each bar represents a superior gene. Chr., Chromosome.

Fig. 5. Superior genes for Quanyousimiao (QYSM) aggregated from Quan 9311A and Wushansimiao (WSSM). The unique genes in Quan 9311A and WSSM are represented by blue and yellow bars, respectively. Purple bar indicates superior genes simultaneously contain in the three cultivars, and each bar represents a superior gene. Chr., Chromosome.

Table 2. Phenotypes of plot yield, blast resistance, bacterial blight resistance, planthopper resistance, and grain quality of Quanyousimiao and control cultivars.
Ecological growing region Cultivar Plot yield (kg) Blast resistance Bacterial blight resistance White backed planthopper resistance Brown planthopper resistance Grain quality
Early-season indica in South China Quanyousimiao 10.77 ± 0.29 3.8 7 7 / II
Tianyouhuazhan 10.49 ± 0.12 4.1 7 7 / NO
Late-season indica in South China Quanyousimiao 9.35 ± 0.19* 3.3* 7 9 / II
Boyou 998 8.95 ± 0.10 7.1 7 9 / NO
Mid-season indica in the upper reaches of the Yangtze River Quanyousimiao 12.75 ± 0.15 3.3* / / 7 II
F-You 498 12.55 ± 0.24 8.2 / / 9 NO
Mid-season indica in the middle and lower reaches of the Yangtze River Quanyousimiao 12.71 ± 0.04*** 3.1*** 5 / 7 III
Fengliangyou 4 11.75 ± 0.15 7.2 9 / 9 NO

Table 2. Phenotypes of plot yield, blast resistance, bacterial blight resistance, planthopper resistance, and grain quality of Quanyousimiao and control cultivars.

Ecological growing region Cultivar Plot yield (kg) Blast resistance Bacterial blight resistance White backed planthopper resistance Brown planthopper resistance Grain quality
Early-season indica in South China Quanyousimiao 10.77 ± 0.29 3.8 7 7 / II
Tianyouhuazhan 10.49 ± 0.12 4.1 7 7 / NO
Late-season indica in South China Quanyousimiao 9.35 ± 0.19* 3.3* 7 9 / II
Boyou 998 8.95 ± 0.10 7.1 7 9 / NO
Mid-season indica in the upper reaches of the Yangtze River Quanyousimiao 12.75 ± 0.15 3.3* / / 7 II
F-You 498 12.55 ± 0.24 8.2 / / 9 NO
Mid-season indica in the middle and lower reaches of the Yangtze River Quanyousimiao 12.71 ± 0.04*** 3.1*** 5 / 7 III
Fengliangyou 4 11.75 ± 0.15 7.2 9 / 9 NO

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