BIO-AGRONOMIC CHARACTERISTICS OF PROMISING RICE LINES DERIVED FROM A CROSS BETWEEN ASOMINORI JAPONICA AND IR24 INDICA AT THREE DIFFERENT LOCATIONS

Date Received: 26-03-2018

Date Accepted: 27-08-2018

Date Published: 06-08-2025

##submissions.doi##: https://doi.org/10.31817/tckhnnvn.2018.16.8.

Views

21

Downloads

9

Issue: Vol. 16 No. 8 (2018)

Section:

NÔNG HỌC

How to Cite:

Hanh, N., Hoan, N., & Cuong, P. (2025). BIO-AGRONOMIC CHARACTERISTICS OF PROMISING RICE LINES DERIVED FROM A CROSS BETWEEN ASOMINORI JAPONICA AND IR24 INDICA AT THREE DIFFERENT LOCATIONS. Vietnam Journal of Agricultural Sciences, 16(8). https://doi.org/10.31817/tckhnnvn.2018.16.8.

BIO-AGRONOMIC CHARACTERISTICS OF PROMISING RICE LINES DERIVED FROM A CROSS BETWEEN ASOMINORI JAPONICA AND IR24 INDICA AT THREE DIFFERENT LOCATIONS

Nguyen Hong Hanh (*) 1 , Nguyen Van Hoan 2 , Pham Van Cuong 3, 2

  • Tác giả liên hệ: [email protected]
  • 1 NCS Khoa Nông học, Học viện Nông nghiệp Việt Nam
  • 2 Center of International Plant Research Vietnam and Japan, Hanoi 131000, Vietnam
  • 3 Facuty of Agronomy, Vietnam National University of Agriculture, Hanoi 131000, Vietnam

    • Keywords

    Chromosome segment substitution line, crop growth rate, spikelet number, grain yield

    Abstract


    Field experiments were conducted to evaluate the adaptability of four promising rice lines, viz. IAS5, IAS37, IAS63, and DCG66, in both the Spring and Summer seasons of 2017 in Son La, Hanoi and Nghe An. The results showed that the growth durations of the lines varied depending on the growing areas. In each region, the growth durations of the IAS lines were shorter than that of IR24 variety, but only DCG66 had a short growth duration. The plant heights of the lines were equivalent to that of IR24, except for DCG66 which had significantly taller plants. The flag leaf lengths of the lines in the Summer were longer than in the Spring, but the flag leaf widths did not differ between seasons. Grain yields of the lines in the Spring season were higher than in the Summer season. The average grain yields of the IAS lines were not significantly different compared to those of IR24 across locations, but the grain yield of DCG66 was 13.6-33.5% and 15.9-34.7% higher than that of IR24 across three locations in Spring and Summer season, respectively. There were significant differences in the grain size of the studied lines, and among those only IAS63 was classified as having a long grain size. The amylose contents of the lines were around 24.2-30.5%, and thus the lines were classified as belonging to the hard rice group. Overall, the results showed that all the lines were able to adapt across the three locations, and DCG66 could be a new source of genes for breeding programs involving rice varieties with a short growth duration and large panicles.

    References

    Bo N. V. (2016). Rice production development in the context of climate change and intergrationin Vietnam. The 2nd National Workshop on Crop Science, Vietnam Academy of Agricultural Sciences. pp. 38-49 (in Vietnamsese).

    CuongP. V., DienD. C, Tuan T. A and Hanh T.T. (2015). Evaluation on drought tolerance of rice lines with Indicagenetic bacgroundcarrying chromosome segment substitution from wild rice or japonica. Journal of Science and Development. Vol 13 (2).pp.166-172.

    DoiK., Izawa T., Fuse T., Yamanouchi U., Kubo T., ShimataniZ., Yano M. and Yoshimura A. (2004). Ehd1, a B-type response regulator in rice, confers short-day promotion of flowering and controls FT-like gene expression independently of Hd1. Genes Development. Vol 18. pp. 926-936.

    DingkuhnM., LuquetD, Kim H., Tambour L. and Clement-Vidal A. (2006). EcoMeristem, a model of morphogenesis and competition among sinks in rice. 2. Simulating genotype responses to phosphorus deficiency.Functional Plant Biology. Vol 33. pp. 325-337.

    DingkuhnM., LuquetD., Kim H., Tambour L. and Clement-Vidal A. (2006). EcoMeristem, a model of morphogenesis and competition among sinks in rice. 2. Simulating genotype responses to phosphorus deficiency. Functional Plant Biology. Vol 33. pp. 325-337.

    Endo T., Yamaguchi M. and Kaji R. (2012). Close linkage of a blast resistance gene, Pias (t), with a bacterial leaf blight resistance gene, Xa1-as (t), in a rice cultivar ‘Asominori’. Breeding Science. Vol 62. pp. 334-339.

    Hao W., Zhu M. Z., Gao J. P., Sun S. Y. and Lin H. X. (2009). Identification of quantitative trait loci for rice quality in a population of chromosome segment substitution lines. Journal of Integrative Plant Biology. Vol 51. pp. 500-512.

    Hanh N. H, Hoan N. V and Cuong P. V. (2017). Survey rice lines harbouring chromosome segment substitution lines cross two sub-species Indica and Japonica. Vietnam Journal of Agriculture and Rural Development. Vol 20 (323). pp. 29-35 (in Vietnamese with English abstract).

    Hanh T. T, Hien N. T, Dien D. C, Huong D. T, Quang V. H and Cuong P. V. (2014). Photosynthesis, dry matter accumucation and grain yield of a short growth duration rice line DCG66 under different nitrogen levels and transplanting densities. Journal of Science and Development. Vol. 12 (2). pp. 146-158.

    Horie T., Lubis I. and Takai T. (2003). Physiological traits associated with high yield potential in rice. In: Rice science: innovations and impact for livelihood. Los Banos, Philippines: IRRI. pp. 117-145.

    Huang M., Zou Y-B., Jiang P., Bing X., Md I. and Ao H-J. (2011). Relationship between grain yield and yield components in super hybrid rice. Agricultural Sciences in China. Vol 10. pp. 1537-1544.

    Ibrahim M., Peng S. B., Tang Q. Y., Huang M., Jiang P. and Zou Y. B. (2013). Comparisons of yield and growth behaviors of hybrid rice under different nitrogen management methods in tropical and subtropical environments. Journal of Integrative Agriculture. Vol 12. pp. 621-629.

    Kubo T., Aida Y., Nakamura K., Tsunematsu H., Doi K., Yoshimura A. (2002). Reciprocal Chromosome Segment Substitution Series Derived from Japonica and Indica Cross of Rice (Oryza sativaL.). Breeding Science. Vol 52. pp. 319-325.

    Loc N. V., Hanh T. T. and Cuong P. V. (2014). Effect off cold stress at gerination stage on the growth off selected rice lines developed from the cross between Indica IR24 and Japonica Asominori. Journal of Science and Development. Vol 12 (4). pp. 477-484.

    Messina C., Hammer G., Dong Z., Podlich D. and Cooper M. (2009). Modelling crop improvement in a G× E× M framework via gene-trait-phenotype relationships. In: Crop physiology: interfacing with genetic improvement and agronomy. The Netherlands: Elsevier. pp. 235-265.

    Mien N. T. (2015). Developmet of rice production in Vietnam in the context of climate change. Retrieved at http://lyluanchinhtri.vn/ home/ index.php/thuc-tien/item/995-phat-trien-san-xuat-lua-gao-o-viet-nam-trong-dieu-kien-bien-doi-khi-hau.html (in Vienamese).

    Quang V. H, Hien V. T. T, Hoan N. V and Cuong P. V. (2014). Estimation of agronomical characters of DCG66 line selecte from chromosome segment substitution lines (CSSLs) of genetic background IR24 (indica) and Asominori (japonica). Science and Technology Journal of Agriculture and Rural Development. Vol 245. pp. 3-7.

    Takai T., Matsuura S., Nishio T., Ohsumi A., Shiraiwa T. and Horie T. (2006). Rice yield potential is closely related to crop growth rate during late reproductive period. Field Crops Research. Vol 96. pp. 328-335.

    The Ministry of Agriculture and Rural Development( MARD) (2011). National technical regulation on testing for value of cultivation and use of rice variety. QCVN 01-55: 2011/BNNPTNT.

    The Ministry of Agriculture and Rural Development (MARD) (2008). National technical regulation TCVN 5716-1:2008 (ISO 6647 - 1: 2007) Rice - Determination of amylose content.

    Xue Y., Wan J. and Jiang L. (2006). Identification of quantitative trait loci associated with aluminum tolerance in rice (Oryza sativaL.). Euphytica. Vol 150. pp. 37-45.

    Wei X., Xu J., Guo H., Jiang L., Chen S., Yu C., Zhou Z., Hu P., Zhai H. and Wan J. (2010). DTH8 suppresses flowering in rice, influencing plant height and yield potential simultaneously. Plant Physiology. Vol 153. pp. 1747-1758.

    Yoshida S. (1981). Fundamentals of rice crop science. IRRI, Los Banos, Philippines.

    Yu B., Lin Z., Li H., Li X., Li J., Wang Y., Zhang X., Zhu Z., Zhai W and Wang X. (2007). TAC1, a major quantitative trait locus controlling tiller angle in rice. The Plant Journal. Vol 52. pp.891-898.