Combining Ability Analysis in Linseed (Linum usitatissimum L.) for Improvement of Seed Yield, Oil & Quality Component Traits

International Journal of Agriculture & Environmental Science
© 2022 by SSRG - IJAES Journal
Volume 9 Issue 3
Year of Publication : 2022
Authors : Achila Singh, NaliniTewari, Jagdish Kumar, Sanjay Kumar
pdf
How to Cite?

Achila Singh, NaliniTewari, Jagdish Kumar, Sanjay Kumar, "Combining Ability Analysis in Linseed (Linum usitatissimum L.) for Improvement of Seed Yield, Oil & Quality Component Traits," SSRG International Journal of Agriculture & Environmental Science, vol. 9,  no. 3, pp. 1-9, 2022. Crossref, https://doi.org/10.14445/23942568/IJAES-V9I3P101

Abstract:

The present study deals with the development scope of linseed lines for industrial and edible purposes by estimating oil and its quality traits; for this, a combining ability study was carried out for seed yield, oil, and quality traits in a diallel set of eleven parents and their 55 F1 s. The analysis of variance revealed that the parents and hybrids included in the investigation exhibited significant differences between treatments for all the characters, indicating a considerable amount of variability among the genotypes. The ratio of gca variance to that of sca variance was less than unity for almost all the traits except omega-6, suggesting that these traits were governed by non-additive gene action. T 397 proved to be the best general combiner for seed yield per plant, Shubhra for oil content and iodine value omega-6 and omega-3 in the positive direction, Gaurav for omega-6 content, oil content and omega-3 in the negative direction, LC 185 for iodine value, palmitic acid, oleic acid, the protein content of seed and omega-3 in the positive direction, N.P. 22 for palmitic acid, oleic acid and omega -3 in the negative direction. In sca effects, the crosses Sweta × T 397 for seed yield per plant, oil content, and omega-3 in the negative direction, R-17× 1/76 for oil content, T 397 × Gaurav and N3 × T 397 for omega-3 in the negative direction. Gaurav × LC 185 for oil content, iodine value, and omega 3 in the positive direction, EC 41498 × 1/76 for plamitic acid, stearic acid, omega 6, and omega 3 in the negative direction, R 17 × EC 41498 and Shubhra NP22 for omega 3 in the positive direction and Sweta × LC 185 for omega 3 in negative direction were found promising.

Keywords:

Combining ability, Gene action, Hybrid, Linseed, Oil content.

References:

[1] Annonymous, Annual Report of Linseed, I.C.A.R. - Indian Institute of Oilseeds Research, Rajendra Nagar, Hyderabad. (2021) 5.
[2] Banerjee P.P and Cole P.C, Combining Ability Analysis for Seed Yield and Some of its Component Characters in Sesame, 
indicam L. Int.J. Plant Breeding and Genetics. 3(1) (2009) 11-21
[3] Chen J, Wang L, and Thomson L.U, Flaxseed and its Components Reduce Metastatis after Surgical Excision of Solid Human 
Breast Tumor in Nude Mice, Cancer Letters. 234(2) (2006) 168-175.
[4] Comstock R.E, and Robinson H.F, The Components of Genetic Variance in the Population of Biparental Progenies and their Use in 
Estimating the Degree of Dominance, Biometrics. 4 (1948) 254-266.
[5] Coskuner Y, and Karababa E, Some Physical Properties of Flaxseed Linum Usitatissimum L. Journal of Food Engineering. 78
(2007) 1067-1073.
[6] Ganorkar P. M, and Jain R.K, Flaxseed - A Nutritional Punch, International Food Research Journal. 20(2) (2013) 519-525.
[7] Griffings B, Concept of General and Specific Combining Ability Cross Concerning Diallel Crossing Systems, Aust. J. Bio Sci. 9
(1956) 463-493.
[8] Hongzhi Y, Zhihuai M, and Hequn T, Determination and Removal Methods of Cyanogenic Glucoside in Flaxseed, ASAE/CSAE 
Meeting Presentation. (2004) 04066.
[9] Hussain S, Anjum F.M, Butt M.S, and Sheikh M.A, Chemical Compositions and Functional Properties of Flaxseed Flour, Sarhad 
Journal of Agriculture. 24(4) (2008) 649-653.
[10] Ilker E, Tonk F.A, Tosun M, Altinbas M, and Kucukakca M, Inheritance and Combining Ability in Some Powdery Mildew 
Resistant Wheat Lines, Crop Breeding and Applied Biotechnology. 9 (2009) 124-131.
[11] Jamieson G.R, and Reid E.H, J. Chromatog. 17 (1965) 230
[12] Janson M.F, A Diallel Selective Mating System for Cereal Breeding, Crop Sci. 10 (1970) 626-635.
[13] Kaur P, Waghmare R, Kumar V, Rasane P, Kaur S, and Gat Y, Recent Advances in Utilization of Flaxseed as a Potential Source for 
Value Addition, Oilseeds and Fats, Crops and Lipids. 25(3) (2018) A304.
[14] Kumari K, and Rao S.S, Genetic Divergence in Linseed Linum Usitatissimum L, Mysore Journal of Agricultural Sciences. 42(1) 
(2008)15-19.
[15] Langham D.C, The High × Low Method of Improvement, Crop Sci. 1 (1961) 376-378.
[16] Payne T.J, Promoting Better Health with Flaxseed in Bread Cereal Foods World. 45 (2000) 102-104.
[17] Singh N, Chandrawati Kumar R, Kumar S, and Yadav H.K, Study on Genetic Combining Ability Estimates for Yield and Related 
Traits in Linseed (Linum Usitatissiumum L.) Australian Journal of Crop Science. 10(11) (2016) 1594-1600
[18] Sneep J, Selection for Yield in Early Generations of Self-Fertilizing Crops, Euphytica. 26 (1977) 27-30.
[19] Sood Salej, Kalia N.R, Bhateria S. Kumar and Sanjeev, Detection of Genetic Components of Variation for Some Biometrical Traits 
in Linseed (Linum Usitatissimum L.), in Sub-Mountain Himalaya Region, Euphytica. 155(1-2) (2011) 107-11.
[20] Thompon L.U, Chen J.M, Li T, Strssser-Weippl K, and Gross P.E, Dietary Flaxseed Alters Tumor Biological Markers in 
Postmenopausal Breast Cancer, Clinical Cancer Research. 11(10) (2005) 3828- 35.
[21] Walsh R.J, Linseed Oil Protection for New York State Thruway Bridges, Civil Engineering. (1965) 39-41.