Genetic approaches for assessment of phosphorus use efficiency in groundnut (Arachis hypogaea L.)

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作者
Sai Rekha Kadirimangalam
Yashoda Jadhav
K. V. Nagamadhuri
Latha Putta
Tharanya Murugesan
Murali T. Variath
Anil Kumar Vemula
Surendra Singh Manohar
Sunil Chaudhari
Sunita Choudhary
Jana Kholova
Janila Pasupuleti
机构
[1] International Crops Research Institute for the Semi-Arid Tropics (ICRISAT),Institute of Frontier Technology
[2] Regional Agricultural Research Station,undefined
[3] Acharya N.G. Ranga Agricultural University,undefined
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Production of phosphorus efficient genotypes can reduce environmental pollution. Identification of P-efficient groundnut genotypes is a need of the hour to sustain in P-deficient soils. The pot experiment showed significant differences between genotypes (G) and treatments (T) for all the traits and G × T interaction for majority of traits. The G × T × Y interaction effects were also significant for all the traits except leaf P% (LP%), leaf acid phosphatase (LAP) and root dry weight (RDW). In lysimeter experiment, the effect of G, T and G × T were significant for leaf dry weight (LDW), stem dry weight (SDW), total transpiration (TT) and transpiration efficiency (TE). For traits, LDW, SDW, TT, TE, ICGV 00351 and ICGS 76; for SDW, TT, ICGV 02266 are best performers under both P-sufficient and deficient conditions. Based on P-efficiency indices and surrogate traits of P-uptake, ICGV’s 02266, 05155, 00308, 06040 and 06146 were considered as efficient P-responding genotypes. From GGE biplot, ICGV 06146 under P-deficient and TAG 24 under both P-sufficient and deficient conditions are portrayed as best performer. ICGV 06146 was identified as stable pod yielder and a promising genotype for P-deficient soils. The genotypes identified in this study can be used as a parent in developing mapping population to decipher the genetics and to devleop groundnut breeding lines suitable to P-deficient soils.
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