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不同印度气候条件下大粒型扁豆的适应性反应。

Adaptive responses of large-seeded lentils across diverse Indian climates.

作者信息

Parihar Ashok Kumar, Hazra Kali Krishna, Lamichaney Amrit, Gupta Debjyoti Sen, Kumar Jitendra, Singh Anil Kumar, Das Sankar Prasad, Jeberson Muniyandi Samuel, Sofi Parvez Ahmad, Lone Ajaz Ahmad, Dev Jai, Kumar Ashok, Panwar Ravindra Kumar, Singh Sarvjeet, Dikshit Harsh Kumar, Aski Murlidhar, Jamwal Bimal Singh, Prakash Ved, Punia Sumer Singh, Singh Khajan, Nair Sunil Kumar, Parikh Mangala, Tiwari Smita, Saxena Ashok Kumar, Mishra Sudhakar Prasad, Kumar Hitesh, Kumar Umesh, Singh Deepak, Gupta Sanjeev, Tripathi Shailesh, Dixit Girish Prasad

机构信息

ICAR-Indian Institute of Pulses Research, Kanpur, 208024, Uttar Pradesh, India.

ICAR Research Complex for North Eastern Hilly Region, Agartala, 799210, Tripura, India.

出版信息

Heliyon. 2025 Jan 23;11(3):e42184. doi: 10.1016/j.heliyon.2025.e42184. eCollection 2025 Feb 15.

DOI:10.1016/j.heliyon.2025.e42184
PMID:39944339
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11815681/
Abstract

A comprehensive understanding of crop responses to diverse environments is essential for designing efficient breeding programs. Currently, such insights are lacking for large-seeded lentils under Indian climatic conditions. Given that, this study aimed to assess the impacts of diverse climatic conditions on phenological developments and yield of large-seeded lentils. This study also aimed to determine genotype-by-environment interaction (GEI), identify mega-environments, and determine ideal testing locations to enhance the efficiency of national breeding programs. For this, diverse sets of large-seeded lentil genotypes were tested across multiple locations spanning three agroclimatic zones of India: North Hill Zone (NHZ), North Western Plain Zone (NWPZ), and Central Zone (CZ). Substantial variability was observed in days to flowering (53-147 days), maturity duration (87-200 days), reproductive period (33-65 days), grain yield (0.77-2.18 t ha), and 100-seed weight (2.3-4.5 g) across locations. Environment factors were the dominant contributor to the yield variability (58 %), followed by GEI (28 %), with minimal genotypic effect (8 %). The CZ exhibited higher mean yields (1.47 t ha) with minimal intra-zonal variations, while NHZ had a lower mean yield (1.04 t ha). Low-temperature conditions, particularly lower maximum temperatures during the flowering and reproductive periods (TMAX, TMAX), and low cumulative heat units were associated with reduced yields. Stepwise regression analysis identified cumulative growing degree-days during the vegetative period (GDD) in NHZ and NWPZ, and TMAX in CZ, as the important yield-determining factors. Extended vegetative and maturity duration negatively impacted the grain yield, whereas a significant positive correlation was observed between the reproductive period and 100-seed weight (r = +0.347,  < 0.001). Grain yield exhibited a quadratic response to 100-seed weight, with the highest yields achieved at an optimal seed weight of 3.12 g. The GGE biplot "Which Won Where" analysis identified two distinct mega-environments, with Durgapura (NWPZ), Sagar (CZ), Pantnagar (NWPZ), and Gurdaspur (NWPZ) emerged as 'ideal' testing sites with high representativeness and discriminatory scaling. The findings underscore the significant influence of environmental factors on large-seeded lentil productivity emphasizing the need for a region-specific breeding approaches at the mega-environment scale. Additionally, the study highlights the importance of focusing on stable phenology (photo-thermo insensitivity) and seed traits for broader adaptability and yield stability.

摘要

全面了解作物对不同环境的反应对于设计高效的育种计划至关重要。目前,在印度气候条件下,对于大粒型小扁豆缺乏这样的认识。鉴于此,本研究旨在评估不同气候条件对大粒型小扁豆物候发育和产量的影响。本研究还旨在确定基因型与环境互作(GEI),识别大环境,并确定理想的测试地点,以提高国家育种计划的效率。为此,在印度三个农业气候区的多个地点对不同的大粒型小扁豆基因型进行了测试:北山地区(NHZ)、西北平原地区(NWPZ)和中部地区(CZ)。在不同地点观察到开花天数(53 - 147天)、成熟天数(87 - 200天)、生殖期(33 - 65天)、籽粒产量(0.77 - 2.18吨/公顷)和百粒重(2.3 - 4.5克)存在显著差异。环境因素是产量变异的主要贡献因素(58%),其次是GEI(28%),基因型效应最小(8%)。中部地区表现出较高的平均产量(1.47吨/公顷),区内变异最小,而北山地区平均产量较低(1.04吨/公顷)。低温条件,特别是开花和生殖期较低的最高温度(TMAX,TMAX)以及较低的累积热量单位与产量降低有关。逐步回归分析确定北山地区和西北平原地区营养生长期的累积生长度日(GDD)以及中部地区的TMAX是重要的产量决定因素。营养期和成熟期延长对籽粒产量有负面影响,而生殖期与百粒重之间存在显著正相关(r = +0.347,< 0.001)。籽粒产量对百粒重呈二次响应,在最佳种子重量为3.12克时产量最高。GGE双标图“哪一个在哪里获胜”分析确定了两个不同的大环境,杜尔加布尔(NWPZ)、萨加尔(CZ)、潘特纳加尔(NWPZ)和古尔达斯布尔(NWPZ)成为具有高代表性和鉴别力的“理想”测试地点。研究结果强调了环境因素对大粒型小扁豆生产力的重大影响,强调在大环境尺度上需要采用区域特定的育种方法。此外,该研究强调了关注稳定物候(光热不敏感性)和种子性状以实现更广泛适应性和产量稳定性的重要性。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/9b5a/11815681/3b6fae6ce6de/gr7.jpg
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https://cdn.ncbi.nlm.nih.gov/pmc/blobs/9b5a/11815681/fd3853e84f5b/gr2.jpg
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