通过利用突变育种增强对气候变化的适应能力,改善可持续棉花生产。

M. Hussain, L. Jankuloski, M. Habib-ur-Rahman, M. Malek, M. Islam, M. R. Raheemi, Jawdat Dana, K. M. Lwin, F. Ahmad, M. Rizwan, Ghulam Mohyuddintalha, M. Asif, S. Ali
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引用次数: 0

摘要

棉花是一种主要的商业纤维作物,在中国、印度和巴基斯坦这三个主要棉花生产国,棉花的种植面积达2050万公顷。这些国家在每公顷产量方面存在很大差异,而气候条件的变化,即较高的温度和降雨量的显著季节性和区域性波动,正在加剧这种差异。巴基斯坦是受气候变化影响最严重的国家之一。在2013-2014年(40-50%的果实流产)和2016-2017年(33%的果实流产)的生长季节,极端高温对巴基斯坦棉花造成的灾难性影响非常突出,这对巴基斯坦以棉花为基础的经济构成了惊人的威胁。最常见的棉花品种对极端高温胁迫的适应性差被认为是巴基斯坦棉花产量急剧下降的主要因素。巴基斯坦Faisalabad的农业与生物核研究所(NIAB)利用诱变育种的方法,已经证明了它在培育棉花突变体方面的能力,这些突变体能够耐受变化的气候条件,并在不同的环境下保持高产。本文报道了与FH-142和FH-Lalazar相关的耐高温棉花突变体NIAB-878、NIAB-545、NIAB-1048、NIAB-444、NIAB-1089、NIAB-1064、NIAB-1042的物候和生理性状研究结果。NIAB-878在高温条件下保持了最高的花药开裂率(82%)和最低的细胞损伤率(39%),最大的气孔导度(27.7 mmol CO2/m2/s)、蒸腾速率(6.89 μmol H2O/m2/s)、净光合速率(44.6 mmol CO2/m2/s)和生理水分利用效率(6.81 mmol CO2/μmol H2O)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Improving sustainable cotton production through enhanced resilience to climate change using mutation breeding.
Abstract Cotton, being a leading commercial fibre crop, is grown on 20.5 million hectares in three major cotton-producing countries: China, India and Pakistan. Wide differences in yield per hectare exist among these countries and these are being aggravated by changing climate conditions, i.e. higher temperatures and significant seasonal and regional fluctuation in rainfall. Pakistan is one of the countries most affected by climate change. The disastrous effects of extreme periods of heat stress in cotton were very prominent in Pakistan during the growing seasons 2013-2014 (40-50% fruit abortion) and 2016-2017 (33% shortfall), which posed an alarming threat to the cotton-based economy of Pakistan. Poor resilience of the most commonly grown cotton varieties against extreme periods of heat stress are considered to be major factors for this drastic downfall in cotton production in Pakistan. Using the approach of induced mutation breeding, the Nuclear Institute for Agriculture and Biology (NIAB), Faisalabad, Pakistan, has demonstrated its capabilities in developing cotton mutants that can tolerate the changed climatic conditions and sustain high yields under contrasting environments. The results of studies on the phenological and physiological traits conferring heat tolerance are presented here for thermo-tolerant cotton mutants (NIAB-878, NIAB-545, NIAB-1048, NIAB-444, NIAB-1089, NIAB-1064, NIAB-1042) relative to FH-142 and FH-Lalazar. NIAB-878 excelled in heat tolerance by maintaining the highest anther dehiscence (82%) and minimum cell injury percentage (39%) along with maximum stomatal conductance (27.7 mmol CO2/m2/s), transpiration rate (6.89 μmol H2O/m2/s), net photosynthetic rate (44.6 mmol CO2/m2/s) and physiological water use efficiency (6.81 mmol CO2/μmol H2O) under the prevailing high temperatures.
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