作物学报 ›› 2014, Vol. 40 ›› Issue (02): 362-368.doi: 10.3724/SP.J.1006.2014.00362
萨如拉1,刘景辉1,*,刘伟1,白健慧1,王占海2
SA Ru-La1,LIU Jing-Hui1,*,LIU Wei1,BAI Jian-Hui1,WANG Zhan-Hai2
摘要:
以耐碱性燕麦品种Vao-9和碱敏感性品种白燕5号为试验材料,采用盆栽法,用25、50、75、100 mmol L-1碱浓度(Na2CO3和NaHCO3按摩尔比1∶1混合)进行短期(14 d)和长期(28 d)胁迫处理,观测两品种根、茎、叶中Na+、K+、Ca2+、Mg2+吸收及分配特点,并从离子平衡吸收与分配角度,探讨燕麦对碱胁迫的生理适应机制。胁迫处理14 d后,燕麦体内Na+增加,K+下降,Ca2+和Mg2+变化不大,且两品种间各器官中4种离子的分配比例差异不显著。胁迫处理28 d后,两品种各器官中Na+增幅较大,K+、Ca2+和Mg2+降幅较大。Vao-9植株体内Na+、Ca2+含量大于白燕5号,但K+、Mg2+含量与白燕5号无显著差异,但两品种间各器官中4种离子的分配特点不同;当胁迫浓度达到100 mmol L-1时,与白燕5号相比,Vao-9叶片中少分配5.9个百分点Na+,多分配13.5个百分点K+、28.9Ca2+、10.9Mg2+,茎中多分配5.4个百分点Na+,少分配9.8个百分点K+,根中少分配28.9个百分点Ca2+、10.9Mg2+,因而Vao-9叶片中Na+ /K+、Na+ /Ca2+、Na+ /Mg2+值较白燕5号低。可见,燕麦通过提高阳离子选择吸收及器官分配能力以适应碱胁迫。
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