Chin Bull Bot ›› 2019, Vol. 54 ›› Issue (5): 662-673.doi: 10.11983/CBB19100

• SPECIAL TOPICS • Previous Articles     Next Articles

Advances in the Mechanism Underlying Plant Response to Stress Combination

Guo Qianqian,Zhou Wenbin()   

  1. Institute of Crop Sciences, Chinese Academy of Agricultural Sciences, Beijing 100081, China
  • Received:2019-05-28 Accepted:2019-08-09 Online:2020-03-10 Published:2019-09-01
  • Contact: Zhou Wenbin E-mail:zhouwenbin@caas.cn

Abstract:

Under field conditions, biotic and abiotic stresses usually occur simultaneously, and threaten global food security. Uncovering the mechanisms underlying plant response to combinations of two or more stress conditions holds the potential to breed new crop varieties with enhanced stress tolerance. Recent studies have revealed that the response of plants to stress combinations is unique and cannot be directly extrapolated from the response of plants to each of the different stresses. The responses of plants to different combined stresses might integrate with different signaling pathways at multiple levels, including defence responses, transcription factors, hormone signaling and osmolyte biosynthesis. Here, we review the molecular and physiological responses and adaptations of plants to different stress combinations, and provide an update on multi-omics approaches to study combined stresses.

Key words: stress combinations, environmental stress, plant growth and development, yield, omics

Figure 1

Cross-talk network in ABA-dependent and ABA-independent pathways during abiotic stress (drought, salinity and low temperature) (modified from Roychoudhury et al., 2013)"

Table 1

Interactions of combined stresses"

联合胁迫类型 植物 文献
负向相互作用 干旱+盐 大麦(Hordeum vulgare) Ahmed et al., 2013
干旱+热 小麦(Triticum aestivum), 大麦, 烟草(Nicotiana tabacum), 拟南芥(Arabidopsis thaliana), 高粱(Sorghum bicolor), 高羊茅(Festuca arundinacea), 棉花(Gossypium spp.), 柑橘(Citrus reticulata) Craufurd and Peacock, 1993; Jiang and Huang, 2001; Rizhsky et al., 2002, 2004; Prasad et al., 2011; Vile et al., 2012
干旱+冷害 甘蔗(Saccharum officinarum) Sales et al., 2013
干旱+UV辐射 拟南芥, 白三叶(Trifolium repens), 云杉(Picea asperata), 油菜(Brassica napus),
柳树(Salix babylonica), 杨树(Populus)
Hofmann et al., 2003; Poulson et al., 2006; Turtola et al., 2006; Sangtarash et al., 2009; Duan et al., 2011; Bandurska et al., 2013
干旱+高光 拟南芥 Giraud et al., 2008
干旱+重金属 红枫(Acer rubrum) de Silva et al., 2012
盐+高温 小麦 Keleş and Öncel, 2002; Wen et al., 2005
盐+臭氧 欧洲白桦(Betula pendula), 鹰嘴豆(Cicer arietinum) Welfare et al., 2002; Kasurinen et al., 2012
高温+臭氧 欧洲白桦, 杨树 Hartikainen et al., 2009; Kasurinen et al., 2012
高温+UV辐射 西芹(Apium graveolens) Walter, 1989
高温+高光 向日葵(Helianthus annuus) Hewezi et al., 2008; Mittler and Blumwald, 2010
冷害+高光 盐藻(Populus tremula) Haghjou et al., 2009
UV辐射+重金属 豌豆(Pisum sativum) Srivastava et al., 2012
正向相互作用 干旱+臭氧 苜蓿(Medicago truncatula), 欧洲白桦, 欧洲山毛榉(Fagus sylvatica) Pääkkönen et al., 1998; Löw et al., 2006; Iyer et al., 2013
干旱+高CO2 高粱 Ottman et al., 2001; Brouder and Volenec, 2008
盐+高温 番茄(Solanum lycopersicon) Rivero et al., 2014
盐+高CO2 莴苣(Lactuca sativa) Pérez-López et al., 2013
盐+硼 玉米(Zea mays) Martínez-Ballesta et al., 2008
臭氧+高CO2 大豆(Glycine max) Booker and Fiscus, 2005; Ainsworth et al., 2008
高CO2+高光 莴苣 Pérez-López et al., 2013
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