Nitric oxide function during oxygen deprivation in physiological and stress processes

被引:15
|
作者
Manrique-Gil, Isabel [1 ]
Sanchez-Vicente, Inmaculada [1 ]
Torres-Quezada, Isabel [1 ]
Lorenzo, Oscar [1 ]
机构
[1] Univ Salamanca, Fac Biol, Inst Hispano Luso Invest Agr CIALE, Dept Bot & Fisiol Vegetal, C Rio Duero 12, Salamanca 37185, Spain
关键词
Developmental cues; hypoxic stress; N-degron pathway; nitric oxide; oxygen; phytoglobins; END RULE PATHWAY; ROOT APICAL MERISTEM; NONSYMBIOTIC HEMOGLOBIN; HYPOXIC STRESS; SALICYLIC-ACID; ARABIDOPSIS-THALIANA; ALTERNATIVE OXIDASE; TYROSINE NITRATION; SEED-GERMINATION; ABA SENSITIVITY;
D O I
10.1093/jxb/eraa442
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Plants are aerobic organisms that have evolved to maintain specific requirements for oxygen (O-2), leading to a correct respiratory energy supply during growth and development. There are certain plant developmental cues and biotic or abiotic stress responses where O-2 is scarce. This O-2 deprivation known as hypoxia may occur in hypoxic niches of plant-specific tissues and during adverse environmental cues such as pathogen attack and flooding. In general, plants respond to hypoxia through a complex reprogramming of their molecular activities with the aim of reducing the impact of stress on their physiological and cellular homeostasis. This review focuses on the fine-tuned regulation of hypoxia triggered by a network of gaseous compounds that includes O-2, ethylene, and nitric oxide. In view of recent scientific advances, we summarize the molecular mechanisms mediated by phytoglobins and by the N-degron proteolytic pathway, focusing on embryogenesis, seed imbibition, and germination, and also specific structures, most notably root apical and shoot apical meristems. In addition, those biotic and abiotic stresses that comprise hypoxia are also highlighted.
引用
收藏
页码:904 / 916
页数:13
相关论文
共 50 条
  • [21] Nitric oxide-oxygen radical interactions in lipid oxidation processes
    Freeman, BA
    FREE RADICAL BIOLOGY AND MEDICINE, 1999, 27 : S3 - S3
  • [22] NITRIC OXIDE AND PHYSIOLOGICAL SYSTEMS
    Balon, T. W.
    Barnard, R. James
    Gow, Andrew
    Roberts, Christian
    Laughlin, Harold
    MEDICINE AND SCIENCE IN SPORTS AND EXERCISE, 2001, 33 (05): : S1 - S1
  • [23] Down-regulation of neuronal nitric oxide synthase by nitric oxide after oxygen-glucose deprivation in rat forebrain slices
    De Alba, J
    Cárdenas, A
    Moro, MA
    Leza, JC
    Lorenzo, P
    Boscá, L
    Lizasoain, I
    JOURNAL OF NEUROCHEMISTRY, 1999, 72 (01) : 248 - 254
  • [24] Physiological role of nitric oxide as an enhancer of oxygen transfer from erythrocytes to tissues
    Kosaka, H
    Seiyama, A
    BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS, 1996, 218 (03) : 749 - 752
  • [25] Physiological roles of nitric oxide
    Tiritilli, A
    PRESSE MEDICALE, 1998, 27 (21): : 1061 - 1064
  • [26] ULTRASTRUCTURAL AND PHYSIOLOGICAL OBSERVATIONS ON ISOLATED RABBIT RETINA DURING OXYGEN AND GLUCOSE DEPRIVATION
    WEBSTER, HD
    AMES, A
    JOURNAL OF NEUROPATHOLOGY AND EXPERIMENTAL NEUROLOGY, 1965, 24 (01): : 142 - &
  • [27] Metabolic disturbances in hippocampal slices of fetal guinea pigs during and after oxygen-glucose deprivation: is nitric oxide involved?
    Berger, R
    Jensen, A
    Paschen, W
    NEUROSCIENCE LETTERS, 1998, 245 (03) : 163 - 166
  • [28] Bean seeds under salt stress as a function of nitric oxide
    Maciel, Khetrin Silva
    Muniz de Lima, Paula Aparecida
    Caetano Bucker Moraes, Simone de Paiva
    Alexandre, Rodrigo Sobreira
    Lopes, Jose Carlos
    INDIAN JOURNAL OF TRADITIONAL KNOWLEDGE, 2018, 17 (04): : 795 - 801
  • [29] The diversity of nitric oxide function in plant responses to metal stress
    He, Huyi
    He, Longfei
    Gu, Minghua
    BIOMETALS, 2014, 27 (02) : 219 - 228
  • [30] Oxidant stress on neuronal nitric oxide synthase enzyme function
    Sun, J
    Druhan, LJ
    Zweier, JL
    FREE RADICAL BIOLOGY AND MEDICINE, 2005, 39 : S105 - S105