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硫化氢在果蔬贮藏保鲜中的应用及机制研究进展 被引量:3

Application and regulation of hydrogen sulfide in storage of fruits and vegetables
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摘要 硫化氢(H_(2)S)被认为是继一氧化氮(NO)和一氧化碳(CO)之后的第3种气体信号分子,近年来,研究证明H_(2)S在果蔬成熟衰老和抗病应答中具有重要的调控作用。结合最新的研究成果和课题组的研究工作,总结了H_(2)S在果蔬贮藏保鲜上的应用,以及从呼吸与能量代谢、乙烯调控、活性氧代谢、细胞壁降解、信号分子互作以及蛋白质翻译后修饰等方面概述了其可能的作用机制,并展望了H_(2)S在调控果蔬成熟衰老机制上的研究方向,为H_(2)S在果蔬贮藏保鲜上的应用提供理论依据。 In recent years,hydrogen sulfide(H_(2)S),as an emerging endogenous gas signal molecule after nitric oxide(NO)and carbon monoxide(CO),has attracted more and more attention of researchers.In people’s traditional concept,H_(2)S is a colorless,highly corrosive gas with the smell of rotten eggs.However,researchers found that low concentrations of H_(2)S have a positive effect in cells,studies have shown that H_(2)S has the functions of inducing seed germination,promoting the growth and development of roots,stems,leaves and other organs,and enhancing resistance to biotic and abiotic stresses.In recent years,there have been many researches on the preservation and disease resistance of fruits and vegetables,which started with Hu’s research on strawberries in 2012,and then applied to various fruits and vegetables,and attracted wide attention from scholars in postharvest physiology of fruits and vegetables.As a signal molecule,the application concentration of exogenous H_(2)S is very low,so the treated fruit and vegetable products are safe.Some studies have shown that the exogenous H_(2)S treatment plays a positive role in the preservation of postharvest fruits and vegetables like kiwifruit,mulberry,banana,sweet cherry,hawthorn fruit,strawberry,litchi,broccoli,daylily flower,pak choy,sweet potato,pear,lotus root,apple and so on.During postharvest storage,fruits and vegetables will be affected by fruit softening,decay,and pathogen infection,which will lead to the decline of fruit quality and shortening of shelf life.The latest research showed that H_(2)S treatment could significantly delay fruit ripening and senescence.The quality of postharvest fruits and vegetables is reflected by color,firmness,soluble solid content(SSC),titratable acid(TA)and vitamin C(Vc)content.Some studies have shown that exogenous H_(2)S treatment could maintain the SSC,Vc and chlorophyll content,and inhibit the decrease of firmness.From the perspective of postharvest physiology,the researchers elaborated the role of H_(2)S in the process of fruits and vegetables metabolism,and discussed the regulation mechanisms of H_(2)S on postharvest fruits and vegetables preservation from the aspects of respiration,energy metabolism,plant hormones,active oxygen system.At the same time,exogenous H_(2)S treatment could also regulate the postharvest physiology of fruits and vegetables by affecting gene expression,signal transduction and protein modification.The main enzymes related to energy metabolism are ATPase,succinate dehydrogenase(SDH)and cytochrome c oxidase(CCO).Through the regulation of these enzymes’activities,H_(2)S treatment could affect the energy metabolism of cells and delay fruit senescence.Ethylene as an important plant endogenous hormone plays important roles in a multitude of physiologic processes,including growth,development,maturation,and senescence.Studies have shown that H_(2)S treatment could inhibit ethylene biosynthesis by suppressing the gene expression of key enzymes including ACC synthase(ACS)and ACC oxidase(ACO)thus slow down the ripening and senescence of postharvest fruits and vegetables.Antioxidant system in plants could keep a delicate balance between reactive oxygen species(ROS)production and scavenging,thereby maintain ROS at a non-toxic level.Exogenous H_(2)S treatment could delay senescence of postharvest fruits and vegetables by regulating the activities of antioxidant enzymes such as superoxide dismutase(SOD),peroxidase(POD),catalase(CAT),ascorbic acid peroxidase(APX)and glutathione reductase(GR).Reduced glutathione(GSH)and ascorbic acid(AsA)are important non-enzymatic substances for scavenging ROS,which directly or indirectly quench highly active oxygen free radicals through a variety of ways.Exogenous H_(2)S treatment reduced the loss of non-enzymatic antioxidants and the damage of reactive oxygen species to postharvest fruits and vegetables.Softening is a typical characteristic of fruit ripening and senescence,so maintaining high firmness or reducing softening degree is one of the main goals to prolong the storage life of postharvest fruits and vegetables.The degradation of cell wall has a great influence on fruit ripening and softening.H_(2)S not only participates in the endogenous sulfur metabolism of plants,but also interacts with other signal molecules like Ca2+,nitric oxide(NO),carbon monoxide(CO),salicylic acid(SA)and jasmonic acid(JA).It is also related to protein sulfhydrylation modification,but the related mechanism is not clear and needs further study.In this paper,the effects of H_(2)S on the preservation and disease resistance of fruits and vegetables,as well as its regulation mechanism on the ripening and senescence of fruits and vegetables were summarized.Combined with the latest research progress at home and abroad and our own research work,the mechanism of H_(2)S regulation on the ripening and senescence of postharvest fruits and vegetables was summarized,to provide reference for further study of H_(2)S.In the future,we suggest to focus on the interaction of endogenous H_(2)S with other signal molecules on the postharvest preservation and disease prevention mechanisms of fruits and vegetables.As a relatively new field of plant metabolism,protein disulfide(Cys-SSH)needs further exploration in the metabolic pathway of postharvest fruits and vegetables.
作者 段冰 杨睿 窦媛 常春梅 杜华英 朱丽琴 陈金印 DUAN Bing;YANG Rui;DOU Yuan;CHANG Chunmei;DU Huaying;ZHU Liqin;CHEN Jin-yin(College of Food Science and Engineering,Jiangxi Agricultural Universily,Nanchang 330045,Jiangxi,China;Provincial Key Labora-tory of Refrigeration and Non-destructive Detection on Fruit and Vegetable,Nanchang 330045,Jiangxi,China;Pingxiang University,Pingxiang 337000,Jiangxi,China)
出处 《果树学报》 CAS CSCD 北大核心 2021年第6期1004-1012,共9页 Journal of Fruit Science
基金 国家自然科学基金(31560219) 江西省自然科学基金(20151BAB204029) 江西省教育厅科技计划(GJJ18020)。
关键词 果蔬 H2S 保鲜 抗病性 Fruits and vegetables H2S Preservation Disease resistance
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参考文献6

  • 1周志豪,王月,闵雄,李忠光.硫化氢信号与其它信号交互作用调控植物的耐旱性[J].生物技术通报,2017,33(6):1-9. 被引量:9
  • 2M.Ablikim,M.N.Achasov,P.Adlarson,S.Ahmed,M.Albrecht,M.Alekseev,A.Amoroso,F.F.An,Q.An,Y.Bai,O.Bakina,R.Baldini Ferroli,Y.Ban,K.Begzsuren,J.V.Bennett,N.Berger,M.Bertani,D.Bettoni,F.Bianchi,J Biernat,J.Bloms,I.Boyko,R.A.Briere,L.Calibbi,H.Cai,X.Cai,A.Calcaterra,G.F.Cao,N.Cao,S.A.Cetin,J.Chai,J.F.Chang,W.L.Chang,J.Charles,G.Chelkov,Chen,G.Chen,H.S.Chen,J.C.Chen,M.L.Chen,S.J.Chen,Y.B.Chen,H.Y.Cheng,W.Cheng,G.Cibinetto,F.Cossio,X.F.Cui,H.L.Dai,J.P.Dai,X.C.Dai,A.Dbeyssi,D.Dedovich,Z.Y.Deng,A.Denig,Denysenko,M.Destefanis,S.Descotes-Genon,F.De Mori,Y.Ding,C.Dong,J.Dong,L.Y.Dong,M.Y.Dong,Z.L.Dou,S.X.Du,S.I.Eidelman,J.Z.Fan,J.Fang,S.S.Fang,Y.Fang,R.Farinelli,L.Fava,F.Feldbauer,G.Felici,C.Q.Feng,M.Fritsch,C.D.Fu,Y.Fu,Q.Gao,X.L.Gao,Y.Gao,Y.Gao,Y.G.Gao,Z.Gao,B.Garillon,I.Garzia,E.M.Gersabeck,A.Gilman,K.Goetzen,L.Gong,W.X.Gong,W.Gradl,M.Greco,L.M.Gu,M.H.Gu,Y.T.Gu,A.Q.Guo,F.K.Guo,L.B.Guo,R.P.Guo,Y.P.Guo,A.Guskov,S.Han,X.Q.Hao,F.A.Harris,K.L.He,F.H.Heinsius,T.Held,Y.K.Heng,Y.R.Hou,Z.L.Hou,H.M.Hu,J.F.Hu,T.Hu,Y.Hu,G.S.Huang,J.S.Huang,X.T.Huang,X.Z.Huang,Z.L.Huang,N.Huesken,T.Hussain,W.Ikegami Andersson,W.Imoehl,M.Irshad,Q.Ji,Q.P.Ji,X.B.Ji,X.L.Ji,H.L.Jiang,X.S.Jiang,X.Y.Jiang,J.B.Jiao,Z.Jiao,D.P.Jin,S.Jin,Y.Jin,T.Johansson,N.Kalantar-Nayestanaki,X.S.Kang,R.Kappert,M.Kavatsyuk,B.C.Ke,I.K.Keshk,T.Khan,A.Khoukaz,P.Kiese,R.Kiuchi,R.Kliemt,L.Koch,O.B.Kolcu,B.Kopf,M.Kuemmel,M.Kuessner,A.Kupsc,M.Kurth,M.G.Kurth,W.Kuhn,J.S.Lange,P.Larin,L.Lavezzi,H.Leithoff,T.Lenz,C.Li,Cheng Li,D.M.Li,F.Li,F.Y.Li,G.Li,H.B.Li,H.J.Li,J.C.Li,J.W.Li,Ke Li,L.K.Li,Lei Li,P.L.Li,P.R.Li,Q.Y.Li,W.D.Li,W.G.Li,X.H.Li,X.L.Li,X.N.Li,X.Q.Li,Z.B.Li,H.Liang,H.Liang,Y.F.Liang,Y.T.Liang,G.R.Liao,L.Z.Liao,J.Libby,C.X.Lin,D.X.Lin,Y.J.Lin,B.Liu,B.J.Liu,C.X.Liu,D.Liu,D.Y.Liu,F.H.Liu,Fang Liu,Feng Liu,H.B.Liu,H.M.Liu,Huanhuan Liu,Huihui Liu,J.B.Liu,J.Y.Liu,K.Y.Liu,Ke Liu,Q.Liu,S.B.Liu,T.Liu,X.Liu,X.Y.Liu,Y.B.Liu,Z.A.Liu,Zhiqing Liu,Y.F.Long,X.C.Lou,H.J.Lu,J.D.Lu,J.G.Lu,Y.Lu,Y.P.Lu,C.L.Luo,M.X.Luo,P.W.Luo,T.Luo,X.L.Luo,S.Lusso,X.R.Lyu,F.C.Ma,H.L.Ma,L.L.Ma,M.M.Ma,Q.M.Ma,X.N.Ma,X.X.Ma,X.Y.Ma,Y.M.Ma,F.E.Maas,M.Maggiora,S.Maldaner,S.Malde,Q.A.Malik,A.Mangoni,Y.J.Mao,Z.P.Mao,S.Marcello,Z.X.Meng,J.G.Messchendorp,G.Mezzadri,J.Min,T.J.Min,R.E.Mitchell,X.H.Mo,Y.J.Mo,C.Morales Morales,N.Yu.Muchnoi,H.Muramatsu,A.Mustafa,S.Nakhoul,Y.Nefedov,F.Nerling,I.B.Nikolaev,Z.Ning,S.Nisar,S.L.Niu,S.L.Olsen,Q.Ouyang,S.Pacetti,Y.Pan,M.Papenbrock,P.Patteri,M.Pelizaeus,H.P.Peng,K.Peters,A.A.Petrov,J.Pettersson,J.L.Ping,R.G.Ping,A.Pitka,R.Poling,V.Prasad,M.Qi,T.Y.Qi,S.Qian,C.F.Qiao,N.Qin,X.P.Qin,X.S.Qin,Z.H.Qin,J.F.Qiu,S.Q.Qu,K.H.Rashid,C.F.Redmer,M.Richter,M.Ripka,A.Rivetti,V.Rodin,M.Rolo,G.Rong,J.L.Rosner,Ch.Rosner,M.Rump,A.Sarantsev,M.Savrie,K.Schoenning,W.Shan,X.Y.Shan,M.Shao,C.P.Shen,P.X.Shen,X.Y.Shen,H.Y.Sheng,X.Shi,X.D Shi,J.J.Song,Q.Q.Song,X.Y.Song,S.Sosio,C.Sowa,S.Spataro,F.F.Sui,G.X.Sun,J.F.Sun,L.Sun,S.S.Sun,X.H.Sun,Y.J.Sun,Y.K Sun,Y.Z.Sun,Z.J.Sun,Z.T.Sun,Y.T Tan,C.J.Tang,G.Y.Tang,X.Tang,V.Thoren,B.Tsednee,I.Uman,B.Wang,B.L.Wang,C.W.Wang,D.Y.Wang,H.H.Wang,K.Wang,L.L.Wang,L.S.Wang,M.Wang,M.Z.Wang,Wang Meng,P.L.Wang,R.M.Wang,W.P.Wang,X.Wang,X.F.Wang,X.L.Wang,Y.Wang,Y.F.Wang,Z.Wang,Z.G.Wang,Z.Y.Wang,Zongyuan Wang,T.Weber,D.H.Wei,P.Weidenkaff,H.W.Wen,S.P.Wen,U.Wiedner,G.Wilkinson,M.Wolke,L.H.Wu,L.J.Wu,Z.Wu,L.Xia,Y.Xia,S.Y.Xiao,Y.J.Xiao,Z.J.Xiao,Y.G.Xie,Y.H.Xie,T.Y.Xing,X.A.Xiong,Q.L.Xiu,G.F.Xu,L.Xu,Q.J.Xu,W.Xu,X.P.Xu,F.Yan,L.Yan,W.B.Yan,W.C.Yan,Y.H.Yan,H.J.Yang,H.X.Yang,L.Yang,R.X.Yang,S.L.Yang,Y.H.Yang,Y.X.Yang,Yifan Yang,Z.Q.Yang,M.Ye,M.H.Ye,J.H.Yin,Z.Y.You,B.X.Yu,C.X.Yu,J.S.Yu,C.Z.Yuan,X.Q.Yuan,Y.Yuan,A.Yuncu,A.A.Zafar,Y.Zeng,B.X.Zhang,B.Y.Zhang,C.C.Zhang,D.H.Zhang,H.H.Zhang,H.Y.Zhang,J.Zhang,J.L.Zhang,J.Q.Zhang,J.W.Zhang,J.Y.Zhang,J.Z.Zhang,K.Zhang,L.Zhang,S.F.Zhang,T.J.Zhang,X.Y.Zhang,Y.Zhang,Y.H.Zhang,Y.T.Zhang,Yang Zhang,Yao Zhang,Yi Zhang,Yu Zhang,Z.H.Zhang,Z.P.Zhang,Z.Q.Zhang,Z.Y.Zhang,G.Zhao,J.W.Zhao,J.Y.Zhao,J.Z.Zhao,Lei Zhao,Ling Zhao,M.G.Zhao,Q.Zhao,S.J.Zhao,T.C.Zhao,Y.B.Zhao,Z.G.Zhao,A.Zhemchugov,B.Zheng,J.P.Zheng,Y.Zheng,Y.H.Zheng,B.Zhong,L.Zhou,L.P.Zhou,Q.Zhou,X.Zhou,X.K.Zhou,Xingyu Zhou,Xiaoyu Zhou,Xu Zhou,A.N.Zhu,J.Zhu,J.Zhu,K.Zhu,K.J.Zhu,S.H.Zhu,W.J.Zhu,X.L.Zhu,Y.C.Zhu,Y.S.Zhu,Z.A.Zhu,J.Zhuang,B.S.Zou,J.H.Zou,无.Future Physics Programme of BESⅢ[J].Chinese Physics C,2020,44(4). 被引量:539
  • 3Zhang Chang,Shi Jingying,Zhu Liqin,Li Changle,Wang Qingguo.Cooperative effects of hydrogen sulfide and nitric oxide on delaying softening and decay of strawberry[J].International Journal of Agricultural and Biological Engineering,2014,7(6):114-122. 被引量:15
  • 4Huanhuan Zhi,Qiqi Liu,Yu Dong.Effects of hydrogen sulfide on storage quality, water mobility and cell wall metabolism of strawberry fruit[J].International Journal of Agricultural and Biological Engineering,2018,11(6):201-207. 被引量:3
  • 5崔文玉,许新月,张仁堂,弓志青,王文亮,王延圣.硫化氢和一氧化氮的交互作用对香蕉采后品质及抗氧化体系的影响[J].食品与发酵工业,2020,46(13):166-173. 被引量:2
  • 6陈晨,姜爱丽,刘程惠,管磬馨,孙小渊,胡文忠.硫化氢参与植物抗逆境胁迫研究进展及其在果蔬保鲜中的应用[J].核农学报,2019,33(11):2303-2309. 被引量:3

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