Transgenic tobacco with a reduced catalase activity develops necrotic lesions and induces pathogenesis-related expression under high light

被引:164
作者
Chamnongpol, S
Willekens, H
Langebartels, C
VanMontagu, M
Inze, D
VanCamp, W
机构
[1] STATE UNIV GHENT VIB, DEPT GENET, GENET LAB, B-9000 GHENT, BELGIUM
[2] GSF FORSCHUNGSZENTRUM UNWELT & GESUNDHEIT, INST BIOCHEM PFLANZENPATHOL, D-85764 OBERSCHLEISSHEIM, GERMANY
[3] STATE UNIV GHENT, INST NATL RECH AGRON FRANCE, LAB ASSOCIE, B-9000 GHENT, BELGIUM
关键词
D O I
10.1046/j.1365-313X.1996.10030491.x
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Transgenic tobacco deficient in either Cat1 (Cat1AS), Cat2 (Cat2AS), or both (CatGH) was generated through sense and antisense technology. Cat1AS, Cat2AS, and CatGH plants showed no visible phenotype when grown at low light (100 mu mol m(-2) sec(-1)). Under these conditions, deficiency in Cat1 and/or Cat2 did not lead to constitutive pathogenesis-related (PR-1) expression and did not potentiate PR-1 induction by exogenous salicylic acid. This demonstrates that catalase suppression per se is not a sufficient signal for PR-1 induction. In Cat1-deficient plants exposed to higher light intensities (250-1000 mu mol m(-2) sec(-1)), PR-1 expression was induced without pathogenic challenge and multiplication of Pseudomonas syringae pv, syringae was repressed. Yet, it is unlikely that Cat1 deficiency is mimicking the mode of action of salicylic acid in tobacco, because, concurrent with PR-1 induction, Cat1 deficiency at high light provoked severe leaf damage, characterized by white necrotic lesions. Taken together, these results do not support the model that catalase inactivation is the key route by which salicylic acid induces PR defense responses in healthy tissue. However, because catalase deficiency is potentially lethal to leaves, catalase inactivation by salicylic acid could be of importance in the establishment of hypersensitive responses.
引用
收藏
页码:491 / 503
页数:13
相关论文
共 55 条
[31]   XYLANASE, A NOVEL ELICITOR OF PATHOGENESIS-RELATED PROTEINS IN TOBACCO, USES A NONETHYLENE PATHWAY FOR INDUCTION [J].
LOTAN, T ;
FLUHR, R .
PLANT PHYSIOLOGY, 1990, 93 (02) :811-817
[32]   IDENTIFICATION OF COMPATIBLE AND INCOMPATIBLE INTERACTIONS BETWEEN ARABIDOPSIS-THALIANA AND XANTHOMONAS-CAMPESTRIS PV CAMPESTRIS AND CHARACTERIZATION OF THE HYPERSENSITIVE RESPONSE [J].
LUMMERZHEIM, M ;
DEOLIVEIRA, D ;
CASTRESANA, C ;
MIGUENS, FC ;
LOUZADA, E ;
ROBY, D ;
VANMONTAGU, M ;
TIMMERMAN, B .
MOLECULAR PLANT-MICROBE INTERACTIONS, 1993, 6 (05) :532-544
[33]   SALICYLIC-ACID - A LIKELY ENDOGENOUS SIGNAL IN THE RESISTANCE RESPONSE OF TOBACCO TO VIRAL-INFECTION [J].
MALAMY, J ;
CARR, JP ;
KLESSIG, DF ;
RASKIN, I .
SCIENCE, 1990, 250 (4983) :1002-1004
[34]   HOW AND WHY DO PLANTS INACTIVATE HOMOLOGOUS (TRANS)GENES [J].
MATZKE, MA ;
MATZKE, AJM .
PLANT PHYSIOLOGY, 1995, 107 (03) :679-685
[35]   ACTIVE OXYGEN SPECIES IN PLANT DEFENSE AGAINST PATHOGENS [J].
MEHDY, MC .
PLANT PHYSIOLOGY, 1994, 105 (02) :467-472
[36]   IS HYDROGEN-PEROXIDE A 2ND-MESSENGER OF SALICYLIC-ACID IN SYSTEMIC ACQUIRED-RESISTANCE [J].
NEUENSCHWANDER, U ;
VERNOOIJ, B ;
FRIEDRICH, L ;
UKNES, S ;
KESSMANN, H ;
RYALS, J .
PLANT JOURNAL, 1995, 8 (02) :227-233
[37]   2 GENES ENCODE THE 2 SUBUNITS OF COTTONSEED CATALASE [J].
NI, WT ;
TRELEASE, RN .
ARCHIVES OF BIOCHEMISTRY AND BIOPHYSICS, 1991, 289 (02) :237-243
[38]   CHARACTERIZATION OF A PATHOGEN-INDUCED POTATO CATALASE AND ITS SYSTEMIC EXPRESSION UPON NEMATODE AND BACTERIAL-INFECTION [J].
NIEBEL, A ;
HEUNGENS, K ;
BARTHELS, N ;
INZE, D ;
VANMONTAGU, M ;
GHEYSEN, G .
MOLECULAR PLANT-MICROBE INTERACTIONS, 1995, 8 (03) :371-378
[39]   Evidence against specific binding of salicylic acid to plant catalase [J].
Ruffer, M ;
Steipe, B ;
Zenk, MH .
FEBS LETTERS, 1995, 377 (02) :175-180
[40]   CAT-3, A 3RD GENE LOCUS CODING FOR A TISSUE-SPECIFIC CATALASE IN MAIZE - GENETICS, INTRACELLULAR LOCATION, AND SOME BIOCHEMICAL-PROPERTIES [J].
SCANDALIOS, JG ;
TONG, WF ;
ROUPAKIAS, DG .
MOLECULAR & GENERAL GENETICS, 1980, 179 (01) :33-41