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野生大豆GsMIPS2和GsSNAP33基因在盐碱胁迫下的功能分析

Abstract in Chinese第8-10页
Abstract in English第10-12页
1 Introduction第13-26页
    1.1 The Purpose and Significance of Study第13-14页
    1.2 Literature Review第14-24页
        1.2.1 Role of Myo-inositol and Other Derivatives in Plant Growth and Development第15-17页
        1.2.2 Role of MIPS Family Genes in Biotic & Abiotic Stresses第17-18页
        1.2.3 Mutations in MIPS Protein and its Consequences第18-19页
        1.2.4 SNARE Protein Family: Structure and Housekeeping Functions第19-20页
        1.2.5 t-SNAREs Super family in Plants第20-21页
        1.2.6 Role of SNAP Proteins in Plant Growth and Development第21-24页
    1.3 Main Contents and Technical Plan.of Study第24-25页
        1.3.1 The Innovation of Study第25页
    1.4 Objectives of Work第25-26页
2 Materials and Methods第26-36页
    2.1 Materials第26-27页
        2.1.1 Plant Materials第26页
        2.1.2 Database and Software第26页
        2.1.3 Strains and Plasmids第26页
        2.1.4 Reagents第26-27页
        2.1.5 Culture Medium第27页
        2.1.6 Instruments第27页
    2.2 Methods第27-36页
        2.2.1 Genetic Screening of GsMlPS2 and GsSNAP33 Genes Based on Alkali Stress Responsive Gene Regulatory Networks第27-28页
        2.2.2 Gene Cloning and Sequence Analysis of GsMIPS2 & GsSNAP33第28-29页
        2.2.3 GsMIPS2 and GsSNAP33 Gene Expression and Characteristics Analysis under Stress conditions第29-31页
        2.2.4 Tissue Specific Expression Analysis of GsSNAP33 Gene第31页
        2.2.5 Bioinformatics Analysis of GsMlPS2 & GsSNAP33第31页
        2.2.6 Transient Expression and Protein Subcellular localization of GsSNAP33第31-33页
        2.2.7 Functional Analysis of GsMIPS2第33-34页
        2.2.8 Expression Analysis of Abiotic Stress Related Marker Genes第34-36页
3 Results第36-63页
    3.1 Functional Analysis of Wild Soybean Gene GsMJPS2 and its Physiological and Molecular Mechanisms under Salt Stress Conditions第36-49页
        3.1.1 Determination of GsMIPS2 Gene Expression Profile under Salt Stress Conditions第36-37页
        3.1.2 Sequence Analysis of GsMIPS2 Gene第37-39页
        3.1.3 Identification of the GsMIPS2 Overexpression OX and atmips2 Plants第39-40页
        3.1.4 Overexpression of GsMIPSl Conferred Increased Salt Tolerance at Various Growth Stages of Arabidopsis thaliana第40-47页
        3.1.5 GsMIPS2 Overexpression Mediated Induced Expression of Stress Responsive Genes第47-49页
    3.2 Functional Analysis of Wild Soybean Gene GsSNAP第49-52页
        3.2.1 Cloning and Sequence Analysis of GsSNAP33 Gene第49-50页
        3.2.2 Bioinformatics Analysis of GsSNAP33 Gene Family第50-52页
    3.3 Determination of GsSNAP33 Gene Expression Profile under Salt, Alkali, ABA and PEG Stress Conditions第52-56页
    3.4 Tissue Specific Expression Level Analysis of GsSNAP33 Gene in Glycine soja第56-57页
    3.5 Generation of GsSNAP33 Overexpression lines第57-60页
        3.5.1 Construction of Plant Expression Vector第57-58页
        3.5.2 Transformation of pCAMBIA2300-GsSNAP33 Construct into Arabidopsis by Floral Dip Method第58-59页
        3.5.3 Selection of GsSNAP33 Overexpressed Lines第59-60页
    3.6 Subcellular Localization Analysis of GsSNAP33 Protein第60-63页
4 Discussion第63-68页
    4.1 Diversity of GsMIPS2 and GsSNAP33 Genes in Plant Kingdom第63-64页
    4.2 GsMIPS2 Gene Expression was Identified to be Up-regulated under Salt Stress Conditions第64页
    4.3 GsMIPS2 Overexpression Confers Enhanced Salt Tolerance at Various Growth Stages of Arabidopsis thaliana第64-65页
    4.4 GsMIPS2 Overexpression Alleviate Impacts of Stress Injuries at Mature Plant Stage第65页
    4.5 GsMIPS2 Overexpression Results in Up-regulation of Various Abitic Stress-related Marker Genes第65-66页
    4.6 GsSNAP33 Gene can be Induced under Salt, Alkali, PEG and ABA Stress Conditions第66-67页
    4.7 GsSNAP33 is a Plasma Membrane Protein第67-68页
5 Conclusion第68-69页
Aknowledgement第69-70页
References第70-79页
Papers published in the period of Ph. M. eduction第79页

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