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Introduction | ||
Acknowledgements | ||
Gene Technology in the Hungarian Plant Biology Research and Crop Improvement | 1 | |
Improvement of Tolerance against Dehydration Stress in Cereals | 7 | |
Transgenic Potato Plants Carrying Truncated cDNA Copy of a Severe Strain of PSTVd | 14 | |
Modification of Sulfur Metabolism in Plants by Overexpression of Bacterial cysE and cysK Genes | 19 | |
Down Regulation of Ethylene Production in Apples | 26 | |
Elements of Biotechnology Applied to Potato Breeding at IHAR Mlochow | 26 | |
Mapping of the Wheat Genome for Genetic Diversity | 37 | |
Linkage Studies in Pisum and Lupinus Genomes | 45 | |
Use of Molecular Markers in Wheat Breeding for Disease Resistance | 52 | |
Identification of Molecular Markers Linked to Gene Resistance and Marker Assisted Introduction in Barley and Wheat | 58 | |
Identification and Mapping of Molecular Markers for Scab Resistance Genes in Apple | 61 | |
Construction of an Improved Linkage Map of Diploid Alfalfa (Medicago sativa) and Mapping Symbiotic Genes Conditioning Ineffective and Non-nodulating Phenotype | 66 | |
Application of Chromosomal Map and Gene Probes of Arabidopsis in Studies on Brassica Genomes | 70 | |
Micromanipulation of Gametic Cells of Cereals | 76 | |
Identification of Storage Protein Genes as Marker for Breadmaking Quality of Wheat | 80 | |
Crop Improvement by Transgenic Technology | 85 | |
Transformation of Carnation: Agrobacterium-mediated Transformation of Carnation with Antisense 1-aminocyclopropane-1-carboxylate Synthase (ACS) Gene | 91 | |
Field Experiments with Transgenic Maize in Hungary in 1993-1994 | 98 | |
Ten Generations of Transgenic Triticale | 103 | |
Potato Transformations | 107 | |
Transformation of Foreign Gene and Sexual Transfer of Transgene in Wheat | 112 | |
Development of a Highly Regenerable Germplasm and Genetic Transformation of Alfalfa | 117 | |
New Aspects of Breeding Crops for Disease Resistance: the Role of Antioxidants | 124 | |
Evaluation of Transgenic Cucumbers Expressing the Thaumatin Gene | 131 | |
Enhancement of Disease Resistance in Apples | 135 | |
Performance of Virus Resistant Transgenic Potatoes | 142 | |
Molecular Phylogeny as a Tool for Controlling Potato Virus Y Spread | 148 | |
Production of Herbicide Tolerant Rice by in vitro Selection | 153 | |
Current Procedures for Applying Risk Assessment in Genetically Modified Crops | 160 | |
Questions Raised During the Implementation of the Hungarian Law on Biotechnical Activities | 171 | |
Public Perception and Legislation of Biotechnology in Poland | 180 | |
Property Rights and Agricultural Biotechnology | 203 | |
Opportunities for Successful Collaboration | 216 | |
Key Participants | 238 | |
Subject Index | 243 | |
Author Index | 251 |
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Add Use of Agriculturally Important Genes in Biotechnology, During the 45 years of communist regimes in Hungary, Poland and Slovakia, agriculture was centrally directed without regard of quality factors and market needs, and was heavily subsidized. Democratization of the countries and adoption of market driven eco, Use of Agriculturally Important Genes in Biotechnology to the inventory that you are selling on WonderClubX
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Add Use of Agriculturally Important Genes in Biotechnology, During the 45 years of communist regimes in Hungary, Poland and Slovakia, agriculture was centrally directed without regard of quality factors and market needs, and was heavily subsidized. Democratization of the countries and adoption of market driven eco, Use of Agriculturally Important Genes in Biotechnology to your collection on WonderClub |