Cotton crop improvement through genetic engineering

被引:36
|
作者
John, ME
机构
[1] Agracetus, 8520 University Green, Middleton
关键词
cotton; transformation; genes; promoters; fiber traits; insect and herbicide resistance;
D O I
10.3109/07388559709146613
中图分类号
Q81 [生物工程学(生物技术)]; Q93 [微生物学];
学科分类号
071005 ; 0836 ; 090102 ; 100705 ;
摘要
Transgenic cotton carrying the insect-resistant (Bacillus thuringiensis: B.t.) gene was commercialized in 1996. Because B.t. toxin genes have proven efficacious in conferring Lepidopteran resistance in cotton, B.t. cotton is expected to reduce chemical insecticide use. Herbicide-resistant varieties for Buctril(R)*, Roundup(R), and several other herbicides are under development and are expected to reach the market by 1997 or 1998. Stress resistance and fiber improvements are the next targets for biotechnology. These events, although long overdue, mark a turning point in the cotton industry. Genetic engineering to confer useful agronomic and fiber traits is likely to lower the cost of production, improve yield and quality, and promote environmentally friendly farm practices. Additional progress in these areas is likely to be achieved in shorter periods of time than before, due to new developments in gene identification and transformation technologies. Several genes for stress resistance and fiber modifications are being tested in various laboratories. New genes for insect and herbicide resistance are being sought. A strategy to modify fiber using metabolic pathway engineering to produce aliphatic polyester compounds is under development. Particle bombardment technology has been developed to introduce and test genes in elite varieties of cotton, without the need for regeneration or other tissue culture practices and backcrossing. These developments will lead to improved agronomical and fiber traits in cotton and enable the industry to expand its market share.
引用
收藏
页码:185 / 208
页数:24
相关论文
共 50 条
  • [31] Soybean genetic resources and crop improvement
    Singh, RJ
    Hymowitz, T
    GENOME, 1999, 42 (04) : 605 - 616
  • [32] An Integrated Approach to Crop Genetic Improvement
    Martin A.J.Parry
    Malcolm J.Hawkesford
    JournalofIntegrativePlantBiology, 2012, 54 (04) : 250 - 259
  • [33] An Integrated Approach to Crop Genetic Improvement
    Parry, Martin A. J.
    Hawkesford, Malcolm J.
    JOURNAL OF INTEGRATIVE PLANT BIOLOGY, 2012, 54 (04) : 250 - 259
  • [34] Accessing genetic diversity for crop improvement
    Glaszmann, J. C.
    Kilian, B.
    Upadhyaya, H. D.
    Varshney, R. K.
    CURRENT OPINION IN PLANT BIOLOGY, 2010, 13 (02) : 167 - 173
  • [35] Challenges and Approaches to Crop Improvement Through C3-to-C4 Engineering
    Cui, Hongchang
    FRONTIERS IN PLANT SCIENCE, 2021, 12
  • [36] Food for thought: Improvement of food quality and composition through genetic engineering
    Kridl, JC
    Shewmaker, CK
    ENGINEERING PLANTS FOR COMMERCIAL PRODUCTS AND APPLICATIONS, 1996, 792 : 1 - 12
  • [37] Genetic engineering in IPM: Bt cotton
    Fitt, GP
    Wilson, LJ
    EMERGING TECHNOLOGIES FOR INTEGRATED PEST MANAGEMENT: CONCEPTS, RESEARCH, AND IMPLEMENTATION, 2000, : 108 - 125
  • [38] Abiotic stress and crop genetic engineering
    Angrish, R
    Datta, KS
    CURRENT SCIENCE, 2001, 80 (05): : 606 - 606
  • [39] Molecular engineering on quality improvement of cotton fiber
    Liu, JY
    Zhao, GR
    Li, J
    ACTA BOTANICA SINICA, 2000, 42 (10): : 991 - 995
  • [40] CRISPR-Cas9-based genetic engineering for crop improvement under drought stress
    Sami, Abdul
    Xue, Zhao
    Tazein, Saheera
    Arshad, Ayesha
    He Zhu, Zong
    Ping Chen, Ya
    Hong, Yue
    Tian Zhu, Xiao
    Jin Zhou, Ke
    BIOENGINEERED, 2021, 12 (01) : 5814 - 5829