Towards personalized agriculture: what chemical genomics can bring to plant biotechnology

被引:6
|
作者
Stokes, Michael E. [1 ]
McCourt, Peter [1 ]
机构
[1] Univ Toronto, Dept Cell & Syst Biol, Toronto, ON M5S 3B2, Canada
来源
关键词
herbicides; chemical genetics; agricultural biotechnology; growth regulators; chemical screening; genomics; SYSTEMIC ACQUIRED-RESISTANCE; ACETYL-L-SERINE; DRUG DISCOVERY; GENE-EXPRESSION; CYSTIC-FIBROSIS; GOLDEN RICE; VITAMIN-A; SELECTIVE HERBICIDE; YELLOW STARTHISTLE; DISEASE RESISTANCE;
D O I
10.3389/fpls.2014.00344
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
In contrast to the dominant drug paradigm in which compounds were developed to "fit all," new models focused around personalized medicine are appearing in which treatments are developed and customized for individual patients. The agricultural biotechnology industry (Ag-biotech) should also think about these new personalized models. For example, most common herbicides are generic in action, which led to the development of genetically modified crops to add specificity. The ease and accessibility of modern genomic analysis, when wedded to accessible large chemical space, should facilitate the discovery of chemicals that are more selective in their utility. Is it possible to develop species selective herbicides and growth regulators? More generally put, is plant research at a stage where chemicals can be developed that streamline plant development and growth to various environments? We believe the advent of chemical genomics now opens up these and other opportunities to "personalize" agriculture. Furthermore, chemical genomics does not necessarily require genetically tractable plant models, which in principle should allow quick translation to practical applications. For this to happen, however, will require collaboration between the Ag-biotech industry and academic labs for early stage research and development, a situation that has proven very fruitful for Big Pharma.
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页数:8
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  • [1] What Engineers Can Bring to Biotechnology
    Vidyasagar, Mathukumalli
    [J]. GENETIC ENGINEERING & BIOTECHNOLOGY NEWS, 2012, 32 (16): : 6 - +
  • [2] What can plant biotechnology do for the environment?
    Yamaguchi, I
    Hamamoto, H
    Kimura, M
    Motoyama, T
    [J]. NIPPON NOGEIKAGAKU KAISHI-JOURNAL OF THE JAPAN SOCIETY FOR BIOSCIENCE BIOTECHNOLOGY AND AGROCHEMISTRY, 2002, 76 (01): : 29 - 31
  • [3] Trichoderma - genomes and genomics as treasure troves for research towards biology, biotechnology and agriculture
    Schalamun, Miriam
    Schmoll, Monika
    [J]. FRONTIERS IN FUNGAL BIOLOGY, 2022, 3
  • [5] Commentary on Culverhouse et al. (2014): How genomics can bring us towards health equity
    Ewing, Sarah W. Feldstein
    Karoly, Hollis
    Hutchison, Kent E.
    [J]. ADDICTION, 2014, 109 (05) : 823 - 824
  • [6] Need of cost-effective vaccines in developing countries: What plant biotechnology can offer?
    Waheed, Mohammad Tahir
    Sameeullah, Muhammad
    Khan, Faheem Ahmed
    Syed, Tahira
    Ilahi, Manzoor
    Gottschamel, Johanna
    Loessl, Andreas Guenter
    [J]. SPRINGERPLUS, 2016, 5 : 1 - 9
  • [7] Plant-based products, pesticides and chemical contaminants: What role of organic agriculture?
    Baudry, Julia
    Rebouillat, Pauline
    Kesse-Guyot, Emmanuelle
    [J]. CAHIERS DE NUTRITION ET DE DIETETIQUE, 2021, 56 (06): : 368 - 376
  • [8] What kind of goods are plant genetic resources for food and agriculture? Towards the identification and development of a new global commons
    Halewood, Michael
    [J]. INTERNATIONAL JOURNAL OF THE COMMONS, 2013, 7 (02): : 278 - 312
  • [9] Genes, genomes, genomics. What can plant biologists expect from the 1998 National Science Foundation Plant Genome Research Program?
    Walbot, V
    [J]. PLANT PHYSIOLOGY, 1999, 119 (04) : 1151 - 1155
  • [10] Towards a Theoretical Construct for Modelling Smallholders' Forestland-Use Decisions: What Can We Learn from Agriculture and Forest Economics?
    Baker, Kahlil
    Bull, Gary Q.
    Baylis, Kathy
    Barichello, Richard
    [J]. FORESTS, 2017, 8 (09):