Pollen-mediated flow of bar gene in transgenic herbicide-resistant turf grass Zoysia japonica

被引:0
|
作者
Hong-Gyu Kang
Ok-Chul Chung
Tae-Woong Bae
Hyeon-Jin Sun
In-Ja Song
Kee Woong Park
Pyung-Ok Lim
Jaechun Lee
Yong-Eok Lee
Pill-Soon Song
Hyo-Yeon Lee
机构
[1] Jeju National University,Subtropical Horticulture Research Institute
[2] Jeju National University,Department of Biotechnology
[3] Jeju National University,School of Medicine
[4] Jeju National University,Department of Science Education
[5] Chungnam National University,Department of Crop Science
[6] Dongguk University,Department of Biotechnology
[7] Korea Research Institute of Bioscience and Biotechnology,undefined
来源
Plant Biotechnology Reports | 2021年 / 15卷
关键词
Turfgrass; Herbicide-resistant; Transgenic zoysiagrass; Gene flow;
D O I
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中图分类号
学科分类号
摘要
Weed control can be most effectively achieved through the use of herbicide-resistance transgene. A preliminary study bar-transgenic Zoysia japonica posed no serious risk on the unintended escape of the transgene from its cultivation site. The present follow-up investigation of the dispersion of pollen and its short-distance escape outside of the bar-transgenic Zoysia japonica habitats were ascertained in terms of environmental factors affecting anthesis and pollen viability. In a 24-h day cycle, zoysiagrass pollen was released predominantly between 08:00 and 10:00, and the pollen was most viable during the same time interval. Optimal temperature and humidity for pollen viability was 15–20 °C and 80–90%, respectively. The pollen germinated in 120 min after anthesis, but under cloudy conditions germination time doubled. No differences in pollen viability/longevity between the transgenic and non-transgenic plants were observed. The pollen-mediated gene flow of transgenic Zoysia japonica to wild-type non-transgenic zoysiagrass species was monitored by measuring the cross-over rate of the bar gene in the context of three different models. At distances within 5 m, the rate of gene flow ranged from 3 to 5.7% according to the models used. The greater the distance from the transgenic plant site, the lower the gene flow rate. The furthest transgene detected was 38 m away and exhibited a 0.25% gene flow rate. The radial model yielded a 3.7% escape rate within a 3 m radius and was wind direction dependent. The distance- and direction-dependent gene flow events were influenced by wind direction and velocity during flowering season.
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页码:241 / 250
页数:9
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