Rice Science ›› 2019, Vol. 26 ›› Issue (3): 133-146.DOI: 10.1016/j.rsci.2019.04.001
• Review • Next Articles
Mohammed Sulaiman1,2, Abd Samad Azman1, Rahmat Zaidah1()
Received:
2018-05-15
Accepted:
2018-09-10
Online:
2019-05-28
Published:
2019-01-25
Mohammed Sulaiman, Abd Samad Azman, Rahmat Zaidah. Agrobacterium-Mediated Transformation of Rice: Constraints and Possible Solutions[J]. Rice Science, 2019, 26(3): 133-146.
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Cultivar | Sub-species | Medium a | Target explant | Improvement trait | Reference | |
---|---|---|---|---|---|---|
Pusa Basmati | indica | MS | Embryogenic callus | Development of fertile transgenic rice | ||
Sambha Mahsuri, Cotton Sannalu, Pusa Basmati, Taraori Basmati | indica | MS | Embryogenic callus | Abiotic stress (salt) resistant; SOD gene | ||
IR64 | indica | MS | Shoot apex | Antibiotic resistant plant | ||
Cempo Ireng | indica | 2N6, MS | Embryogenic callus | Early flowering development | ||
MR219 | indica | MS | Embryogenic callus | Overexpression of stress related gene, Auxin Binding Protein 57 (Abp 57) | ||
Sambha Mahsuri, Cotton Sannalu | indica | N6, MS | Embryogenic callus | Improvement of drought tolerance | ||
Tsukinohikari, Asanohikari, Koshihikari | japonica | N6 | Immature embryo | Hygromycin resistant plant | ||
Nipponbare | japonica | N6 | Embryogenic callus | Identification of HAP2 genes, 11 HAP3 genes and 7 HAP5 genes binding to the CCAAT-box | ||
Nipponbare | japonica | MS | Embryogenic callus | Resistance to drought, salinity and pathogens and increasing photosynthesis potential and tiller number | ||
Nipponbare | japonica | YN | Embryo | Heat tolerance | ||
Dongjin | japonica | YN | Embryo | Increase tolerance to cold stress, OsCYP19-4 gene | ||
Dongjin | japonica | 2N6 | Embryogenic callus | Promote flowering in rice at short-day condition | ||
Taipei 309 | japonica | MS, N6 | Embryogenic callus | Iron vitamin improvement | ||
Taipei 309 | japonica | MS | Embryogenic callus | Early development of rice inflorescence | ||
Zhonghua 11 | japonica | N6 | Immature embryo | Floral activator OsELF3 controlling heading date at long-day condition | ||
Zhonghua 11 | japonica | MS | Embryogenic callus | Increase plant height, grain yield and grain weight |
Table 1 Rice genotypes, medium for explant culture and regeneration, and their improvements via Agrobacterium-mediated transformation.
Cultivar | Sub-species | Medium a | Target explant | Improvement trait | Reference | |
---|---|---|---|---|---|---|
Pusa Basmati | indica | MS | Embryogenic callus | Development of fertile transgenic rice | ||
Sambha Mahsuri, Cotton Sannalu, Pusa Basmati, Taraori Basmati | indica | MS | Embryogenic callus | Abiotic stress (salt) resistant; SOD gene | ||
IR64 | indica | MS | Shoot apex | Antibiotic resistant plant | ||
Cempo Ireng | indica | 2N6, MS | Embryogenic callus | Early flowering development | ||
MR219 | indica | MS | Embryogenic callus | Overexpression of stress related gene, Auxin Binding Protein 57 (Abp 57) | ||
Sambha Mahsuri, Cotton Sannalu | indica | N6, MS | Embryogenic callus | Improvement of drought tolerance | ||
Tsukinohikari, Asanohikari, Koshihikari | japonica | N6 | Immature embryo | Hygromycin resistant plant | ||
Nipponbare | japonica | N6 | Embryogenic callus | Identification of HAP2 genes, 11 HAP3 genes and 7 HAP5 genes binding to the CCAAT-box | ||
Nipponbare | japonica | MS | Embryogenic callus | Resistance to drought, salinity and pathogens and increasing photosynthesis potential and tiller number | ||
Nipponbare | japonica | YN | Embryo | Heat tolerance | ||
Dongjin | japonica | YN | Embryo | Increase tolerance to cold stress, OsCYP19-4 gene | ||
Dongjin | japonica | 2N6 | Embryogenic callus | Promote flowering in rice at short-day condition | ||
Taipei 309 | japonica | MS, N6 | Embryogenic callus | Iron vitamin improvement | ||
Taipei 309 | japonica | MS | Embryogenic callus | Early development of rice inflorescence | ||
Zhonghua 11 | japonica | N6 | Immature embryo | Floral activator OsELF3 controlling heading date at long-day condition | ||
Zhonghua 11 | japonica | MS | Embryogenic callus | Increase plant height, grain yield and grain weight |
Fig. 1. A complete schematic representation of Agrobacterium-mediated transformation and recovery of transgenic rice adapted from Shrawat and Lörz (2006).
Variety | Sub-species | Agrobacterium strain | Reporter gene | Selectable marker | Transformation efficiency (%) | Reference |
---|---|---|---|---|---|---|
Kasalath | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 66.9 | |
CaMV35S:sgfp | ||||||
CaMV35S:luc | ||||||
Pusa Basmati | indica | EHA105 | CaMV35S:gus | CaMV35S:nptII | 26 | |
MR219 | indica | LBA4404 | CaMV35S:gus | CaMV35S:hpt | ± 35 | |
CaMV35S:nptII | ||||||
Handao 297 | japonica | ALG1 | CaMV35S:gus | CaMV35S:hpt | 20 | |
Pusa Basmati, Taraori Basmati | indica | LBA4404 | CaMV35S:gus | CaMV35S:hpt | 80 | |
IR64, CSR10, PB1, Swarna | indica | EHA105, LBA4404 | CaMV35S:gus | CaMV35S:hpt | 45 | |
BR29, IR68899B | indica | EHA105 | rd29 | rd29:hpt | 12 | |
Zhenshan 97 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 85.2 | |
Nipponbare | japonica | EHA105 | CaMV35S:rUbi | CaMV35S:hpt | 1.8 | |
IR64 | indica | LBA4404 | CaMV35S:SUV | CaMV35S:hpt | 12 | |
BPT5204 | indica | LBA4404 | CaMV35S:gus | CaMV35S:hpt | 16.7 | |
CaMV35S:nptII | ||||||
IR36 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 99.5 | |
Zhonghua 11 | japonica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 66.7 | |
Samba Mahsuri (BPT-5204) | indica | LBA4404 | CaMV35S:rd29A | CaMV35S:hpt | ± 30 | |
MR219 | indica | EHA101, EHA105, LBA4404 | mgfp:gus | mGFP:hptII | 5.8 | |
JK1044R, JKRH401 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 30 | |
Nipponbare | japonica | EHA105 | Ubi promoter | Ubi:hpt | 41.2 | |
Zhonghua 11 | japonica | EHA105 | CaMV35S:gus | CaMV35S:hpt | ± 67.4 | |
SR1, Jhelum, K332 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 9.3 | |
CaMV35S:nptII | ||||||
MR219 | indica | LBA4404 | CaMV35S | CaMV35S:hptII | 26.4 | |
Sambha Mahsuri, Cotton Sannula | indica | LBA4404 | CaMV35S:gus | CaMV35S:nptII | ± 50 |
Table 2 Transgenic rice generated via Agrobacterium-mediated transformation system (2010-2017), along with the bacterium strain, the vector’s promoter and selectable marker used.
Variety | Sub-species | Agrobacterium strain | Reporter gene | Selectable marker | Transformation efficiency (%) | Reference |
---|---|---|---|---|---|---|
Kasalath | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 66.9 | |
CaMV35S:sgfp | ||||||
CaMV35S:luc | ||||||
Pusa Basmati | indica | EHA105 | CaMV35S:gus | CaMV35S:nptII | 26 | |
MR219 | indica | LBA4404 | CaMV35S:gus | CaMV35S:hpt | ± 35 | |
CaMV35S:nptII | ||||||
Handao 297 | japonica | ALG1 | CaMV35S:gus | CaMV35S:hpt | 20 | |
Pusa Basmati, Taraori Basmati | indica | LBA4404 | CaMV35S:gus | CaMV35S:hpt | 80 | |
IR64, CSR10, PB1, Swarna | indica | EHA105, LBA4404 | CaMV35S:gus | CaMV35S:hpt | 45 | |
BR29, IR68899B | indica | EHA105 | rd29 | rd29:hpt | 12 | |
Zhenshan 97 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 85.2 | |
Nipponbare | japonica | EHA105 | CaMV35S:rUbi | CaMV35S:hpt | 1.8 | |
IR64 | indica | LBA4404 | CaMV35S:SUV | CaMV35S:hpt | 12 | |
BPT5204 | indica | LBA4404 | CaMV35S:gus | CaMV35S:hpt | 16.7 | |
CaMV35S:nptII | ||||||
IR36 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 99.5 | |
Zhonghua 11 | japonica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 66.7 | |
Samba Mahsuri (BPT-5204) | indica | LBA4404 | CaMV35S:rd29A | CaMV35S:hpt | ± 30 | |
MR219 | indica | EHA101, EHA105, LBA4404 | mgfp:gus | mGFP:hptII | 5.8 | |
JK1044R, JKRH401 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 30 | |
Nipponbare | japonica | EHA105 | Ubi promoter | Ubi:hpt | 41.2 | |
Zhonghua 11 | japonica | EHA105 | CaMV35S:gus | CaMV35S:hpt | ± 67.4 | |
SR1, Jhelum, K332 | indica | EHA105 | CaMV35S:gus | CaMV35S:hpt | 9.3 | |
CaMV35S:nptII | ||||||
MR219 | indica | LBA4404 | CaMV35S | CaMV35S:hptII | 26.4 | |
Sambha Mahsuri, Cotton Sannula | indica | LBA4404 | CaMV35S:gus | CaMV35S:nptII | ± 50 |
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