Bulletin of Botanical Research ›› 2026, Vol. 46 ›› Issue (2): 259-269.doi: 10.7525/j.issn.1673-5102.2026.02.006
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Haiyan CAO1, Kaiwen TIAN2, Xiaoyu JIA1, Xuefeng HAO1, Zhuping JIN2(
)
Received:2026-02-18
Online:2026-03-20
Published:2026-04-02
Contact:
Zhuping JIN
E-mail:jinzhuping@sxu.edu.cn
CLC Number:
Haiyan CAO, Kaiwen TIAN, Xiaoyu JIA, Xuefeng HAO, Zhuping JIN. The Role of AtMST1 in Regulating Salt Tolerance via H2S Synthesis in Arabidopsis Revealed by CRISPR/Cas9 Knockout[J]. Bulletin of Botanical Research, 2026, 46(2): 259-269.
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URL: https://bbr.nefu.edu.cn/EN/10.7525/j.issn.1673-5102.2026.02.006
Fig.1
Schematic diagram of pKI1.1 R vector and target sites of AtMST1 geneA. Structure of pKI1.1 R vector; LB. T-DNA left border; RB. T-DNA right border; HygR. Hygromycin resistance gene; U6.26 promoter; U6.26 promoter driving sgRNA expression. B. Gene structure of AtMST1 and sgRNA target sites; gray boxes. 5' and 3'-untranslated regions; black boxes. Exons; black lines. Introns; lowercase letters. Locations of gRNA target sequences.
Table 1
All primers appearing in the text
引物名称 Primer name | 引物编号 Primer ID | 引物序列5′→3′ Primer sequence | 用途 Purpose |
|---|---|---|---|
| AtMST1-gRNA1-F1 | pp2043 | ATTGGAAGAGAAGGAGTAATCAGT | gRNA1靶点扩增 |
| AtMST1-gRNA1-R1 | pp2044 | AAACACTGATTACTCCTTCTCTTC | |
| AtMST1-gRNA2-F2 | pp2045 | ATTGGTTACTCCACATCATCCGTA | gRNA2靶点扩增 |
| AtMST1-gRNA2-R2 | pp2046 | AAACTACGGATGATGTGGAGTAAC | |
| AtMST1-gRNA3-F3 | pp2047 | ATTGAAATCCGATCCAAGAATATC | gRNA3靶点扩增 |
| AtMST1-gRNA3-R3 | pp2048 | AAACGATATTCTTGGATCGGATTT | |
| AtMST1-gRNA4-F4 | pp2049 | ATTGGCCACATATGTTGCCCACTG | gRNA4靶点扩增 |
| AtMST1-gRNA4-R4 | pp2050 | AAACCAGTGGGCAACATATGTGGC | |
| AtMST1-F | pp2247 | ATGGCCTCGACCCTTTTCTC | AtMST1阳性植株编辑位点鉴定 |
| AtMST1-R | pp2250 | GACCTCCATCGAGCACCCA | |
| CAS9-F | pp2060 | GCCTGTTCGGAAACCTGAT | Cas9鉴定 |
| CAS9-R | pp2061 | GTAGCCGTTCTTGCTCTGG | |
| pKI1.1R-F | pp1729 | TGGGAAAGAACAATAGTAT | 载体引物,阳性克隆的鉴定 |
Fig.4
Molecular identification of AtMST1-CRISPR gene-edited plantsM. 2 000 DNA marker; CK. Negative control; WT. Wild type; numbers. Representative independent transgenic lines; CR. CRISPR; CR1,CR2,CR3,and CR4. Four independent gene-editing vectors. Upper panel(A-D). PCR products amplified with primers CAS9-F/CAS9-R, showing the presence of the Cas9 gene; lower panel(E-H). PCR products amplified with primers pKI1.1R-F/AtMST1-R,confirming the insertion of the target gene fragment.
Fig.6
The H2S production rate and content in atmst1 mutantsA. Representative images of H2S detection in roots using the 7-Azido-4-methylcoumarin(AzMc) fluorescent probe;B.Quantitative analysis of fluorescence intensity shown in(A) using Image J software;C. H2S content in wild-type(WT) and atmst1 mutant plants measured by the methylene blue assay;D.Endogenous H2S production rate in WT and atmst1 mutants determined by the methylene blue method. Data were presented as mean±SD. Asterisks indicated significant differences(**.P<0.01) as determined by Student’s t-test.
Fig.7
Loss of AtMST1 function led to salt sensitivity and increased ROS accumulation in Arabidopsis seedlingsA. Phenotypes of WT and atmst1 mutant plants grown under control(CK) or 100 mmol?L-1 NaCl conditions for 14 days; B. Quantitative analysis of root length for seedlings shown in(A); C. Representative fluorescence microscope images of seedling root tips stained with the ROS fluorescent probe DCFH-DA; D. Quantitative analysis of relative fluorescence intensity of ROS in root tips of WT and atmst1 seedlings under salt stress. Data were mean±SD, different lowercase letters indicated significant differences(P<0.05).
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