Aluminum-tolerant wheat plants often produce more root exudates such as malate and phosphate than aluminum-sensitive ones under aluminum (Al) stress, which provides environmental differences for microorganism growth in their rhizosphere soils. This study investigated whether soil bacterial community composition and abundance can be affected by wheat plants with different Al tolerance.
Two wheat varieties, Atlas 66 (Al-tolerant) and Scout 66 (Al-sensitive), were grown for 60 days in acidic soils amended with or without CaCO3. Plant growth, soil pH, exchangeable Al content, bacterial community composition and abundance were investigated.
Atlas 66 showed better growth and lower rhizosphere soil pH than Scout 66 irrespective of CaCO3 amendment or not, while there was no significant difference in the exchangeable Al content of rhizosphere soil between the two wheat lines. The dominant bacterial community composition and abundance in rhizosphere soils did not differ between Atlas 66 and Scout 66, although the bacterial abundance in rhizosphere soil of both wheat lines was significantly higher than that in bulk soil. Sphingobacteriales, Clostridiales, Burkholderiales and Acidobacteriales were the dominant bacteria phylotypes.
The difference in wheat Al tolerance does not induce the changes in the dominant bacterial community composition or abundance in the rhizosphere soils.
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We are grateful to Prof. Zhong Jun Jia and Cong Cong Shen for professional advice and technical support. This research was financially supported by the National Natural Science Foundation of China (No. 41025005, 31000933 and 40921061).
Responsible Editor: Hans Lambers.
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Wang, C., Zhao, X.Q., Chen, R.F. et al. Aluminum tolerance of wheat does not induce changes in dominant bacterial community composition or abundance in an acidic soil. Plant Soil 367, 275–284 (2013). https://doi.org/10.1007/s11104-012-1473-3
- Bacterial abundance
- Bacterial community composition
- Exchangeable Al
- Soil pH
- Wheat rhizosphere