The stem cell niche transcription factor ETHYLENE RESPONSE FACTOR 115 participates in aluminum‐induced terminal differentiation in Arabidopsis roots

Author:

Larsen Paul B.1ORCID,He Shiyang1ORCID,Meyer Taylor J.1,Szurman‐Zubrzycka Miriam2ORCID,Alfs Carolin3,Kwasniewska Jolanta2,Pervis Alexandra1,Gajecka Monika2ORCID,Veerabahu Aishwarya1,Beaulieu Taylor R.1,Bolaris Stephen C.1,Eekhout Thomas45,De Veylder Lieven45,Abel Steffen3,Szarejko Iwona2,Murn Jernej1

Affiliation:

1. Department of Biochemistry University of California‐Riverside Riverside California USA

2. Institute of Biology, Biotechnology and Environmental Protection, Faculty of Natural Sciences University of Silesia in Katowice Katowice Poland

3. Leibniz Institute for Plant Biochemistry Department of Molecular Signal Processing Halle Germany

4. Department of Plant Biotechnology and Bioinformatics Ghent University Ghent Belgium

5. Center for Plant Systems Biology, VIB Ghent Belgium

Abstract

AbstractAluminum‐dependent stoppage of root growth requires the DNA damage response (DDR) pathway including the p53‐like transcription factor SUPPRESSOR OF GAMMA RADIATION 1 (SOG1), which promotes terminal differentiation of the root tip in response to Al dependent cell death. Transcriptomic analyses identified Al‐induced SOG1‐regulated targets as candidate mediators of this growth arrest. Analysis of these factors either as loss‐of‐function mutants or by overexpression in the als3‐1 background shows ERF115, which is a key transcription factor that in other scenarios is rate‐limiting for damaged stem cell replenishment, instead participates in transition from an actively growing root to one that has terminally differentiated in response to Al toxicity. This is supported by a loss‐of‐function erf115 mutant raising the threshold of Al required to promote terminal differentiation of Al hypersensitive als3‐1. Consistent with its key role in stoppage of root growth, a putative ERF115 barley ortholog is also upregulated following Al exposure, suggesting a conserved role for this ATR‐dependent pathway in Al response. In contrast to other DNA damage agents, these results show that ERF115 and likely related family members are important determinants of terminal differentiation of the root tip following Al exposure and central outputs of the SOG1‐mediated pathway in Al response.

Funder

National Science Foundation

Publisher

Wiley

Reference47 articles.

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4. Rocks in the auxin stream: wound‐induced auxin accumulation and ERF115 expression synergistically drive stem cell regeneration;Canher B.;Proceedings of the National Academy of Sciences,2020

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