Forward and Reverse Genetics Approaches to Dissect Protein Farnesylation-Mediated Heat Stress Responses in Plants(2/3)

Wu, Shaw-Jye (PI)

Department of Life Sciences

Status	Finished
Effective start/end date	1/08/20 → 31/07/21

UN Sustainable Development Goals

In 2015, UN member states agreed to 17 global Sustainable Development Goals (SDGs) to end poverty, protect the planet and ensure prosperity for all. This project contributes towards the following SDG(s):

Keywords

Arabidopsis
HIT5
protein farnesylation
protein farnesyl transferase
posttranslational modification
J protein

1 Article

HSP70-4 and farnesylated AtJ3 constitute a specific HSP70/HSP40-based chaperone machinery essential for prolonged heat stress tolerance in Arabidopsis
Wang, T. Y., Wu, J. R., Duong, N. K. T., Lu, C. A., Yeh, C. H. & Wu, S. J., Jun 2021, In: Journal of Plant Physiology. 261, 153430.
Research output: Contribution to journal › Article › peer-review
21 Scopus citations

Forward and Reverse Genetics Approaches to Dissect Protein Farnesylation-Mediated Heat Stress Responses in Plants(2/3)

Project Details

UN Sustainable Development Goals

Keywords

Fingerprint

HSP70-4 and farnesylated AtJ3 constitute a specific HSP70/HSP40-based chaperone machinery essential for prolonged heat stress tolerance in Arabidopsis

Forward and Reverse Genetics Approaches to Dissect Protein Farnesylation-Mediated Heat Stress Responses in Plants(2/3)

Project Details

UN Sustainable Development Goals

Keywords

Fingerprint

Research output

HSP70-4 and farnesylated AtJ3 constitute a specific HSP70/HSP40-based chaperone machinery essential for prolonged heat stress tolerance in Arabidopsis