Project description:The goal of this study is to clarify the function of ARF7 in the pathway of auxin inducing the process responding to gravity in hypocotyl. We isolated total RNA from the hypocotyls of 4-day-old Col-0 and arf7 seedlings that were grown in the darkness. New genes act downstream of ARF7 after responding to auxin treatment, responding to gravity, are discovered.
Project description:The goal of this study is to clarify the function of ARF7 in the pathway of auxin inducing lateral root development. We isolated total RNA from the roots of 8-day-old Col-0 and arf7 seedlings. New genes act downstream of ARF7 after responding to auxin treatment, during the lateral root formation, are discovered.
Project description:Our objective is to study root development under aluminum stress. We isolated total RNA from the roots of 7-day-old Col-0 seedlings. New genes after responding to aluminum treatment, during the root development, are discovered.
Project description:Our objective is to study root stem cell niche. We isolated total RNA from the roots tips of 5-day-old Col-0,arf2-7 and stop1 seedlings. New genes after responding to NAA treatment, during the root development, are discovered.
Project description:Mitochondrial stress stimuli such as AA caused a transient suppression of auxin signaling and conversely, auxin treatment represses a part of the response to AA treatment. Expression data of Col:LUC Arabidopsis treated with antimycin A (AA) in the presence or absence of a synthetic auxin analogue
Project description:The goal of this study is to clarify the function of ZmTE1 in auxin signal pathway and regulting cell cycle related genes. We isolated total RNA from the three nodes together with internodes of 28-day-old B73 and ZmTE1 seedlings. New genes act downstream of ZmTE1 at the nodes, are discovered.
Project description:Growth of a complex multicellular organism requires coordinated changes in diverse cell types. These cellular changes generate organs of the correct size, shape and functionality. During plant development, the growth hormone auxin induces stem elongation; however, which cell types of the stem perceive the auxin signal and contribute to organ growth is poorly understood. Here, we show that auxin signalling is required in many cell types for correct hypocotyl stem growth, with a key role for the epidermis. Combining genetic manipulations in Arabidopsis thaliana with transcriptional profiling of the hypocotyl epidermis from Brassica rapa, we show that auxin functions in the epidermis in part by inducing activity of the locally-acting, growth-promoting brassinosteroid pathway. Our findings clarify cell-specific auxin function in the hypocotyl, and highlight the complexity of cell-type interactions within a growing organ.