Zobrazeno 1 - 10
of 25
pro vyhledávání: '"Jing-Chi Lo"'
Autor:
Boon Huat Cheah, Wen-Po Chuang, Jing-Chi Lo, Yi Li, Chih-Yun Cheng, Zhi-Wei Yang, Chung-Ta Liao, Ya-Fen Lin
Publikováno v:
Plants, Vol 11, Iss 9, p 1104 (2022)
Metals that accumulate in plants may confer protection against herbivorous insects, a phenomenon known as elemental defense. However, this strategy has not been widely explored in important crops such as rice (Oryza sativa L.), where it could help to
Externí odkaz:
https://doaj.org/article/8a027b898d194a54a80de0d511c3125d
Autor:
Jing-Chi Lo, 羅靜琪
104
To acquire appropriate Fe, flowering plants have developed two unique strategies, the reduction-based Strategy I of non-graminaceous plants for Fe2+ and the chelation-based Strategy II of graminaceous plants for Fe3+. However, the mechanism
To acquire appropriate Fe, flowering plants have developed two unique strategies, the reduction-based Strategy I of non-graminaceous plants for Fe2+ and the chelation-based Strategy II of graminaceous plants for Fe3+. However, the mechanism
Externí odkaz:
http://ndltd.ncl.edu.tw/handle/44113349765168245550
Publikováno v:
New Phytologist. 230:244-258
Iron (Fe) homeostasis in plants is controlled by both transcription factors (TFs) and chromatin remodeling through histone modification. To date, few studies have reported the existence of histone modification in maintaining the Fe-deficiency respons
Autor:
Boon Huat, Cheah, Pei-Chu, Liao, Jing-Chi, Lo, Yu-Tsen, Wang, I-Chien, Tang, Kuo-Chen, Yeh, Dar-Yuan, Lee, Ya-Fen, Lin
Publikováno v:
Journal of Hazardous Materials. 429:128265
Indium is widely used in the technology industry and is an emerging form of environmental pollution. The presence of indium in soil and groundwater inhibits shoot and root growth in crops, thus reducing yields. However, the underlying mechanisms are
Zn deficiency is the most common micronutrient deficit in rice but also a widespread industrial pollutant. It is unclear how rice responds to Zn depletion or excess, and which signaling molecules link the affected physiological processes. We therefor
Externí odkaz:
https://explore.openaire.eu/search/publication?articleId=doi_dedup___::0631af96485059e3eef206f893016e10
https://doi.org/10.22541/au.159493231.17782108
https://doi.org/10.22541/au.159493231.17782108
Publikováno v:
The Plant Journal. 94:157-168
Iron (Fe) is essential for plant growth and development. Knowledge of Fe signaling, from the beginning of perception to activation of the uptake process, is critical for crop improvement. Here, by using chemical screening, we identified a small molec
Autor:
Lung-Jiun Shin, Munkhtsetseg Tsednee, Chyi-Chuann Chen, Jing-Chi Lo, Jing-Fen Wu, Yong-Yi Chen, Ying Wang, Varanavasiappan Shanmugam, Kuo-Chen Yeh, Shu-Hsing Wu
Publikováno v:
Plant Physiology. 161:1409-1420
The homeostasis of iron (Fe) in plants is strictly regulated to maintain an optimal level for plant growth and development but not cause oxidative stress. About 30% of arable land is considered Fe deficient because of calcareous soil that renders Fe
Publikováno v:
Plant Physiology. 159:1099-1110
Copper (Cu) is essential for plant growth but toxic in excess. Specific molecular mechanisms maintain Cu homeostasis to facilitate its use and avoid the toxicity. Cu chaperones, proteins containing a Cu-binding domain(s), are thought to assist Cu int
Autor:
Chia Lin Wu, Shan-Li Wang, Varanavasiappan Shanmugam, Chong Cheong Lai, Erin L. Connolly, Jing Chi Lo, Jing Ling Huang, Kuo-Chen Yeh
Publikováno v:
New Phytologist. 190:125-137
To avoid zinc (Zn) toxicity, plants have developed a Zn homeostasis mechanism to cope with Zn excess in the surrounding soil. In this report, we uncovered the difference of a cross-homeostasis system between iron (Fe) and Zn in dealing with Zn excess
Autor:
Kimitsune Ishizaki, Takayuki Kohchi, Kuo-Chen Yeh, Munkhtsetseg Tsednee, Jing-Chi Lo, Ying-Chu Lo, Jer-Ming Hu, Shun-Chung Yang, Der-Chuen Lee
Publikováno v:
The New phytologist. 211(2)
To acquire appropriate iron (Fe), vascular plants have developed two unique strategies, the reduction-based strategy I of nongraminaceous plants for Fe(2+) and the chelation-based strategy II of graminaceous plants for Fe(3+) . However, the mechanism