排序方式： 共有168条查询结果，搜索用时 15 毫秒
161.
Michelle Grace Acoba Ebru S. Selen Alpergin Santosh Renuse Lucía Fernández-del-Río Ya-Wen Lu Oleh Khalimonchuk Catherine F. Clarke Akhilesh Pandey Michael J. Wolfgang Steven M. Claypool 《Cell reports》2021,34(11):108869
- Download : Download high-res image (225KB)
- Download : Download full-size image
162.
163.
164.
Nunu Huang Fanying Li Maolei Zhang Huangkai Zhou Zhipeng Chen Xiaoyan Ma Lixuan Yang Xujia Wu Jian Zhong Feizhe Xiao Xuesong Yang Kun Zhao Xixi Li Xin Xia Zexian Liu Song Gao Nu Zhang 《Cell metabolism》2021,33(1):128-144.e9
- Download : Download high-res image (304KB)
- Download : Download full-size image
165.
Jack R. T. Darby Alexandra Sorvina Christie A. Bader Mitchell C. Lock Jia Yin Soo Stacey L. Holman Mike Seed Tim Kuchel Douglas A. Brooks Sally E. Plush Janna L. Morrison 《Journal of biophotonics》2020,13(3)
The primary metabolic pathway required to produce ATP differs as a result of tissue type, developmental stage and substrate availability. We utilized molecular and histological techniques to define the metabolic status in foetal and adult, adipose and skeletal muscle tissues. Redox ratios of these tissues were also determined optically by two‐photon microscopy. Adult perirenal adipose tissue had a higher optical redox ratio than fetal perirenal adipose tissue, which aligned with glycolysis being used for ATP production; whereas adult skeletal muscle had a lower optical redox ratio than fetal skeletal muscle, which aligned with oxygen demanding oxidative phosphorylation activity being utilized for ATP production. We have compared traditional molecular and microscopy techniques of metabolic tissue characterization with optical redox ratios to provide a more comprehensive report on the dynamics of tissue metabolism. 相似文献
166.
Tao Wang Honghe Liu Kie Itoh Sungtaek Oh Liang Zhao Daisuke Murata Hiromi Sesaki Thomas Hartung Chan Hyun Na Jiou Wang 《Cell metabolism》2021,33(3):531-546.e9
- Download : Download high-res image (274KB)
- Download : Download full-size image
167.
The function of sleep remains one of biology's biggest mysteries. A solution to this problem is likely to come from a better understanding of sleep homeostasis, and in particular of the cellular and molecular processes that sense sleep need and settle sleep debt. Here, we highlight recent work in the fruit fly showing that changes in the mitochondrial redox state of sleep-promoting neurons lie at the heart of a homeostatic sleep-regulatory mechanism. Since the function of homeostatically controlled behaviours is often linked to the regulated variable itself, these findings corroborate with the hypothesis that sleep serves a metabolic function. 相似文献
168.
《Cell reports》2023,42(6):112616
- Download : Download high-res image (188KB)
- Download : Download full-size image