Advances in study of circadian clock mechanism
Huang Yao
Abstract
Huang Yao
Abstract
Circadian rhythms, generated by cell autonomous biological clocks internally, is one ofthe focuses in life science in recent years. Some clock-related genes in several model organisms,such as cyanobacteria, Neurospora, Am4idopsis, Drosophila and mousem, are cloned and identifiedin succession. This is the basis of understanding the molecular circadian clock mechanism. Thegeneral meChanism in different organisms is probably that oscillator proteins use distinct modesof regulation in different cell types to achieve the negative feedback on their gene transcription.Cryptochrome may be the clock photoreceptor shared by plants and animals.
A significance statement is not available in the OpenAlex record.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
Circadian rhythms, generated by cell autonomous biological clocks internally, is one ofthe focuses in life science in recent years. Some clock-related genes in several model organisms,such as cyanobacteria, Neurospora, Am4idopsis, Drosophila and mousem, are cloned and identifiedin succession. This is the basis of understanding the molecular circadian clock mechanism. Thegeneral meChanism in different organisms is probably that oscillator proteins use distinct modesof regulation in different cell types to achieve the negative feedback on their gene transcription.Cryptochrome may be the clock photoreceptor shared by plants and animals.
Key concepts: Cryptochrome, Circadian clock, Neurospora, Biology, Oscillating gene, Bacterial circadian rhythms, Circadian rhythm, Mechanism (biology)